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qsc_code_frac_chars_whitespace_quality_signal
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qsc_code_size_file_byte_quality_signal
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qsc_code_num_lines_quality_signal
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qsc_code_num_chars_line_max_quality_signal
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qsc_code_num_chars_line_mean_quality_signal
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qsc_code_frac_chars_alphabet_quality_signal
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qsc_code_frac_chars_comments_quality_signal
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qsc_code_cate_xml_start_quality_signal
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qsc_code_frac_lines_dupe_lines_quality_signal
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qsc_code_frac_lines_long_string_quality_signal
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56eb1c7306fe729c0ed76152de5031669b58ac0e
230
py
Python
mmseg/models/segmentors/__init__.py
JZTgentle/-mm-salient-detection
3e9550529620d3e4f86824152ec9d1a2f1d668e6
[ "Apache-2.0" ]
2
2021-01-22T10:10:53.000Z
2021-03-22T12:40:27.000Z
mmseg/models/segmentors/__init__.py
JZTgentle/mm-salient-detection
3e9550529620d3e4f86824152ec9d1a2f1d668e6
[ "Apache-2.0" ]
null
null
null
mmseg/models/segmentors/__init__.py
JZTgentle/mm-salient-detection
3e9550529620d3e4f86824152ec9d1a2f1d668e6
[ "Apache-2.0" ]
null
null
null
from .cascade_encoder_decoder import CascadeEncoderDecoder from .encoder_decoder import EncoderDecoder from .sod_encoder_decoder import SODEncoderDecoder __all__ = ['EncoderDecoder', 'CascadeEncoderDecoder', 'SODEncoderDecoder']
38.333333
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710e5d85af6a2a2691cdff1ba558b988ded9adb8
28,600
py
Python
modules/FASTX_toolkit.py
tyrmi/STAPLER
fd83eee4be0bb78c67a111fd1c1c1dff4c16aefe
[ "BSD-3-Clause" ]
4
2017-07-17T07:45:39.000Z
2021-01-12T00:33:10.000Z
modules/FASTX_toolkit.py
tyrmi/STAPLER
fd83eee4be0bb78c67a111fd1c1c1dff4c16aefe
[ "BSD-3-Clause" ]
null
null
null
modules/FASTX_toolkit.py
tyrmi/STAPLER
fd83eee4be0bb78c67a111fd1c1c1dff4c16aefe
[ "BSD-3-Clause" ]
null
null
null
import os import directory from STAPLERerror import STAPLERerror from STAPLERerror import VirtualIOError from GenericBase import GenericBase import utils class fastx_toolkit_generic_compressable(GenericBase): """Generic class with method for parsing fastx toolkit IO parameters. Only single type of output file is expected (but can be uncompressed or compressed if -z parameter is present). Attributes: name: Name of the function. input_type: Input types accepted by this application. _output_type: List of output types produced by the application. mandatory_args: Args the user be provided in in_cmd when initializing. optional_args: Args that may be part of the command line. in_cmd: Command entered by user. parsed_cmd: Final output command as option:value dict. id: Bare name of input file (without the possible ending) file_names: Names of output files Methods: _cmd_parse: Turns a command line into argument-value pairs. _validate: Classmethod for validating command lines. get_cmd: Method for getting the final cmd line string for output. _set_IO: Determines the output file name and type. _parse_id: Returns the bare input file name """ def _select_IO(self, out_cmd, in_dir, out_dir): """Infers the input and output file paths. This method must keep the directory objects up to date of the file edits! Parameters: in_cmd: A dict containing the command line. in_dir: Input directory (instance of filetypes.Directory). out_dir: Output directory (instance of filetypes.Directory). Returns: out_cmd: Dict containing the output commands command_identifier: Input file name based identifier for the current command Raises: VirtualIOError: No valid input file can be found. """ IO_files = {} file_names = set() for fl in in_dir.files: if self.name not in fl.users: if utils.splitext(fl.name)[-1] in self.input_types: IO_files['-i'] = os.path.join(in_dir.path, fl.name) command_ids = [utils.infer_path_id(IO_files['-i'])] in_dir.use_file(fl.name, self.name) assert len(self.output_types) < 2, 'Several output ' \ 'types, override ' \ 'this method!' # If -z parameter is present in the input, output file will # be compressed if '-z' in out_cmd: output_name = utils.splitext(fl.name)[0] + \ self.output_types[0] + '.gz' else: output_name = utils.splitext(fl.name)[0] + \ self.output_types[0] output_path = os.path.join(out_dir.path, output_name) IO_files['-o'] = output_path file_names.add(output_name) out_dir.add_file(output_name) break if not IO_files: raise VirtualIOError('No more unused input files') out_cmd.update(IO_files) return out_cmd, command_ids class fastx_toolkit_generic_compressable_fastx(GenericBase): """Generic class with method for parsing fastx toolkit IO parameters. Similar to fastx_toolkit_generic_compressable, but fasta or fastq output is expected (either can be compressed). Attributes: name: Name of the function. input_type: Input types accepted by this application. _output_type: List of output types produced by the application. mandatory_args: Args the user be provided in in_cmd when initializing. optional_args: Args that may be part of the command line. in_cmd: Command entered by user. parsed_cmd: Final output command as option:value dict. id: Bare name of input file (without the possible ending) file_names: Names of output files Methods: _cmd_parse: Turns a command line into argument-value pairs. _validate: Classmethod for validating command lines. get_cmd: Method for getting the final cmd line string for output. _set_IO: Determines the output file name and type. _parse_id: Returns the bare input file name """ def _select_IO(self, out_cmd, in_dir, out_dir): """Infers the input and output file paths. This method must keep the directory objects up to date of the file edits! Parameters: in_cmd: A dict containing the command line. in_dir: Input directory (instance of filetypes.Directory). out_dir: Output directory (instance of filetypes.Directory). Returns: out_cmd: Dict containing the output commands command_identifier: Input file name based identifier for the current command Raises: VirtualIOError: No valid input file can be found. """ IO_files = {} file_names = set() for fl in in_dir.files: if self.name not in fl.users: if utils.splitext(fl.name)[-1] in self.input_types: IO_files['-i'] = os.path.join(in_dir.path, fl.name) command_ids = [utils.infer_path_id(IO_files['-i'])] in_dir.use_file(fl.name, self.name) # Output filename extension is the same as input filename # extension output_file_extension = utils.splitext(IO_files['-i']) # If -z parameter is present in the input, output file will # be compressed if '-z' in out_cmd: output_name = utils.splitext(fl.name)[0] + \ output_file_extension + '.gz' else: output_name = utils.splitext(fl.name)[0] + \ output_file_extension output_path = os.path.join(out_dir.path, output_name) IO_files['-o'] = output_path file_names.add(output_name) out_dir.add_file(output_name) break if not IO_files: raise VirtualIOError('No more unused input files') out_cmd.update(IO_files) return out_cmd, command_ids class fasta_formatter(GenericBase): """Class for using FASTX-toolkit command fasta_formatter. Attributes: name: Name of the function. input_type: Input types accepted by this application. _output_type: List of output types produced by the application. mandatory_args: Args the user be provided in in_cmd when initializing. optional_args: Args that may be part of the command line. in_cmd: Command entered by user. parsed_cmd: Final output command as option:value dict. id: Bare name of input file (without the possible ending) file_names: Names of output files Methods: _cmd_parse: Turns a command line into argument-value pairs. _validate: Classmethod for validating command lines. get_cmd: Method for getting the final cmd line string for output. _set_IO: Determines the output file name and type. _parse_id: Returns the bare input file name """ name = 'stapler_fastx_toolkit_fasta_formatter' input_types = {'.fasta', '.fastq'} output_types = ['.fasta', '.fastq', '.tab'] hidden_mandatory_args = ['-i', '-o'] user_optional_args = ['-w', '-t', '-e'] help_description = ''' Tested with fastx-tookit v. 0.0.14 ''' def _select_IO(self, out_cmd, in_dir, out_dir): """Infers the input and output file paths. This method must keep the directory objects up to date of the file edits! Parameters: in_cmd: A dict containing the command line. in_dir: Input directory (instance of filetypes.Directory). out_dir: Output directory (instance of filetypes.Directory). Returns: out_cmd: Dict containing the output commands command_identifier: Input file name based identifier for the current command Raises: VirtualIOError: No valid input file can be found. """ IO_files = {} file_names = set() for fl in in_dir.files: if self.name not in fl.users: if utils.splitext(fl.name)[-1] in self.input_types: IO_files['-i'] = os.path.join(in_dir.path, fl.name) command_ids = [utils.infer_path_id(IO_files['-i'])] in_dir.use_file(fl.name, self.name) # Output filename extension is the same as input filename # extension, except when -t parameter is included the # output format is .tab if '-t' in out_cmd: output_file_extension = '.tab' else: output_file_extension = utils.splitext(IO_files['-i']) # If -z parameter is present in the input, output file will # be compressed if '-z' in out_cmd: output_name = utils.splitext(fl.name)[0] + \ output_file_extension + '.gz' else: output_name = utils.splitext(fl.name)[0] + \ output_file_extension output_path = os.path.join(out_dir.path, output_name) IO_files['-o'] = output_path file_names.add(output_name) out_dir.add_file(output_name) break if not IO_files: raise VirtualIOError('No more unused input files') out_cmd.update(IO_files) return out_cmd, command_ids class fasta_nucleotide_changer(fastx_toolkit_generic_compressable_fastx): """Class for using FASTX-toolkit command fasta_nucleotide_changer. Attributes: name: Name of the function. input_type: Input types accepted by this application. _output_type: List of output types produced by the application. mandatory_args: Args the user be provided in in_cmd when initializing. optional_args: Args that may be part of the command line. in_cmd: Command entered by user. parsed_cmd: Final output command as option:value dict. id: Bare name of input file (without the possible ending) file_names: Names of output files Methods: _cmd_parse: Turns a command line into argument-value pairs. _validate: Classmethod for validating command lines. get_cmd: Method for getting the final cmd line string for output. _set_IO: Determines the output file name and type. _parse_id: Returns the bare input file name """ name = 'stapler_fastx_toolkit_fasta_nucleotide_changer' input_types = {'.fasta', '.fastq'} output_types = ['.fasta', '.fastq'] hidden_mandatory_args = ['-i', '-o'] user_optional_args = ['-r', '-d', '-z', '-v'] help_description = ''' Tested with fastx-tookit v. 0.0.14 ''' class fastq_quality_boxplot_graph(GenericBase): """Class for using FASTX-toolkit command fastq_quality_boxplot_graph. Attributes: name: Name of the function. input_type: Input types accepted by this application. _output_type: List of output types produced by the application. mandatory_args: Args the user be provided in in_cmd when initializing. optional_args: Args that may be part of the command line. in_cmd: Command entered by user. parsed_cmd: Final output command as option:value dict. id: Bare name of input file (without the possible ending) file_names: Names of output files Methods: _cmd_parse: Turns a command line into argument-value pairs. _validate: Classmethod for validating command lines. get_cmd: Method for getting the final cmd line string for output. _set_IO: Determines the output file name and type. _parse_id: Returns the bare input file name """ name = 'stapler_fastx_toolkit_fastq_quality_boxplot_graph.sh' input_types = {'.fastx_quality_stats'} output_types = ['.png'] hidden_mandatory_args = ['-i', '-o'] user_optional_args = [] help_description = ''' Tested with fastx-tookit v. 0.0.14 ''' def _format_cmd(self, cmd): """Determines the output file name and type. Also adds the -t argument which based on file name. Parameters: cmd: Parsed command line. Returns: cmd: Command line with -o set to point to a file in a dir instead a dir file_names: Name(s) of the files this command outputs """ assert len(self.output_types) == 1, 'Many output types, override this function' file_name = cmd['-i'] file_name = utils.splitext(file_name)[0] + self.output_types[0] cmd['-o'] = os.path.join(cmd['-o'], file_name) cmd['-t'] = file_name file_names = [os.path.basename(file_name)] return cmd, file_names class fastq_quality_filter(fastx_toolkit_generic_compressable_fastx): """Class for using FASTX-toolkit command fastq_quality_filter. Attributes: name: Name of the function. input_type: Input types accepted by this application. _output_type: List of output types produced by the application. mandatory_args: Args the user be provided in in_cmd when initializing. optional_args: Args that may be part of the command line. in_cmd: Command entered by user. parsed_cmd: Final output command as option:value dict. id: Bare name of input file (without the possible ending) file_names: Names of output files Methods: _cmd_parse: Turns a command line into argument-value pairs. _validate: Classmethod for validating command lines. get_cmd: Method for getting the final cmd line string for output. _set_IO: Determines the output file name and type. _parse_id: Returns the bare input file name """ name = 'stapler_fastx_toolkit_fastq_quality_filter' input_types = {'.fasta', '.fastq'} output_types = ['.fasta', '.fastq'] hidden_mandatory_args = ['-i', '-o', '-q', '-p'] user_optional_args = ['-v', '-z'] help_description = ''' Tested with fastx-tookit v. 0.0.14 ''' class fastq_quality_trimmer(fastx_toolkit_generic_compressable_fastx): """Class for using FASTX-toolkit command fastq_quality_trimmer. Attributes: name: Name of the function. input_type: Input types accepted by this application. _output_type: List of output types produced by the application. mandatory_args: Args the user be provided in in_cmd when initializing. optional_args: Args that may be part of the command line. in_cmd: Command entered by user. parsed_cmd: Final output command as option:value dict. id: Bare name of input file (without the possible ending) file_names: Names of output files Methods: _cmd_parse: Turns a command line into argument-value pairs. _validate: Classmethod for validating command lines. get_cmd: Method for getting the final cmd line string for output. _set_IO: Determines the output file name and type. _parse_id: Returns the bare input file name """ name = 'stapler_fastx_toolkit_fastq_quality_trimmer' input_types = {'.fasta', '.fastq'} output_types = ['.fasta', '.fastq'] hidden_mandatory_args = ['-i', '-o', '-t'] user_optional_args = ['-l', '-v', '-Q'] help_description = """ Tested with fastx-tookit v. 0.0.14 """ class fastq_to_fasta(fastx_toolkit_generic_compressable): """Class for parallelizing fastq_to_fasta. Parameters: in_cmd: String containing a command line in_dir: Directory object containing input files out_dir: Directory object containing output files NOTICE! Keep the directory objects up to date about file edits! Attributes: name: Name of the function. input_type: Input types accepted by this application. output_types: List of output types produced by the application. mandatory_args: Args the user be provided in in_cmd when initializing. user_mandatory_args: Args the user must provide. remove_user_args: Args that will be removed from the final command. optional_args: Args that may be part of the command line. in_cmd: Command entered by user. parsed_cmd: Final output command as option:value dict. file_names: Names of output files. command_ids: File names of input file(s) with no file extensions. Methods: get_cmd: Method for getting the final cmd line string for output. """ name = 'stapler_fastx_toolkit_fastq_to_fasta' input_types = {'.fastq'} output_types = ['.fasta'] hidden_mandatory_args = ['-i', '-o'] user_mandatory_args = [] remove_user_args = user_mandatory_args user_optional_args = ['-r', '-n', '-v', '-z'] parallelizable = True help_description = ''' Tested with fastx-tookit v. 0.0.14 ''' class fastx_artifacts_filter(fastx_toolkit_generic_compressable_fastx): """Class for using FASTX-toolkit command fastx_artifacts_filter. Attributes: name: Name of the function. input_type: Input types accepted by this application. _output_type: List of output types produced by the application. mandatory_args: Args the user be provided in in_cmd when initializing. optional_args: Args that may be part of the command line. in_cmd: Command entered by user. parsed_cmd: Final output command as option:value dict. id: Bare name of input file (without the possible ending) file_names: Names of output files Methods: _cmd_parse: Turns a command line into argument-value pairs. _validate: Classmethod for validating command lines. get_cmd: Method for getting the final cmd line string for output. _set_IO: Determines the output file name and type. _parse_id: Returns the bare input file name """ name = 'stapler_fastx_toolkit_fastx_artifacts_filter' input_types = {'.fasta', '.fastq'} output_types = ['.fasta', '.fastq'] hidden_mandatory_args = ['-i', '-o'] user_mandatory_args = [] user_optional_args = ['-z'] help_description = ''' Tested with fastx-tookit v. 0.0.14 ''' class fastx_clipper(fastx_toolkit_generic_compressable_fastx): """Class for using FASTX-toolkit command fastx_clipper. Attributes: name: Name of the function. input_type: Input types accepted by this application. _output_type: List of output types produced by the application. mandatory_args: Args the user be provided in in_cmd when initializing. optional_args: Args that may be part of the command line. in_cmd: Command entered by user. parsed_cmd: Final output command as option:value dict. id: Bare name of input file (without the possible ending) file_names: Names of output files Methods: _cmd_parse: Turns a command line into argument-value pairs. _validate: Classmethod for validating command lines. get_cmd: Method for getting the final cmd line string for output. _set_IO: Determines the output file name and type. _parse_id: Returns the bare input file name """ name = 'stapler_fastx_toolkit_fastx_clipper' input_types = {'.fasta', '.fastq'} output_types = ['.fasta', '.fastq'] hidden_mandatory_args = ['-i', '-o'] user_optional_args = ['-a', '-l', '-d', '-c', '-C', '-k', '-n', '-v', '-z', '-D'] help_description = ''' Tested with fastx-tookit v. 0.0.14 ''' class fastx_collapser(fastx_toolkit_generic_compressable_fastx): """Class for using FASTX-toolkit command fastx_collapser. Attributes: name: Name of the function. input_type: Input types accepted by this application. _output_type: List of output types produced by the application. mandatory_args: Args the user be provided in in_cmd when initializing. optional_args: Args that may be part of the command line. in_cmd: Command entered by user. parsed_cmd: Final output command as option:value dict. id: Bare name of input file (without the possible ending) file_names: Names of output files Methods: _cmd_parse: Turns a command line into argument-value pairs. _validate: Classmethod for validating command lines. get_cmd: Method for getting the final cmd line string for output. _set_IO: Determines the output file name and type. _parse_id: Returns the bare input file name """ name = 'stapler_fastx_toolkit_fastx_collapser' input_types = {'.fasta', '.fastq'} output_types = ['.fasta', '.fastq'] hidden_mandatory_args = ['-i', '-o'] user_mandatory_args = [] user_optional_args = [] help_description = ''' Tested with fastx-tookit v. 0.0.14 ''' class fastx_nucleotide_distribution_graph(fastq_quality_boxplot_graph): """Class for FASTX-toolkit command fastx_nucleotide_distribution_graph. Attributes: name: Name of the function. input_type: Input types accepted by this application. _output_type: List of output types produced by the application. mandatory_args: Args the user be provided in in_cmd when initializing. optional_args: Args that may be part of the command line. in_cmd: Command entered by user. parsed_cmd: Final output command as option:value dict. id: Bare name of input file (without the possible ending) file_names: Names of output files Methods: _cmd_parse: Turns a command line into argument-value pairs. _validate: Classmethod for validating command lines. get_cmd: Method for getting the final cmd line string for output. _set_IO: Determines the output file name and type. _parse_id: Returns the bare input file name """ name = 'stapler_fastx_toolkit_fastx_nucleotide_distribution_graph.sh' class fastx_quality_stats(GenericBase): """Class for using FASTX-toolkit command fastx_quality_stats. Attributes: name: Name of the function. input_type: Input types accepted by this application. _output_type: List of output types produced by the application. mandatory_args: Args the user be provided in in_cmd when initializing. optional_args: Args that may be part of the command line. in_cmd: Command entered by user. parsed_cmd: Final output command as option:value dict. id: Bare name of input file (without the possible ending) file_names: Names of output files Methods: _cmd_parse: Turns a command line into argument-value pairs. _validate: Classmethod for validating command lines. get_cmd: Method for getting the final cmd line string for output. _set_IO: Determines the output file name and type. _parse_id: Returns the bare input file name """ name = 'stapler_fastx_toolkit_fastx_quality_stats' input_types = {'.fasta', '.fastq'} output_types = ['.fastx_quality_stats'] hidden_mandatory_args = ['-i', '-o'] help_description = ''' Tested with fastx-tookit v. 0.0.14 ''' class fastx_renamer(fastx_toolkit_generic_compressable_fastx): """Class for using FASTX-toolkit command fastx_renamer. Attributes: name: Name of the function. input_type: Input types accepted by this application. _output_type: List of output types produced by the application. mandatory_args: Args the user be provided in in_cmd when initializing. optional_args: Args that may be part of the command line. in_cmd: Command entered by user. parsed_cmd: Final output command as option:value dict. id: Bare name of input file (without the possible ending) file_names: Names of output files Methods: _cmd_parse: Turns a command line into argument-value pairs. _validate: Classmethod for validating command lines. get_cmd: Method for getting the final cmd line string for output. _set_IO: Determines the output file name and type. _parse_id: Returns the bare input file name """ name = 'stapler_fastx_toolkit_fastx_trimmer' input_types = {'.fasta', '.fastq'} output_types = ['.fasta', '.fastq'] hidden_mandatory_args = ['-i', '-o'] user_mandatory_args = ['-n'] user_optional_args = ['-z'] help_description = ''' Tested with fastx-tookit v. 0.0.14 ''' class fastx_reverse_complement(fastx_toolkit_generic_compressable_fastx): """Class for using FASTX-toolkit command fastx_reverse_complement. Attributes: name: Name of the function. input_type: Input types accepted by this application. _output_type: List of output types produced by the application. mandatory_args: Args the user be provided in in_cmd when initializing. optional_args: Args that may be part of the command line. in_cmd: Command entered by user. parsed_cmd: Final output command as option:value dict. id: Bare name of input file (without the possible ending) file_names: Names of output files Methods: _cmd_parse: Turns a command line into argument-value pairs. _validate: Classmethod for validating command lines. get_cmd: Method for getting the final cmd line string for output. _set_IO: Determines the output file name and type. _parse_id: Returns the bare input file name """ name = 'stapler_fastx_toolkit_fastx_reverse_complement' input_types = {'.fasta', '.fastq'} output_types = ['.fasta', '.fastq'] hidden_mandatory_args = ['-i', '-o'] user_optional_args = ['-z'] help_description = ''' Tested with fastx-tookit v. 0.0.14 ''' class fastx_trimmer(fastx_toolkit_generic_compressable_fastx): """Class for using FASTX-toolkit command fastx_trimmer. Attributes: name: Name of the function. input_type: Input types accepted by this application. _output_type: List of output types produced by the application. mandatory_args: Args the user be provided in in_cmd when initializing. optional_args: Args that may be part of the command line. in_cmd: Command entered by user. parsed_cmd: Final output command as option:value dict. id: Bare name of input file (without the possible ending) file_names: Names of output files Methods: _cmd_parse: Turns a command line into argument-value pairs. _validate: Classmethod for validating command lines. get_cmd: Method for getting the final cmd line string for output. _set_IO: Determines the output file name and type. _parse_id: Returns the bare input file name """ name = 'stapler_fastx_toolkit_fastx_trimmer' input_types = {'.fasta', '.fastq'} output_types = ['.fasta', '.fastq'] hidden_mandatory_args = ['-i', '-o'] user_optional_args = ['-f', '-l', '-z'] help_description = ''' Tested with fastx-tookit v. 0.0.14 ''' def _validate(self, parsed_cmd): """Validates the command line. Raises STAPLERerror if validation is unsuccessfull Args: parsed_cmd: Dict of arguments entered by user Raises: STAPLERerror if validation is unsuccessful """ for ma in self.hidden_mandatory_args: if ma not in parsed_cmd: raise STAPLERerror('The command line does not contain ' 'all the mandatory arguments ' '{0}:\n{1}'.format(self.hidden_mandatory_args, ' '.join(parsed_cmd))) for cmd in parsed_cmd: if cmd not in self.hidden_mandatory_args and cmd not in self.user_optional_args: raise STAPLERerror('Unknown option: {0}\n' 'on command line:\n{1}'.format(cmd, self.in_cmd))
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6
7133176081a0893b30c17bb5af1161f4bc57d2bf
33
py
Python
src/interface/menu_options.py
KaiAPaulhus/GifExtract
75028e6b0f2ddcfc07bf5a1a738c24b2a9912a3c
[ "MIT" ]
1
2016-10-26T01:42:59.000Z
2016-10-26T01:42:59.000Z
src/interface/menu_options.py
KaiAPaulhus/GifExtract
75028e6b0f2ddcfc07bf5a1a738c24b2a9912a3c
[ "MIT" ]
null
null
null
src/interface/menu_options.py
KaiAPaulhus/GifExtract
75028e6b0f2ddcfc07bf5a1a738c24b2a9912a3c
[ "MIT" ]
null
null
null
def saveButtonPressed(): pass
16.5
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2
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0.5
true
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6
854078ee57fa5cfd262900e7b00db6ee5f98aeb7
111
py
Python
fathom/autoenc/__init__.py
Aetf/fathom
1f0dafa9fe3b7988708522d93ecda7f282cb2090
[ "Apache-2.0" ]
1
2021-06-30T04:59:22.000Z
2021-06-30T04:59:22.000Z
fathom/autoenc/__init__.py
Aetf/fathom
1f0dafa9fe3b7988708522d93ecda7f282cb2090
[ "Apache-2.0" ]
null
null
null
fathom/autoenc/__init__.py
Aetf/fathom
1f0dafa9fe3b7988708522d93ecda7f282cb2090
[ "Apache-2.0" ]
null
null
null
from __future__ import absolute_import, print_function, division from .variational import Autoenc, AutoencFwd
27.75
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111
3
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6
85644509dfa376fb58ddf2270cb0c55214fbb546
77
py
Python
tokopedia/shop/api.py
hexatester/tokopedia
20e46c3ec2c70de6b24460634b7c185ffdb15691
[ "MIT" ]
5
2021-07-01T05:09:20.000Z
2022-03-06T10:53:07.000Z
tokopedia/shop/api.py
hexatester/tokopedia
20e46c3ec2c70de6b24460634b7c185ffdb15691
[ "MIT" ]
null
null
null
tokopedia/shop/api.py
hexatester/tokopedia
20e46c3ec2c70de6b24460634b7c185ffdb15691
[ "MIT" ]
1
2022-02-14T01:20:34.000Z
2022-02-14T01:20:34.000Z
from tokopedia import BaseTokopedia class ShopApi(BaseTokopedia): pass
12.833333
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1
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6
859cd25dcfde675efc2771f6cb10f8d763aafc39
213
py
Python
rkn/exceptions.py
OlefirenkoK/monitoring
ad5c4f1445083d04c967acaedfad025ecc6573b7
[ "Apache-2.0" ]
null
null
null
rkn/exceptions.py
OlefirenkoK/monitoring
ad5c4f1445083d04c967acaedfad025ecc6573b7
[ "Apache-2.0" ]
null
null
null
rkn/exceptions.py
OlefirenkoK/monitoring
ad5c4f1445083d04c967acaedfad025ecc6573b7
[ "Apache-2.0" ]
null
null
null
class RepositoryAlreadyExistsError(Exception): """Raise if repository already exists for given path""" class RepositoryIsNotExistsError(Exception): """Raise if repository is not exists for given path"""
30.428571
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0.769953
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7.130435
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0.195122
0.317073
0
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0.14554
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6
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6
85acc246ba71d0cc63786e9940b1356156aea6f0
34
py
Python
fetcher/__init__.py
Avalanche-FR-community/apr-fetcher
25b12e8fe3da4a7ee678017b80dabc07990144f8
[ "MIT" ]
null
null
null
fetcher/__init__.py
Avalanche-FR-community/apr-fetcher
25b12e8fe3da4a7ee678017b80dabc07990144f8
[ "MIT" ]
null
null
null
fetcher/__init__.py
Avalanche-FR-community/apr-fetcher
25b12e8fe3da4a7ee678017b80dabc07990144f8
[ "MIT" ]
null
null
null
from .apr_fetchers import fetchers
34
34
0.882353
5
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0.8
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34
1
34
34
0.935484
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1
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6
a415f0205837f34fa8d22ade1cd2c94bebd471b6
1,623
py
Python
nexpose_rest/nexpose_scan_engine.py
Patralos/nexpose-rest
c03431a408afd1528b0ca5a00859467574953ea0
[ "MIT" ]
null
null
null
nexpose_rest/nexpose_scan_engine.py
Patralos/nexpose-rest
c03431a408afd1528b0ca5a00859467574953ea0
[ "MIT" ]
null
null
null
nexpose_rest/nexpose_scan_engine.py
Patralos/nexpose-rest
c03431a408afd1528b0ca5a00859467574953ea0
[ "MIT" ]
null
null
null
from nexpose_rest.nexpose import _GET def getScanEngines(config): getParameters=[] code, data = _GET('/api/3/scan_engines', config, getParameters=getParameters) return data def getScanEnginePoolSites(config, id): getParameters=[] code, data = _GET('/api/3/scan_engine_pools/' + str(id) + '/sites', config, getParameters=getParameters) return data def getEnginePool(config, id): getParameters=[] code, data = _GET('/api/3/scan_engine_pools/' + str(id) + '', config, getParameters=getParameters) return data def getAssignedEnginePools(config, id): getParameters=[] code, data = _GET('/api/3/scan_engines/' + str(id) + '/scan_engine_pools', config, getParameters=getParameters) return data def getScanEngineScans(config, id): getParameters=[] code, data = _GET('/api/3/scan_engines/' + str(id) + '/scans', config, getParameters=getParameters) return data def getScanEngine(config, id): getParameters=[] code, data = _GET('/api/3/scan_engines/' + str(id) + '', config, getParameters=getParameters) return data def getScanEnginePoolScanEngines(config, id): getParameters=[] code, data = _GET('/api/3/scan_engine_pools/' + str(id) + '/engines', config, getParameters=getParameters) return data def getScanEngineSites(config, id): getParameters=[] code, data = _GET('/api/3/scan_engines/' + str(id) + '/sites', config, getParameters=getParameters) return data def getScanEnginePools(config): getParameters=[] code, data = _GET('/api/3/scan_engine_pools', config, getParameters=getParameters) return data
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0.006623
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false
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6
a433eac1e79a11c191297555fe1050a4a98967eb
175
py
Python
src/pynwb/io/icephys.py
VBaratham/pynwb
a9429c93f29763b9ebe9022b099afcffbc6be493
[ "BSD-3-Clause-LBNL" ]
1
2021-04-13T20:47:36.000Z
2021-04-13T20:47:36.000Z
src/pynwb/io/icephys.py
VBaratham/pynwb
a9429c93f29763b9ebe9022b099afcffbc6be493
[ "BSD-3-Clause-LBNL" ]
null
null
null
src/pynwb/io/icephys.py
VBaratham/pynwb
a9429c93f29763b9ebe9022b099afcffbc6be493
[ "BSD-3-Clause-LBNL" ]
null
null
null
from .. import register_map from pynwb.icephys import SweepTable from .core import DynamicTableMap @register_map(SweepTable) class SweepTableMap(DynamicTableMap): pass
17.5
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9
38
19.444444
0.921053
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true
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0.666667
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1
1
1
0
1
0
0
6
a49d7053bfb95389ebe87a78c03881030b051957
107
py
Python
lib/__init__.py
RRyan2447/discord-ticket-bot
c90ae89f634f958d2b1868debfe81b25407f2643
[ "MIT" ]
null
null
null
lib/__init__.py
RRyan2447/discord-ticket-bot
c90ae89f634f958d2b1868debfe81b25407f2643
[ "MIT" ]
null
null
null
lib/__init__.py
RRyan2447/discord-ticket-bot
c90ae89f634f958d2b1868debfe81b25407f2643
[ "MIT" ]
null
null
null
from .lib import time_now, load_JSON, check_integer, check_JSON_files, check_version, setup_change, config
53.5
106
0.841121
17
107
4.882353
0.823529
0
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107
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107
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0.85567
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true
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1
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1
0
0
6
a4a72c08ef66d9d1450a31edee92b168e79b2175
40,024
py
Python
pymatex/grammar/MatexLexer.py
Gawaboumga/PyMatex
3ccc0aa23211a064aa31a9b509b108cd606a4992
[ "MIT" ]
1
2019-03-05T09:45:04.000Z
2019-03-05T09:45:04.000Z
pymatex/grammar/MatexLexer.py
Gawaboumga/PyMatex
3ccc0aa23211a064aa31a9b509b108cd606a4992
[ "MIT" ]
null
null
null
pymatex/grammar/MatexLexer.py
Gawaboumga/PyMatex
3ccc0aa23211a064aa31a9b509b108cd606a4992
[ "MIT" ]
null
null
null
# Generated from .\pymatex\grammar\MatexLexer.g4 by ANTLR 4.7.2 from antlr4 import * from io import StringIO from typing.io import TextIO import sys def serializedATN(): with StringIO() as buf: buf.write("\3\u608b\ua72a\u8133\ub9ed\u417c\u3be7\u7786\u5964\2K") buf.write("\u03df\b\1\4\2\t\2\4\3\t\3\4\4\t\4\4\5\t\5\4\6\t\6\4\7") buf.write("\t\7\4\b\t\b\4\t\t\t\4\n\t\n\4\13\t\13\4\f\t\f\4\r\t\r") buf.write("\4\16\t\16\4\17\t\17\4\20\t\20\4\21\t\21\4\22\t\22\4\23") buf.write("\t\23\4\24\t\24\4\25\t\25\4\26\t\26\4\27\t\27\4\30\t\30") buf.write("\4\31\t\31\4\32\t\32\4\33\t\33\4\34\t\34\4\35\t\35\4\36") buf.write("\t\36\4\37\t\37\4 \t \4!\t!\4\"\t\"\4#\t#\4$\t$\4%\t%") buf.write("\4&\t&\4\'\t\'\4(\t(\4)\t)\4*\t*\4+\t+\4,\t,\4-\t-\4.") buf.write("\t.\4/\t/\4\60\t\60\4\61\t\61\4\62\t\62\4\63\t\63\4\64") buf.write("\t\64\4\65\t\65\4\66\t\66\4\67\t\67\48\t8\49\t9\4:\t:") buf.write("\4;\t;\4<\t<\4=\t=\4>\t>\4?\t?\4@\t@\4A\tA\4B\tB\4C\t") buf.write("C\4D\tD\4E\tE\4F\tF\4G\tG\4H\tH\4I\tI\4J\tJ\4K\tK\4L\t") buf.write("L\4M\tM\4N\tN\4O\tO\4P\tP\4Q\tQ\4R\tR\4S\tS\4T\tT\4U\t") buf.write("U\4V\tV\4W\tW\4X\tX\4Y\tY\4Z\tZ\4[\t[\4\\\t\\\4]\t]\4") buf.write("^\t^\4_\t_\4`\t`\4a\ta\4b\tb\4c\tc\4d\td\4e\te\4f\tf\4") buf.write("g\tg\4h\th\4i\ti\4j\tj\4k\tk\3\2\3\2\3\3\3\3\3\4\3\4\3") buf.write("\5\3\5\3\6\3\6\3\7\3\7\3\b\3\b\3\t\3\t\3\n\3\n\3\13\3") buf.write("\13\3\f\3\f\3\r\3\r\3\16\3\16\3\17\3\17\3\20\3\20\3\21") buf.write("\3\21\3\22\3\22\3\23\3\23\3\24\3\24\3\24\3\24\3\24\3\25") buf.write("\3\25\3\25\3\25\3\25\3\25\3\25\3\25\3\25\3\25\3\25\3\25") buf.write("\3\25\3\25\3\25\3\25\3\25\3\25\3\25\3\25\3\25\3\25\3\25") buf.write("\3\25\3\25\3\25\3\25\3\25\3\25\3\25\3\25\3\25\3\25\3\25") buf.write("\3\25\3\25\3\25\3\25\3\25\3\25\3\25\3\25\3\25\3\25\3\25") buf.write("\3\25\3\25\3\25\3\25\3\25\3\25\3\25\3\25\3\25\3\25\5\25") buf.write("\u0138\n\25\3\26\3\26\3\27\3\27\3\27\3\27\3\27\3\30\3") buf.write("\30\3\30\3\30\3\30\3\31\3\31\3\31\3\31\3\31\3\31\3\32") buf.write("\3\32\3\32\3\32\3\33\5\33\u0151\n\33\3\33\3\33\3\33\3") buf.write("\33\3\34\5\34\u0158\n\34\3\34\3\34\3\34\3\35\5\35\u015e") buf.write("\n\35\3\35\3\35\3\35\3\35\3\36\5\36\u0165\n\36\3\36\3") buf.write("\36\3\36\3\36\3\37\5\37\u016c\n\37\3\37\3\37\3\37\3\37") buf.write("\3 \5 \u0173\n \3 \3 \3 \3 \3!\5!\u017a\n!\3!\3!\3!\3") buf.write("!\3\"\5\"\u0181\n\"\3\"\3\"\3\"\3\"\3#\5#\u0188\n#\3#") buf.write("\3#\3#\3$\5$\u018e\n$\3$\3$\3$\3%\5%\u0194\n%\3%\3%\3") buf.write("%\3&\5&\u019a\n&\3&\3&\3&\3\'\5\'\u01a0\n\'\3\'\3\'\3") buf.write("\'\3(\5(\u01a6\n(\3(\3(\3(\3)\5)\u01ac\n)\3)\3)\3)\3)") buf.write("\3)\3*\5*\u01b4\n*\3*\3*\3*\3*\3*\3+\5+\u01bc\n+\3+\3") buf.write("+\3+\3+\3+\3,\5,\u01c4\n,\3,\3,\3,\3-\5-\u01ca\n-\3-\3") buf.write("-\3-\3.\5.\u01d0\n.\3.\3.\3.\3/\5/\u01d6\n/\3/\3/\3/\3") buf.write("\60\5\60\u01dc\n\60\3\60\3\60\3\60\3\61\5\61\u01e2\n\61") buf.write("\3\61\3\61\3\61\3\62\5\62\u01e8\n\62\3\62\3\62\3\62\3") buf.write("\63\5\63\u01ee\n\63\3\63\3\63\3\63\3\64\5\64\u01f4\n\64") buf.write("\3\64\3\64\3\64\3\65\5\65\u01fa\n\65\3\65\3\65\3\65\3") buf.write("\65\3\65\3\66\5\66\u0202\n\66\3\66\3\66\3\66\3\66\3\66") buf.write("\3\66\3\67\3\67\3\67\3\67\3\67\3\67\3\67\38\38\38\38\3") buf.write("8\38\39\39\39\39\39\3:\3:\3:\3:\3:\3:\3;\3;\3<\3<\3=\7") buf.write("=\u0227\n=\f=\16=\u022a\13=\3=\5=\u022d\n=\3=\6=\u0230") buf.write("\n=\r=\16=\u0231\3=\3=\5=\u0236\n=\3=\6=\u0239\n=\r=\16") buf.write("=\u023a\5=\u023d\n=\3>\3>\3>\3?\3?\3@\3@\6@\u0246\n@\r") buf.write("@\16@\u0247\3A\6A\u024b\nA\rA\16A\u024c\3B\3B\3B\3B\3") buf.write("B\3B\3B\3C\3C\3D\3D\3E\3E\3E\3E\3E\3F\3F\3G\3G\3G\3G\3") buf.write("G\3H\3H\3H\3H\5H\u026a\nH\3I\3I\3J\3J\3J\3J\3J\3J\3J\3") buf.write("J\3J\3J\3J\3J\5J\u027a\nJ\3K\3K\3K\3K\3K\3K\3K\3K\3K\3") buf.write("K\5K\u0286\nK\3L\3L\3L\3L\3L\3L\3L\3L\3L\3L\3L\3L\5L\u0294") buf.write("\nL\3M\3M\3M\3M\3M\3M\3M\3M\3M\3M\3M\3M\5M\u02a2\nM\3") buf.write("N\3N\3N\3N\3N\3N\3N\3N\3N\3N\3N\3N\3N\3N\3N\3N\5N\u02b4") buf.write("\nN\3O\3O\3O\3O\3O\3O\3O\3O\3O\3O\5O\u02c0\nO\3P\3P\3") buf.write("P\3P\3P\3P\3P\3P\5P\u02ca\nP\3Q\3Q\3Q\3Q\3Q\3Q\3Q\3Q\3") buf.write("Q\3Q\3Q\3Q\5Q\u02d8\nQ\3R\3R\3R\3R\3R\3R\3R\3R\3R\3R\5") buf.write("R\u02e4\nR\3S\3S\3S\3S\3S\3S\3S\3S\3S\3S\3S\3S\5S\u02f2") buf.write("\nS\3T\3T\3T\3T\3T\3T\3T\3T\3T\3T\3T\3T\3T\3T\5T\u0302") buf.write("\nT\3U\3U\3U\3U\3U\3U\5U\u030a\nU\3V\3V\3V\3V\3V\3V\5") buf.write("V\u0312\nV\3W\3W\3W\3W\3W\3W\5W\u031a\nW\3X\3X\3X\3X\3") buf.write("X\3X\3X\3X\3X\3X\3X\3X\3X\3X\3X\3X\5X\u032c\nX\3Y\3Y\3") buf.write("Y\3Y\3Y\3Y\5Y\u0334\nY\3Z\3Z\3Z\3Z\3Z\3Z\3Z\3Z\5Z\u033e") buf.write("\nZ\3[\3[\3[\3[\3[\3[\3[\3[\3[\3[\3[\3[\5[\u034c\n[\3") buf.write("\\\3\\\3\\\3\\\3\\\3\\\3\\\3\\\5\\\u0356\n\\\3]\3]\3]") buf.write("\3]\3]\3]\3]\3]\3]\3]\3]\3]\3]\3]\3]\3]\5]\u0368\n]\3") buf.write("^\3^\3^\3^\3^\3^\3^\3^\5^\u0372\n^\3_\3_\3_\3_\3_\3_\3") buf.write("_\3_\5_\u037c\n_\3`\3`\3`\3`\3`\3`\3`\3`\5`\u0386\n`\3") buf.write("a\3a\3a\3a\3a\3a\3a\3a\3a\3a\3a\3a\5a\u0394\na\3b\3b\3") buf.write("b\3b\3b\3b\3b\3b\3b\3b\3b\3b\3b\3b\3b\3b\3b\3b\3b\3b\3") buf.write("b\3b\3b\3b\5b\u03ae\nb\3c\3c\3c\3c\3c\5c\u03b5\nc\3c\3") buf.write("c\3d\3d\5d\u03bb\nd\3d\3d\3e\3e\5e\u03c1\ne\3e\3e\3f\3") buf.write("f\5f\u03c7\nf\3f\3f\3g\3g\5g\u03cd\ng\3g\3g\3h\3h\3h\3") buf.write("h\3i\3i\3j\3j\3k\6k\u03da\nk\rk\16k\u03db\3k\3k\2\2l\3") buf.write("\3\5\4\7\5\t\6\13\7\r\b\17\t\21\n\23\13\25\f\27\r\31\16") buf.write("\33\17\35\20\37\21!\22#\23%\2\'\24)\25+\26-\27/\30\61") buf.write("\31\63\2\65\32\67\339\34;\35=\36?\37A C!E\"G#I$K%M&O\'") buf.write("Q(S)U*W+Y,[-]._/a\60c\61e\62g\63i\64k\65m\66o\67q8s9u") buf.write("\2w\2y:{;}<\177=\u0081>\u0083?\u0085@\u0087\2\u0089\2") buf.write("\u008b\2\u008d\2\u008fA\u0091B\u0093\2\u0095\2\u0097\2") buf.write("\u0099\2\u009b\2\u009d\2\u009f\2\u00a1\2\u00a3\2\u00a5") buf.write("\2\u00a7\2\u00a9\2\u00ab\2\u00ad\2\u00af\2\u00b1\2\u00b3") buf.write("\2\u00b5\2\u00b7\2\u00b9\2\u00bb\2\u00bd\2\u00bf\2\u00c1") buf.write("\2\u00c3C\u00c5\2\u00c7D\u00c9E\u00cbF\u00cdG\u00cfH\u00d1") buf.write("I\u00d3J\u00d5K\3\2\7\4\2C\\c|\3\2\62;\4\2GGgg\4\2--/") buf.write("/\5\2\13\f\17\17\"\"\2\u041e\2\3\3\2\2\2\2\5\3\2\2\2\2") buf.write("\7\3\2\2\2\2\t\3\2\2\2\2\13\3\2\2\2\2\r\3\2\2\2\2\17\3") buf.write("\2\2\2\2\21\3\2\2\2\2\23\3\2\2\2\2\25\3\2\2\2\2\27\3\2") buf.write("\2\2\2\31\3\2\2\2\2\33\3\2\2\2\2\35\3\2\2\2\2\37\3\2\2") buf.write("\2\2!\3\2\2\2\2#\3\2\2\2\2\'\3\2\2\2\2)\3\2\2\2\2+\3\2") buf.write("\2\2\2-\3\2\2\2\2/\3\2\2\2\2\61\3\2\2\2\2\65\3\2\2\2\2") buf.write("\67\3\2\2\2\29\3\2\2\2\2;\3\2\2\2\2=\3\2\2\2\2?\3\2\2") buf.write("\2\2A\3\2\2\2\2C\3\2\2\2\2E\3\2\2\2\2G\3\2\2\2\2I\3\2") buf.write("\2\2\2K\3\2\2\2\2M\3\2\2\2\2O\3\2\2\2\2Q\3\2\2\2\2S\3") buf.write("\2\2\2\2U\3\2\2\2\2W\3\2\2\2\2Y\3\2\2\2\2[\3\2\2\2\2]") buf.write("\3\2\2\2\2_\3\2\2\2\2a\3\2\2\2\2c\3\2\2\2\2e\3\2\2\2\2") buf.write("g\3\2\2\2\2i\3\2\2\2\2k\3\2\2\2\2m\3\2\2\2\2o\3\2\2\2") buf.write("\2q\3\2\2\2\2s\3\2\2\2\2y\3\2\2\2\2{\3\2\2\2\2}\3\2\2") buf.write("\2\2\177\3\2\2\2\2\u0081\3\2\2\2\2\u0083\3\2\2\2\2\u0085") buf.write("\3\2\2\2\2\u008f\3\2\2\2\2\u0091\3\2\2\2\2\u00c3\3\2\2") buf.write("\2\2\u00c7\3\2\2\2\2\u00c9\3\2\2\2\2\u00cb\3\2\2\2\2\u00cd") buf.write("\3\2\2\2\2\u00cf\3\2\2\2\2\u00d1\3\2\2\2\2\u00d3\3\2\2") buf.write("\2\2\u00d5\3\2\2\2\3\u00d7\3\2\2\2\5\u00d9\3\2\2\2\7\u00db") buf.write("\3\2\2\2\t\u00dd\3\2\2\2\13\u00df\3\2\2\2\r\u00e1\3\2") buf.write("\2\2\17\u00e3\3\2\2\2\21\u00e5\3\2\2\2\23\u00e7\3\2\2") buf.write("\2\25\u00e9\3\2\2\2\27\u00eb\3\2\2\2\31\u00ed\3\2\2\2") buf.write("\33\u00ef\3\2\2\2\35\u00f1\3\2\2\2\37\u00f3\3\2\2\2!\u00f5") buf.write("\3\2\2\2#\u00f7\3\2\2\2%\u00f9\3\2\2\2\'\u00fb\3\2\2\2") buf.write(")\u0137\3\2\2\2+\u0139\3\2\2\2-\u013b\3\2\2\2/\u0140\3") buf.write("\2\2\2\61\u0145\3\2\2\2\63\u014b\3\2\2\2\65\u0150\3\2") buf.write("\2\2\67\u0157\3\2\2\29\u015d\3\2\2\2;\u0164\3\2\2\2=\u016b") buf.write("\3\2\2\2?\u0172\3\2\2\2A\u0179\3\2\2\2C\u0180\3\2\2\2") buf.write("E\u0187\3\2\2\2G\u018d\3\2\2\2I\u0193\3\2\2\2K\u0199\3") buf.write("\2\2\2M\u019f\3\2\2\2O\u01a5\3\2\2\2Q\u01ab\3\2\2\2S\u01b3") buf.write("\3\2\2\2U\u01bb\3\2\2\2W\u01c3\3\2\2\2Y\u01c9\3\2\2\2") buf.write("[\u01cf\3\2\2\2]\u01d5\3\2\2\2_\u01db\3\2\2\2a\u01e1\3") buf.write("\2\2\2c\u01e7\3\2\2\2e\u01ed\3\2\2\2g\u01f3\3\2\2\2i\u01f9") buf.write("\3\2\2\2k\u0201\3\2\2\2m\u0209\3\2\2\2o\u0210\3\2\2\2") buf.write("q\u0216\3\2\2\2s\u021b\3\2\2\2u\u0221\3\2\2\2w\u0223\3") buf.write("\2\2\2y\u0228\3\2\2\2{\u023e\3\2\2\2}\u0241\3\2\2\2\177") buf.write("\u0243\3\2\2\2\u0081\u024a\3\2\2\2\u0083\u024e\3\2\2\2") buf.write("\u0085\u0255\3\2\2\2\u0087\u0257\3\2\2\2\u0089\u0259\3") 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buf.write("\u01db\u01e1\u01e7\u01ed\u01f3\u01f9\u0201\u0228\u022c") buf.write("\u0231\u0235\u023a\u023c\u0247\u024c\u0269\u0279\u0285") buf.write("\u0293\u02a1\u02b3\u02bf\u02c9\u02d7\u02e3\u02f1\u0301") buf.write("\u0309\u0311\u0319\u032b\u0333\u033d\u034b\u0355\u0367") buf.write("\u0371\u037b\u0385\u0393\u03ad\u03b4\u03ba\u03c0\u03c6") buf.write("\u03cc\u03db\3\b\2\2") return buf.getvalue() class MatexLexer(Lexer): atn = ATNDeserializer().deserialize(serializedATN()) decisionsToDFA = [ DFA(ds, i) for i, ds in enumerate(atn.decisionToState) ] PLUS = 1 MINUS = 2 MUL = 3 DIV = 4 L_PAREN = 5 R_PAREN = 6 L_BRACE = 7 R_BRACE = 8 L_BRACKET = 9 R_BRACKET = 10 COMMA = 11 DOT = 12 SEMICOLON = 13 BAR = 14 UNDERSCORE = 15 CARET = 16 COLON = 17 FUNC_LIM = 18 LIM_APPROACH_SYM = 19 FUNC_FRAC = 20 FUNC_INT = 21 FUNC_SUM = 22 FUNC_PROD = 23 FUNC_LOG = 24 FUNC_LN = 25 FUNC_SIN = 26 FUNC_COS = 27 FUNC_TAN = 28 FUNC_CSC = 29 FUNC_SEC = 30 FUNC_COT = 31 FUNC_ARCSIN = 32 FUNC_ARCCOS = 33 FUNC_ARCTAN = 34 FUNC_ARCCSC = 35 FUNC_ARCSEC = 36 FUNC_ARCCOT = 37 FUNC_SINH = 38 FUNC_COSH = 39 FUNC_TANH = 40 FUNC_ARCSINH = 41 FUNC_ARCCOSH = 42 FUNC_ARCTANH = 43 FUNC_ECOS = 44 FUNC_ESIN = 45 FUNC_EDELTAAMPLITUDE = 46 FUNC_ARCECOS = 47 FUNC_ARCESIN = 48 FUNC_ARCEDELTAAMPLITUDE = 49 FUNC_SQRT = 50 FUNC_BINOMIAL = 51 CMD_TIMES = 52 CMD_CDOT = 53 CMD_DIV = 54 CMD_FRAC = 55 NUMBER = 56 DERIVATIVE = 57 VARIABLE = 58 MIXNUMBER = 59 WORD = 60 INFINITY = 61 EQ = 62 INEQUALITIES = 63 BANG = 64 GREEKLETTER = 65 LETTERFUNCTIONBRACE = 66 LETTERFUNCTIONPAREN = 67 GREEKFUNCTIONBRACE = 68 GREEKFUNCTIONPAREN = 69 SET_IN = 70 SET_LIKE = 71 SET_DIFFERENCE = 72 WS = 73 channelNames = [ u"DEFAULT_TOKEN_CHANNEL", u"HIDDEN" ] modeNames = [ "DEFAULT_MODE" ] literalNames = [ "<INVALID>", "'+'", "'-'", "'*'", "'/'", "'('", "')'", "'{'", "'}'", "'['", "']'", "','", "'.'", "';'", "'|'", "'_'", "'^'", "':'", "'\\lim'", "'K'", "'\\int'", "'\\sum'", "'\\prod'", "'\\times'", "'\\cdot'", "'\\div'", "'\\frac'", "'\\infty'", "'='", "'!'", "'\\in'" ] symbolicNames = [ "<INVALID>", "PLUS", "MINUS", "MUL", "DIV", "L_PAREN", "R_PAREN", "L_BRACE", "R_BRACE", "L_BRACKET", "R_BRACKET", "COMMA", "DOT", "SEMICOLON", "BAR", "UNDERSCORE", "CARET", "COLON", "FUNC_LIM", "LIM_APPROACH_SYM", "FUNC_FRAC", "FUNC_INT", "FUNC_SUM", "FUNC_PROD", "FUNC_LOG", "FUNC_LN", "FUNC_SIN", "FUNC_COS", "FUNC_TAN", "FUNC_CSC", "FUNC_SEC", "FUNC_COT", "FUNC_ARCSIN", "FUNC_ARCCOS", "FUNC_ARCTAN", "FUNC_ARCCSC", "FUNC_ARCSEC", "FUNC_ARCCOT", "FUNC_SINH", "FUNC_COSH", "FUNC_TANH", "FUNC_ARCSINH", "FUNC_ARCCOSH", "FUNC_ARCTANH", "FUNC_ECOS", "FUNC_ESIN", "FUNC_EDELTAAMPLITUDE", "FUNC_ARCECOS", "FUNC_ARCESIN", "FUNC_ARCEDELTAAMPLITUDE", "FUNC_SQRT", "FUNC_BINOMIAL", "CMD_TIMES", "CMD_CDOT", "CMD_DIV", "CMD_FRAC", "NUMBER", "DERIVATIVE", "VARIABLE", "MIXNUMBER", "WORD", "INFINITY", "EQ", "INEQUALITIES", "BANG", "GREEKLETTER", "LETTERFUNCTIONBRACE", "LETTERFUNCTIONPAREN", "GREEKFUNCTIONBRACE", "GREEKFUNCTIONPAREN", "SET_IN", "SET_LIKE", "SET_DIFFERENCE", "WS" ] ruleNames = [ "PLUS", "MINUS", "MUL", "DIV", "L_PAREN", "R_PAREN", "L_BRACE", "R_BRACE", "L_BRACKET", "R_BRACKET", "COMMA", "DOT", "SEMICOLON", "BAR", "UNDERSCORE", "CARET", "COLON", "BACKSLASH", "FUNC_LIM", "LIM_APPROACH_SYM", "FUNC_FRAC", "FUNC_INT", "FUNC_SUM", "FUNC_PROD", "ARC", "FUNC_LOG", "FUNC_LN", "FUNC_SIN", "FUNC_COS", "FUNC_TAN", "FUNC_CSC", "FUNC_SEC", "FUNC_COT", "FUNC_ARCSIN", "FUNC_ARCCOS", "FUNC_ARCTAN", "FUNC_ARCCSC", "FUNC_ARCSEC", "FUNC_ARCCOT", "FUNC_SINH", "FUNC_COSH", "FUNC_TANH", "FUNC_ARCSINH", "FUNC_ARCCOSH", "FUNC_ARCTANH", "FUNC_ECOS", "FUNC_ESIN", "FUNC_EDELTAAMPLITUDE", "FUNC_ARCECOS", "FUNC_ARCESIN", "FUNC_ARCEDELTAAMPLITUDE", "FUNC_SQRT", "FUNC_BINOMIAL", "CMD_TIMES", "CMD_CDOT", "CMD_DIV", "CMD_FRAC", "LETTER", "DIGIT", "NUMBER", "DERIVATIVE", "VARIABLE", "MIXNUMBER", "WORD", "INFINITY", "EQ", "LT", "LTE", "GT", "GTE", "INEQUALITIES", "BANG", "ALPHA", "BETA", "GAMMA", "DELTA", "EPSILON", "ZETA", "ETA", "THETA", "IOTA", "KAPPA", "LAMBDA", "MU", "NU", "XI", "OMICRON", "PI", "RHO", "SIGMA", "TAU", "UPSILON", "PHI", "CHI", "PSI", "OMEGA", "GREEKLETTER", "INDICED", "LETTERFUNCTIONBRACE", "LETTERFUNCTIONPAREN", "GREEKFUNCTIONBRACE", "GREEKFUNCTIONPAREN", "SET_IN", "SET_LIKE", "SET_DIFFERENCE", "WS" ] grammarFileName = "MatexLexer.g4" def __init__(self, input=None, output:TextIO = sys.stdout): super().__init__(input, output) self.checkVersion("4.7.2") self._interp = LexerATNSimulator(self, self.atn, self.decisionsToDFA, PredictionContextCache()) self._actions = None self._predicates = None
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Python
directdm/wilson_coefficients.py
DirectDM/directdm-py
9e940703bc4e5b2266ce2c93c27abee755c0cbaf
[ "MIT" ]
5
2017-09-09T16:22:00.000Z
2021-11-17T07:31:11.000Z
directdm/wilson_coefficients.py
DirectDM/directdm-py
9e940703bc4e5b2266ce2c93c27abee755c0cbaf
[ "MIT" ]
2
2018-04-17T16:43:27.000Z
2018-04-19T12:34:54.000Z
directdm/wilson_coefficients.py
DirectDM/directdm-py
9e940703bc4e5b2266ce2c93c27abee755c0cbaf
[ "MIT" ]
2
2018-05-10T17:39:57.000Z
2018-09-19T16:40:07.000Z
#!/usr/bin/env python3 import sys import numpy as np import scipy.integrate as spint import warnings import os.path from directdm.run import adm from directdm.run import rge from directdm.num.num_input import Num_input from directdm.match.dim4_gauge_contribution import Higgspenguin from directdm.num.single_nucleon_form_factors import * #----------------------------------------------# # convert dictionaries to lists and vice versa # #----------------------------------------------# def dict_to_list(dictionary, order_list): """ Create a list from dictionary, according to ordering in order_list """ #assert sorted(order_list) == sorted(dictionary.keys()) wc_list = [] for wc_name in order_list: wc_list.append(dictionary[wc_name]) return wc_list def list_to_dict(wc_list, order_list): """ Create a dictionary from a list wc_list, using keys in order_list """ #assert len(order_list) == len(wc_list) wc_dict = {} for wc_ind in range(len(order_list)): wc_dict[order_list[wc_ind]] = wc_list[wc_ind] return wc_dict #---------------------------------------------------# # Classes for Wilson coefficients at various scales # #---------------------------------------------------# class WC_3flavor(object): def __init__(self, coeff_dict, DM_type, input_dict): """ Class for Wilson coefficients in 3 flavor QCD x QED plus DM. The first argument should be a dictionary for the initial conditions of the 2 + 24 + 4 + 36 + 4 + 48 + 6 + 1 + 12 = 137 dimension-five to dimension-eight three-flavor-QCD Wilson coefficients of the form {'C51' : value, 'C52' : value, ...}. An arbitrary number of them can be given; the default values are zero. The second argument is the DM type; it can take the following values: "D" (Dirac fermion) "M" (Majorana fermion) "C" (Complex scalar) "R" (Real scalar) The possible names are (with an hopefully obvious notation): Dirac fermion: 'C51', 'C52', 'C61u', 'C61d', 'C61s', 'C61e', 'C61mu', 'C61tau', 'C62u', 'C62d', 'C62s', 'C62e', 'C62mu', 'C62tau', 'C63u', 'C63d', 'C63s', 'C63e', 'C63mu', 'C63tau', 'C64u', 'C64d', 'C64s', 'C64e', 'C64mu', 'C64tau', 'C71', 'C72', 'C73', 'C74', 'C75u', 'C75d', 'C75s', 'C75e', 'C75mu', 'C75tau', 'C76u', 'C76d', 'C76s', 'C76e', 'C76mu', 'C76tau', 'C77u', 'C77d', 'C77s', 'C77e', 'C77mu', 'C77tau', 'C78u', 'C78d', 'C78s', 'C78e', 'C78mu', 'C78tau', 'C79u', 'C79d', 'C79s', 'C79e', 'C79mu', 'C79tau', 'C710u', 'C710d', 'C710s', 'C710e', 'C710mu', 'C710tau', 'C711', 'C712', 'C713', 'C714', 'C715u', 'C715d', 'C715s', 'C715e', 'C715mu', 'C715tau', 'C716u', 'C716d', 'C716s', 'C716e', 'C716mu', 'C716tau', 'C717u', 'C717d', 'C717s', 'C717e', 'C717mu', 'C717tau', 'C718u', 'C718d', 'C718s', 'C718e', 'C718mu', 'C718tau', 'C719u', 'C719d', 'C719s', 'C719e', 'C719mu', 'C719tau', 'C720u', 'C720d', 'C720s', 'C720e', 'C720mu', 'C720tau', 'C721u', 'C721d', 'C721s', 'C721e', 'C721mu', 'C721tau', 'C722u', 'C722d', 'C722s', 'C722e', 'C722mu', 'C722tau', 'C723u', 'C723d', 'C723s', 'C723e', 'C723mu', 'C723tau', 'C725', 'C81u', 'C81d', 'C81s', 'C82u', 'C82d', 'C82s' 'C83u', 'C83d', 'C83s', 'C84u', 'C84d', 'C84s' Majorana fermion: 'C62u', 'C62d', 'C62s', 'C62e', 'C62mu', 'C62tau', 'C64u', 'C64d', 'C64s', 'C64e', 'C64mu', 'C64tau', 'C71', 'C72', 'C73', 'C74', 'C75u', 'C75d', 'C75s', 'C75e', 'C75mu', 'C75tau', 'C76u', 'C76d', 'C76s', 'C76e', 'C76mu', 'C76tau', 'C77u', 'C77d', 'C77s', 'C77e', 'C77mu', 'C77tau', 'C78u', 'C78d', 'C78s', 'C78e', 'C78mu', 'C78tau', 'C711', 'C712', 'C713', 'C714', 'C715u', 'C715d', 'C715s', 'C715e', 'C715mu', 'C715tau', 'C716u', 'C716d', 'C716s', 'C716e', 'C716mu', 'C716tau', 'C717u', 'C717d', 'C717s', 'C717e', 'C717mu', 'C717tau', 'C718u', 'C718d', 'C718s', 'C718e', 'C718mu', 'C718tau', 'C82u', 'C82d', 'C82s', 'C84u', 'C84d', 'C84s' Complex Scalar: 'C61u', 'C61d', 'C61s', 'C61e', 'C61mu', 'C61tau', 'C62u', 'C62d', 'C62s', 'C62e', 'C62mu', 'C62tau', 'C63u', 'C63d', 'C63s', 'C63e', 'C63mu', 'C63tau', 'C64u', 'C64d', 'C64s', 'C64e', 'C64mu', 'C64tau', 'C65', 'C66', 'C67', 'C68' 'C81u', 'C81d', 'C81s', 'C82u', 'C82d', 'C82s', 'C69u', 'C69d', 'C69s', 'C69e', 'C69mu', 'C69tau', 'C610' Real Scalar: 'C63u', 'C63d', 'C63s', 'C63e', 'C63mu', 'C63tau', 'C64u', 'C64d', 'C64s', 'C64e', 'C64mu', 'C64tau', 'C65', 'C66', 'C67', 'C68', 'C69u', 'C69d', 'C69s', 'C69e', 'C69mu', 'C69tau', 'C610' (the notation corresponds to the numbering in 1707.06998, 1801.04240). The Wilson coefficients should be specified in the MS-bar scheme at 2 GeV. For completeness, the default initial conditions at MZ for the corresponding leptonic operator Wilson coefficients are defined as the SM values (note that these operators have vanishing QCD anomalous dimension): 'D63eu', 'D63muu', 'D63tauu', 'D63ed', 'D63mud', 'D63taud', 'D63es', 'D63mus', 'D63taus', 'D62ue', 'D62umu', 'D62utau', 'D62de', 'D62dmu', 'D62dtau', 'D62se', 'D62smu', 'D62stau' The third argument is a dictionary with all input parameters. The class has three methods: run --- Run the Wilson coefficients from mu = 2 GeV to mu_low [GeV; default 2 GeV], with 3 active quark flavors cNR --- Calculate the cNR coefficients as defined in 1308.6288 The class has two mandatory arguments: The DM mass in GeV and the momentum transfer in GeV The effects of double insertion [arxiv:1801.04240] are included also for leptons; for couplings to electrons and muons, there are other contributions that are neglected. If the relevant initial conditions are set to non-zero values, a user warning is issued upon creation of the class instance. write_mma --------- Write an output file that can be loaded into mathematica, to be used in the DMFormFactor package [1308.6288]. """ self.DM_type = DM_type self.sm_lepton_name_list = ['D63eu', 'D63muu', 'D63tauu', 'D63ed', 'D63mud', 'D63taud', 'D63es', 'D63mus', 'D63taus', 'D62ue', 'D62umu', 'D62utau', 'D62de', 'D62dmu', 'D62dtau', 'D62se', 'D62smu', 'D62stau'] if self.DM_type == "D": self.wc_name_list = ['C51', 'C52', 'C61u', 'C61d', 'C61s', 'C61e', 'C61mu', 'C61tau', 'C62u', 'C62d', 'C62s', 'C62e', 'C62mu', 'C62tau', 'C63u', 'C63d', 'C63s', 'C63e', 'C63mu', 'C63tau', 'C64u', 'C64d', 'C64s', 'C64e', 'C64mu', 'C64tau', 'C71', 'C72', 'C73', 'C74', 'C75u', 'C75d', 'C75s', 'C75e', 'C75mu', 'C75tau', 'C76u', 'C76d', 'C76s', 'C76e', 'C76mu', 'C76tau', 'C77u', 'C77d', 'C77s', 'C77e', 'C77mu', 'C77tau', 'C78u', 'C78d', 'C78s', 'C78e', 'C78mu', 'C78tau', 'C79u', 'C79d', 'C79s', 'C79e', 'C79mu', 'C79tau', 'C710u', 'C710d', 'C710s', 'C710e', 'C710mu', 'C710tau', 'C711', 'C712', 'C713', 'C714', 'C715u', 'C715d', 'C715s', 'C715e', 'C715mu', 'C715tau', 'C716u', 'C716d', 'C716s', 'C716e', 'C716mu', 'C716tau', 'C717u', 'C717d', 'C717s', 'C717e', 'C717mu', 'C717tau', 'C718u', 'C718d', 'C718s', 'C718e', 'C718mu', 'C718tau', 'C719u', 'C719d', 'C719s', 'C719e', 'C719mu', 'C719tau', 'C720u', 'C720d', 'C720s', 'C720e', 'C720mu', 'C720tau', 'C721u', 'C721d', 'C721s', 'C721e', 'C721mu', 'C721tau', 'C722u', 'C722d', 'C722s', 'C722e', 'C722mu', 'C722tau', 'C723u', 'C723d', 'C723s', 'C723e', 'C723mu', 'C723tau', 'C725'] self.wc8_name_list = ['C81u', 'C81d', 'C81s', 'C82u', 'C82d', 'C82s', 'C83u', 'C83d', 'C83s', 'C84u', 'C84d', 'C84s'] if self.DM_type == "M": self.wc_name_list = ['C62u', 'C62d', 'C62s', 'C62e', 'C62mu', 'C62tau', 'C64u', 'C64d', 'C64s', 'C64e', 'C64mu', 'C64tau', 'C71', 'C72', 'C73', 'C74', 'C75u', 'C75d', 'C75s', 'C75e', 'C75mu', 'C75tau', 'C76u', 'C76d', 'C76s', 'C76e', 'C76mu', 'C76tau', 'C77u', 'C77d', 'C77s', 'C77e', 'C77mu', 'C77tau', 'C78u', 'C78d', 'C78s', 'C78e', 'C78mu', 'C78tau', 'C711', 'C712', 'C713', 'C714', 'C715u', 'C715d', 'C715s', 'C715e', 'C715mu', 'C715tau', 'C716u', 'C716d', 'C716s', 'C716e', 'C716mu', 'C716tau', 'C717u', 'C717d', 'C717s', 'C717e', 'C717mu', 'C717tau', 'C718u', 'C718d', 'C718s', 'C718e', 'C718mu', 'C718tau', 'C723u', 'C723d', 'C723s', 'C723e', 'C723mu', 'C723tau', 'C725'] self.wc8_name_list = ['C82u', 'C82d', 'C82s', 'C84u', 'C84d', 'C84s'] # The list of indices to be deleted from the QCD/QED ADM because of less operators del_ind_list = np.r_[np.s_[0:8], np.s_[14:20], np.s_[54:66], np.s_[94:118]] # The list of indices to be deleted from the dim.8 ADM because of less operators del_ind_list_dim_8 = np.r_[np.s_[0:3], np.s_[6:9]] if self.DM_type == "C": self.wc_name_list = ['C61u', 'C61d', 'C61s', 'C61e', 'C61mu', 'C61tau', 'C62u', 'C62d', 'C62s', 'C62e', 'C62mu', 'C62tau', 'C65', 'C66', 'C63u', 'C63d', 'C63s', 'C63e', 'C63mu', 'C63tau', 'C64u', 'C64d', 'C64s', 'C64e', 'C64mu', 'C64tau', 'C67', 'C68', 'C69u', 'C69d', 'C69s', 'C69e', 'C69mu', 'C69tau', 'C610'] self.wc8_name_list = ['C81u', 'C81d', 'C81s', 'C82u', 'C82d', 'C82s'] # The list of indices to be deleted from the QCD/QED ADM because of less operators del_ind_list = np.r_[np.s_[0:2], np.s_[8:14], np.s_[20:26], np.s_[27:28], np.s_[29:30],\ np.s_[36:42], np.s_[48:66], np.s_[67:68], np.s_[69:70], np.s_[70:118]] # The list of indices to be deleted from the dim.8 ADM because of less operators del_ind_list_dim_8 = np.r_[np.s_[0:3], np.s_[6:9]] if self.DM_type == "R": self.wc_name_list = ['C65', 'C66', 'C63u', 'C63d', 'C63s', 'C63e', 'C63mu', 'C63tau', 'C64u', 'C64d', 'C64s', 'C64e', 'C64mu', 'C64tau', 'C67', 'C68', 'C69u', 'C69d', 'C69s', 'C69e', 'C69mu', 'C69tau', 'C610'] self.wc8_name_list = [] # The list of indices to be deleted from the QCD/QED ADM because of less operators del_ind_list = np.r_[np.s_[0:26], np.s_[27:28], np.s_[29:30], np.s_[36:42],\ np.s_[48:66], np.s_[67:68], np.s_[69:70], np.s_[70:118]] self.coeff_dict = {} # Issue a user warning if a key is not defined: for wc_name in coeff_dict.keys(): if wc_name in self.wc_name_list: pass elif wc_name in self.wc8_name_list: pass else: warnings.warn('The key ' + wc_name + ' is not a valid key. Typo?') # Create the dictionary. for wc_name in self.wc_name_list: if wc_name in coeff_dict.keys(): self.coeff_dict[wc_name] = coeff_dict[wc_name] else: self.coeff_dict[wc_name] = 0. for wc_name in self.wc8_name_list: if wc_name in coeff_dict.keys(): self.coeff_dict[wc_name] = coeff_dict[wc_name] else: self.coeff_dict[wc_name] = 0. # The dictionary of input parameters self.ip = input_dict # The default values for the SM lepton operators: # Input for lepton contribution sw = np.sqrt(self.ip['sw2_MSbar']) cw = np.sqrt(1-sw**2) vd = (-1/2 - 2*sw**2*(-1/3))/(2*sw*cw) vu = (1/2 - 2*sw**2*(2/3))/(2*sw*cw) ad = -(-1/2)/(2*sw*cw) au = -(1/2)/(2*sw*cw) vl = (-1/2 - 2*sw**2*(-1))/(2*sw*cw) al = -(-1/2)/(2*sw*cw) self.coeff_dict['D62ue'] = au*al * 4*sw**2*cw**2 self.coeff_dict['D62umu'] = au*al * 4*sw**2*cw**2 self.coeff_dict['D62utau'] = au*al * 4*sw**2*cw**2 self.coeff_dict['D62de'] = ad*al * 4*sw**2*cw**2 self.coeff_dict['D62dmu'] = ad*al * 4*sw**2*cw**2 self.coeff_dict['D62dtau'] = ad*al * 4*sw**2*cw**2 self.coeff_dict['D62se'] = ad*al * 4*sw**2*cw**2 self.coeff_dict['D62smu'] = ad*al * 4*sw**2*cw**2 self.coeff_dict['D62stau'] = ad*al * 4*sw**2*cw**2 self.coeff_dict['D63eu'] = al*vu * 4*sw**2*cw**2 self.coeff_dict['D63muu'] = al*vu * 4*sw**2*cw**2 self.coeff_dict['D63tauu'] = al*vu * 4*sw**2*cw**2 self.coeff_dict['D63ed'] = al*vd * 4*sw**2*cw**2 self.coeff_dict['D63mud'] = al*vd * 4*sw**2*cw**2 self.coeff_dict['D63taud'] = al*vd * 4*sw**2*cw**2 self.coeff_dict['D63es'] = al*vd * 4*sw**2*cw**2 self.coeff_dict['D63mus'] = al*vd * 4*sw**2*cw**2 self.coeff_dict['D63taus'] = al*vd * 4*sw**2*cw**2 for wc_name in self.sm_lepton_name_list: if wc_name in coeff_dict.keys(): self.coeff_dict[wc_name] = coeff_dict[wc_name] else: pass # Issue a user warning if certain electron / muon Wilson coefficients are non-zero: for wc_name in self.coeff_dict.keys(): if DM_type == "D": for wc_name in ['C63e', 'C63mu', 'C64e', 'C64mu']: if self.coeff_dict[wc_name] != 0.: warnings.warn('The RG result for ' + wc_name + ' is incomplete, expect large uncertainties!') else: pass elif DM_type == "M": for wc_name in ['C64e', 'C64mu']: if self.coeff_dict[wc_name] != 0.: warnings.warn('The RG result for ' + wc_name + ' is incomplete, expect large uncertainties!') else: pass elif DM_type == "C": for wc_name in ['C62e', 'C62mu']: if self.coeff_dict[wc_name] != 0.: warnings.warn('The RG result for ' + wc_name + ' is incomplete, expect large uncertainties!') else: pass elif DM_type == "R": pass # Create the np.array of coefficients: self.coeff_list_dm_dim5_dim6_dim7 = np.array(dict_to_list(self.coeff_dict, self.wc_name_list)) self.coeff_list_dm_dim8 = np.array(dict_to_list(self.coeff_dict, self.wc8_name_list)) self.coeff_list_sm_lepton_dim6 = np.array(dict_to_list(self.coeff_dict, self.sm_lepton_name_list)) #---------------------------# # The anomalous dimensions: # #---------------------------# if self.DM_type == "D": self.gamma_QED = adm.ADM_QED(3) self.gamma_QED2 = adm.ADM_QED2(3) self.gamma_QCD = adm.ADM_QCD(3) self.gamma_QCD2 = adm.ADM_QCD2(3) self.gamma_QCD_dim8 = adm.ADM_QCD_dim8(3) if self.DM_type == "M": self.gamma_QED = np.delete(np.delete(adm.ADM_QED(3), del_ind_list, 0), del_ind_list, 1) self.gamma_QED2 = np.delete(np.delete(adm.ADM_QED2(3), del_ind_list, 0), del_ind_list, 1) self.gamma_QCD = np.delete(np.delete(adm.ADM_QCD(3), del_ind_list, 1), del_ind_list, 2) self.gamma_QCD2 = np.delete(np.delete(adm.ADM_QCD2(3), del_ind_list, 1), del_ind_list, 2) self.gamma_QCD_dim8 = np.delete(np.delete(adm.ADM_QCD_dim8(3), del_ind_list_dim_8, 0),\ del_ind_list_dim_8, 1) if self.DM_type == "C": self.gamma_QED = np.delete(np.delete(adm.ADM_QED(3), del_ind_list, 0), del_ind_list, 1) self.gamma_QED2 = np.delete(np.delete(adm.ADM_QED2(3), del_ind_list, 0), del_ind_list, 1) self.gamma_QCD = np.delete(np.delete(adm.ADM_QCD(3), del_ind_list, 1), del_ind_list, 2) self.gamma_QCD2 = np.delete(np.delete(adm.ADM_QCD2(3), del_ind_list, 1), del_ind_list, 2) self.gamma_QCD_dim8 = np.delete(np.delete(adm.ADM_QCD_dim8(3), del_ind_list_dim_8, 0),\ del_ind_list_dim_8, 1) if self.DM_type == "R": self.gamma_QED = np.delete(np.delete(adm.ADM_QED(3), del_ind_list, 0), del_ind_list, 1) self.gamma_QED2 = np.delete(np.delete(adm.ADM_QED2(3), del_ind_list, 0), del_ind_list, 1) self.gamma_QCD = np.delete(np.delete(adm.ADM_QCD(3), del_ind_list, 1), del_ind_list, 2) self.gamma_QCD2 = np.delete(np.delete(adm.ADM_QCD2(3), del_ind_list, 1), del_ind_list, 2) def run(self, mu_low=None): """ Running of 3-flavor Wilson coefficients Calculate the running from 2 GeV to mu_low [GeV; default 2 GeV] in the three-flavor theory. Return a dictionary of Wilson coefficients for the three-flavor Lagrangian at scale mu_low (this is the default). """ if mu_low is None: mu_low=2 #-------------# # The running # #-------------# alpha_at_mu = 1/self.ip['amtauinv'] as31 = rge.AlphaS(self.ip['asMZ'], self.ip['Mz']) as31_high = as31.run({'mbmb': self.ip['mb_at_mb'], 'mcmc': self.ip['mc_at_mc']},\ {'mub': self.ip['mb_at_mb'], 'muc': self.ip['mc_at_mc']}, 2, 3, 1) as31_low = as31.run({'mbmb': self.ip['mb_at_mb'], 'mcmc': self.ip['mc_at_mc']},\ {'mub': self.ip['mb_at_mb'], 'muc': self.ip['mc_at_mc']}, mu_low, 3, 1) evolve1 = rge.RGE(self.gamma_QCD, 3) evolve2 = rge.RGE(self.gamma_QCD2, 3) if self.DM_type == "D" or self.DM_type == "M" or self.DM_type == "C": evolve8 = rge.RGE([self.gamma_QCD_dim8], 3) else: pass C_at_mu_QCD = np.dot(evolve2.U0_as2(as31_high, as31_low),\ np.dot(evolve1.U0(as31_high, as31_low),\ self.coeff_list_dm_dim5_dim6_dim7)) C_at_mu_QED = np.dot(self.coeff_list_dm_dim5_dim6_dim7, self.gamma_QED)\ * np.log(mu_low/2) * alpha_at_mu/(4*np.pi)\ + np.dot(self.coeff_list_dm_dim5_dim6_dim7, self.gamma_QED2)\ * np.log(mu_low/2) * (alpha_at_mu/(4*np.pi))**2 if self.DM_type == "D" or self.DM_type == "M" or self.DM_type == "C": C_dim8_at_mu = np.dot(evolve8.U0(as31_high, as31_low), self.coeff_list_dm_dim8) else: pass # Revert back to dictionary dict_coeff_mu = list_to_dict(C_at_mu_QCD + C_at_mu_QED, self.wc_name_list) if self.DM_type == "D" or self.DM_type == "M" or self.DM_type == "C": dict_dm_dim8 = list_to_dict(C_dim8_at_mu, self.wc8_name_list) dict_coeff_mu.update(dict_dm_dim8) dict_sm_lepton_dim6 = list_to_dict(self.coeff_list_sm_lepton_dim6, self.sm_lepton_name_list) dict_coeff_mu.update(dict_sm_lepton_dim6) else: pass return dict_coeff_mu def _my_cNR(self, DM_mass, RGE=None, NLO=None, DOUBLE_WEAK=None): """Calculate the coefficients of the NR operators, with momentum dependence factored out. DM_mass is the DM mass in GeV RGE is a flag to turn RGE running on (True) or off (False). (Default True) If NLO is set to True, the coherently enhanced NLO terms for Q_9^(7) are added. (Default False) If DOUBLE_WEAK is set to False, the weak mixing below the weak scale is set to zero. (Default True) Returns a dictionary of coefficients for the NR Lagrangian, as in 1308.6288, plus coefficients c13 -- c23, c100 for "spurious" long-distance operators The possible names are ['cNR1p', 'cNR1n', 'cNR2p', 'cNR2n', 'cNR3p', 'cNR3n', 'cNR4p', 'cNR4n', 'cNR5p', 'cNR5n', 'cNR6p', 'cNR6n', 'cNR7p', 'cNR7n', 'cNR8p', 'cNR8n', 'cNR9p', 'cNR9n', 'cNR10p', 'cNR10n', 'cNR11p', 'cNR11n', 'cNR12p', 'cNR12n', 'cNR13p', 'cNR13n', 'cNR14p', 'cNR14n', 'cNR15p', 'cNR15n', 'cNR16p', 'cNR16n', 'cNR17p', 'cNR17n', 'cNR18p', 'cNR18n', 'cNR19p', 'cNR19n', 'cNR20p', 'cNR20n', 'cNR21p', 'cNR21n', 'cNR22p', 'cNR22n', 'cNR23p', 'cNR23n', 'cNR100p', 'cNR100n', 'cNR104p', 'cNR104n'] """ if RGE is None: RGE = True if NLO is None: NLO = False if DOUBLE_WEAK is None: DOUBLE_WEAK = True if DOUBLE_WEAK: wmws = 1. else: wmws = 0. ### Input parameters #### mpi = self.ip['mpi0'] mp = self.ip['mproton'] mn = self.ip['mneutron'] mN = (mp+mn)/2 alpha = 1/self.ip['alowinv'] GF = self.ip['GF'] as_2GeV = rge.AlphaS(self.ip['asMZ'],\ self.ip['Mz']).run({'mbmb': self.ip['mb_at_mb'], 'mcmc': self.ip['mc_at_mc']},\ {'mub': self.ip['mb_at_mb'], 'muc': self.ip['mc_at_mc']}, 2, 3, 1) gs2_2GeV = 4*np.pi*as_2GeV # Quark masses at 2GeV mu = self.ip['mu_at_2GeV'] md = self.ip['md_at_2GeV'] ms = self.ip['ms_at_2GeV'] mtilde = 1/(1/mu + 1/md + 1/ms) # Lepton masses me = self.ip['me'] mmu = self.ip['mmu'] mtau = self.ip['mtau'] # Z boson mass MZ = self.ip['Mz'] ### Numerical constants mproton = self.ip['mproton'] mneutron = self.ip['mneutron'] F1up = F1('u', 'p', self.ip).value_zero_mom() F1dp = F1('d', 'p', self.ip).value_zero_mom() F1sp = F1('s', 'p', self.ip).value_zero_mom() F1un = F1('u', 'n', self.ip).value_zero_mom() F1dn = F1('d', 'n', self.ip).value_zero_mom() F1sn = F1('s', 'n', self.ip).value_zero_mom() F1spslope = F1('s', 'p', self.ip).first_deriv_zero_mom() F1snslope = F1('s', 'n', self.ip).first_deriv_zero_mom() F2up = F2('u', 'p', self.ip).value_zero_mom() F2dp = F2('d', 'p', self.ip).value_zero_mom() F2sp = F2('s', 'p', self.ip).value_zero_mom() F2un = F2('u', 'n', self.ip).value_zero_mom() F2dn = F2('d', 'n', self.ip).value_zero_mom() F2sn = F2('s', 'n', self.ip).value_zero_mom() FAup = FA('u', 'p', self.ip).value_zero_mom() FAdp = FA('d', 'p', self.ip).value_zero_mom() FAsp = FA('s', 'p', self.ip).value_zero_mom() FAun = FA('u', 'n', self.ip).value_zero_mom() FAdn = FA('d', 'n', self.ip).value_zero_mom() FAsn = FA('s', 'n', self.ip).value_zero_mom() FPpup_pion = FPprimed('u', 'p', self.ip).value_pion_pole() FPpdp_pion = FPprimed('d', 'p', self.ip).value_pion_pole() FPpsp_pion = FPprimed('s', 'p', self.ip).value_pion_pole() FPpun_pion = FPprimed('u', 'n', self.ip).value_pion_pole() FPpdn_pion = FPprimed('d', 'n', self.ip).value_pion_pole() FPpsn_pion = FPprimed('s', 'n', self.ip).value_pion_pole() FPpup_eta = FPprimed('u', 'p', self.ip).value_eta_pole() FPpdp_eta = FPprimed('d', 'p', self.ip).value_eta_pole() FPpsp_eta = FPprimed('s', 'p', self.ip).value_eta_pole() FPpun_eta = FPprimed('u', 'n', self.ip).value_eta_pole() FPpdn_eta = FPprimed('d', 'n', self.ip).value_eta_pole() FPpsn_eta = FPprimed('s', 'n', self.ip).value_eta_pole() FSup = FS('u', 'p', self.ip).value_zero_mom() FSdp = FS('d', 'p', self.ip).value_zero_mom() FSsp = FS('s', 'p', self.ip).value_zero_mom() FSun = FS('u', 'n', self.ip).value_zero_mom() FSdn = FS('d', 'n', self.ip).value_zero_mom() FSsn = FS('s', 'n', self.ip).value_zero_mom() FPup_pion = FP('u', 'p', self.ip).value_pion_pole() FPdp_pion = FP('d', 'p', self.ip).value_pion_pole() FPsp_pion = FP('s', 'p', self.ip).value_pion_pole() FPun_pion = FP('u', 'n', self.ip).value_pion_pole() FPdn_pion = FP('d', 'n', self.ip).value_pion_pole() FPsn_pion = FP('s', 'n', self.ip).value_pion_pole() FPup_eta = FP('u', 'p', self.ip).value_eta_pole() FPdp_eta = FP('d', 'p', self.ip).value_eta_pole() FPsp_eta = FP('s', 'p', self.ip).value_eta_pole() FPun_eta = FP('u', 'n', self.ip).value_eta_pole() FPdn_eta = FP('d', 'n', self.ip).value_eta_pole() FPsn_eta = FP('s', 'n', self.ip).value_eta_pole() FGp = FG('p', self.ip).value_zero_mom() FGn = FG('n', self.ip).value_zero_mom() FGtildep = FGtilde('p', self.ip).value_zero_mom() FGtilden = FGtilde('n', self.ip).value_zero_mom() FGtildep_pion = FGtilde('p', self.ip).value_pion_pole() FGtilden_pion = FGtilde('n', self.ip).value_pion_pole() FGtildep_eta = FGtilde('p', self.ip).value_eta_pole() FGtilden_eta = FGtilde('n', self.ip).value_eta_pole() FT0up = FT0('u', 'p', self.ip).value_zero_mom() FT0dp = FT0('d', 'p', self.ip).value_zero_mom() FT0sp = FT0('s', 'p', self.ip).value_zero_mom() FT0un = FT0('u', 'n', self.ip).value_zero_mom() FT0dn = FT0('d', 'n', self.ip).value_zero_mom() FT0sn = FT0('s', 'n', self.ip).value_zero_mom() FT1up = FT1('u', 'p', self.ip).value_zero_mom() FT1dp = FT1('d', 'p', self.ip).value_zero_mom() FT1sp = FT1('s', 'p', self.ip).value_zero_mom() FT1un = FT1('u', 'n', self.ip).value_zero_mom() FT1dn = FT1('d', 'n', self.ip).value_zero_mom() FT1sn = FT1('s', 'n', self.ip).value_zero_mom() FTW2up = FTwist2('u', 'p', self.ip).value_zero_mom() FTW2dp = FTwist2('d', 'p', self.ip).value_zero_mom() FTW2sp = FTwist2('s', 'p', self.ip).value_zero_mom() FTW2gp = FTwist2('g', 'p', self.ip).value_zero_mom() FTW2un = FTwist2('u', 'n', self.ip).value_zero_mom() FTW2dn = FTwist2('d', 'n', self.ip).value_zero_mom() FTW2sn = FTwist2('s', 'n', self.ip).value_zero_mom() FTW2gn = FTwist2('g', 'n', self.ip).value_zero_mom() ### The coefficients ### # # Note that all dependence on 1/q^2, 1/(m^2-q^2), q^2/(m^2-q^2) is taken care of # by defining spurious operators. # # Therefore, we need to split some of the coefficients # into the "pion part" etc. with the q-dependence factored out, # and introduce a few spurious "long-distance" operators. # # The coefficients cNR1 -- cNR12 correspond to the operators in 1611.00368 and 1308.6288 # # Therefore, we define O13 = O6/(mpi^2+q^2); # O14 = O6/(meta^2+q^2); # O15 = O6*q^2/(mpi^2+q^2); # O16 = O6*q^2/(meta^2+q^2); # O17 = O10/(mpi^2+q^2); # O18 = O10/(meta^2+q^2); # O19 = O10*q^2/(mpi^2+q^2); # O20 = O10*q^2/(meta^2+q^2); # # For the dipole interactions, these are the ones that have c2p1, c1N2, c2p2 as coefficients. # Therefore, we define O21 = O5/q^2; # O22 = O6/q^2. # O23 = O11/q^2. # # For the tensors, O4 * q^2 appears as a leading contribution. # Therefore, we define O104 = O4 * q^2 # # For the tensors, O1 * q^2 appears as a subleading contribution. # Therefore, we define O100 = O1 * q^2 # # q^2 is here always the spatial part!!! # if RGE: c3mu_dict = self.run(2) else: c3mu_dict = self.coeff_dict if self.DM_type == "D": my_cNR_dict = { 'cNR1p' : F1up*(c3mu_dict['C61u'] - np.sqrt(2)*GF*wmws*mu**2 / gs2_2GeV * c3mu_dict['C81u'])\ + F1dp*(c3mu_dict['C61d'] - np.sqrt(2)*GF*wmws*md**2 / gs2_2GeV * c3mu_dict['C81d'])\ + F1up*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C63e'] * c3mu_dict['D63eu'])\ + F1dp*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C63e'] * c3mu_dict['D63ed'])\ + F1up*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C63mu'] * c3mu_dict['D63muu'])\ + F1dp*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C63mu'] * c3mu_dict['D63mud'])\ + F1up*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C63tau'] * c3mu_dict['D63tauu'])\ + F1dp*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C63tau'] * c3mu_dict['D63taud'])\ + FGp*c3mu_dict['C71']\ + FSup*c3mu_dict['C75u'] + FSdp*c3mu_dict['C75d'] + FSsp*c3mu_dict['C75s']\ - alpha/(2*np.pi*DM_mass)*c3mu_dict['C51']\ + 2*DM_mass * (F1up*c3mu_dict['C715u'] + F1dp*c3mu_dict['C715d'] + F1sp*c3mu_dict['C715s'])\ + FTW2up*c3mu_dict['C723u']\ + FTW2dp*c3mu_dict['C723d']\ + FTW2sp*c3mu_dict['C723s']\ + FTW2gp*c3mu_dict['C725'], 'cNR2p' : 0, 'cNR3p' : F2sp * c3mu_dict['C61s'], 'cNR4p' : - 4*( FAup*(c3mu_dict['C64u'] - np.sqrt(2)*GF*wmws*mu**2 / gs2_2GeV * c3mu_dict['C84u'])\ + FAdp*(c3mu_dict['C64d'] - np.sqrt(2)*GF*wmws*md**2 / gs2_2GeV * c3mu_dict['C84d'])\ + FAsp*(c3mu_dict['C64s'] - np.sqrt(2)*GF*wmws*ms**2 / gs2_2GeV * c3mu_dict['C84s'])\ + FAup*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D62ue'])\ + FAdp*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D62de'])\ + FAsp*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D62se'])\ + FAup*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D62umu'])\ + FAdp*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D62dmu'])\ + FAsp*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D62smu'])\ + FAup*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D62utau'])\ + FAdp*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D62dtau'])\ + FAsp*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D62stau']))\ - 2*alpha/np.pi * self.ip['mup']/mN * c3mu_dict['C51']\ + 8*(FT0up*c3mu_dict['C79u'] + FT0dp*c3mu_dict['C79d'] + FT0sp*c3mu_dict['C79s']), 'cNR5p' : - 2*mN * (F1up*c3mu_dict['C719u'] + F1dp*c3mu_dict['C719d'] + F1sp*c3mu_dict['C719s']), 'cNR6p' : mN/DM_mass * FGtildep * c3mu_dict['C74']\ -2*mN*((F1up+F2up)*c3mu_dict['C719u']\ + (F1dp+F2dp)*c3mu_dict['C719d']\ + (F1sp+F2dp)*c3mu_dict['C719s'])\ + mN/DM_mass * F2sp * c3mu_dict['C61s'], 'cNR7p' : - 2*( FAup*(c3mu_dict['C63u'] - np.sqrt(2)*GF*wmws*mu**2 / gs2_2GeV * c3mu_dict['C83u'])\ + FAdp*(c3mu_dict['C63d'] - np.sqrt(2)*GF*wmws*md**2 / gs2_2GeV * c3mu_dict['C83d'])\ + FAsp*(c3mu_dict['C63s'] - np.sqrt(2)*GF*wmws*ms**2 / gs2_2GeV * c3mu_dict['C83s'])\ + FAup*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C63e'] * c3mu_dict['D62ue'])\ + FAdp*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C63e'] * c3mu_dict['D62de'])\ + FAsp*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C63e'] * c3mu_dict['D62se'])\ + FAup*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C63mu'] * c3mu_dict['D62umu'])\ + FAdp*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C63mu'] * c3mu_dict['D62dmu'])\ + FAsp*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C63mu'] * c3mu_dict['D62smu'])\ + FAup*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C63tau'] * c3mu_dict['D62utau'])\ + FAdp*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C63tau'] * c3mu_dict['D62dtau'])\ + FAsp*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C63tau'] * c3mu_dict['D62stau']))\ - 4*DM_mass * (FAup*c3mu_dict['C717u'] + FAdp*c3mu_dict['C717d'] + FAsp*c3mu_dict['C717s']), 'cNR8p' : 2*( F1up*(c3mu_dict['C62u'] - np.sqrt(2)*GF*wmws*mu**2 / gs2_2GeV * c3mu_dict['C82u'])\ + F1dp*(c3mu_dict['C62d'] - np.sqrt(2)*GF*wmws*md**2 / gs2_2GeV * c3mu_dict['C82d'])\ + F1up*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D63eu'])\ + F1dp*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D63ed'])\ + F1up*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D63muu'])\ + F1dp*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D63mud'])\ + F1up*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D63tauu'])\ + F1dp*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D63taud'])), 'cNR9p' : 2*( (F1up+F2up)*(c3mu_dict['C62u'] - np.sqrt(2)*GF*wmws*mu**2 / gs2_2GeV * c3mu_dict['C82u'])\ + (F1dp+F2dp)*(c3mu_dict['C62d'] - np.sqrt(2)*GF*wmws*md**2 / gs2_2GeV * c3mu_dict['C82d'])\ + (F1sp+F2sp)*(c3mu_dict['C62s'] - np.sqrt(2)*GF*wmws*ms**2 / gs2_2GeV * c3mu_dict['C82s'])\ + (F1up+F2up)*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D63eu'])\ + (F1dp+F2dp)*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D63ed'])\ + (F1sp+F2sp)*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D63es'])\ + (F1up+F2up)*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D63muu'])\ + (F1dp+F2dp)*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D63mud'])\ + (F1sp+F2sp)*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D63mus'])\ + (F1up+F2up)*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D63tauu'])\ + (F1dp+F2dp)*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D63taud'])\ + (F1sp+F2sp)*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D63taus'])) + 2*mN*( FAup*(c3mu_dict['C63u'] - np.sqrt(2)*GF*wmws*mu**2 / gs2_2GeV * c3mu_dict['C83u'])\ + FAdp*(c3mu_dict['C63d'] - np.sqrt(2)*GF*wmws*md**2 / gs2_2GeV * c3mu_dict['C83d'])\ + FAsp*(c3mu_dict['C63s'] - np.sqrt(2)*GF*wmws*ms**2 / gs2_2GeV * c3mu_dict['C83s'])\ + FAup*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C63e'] * c3mu_dict['D62ue'])\ + FAdp*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C63e'] * c3mu_dict['D62de'])\ + FAsp*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C63e'] * c3mu_dict['D62se'])\ + FAup*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C63mu'] * c3mu_dict['D62umu'])\ + FAdp*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C63mu'] * c3mu_dict['D62dmu'])\ + FAsp*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C63mu'] * c3mu_dict['D62smu'])\ + FAup*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C63tau'] * c3mu_dict['D62utau'])\ + FAdp*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C63tau'] * c3mu_dict['D62dtau'])\ + FAsp*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C63tau'] * c3mu_dict['D62stau']))/DM_mass\ - 4*mN * (FAup*c3mu_dict['C721u'] + FAdp*c3mu_dict['C721d'] + FAsp*c3mu_dict['C721s']), 'cNR10p' : FGtildep * c3mu_dict['C73']\ -2*mN/DM_mass * (FT0up*c3mu_dict['C710u']\ + FT0dp*c3mu_dict['C710d']\ + FT0sp*c3mu_dict['C710s']), 'cNR11p' : - mN/DM_mass * (FSup*c3mu_dict['C76u']\ + FSdp*c3mu_dict['C76d']\ + FSsp*c3mu_dict['C76s'])\ - mN/DM_mass * FGp * c3mu_dict['C72']\ + 2*((FT0up-FT1up)*c3mu_dict['C710u']\ + (FT0dp-FT1dp)*c3mu_dict['C710d']\ + (FT0sp-FT1sp)*c3mu_dict['C710s'])\ - 2*mN * ( F1up*(c3mu_dict['C716u']+c3mu_dict['C720u'])\ + F1dp*(c3mu_dict['C716d']+c3mu_dict['C720d'])\ + F1sp*(c3mu_dict['C716s']+c3mu_dict['C720s'])), 'cNR12p' : -8*(FT0up*c3mu_dict['C710u'] + FT0dp*c3mu_dict['C710d'] + FT0sp*c3mu_dict['C710s']), 'cNR13p' : mN/DM_mass * (FPup_pion*c3mu_dict['C78u'] + FPdp_pion*c3mu_dict['C78d'])\ + FPpup_pion*(c3mu_dict['C64u'] - np.sqrt(2)*GF*wmws*mu**2 / gs2_2GeV * c3mu_dict['C84u'])\ + FPpdp_pion*(c3mu_dict['C64d'] - np.sqrt(2)*GF*wmws*md**2 / gs2_2GeV * c3mu_dict['C84d'])\ + FPpup_pion*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D62ue'])\ + FPpdp_pion*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D62de'])\ + FPpup_pion*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D62umu'])\ + FPpdp_pion*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D62dmu'])\ + FPpup_pion*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D62utau'])\ + FPpdp_pion*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D62dtau']), 'cNR14p' : mN/DM_mass * (FPup_eta*c3mu_dict['C78u']\ + FPdp_eta*c3mu_dict['C78d']\ + FPsp_eta*c3mu_dict['C78s'])\ + FPpup_eta*(c3mu_dict['C64u'] - np.sqrt(2)*GF*wmws*mu**2 / gs2_2GeV * c3mu_dict['C84u'])\ + FPpdp_eta*(c3mu_dict['C64d'] - np.sqrt(2)*GF*wmws*md**2 / gs2_2GeV * c3mu_dict['C84d'])\ + FPpsp_eta*(c3mu_dict['C64s'] - np.sqrt(2)*GF*wmws*ms**2 / gs2_2GeV * c3mu_dict['C84s'])\ + FPpup_eta*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D62ue'])\ + FPpdp_eta*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D62de'])\ + FPpsp_eta*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D62se'])\ + FPpup_eta*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D62umu'])\ + FPpdp_eta*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D62dmu'])\ + FPpsp_eta*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D62smu'])\ + FPpup_eta*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D62utau'])\ + FPpdp_eta*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D62dtau'])\ + FPpsp_eta*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D62stau'])\ + 4*mN * ( FAup*(c3mu_dict['C718u']+c3mu_dict['C722u'])\ + FAdp*(c3mu_dict['C718d']+c3mu_dict['C722d'])\ + FAsp*(c3mu_dict['C718s']+c3mu_dict['C722s'])), 'cNR15p' : mN/DM_mass * FGtildep_pion * c3mu_dict['C74'], 'cNR16p' : mN/DM_mass * FGtildep_eta * c3mu_dict['C74'], 'cNR17p' : FPup_pion*c3mu_dict['C77u'] + FPdp_pion*c3mu_dict['C77d'], 'cNR18p' : FPup_eta*c3mu_dict['C77u'] + FPdp_eta*c3mu_dict['C77d'] + FPsp_eta*c3mu_dict['C77s'], 'cNR19p' : FGtildep_pion * c3mu_dict['C73'], 'cNR20p' : FGtildep_eta * c3mu_dict['C73'], 'cNR21p' : mN* (2*alpha/np.pi*c3mu_dict['C51']), 'cNR22p' : -mN**2* (- 2*alpha/np.pi * self.ip['mup']/mN * c3mu_dict['C51']), 'cNR23p' : mN* (2*alpha/np.pi*c3mu_dict['C52']), 'cNR100p' : ( F1up*c3mu_dict['C719u']\ + F1dp*c3mu_dict['C719d']\ + F1sp*c3mu_dict['C719s'])/(2*DM_mass)\ + (F1spslope - F2sp / mN**2/4) * c3mu_dict['C61s'], 'cNR104p' : 2*((F1up+F2up)*c3mu_dict['C719u']\ + (F1dp+F2dp)*c3mu_dict['C719d']\ + (F1sp+F2dp)*c3mu_dict['C719s'])/mN\ - 1/mN/DM_mass * F2sp * c3mu_dict['C61s'], 'cNR1n' : F1un*(c3mu_dict['C61u'] - np.sqrt(2)*GF*wmws*mu**2 / gs2_2GeV * c3mu_dict['C81u'])\ + F1dn*(c3mu_dict['C61d'] - np.sqrt(2)*GF*wmws*md**2 / gs2_2GeV * c3mu_dict['C81d'])\ + FGn*c3mu_dict['C71']\ + FSun*c3mu_dict['C75u'] + FSdn*c3mu_dict['C75d'] + FSsn*c3mu_dict['C75s']\ + F1un*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C63e'] * c3mu_dict['D63eu'])\ + F1dn*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C63e'] * c3mu_dict['D63ed'])\ + F1un*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C63mu'] * c3mu_dict['D63muu'])\ + F1dn*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C63mu'] * c3mu_dict['D63mud'])\ + F1un*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C63tau'] * c3mu_dict['D63tauu'])\ + F1dn*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C63tau'] * c3mu_dict['D63taud'])\ + 2*DM_mass * (F1un*c3mu_dict['C715u'] + F1dn*c3mu_dict['C715d'] + F1sn*c3mu_dict['C715s'])\ + FTW2un*c3mu_dict['C723u']\ + FTW2dn*c3mu_dict['C723d']\ + FTW2sn*c3mu_dict['C723s']\ + FTW2gn*c3mu_dict['C725'], 'cNR2n' : 0, 'cNR3n' : F2sn * c3mu_dict['C61s'], 'cNR4n' : - 4*( FAun*(c3mu_dict['C64u'] - np.sqrt(2)*GF*wmws*mu**2 / gs2_2GeV * c3mu_dict['C84u'])\ + FAdn*(c3mu_dict['C64d'] - np.sqrt(2)*GF*wmws*md**2 / gs2_2GeV * c3mu_dict['C84d'])\ + FAsn*(c3mu_dict['C64s'] - np.sqrt(2)*GF*wmws*ms**2 / gs2_2GeV * c3mu_dict['C84s'])\ + FAun*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D62ue'])\ + FAdn*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D62de'])\ + FAsn*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D62se'])\ + FAun*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D62umu'])\ + FAdn*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D62dmu'])\ + FAsn*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D62smu'])\ + FAun*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D62utau'])\ + FAdn*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D62dtau'])\ + FAsn*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D62stau']))\ - 2*alpha/np.pi * self.ip['mun']/mN * c3mu_dict['C51']\ + 8*(FT0un*c3mu_dict['C79u'] + FT0dn*c3mu_dict['C79d'] + FT0sn*c3mu_dict['C79s']), 'cNR5n' : - 2*mN * (F1un*c3mu_dict['C719u'] + F1dn*c3mu_dict['C719d'] + F1sn*c3mu_dict['C719s']), 'cNR6n' : mN/DM_mass * FGtilden * c3mu_dict['C74']\ -2*mN*((F1un+F2un)*c3mu_dict['C719u']\ + (F1dn+F2dn)*c3mu_dict['C719d']\ + (F1sn+F2dn)*c3mu_dict['C719s'])\ + mN/DM_mass * F2sn * c3mu_dict['C61s'], 'cNR7n' : - 2*( FAun*(c3mu_dict['C63u'] - np.sqrt(2)*GF*wmws*mu**2 / gs2_2GeV * c3mu_dict['C83u'])\ + FAdn*(c3mu_dict['C63d'] - np.sqrt(2)*GF*wmws*md**2 / gs2_2GeV * c3mu_dict['C83d'])\ + FAsn*(c3mu_dict['C63s'] - np.sqrt(2)*GF*wmws*ms**2 / gs2_2GeV * c3mu_dict['C83s'])\ + FAun*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C63e'] * c3mu_dict['D62ue'])\ + FAdn*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C63e'] * c3mu_dict['D62de'])\ + FAsn*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C63e'] * c3mu_dict['D62se'])\ + FAun*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C63mu'] * c3mu_dict['D62umu'])\ + FAdn*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C63mu'] * c3mu_dict['D62dmu'])\ + FAsn*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C63mu'] * c3mu_dict['D62smu'])\ + FAun*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C63tau'] * c3mu_dict['D62utau'])\ + FAdn*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C63tau'] * c3mu_dict['D62dtau'])\ + FAsn*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C63tau'] * c3mu_dict['D62stau']))\ - 4*DM_mass * (FAun*c3mu_dict['C717u'] + FAdn*c3mu_dict['C717d']+ FAsn*c3mu_dict['C717s']), 'cNR8n' : 2*( F1un*(c3mu_dict['C62u'] - np.sqrt(2)*GF*wmws*mu**2 / gs2_2GeV * c3mu_dict['C82u'])\ + F1dn*(c3mu_dict['C62d'] - np.sqrt(2)*GF*wmws*md**2 / gs2_2GeV * c3mu_dict['C82d'])\ + F1un*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D63eu'])\ + F1dn*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D63ed'])\ + F1un*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D63muu'])\ + F1dn*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D63mud'])\ + F1un*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D63tauu'])\ + F1dn*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D63taud'])), 'cNR9n' : 2*( (F1un+F2un)*(c3mu_dict['C62u'] - np.sqrt(2)*GF*wmws*mu**2 / gs2_2GeV * c3mu_dict['C82u'])\ + (F1dn+F2dn)*(c3mu_dict['C62d'] - np.sqrt(2)*GF*wmws*md**2 / gs2_2GeV * c3mu_dict['C82d'])\ + (F1sn+F2sn)*(c3mu_dict['C62s'] - np.sqrt(2)*GF*wmws*ms**2 / gs2_2GeV * c3mu_dict['C82s'])\ + (F1un+F2un)*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D63eu'])\ + (F1dn+F2dn)*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D63ed'])\ + (F1sn+F2sn)*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D63es'])\ + (F1un+F2un)*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D63muu'])\ + (F1dn+F2dn)*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D63mud'])\ + (F1sn+F2sn)*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D63mus'])\ + (F1un+F2up)*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D63tauu'])\ + (F1dn+F2dp)*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D63taud'])\ + (F1sp+F2sp)*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D63taus'])) + 2*mN*( FAun*(c3mu_dict['C63u'] - np.sqrt(2)*GF*wmws*mu**2 / gs2_2GeV * c3mu_dict['C83u'])\ + FAdn*(c3mu_dict['C63d'] - np.sqrt(2)*GF*wmws*md**2 / gs2_2GeV * c3mu_dict['C83d'])\ + FAsn*(c3mu_dict['C63s'] - np.sqrt(2)*GF*wmws*ms**2 / gs2_2GeV * c3mu_dict['C83s'])\ + FAun*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C63e'] * c3mu_dict['D62ue'])\ + FAdn*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C63e'] * c3mu_dict['D62de'])\ + FAsn*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C63e'] * c3mu_dict['D62se'])\ + FAun*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C63mu'] * c3mu_dict['D62umu'])\ + FAdn*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C63mu'] * c3mu_dict['D62dmu'])\ + FAsn*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C63mu'] * c3mu_dict['D62smu'])\ + FAun*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C63tau'] * c3mu_dict['D62utau'])\ + FAdn*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C63tau'] * c3mu_dict['D62dtau'])\ + FAsn*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C63tau'] * c3mu_dict['D62stau']))/DM_mass\ - 4*mN * (FAun*c3mu_dict['C721u']\ + FAdn*c3mu_dict['C721d']\ + FAsn*c3mu_dict['C721s']), 'cNR10n' : FGtilden * c3mu_dict['C73']\ -2*mN/DM_mass * (FT0un*c3mu_dict['C710u']\ + FT0dn*c3mu_dict['C710d']\ + FT0sn*c3mu_dict['C710s']), 'cNR11n' : - mN/DM_mass * (FSun*c3mu_dict['C76u']\ + FSdn*c3mu_dict['C76d']\ + FSsn*c3mu_dict['C76s'])\ - mN/DM_mass * FGn * c3mu_dict['C72']\ + 2*((FT0un-FT1un)*c3mu_dict['C710u']\ + (FT0dn-FT1dn)*c3mu_dict['C710d']\ + (FT0sn-FT1sn)*c3mu_dict['C710s'])\ - 2*mN * ( F1un*(c3mu_dict['C716u']+c3mu_dict['C720u'])\ + F1dn*(c3mu_dict['C716d']+c3mu_dict['C720d'])\ + F1sn*(c3mu_dict['C716s']+c3mu_dict['C720s'])), 'cNR12n' : -8*(FT0un*c3mu_dict['C710u'] + FT0dn*c3mu_dict['C710d'] + FT0sn*c3mu_dict['C710s']), 'cNR13n' : mN/DM_mass * (FPun_pion*c3mu_dict['C78u'] + FPdn_pion*c3mu_dict['C78d'])\ + FPpun_pion*(c3mu_dict['C64u'] - np.sqrt(2)*GF*wmws*mu**2 / gs2_2GeV * c3mu_dict['C84u'])\ + FPpdn_pion*(c3mu_dict['C64d'] - np.sqrt(2)*GF*wmws*md**2 / gs2_2GeV * c3mu_dict['C84d'])\ + FPpun_pion*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D62ue'])\ + FPpdn_pion*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D62de'])\ + FPpun_pion*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D62umu'])\ + FPpdn_pion*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D62dmu'])\ + FPpun_pion*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D62utau'])\ + FPpdn_pion*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D62dtau']), 'cNR14n' : mN/DM_mass * (FPun_eta*c3mu_dict['C78u']\ + FPdn_eta*c3mu_dict['C78d']\ + FPsn_eta*c3mu_dict['C78s'])\ + FPpun_eta*(c3mu_dict['C64u'] - np.sqrt(2)*GF*wmws*mu**2 / gs2_2GeV * c3mu_dict['C84u'])\ + FPpdn_eta*(c3mu_dict['C64d'] - np.sqrt(2)*GF*wmws*md**2 / gs2_2GeV * c3mu_dict['C84d'])\ + FPpsn_eta*(c3mu_dict['C64s'] - np.sqrt(2)*GF*wmws*ms**2 / gs2_2GeV * c3mu_dict['C84s'])\ + FPpun_eta*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D62ue'])\ + FPpdn_eta*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D62de'])\ + FPpsn_eta*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D62se'])\ + FPpun_eta*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D62umu'])\ + FPpdn_eta*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D62dmu'])\ + FPpsn_eta*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D62smu'])\ + FPpun_eta*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D62utau'])\ + FPpdn_eta*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D62dtau'])\ + FPpsn_eta*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D62stau'])\ + 4*mN * ( FAun*(c3mu_dict['C718u']+c3mu_dict['C722u'])\ + FAdn*(c3mu_dict['C718d']+c3mu_dict['C722d'])\ + FAsn*(c3mu_dict['C718s']+c3mu_dict['C722s'])), 'cNR15n' : mN/DM_mass * FGtilden_pion * c3mu_dict['C74'], 'cNR16n' : mN/DM_mass * FGtilden_eta * c3mu_dict['C74'], 'cNR17n' : FPun_pion*c3mu_dict['C77u'] + FPdn_pion*c3mu_dict['C77d'], 'cNR18n' : FPun_eta*c3mu_dict['C77u'] + FPdn_eta*c3mu_dict['C77d'] + FPsn_eta*c3mu_dict['C77s'], 'cNR19n' : FGtilden_pion * c3mu_dict['C73'], 'cNR20n' : FGtilden_eta * c3mu_dict['C73'], 'cNR21n' : 0, 'cNR22n' : -mN**2 * (- 2*alpha/np.pi * self.ip['mun']/mN * c3mu_dict['C51']), 'cNR23n' : 0, 'cNR100n' : ( F1un*c3mu_dict['C719u']\ + F1dn*c3mu_dict['C719d']\ + F1sn*c3mu_dict['C719s'])/(2*DM_mass)\ + (F1snslope - F2sn / mN**2/4) * c3mu_dict['C61s'], 'cNR104n' : 2*((F1un+F2un)*c3mu_dict['C719u']\ + (F1dn+F2dn)*c3mu_dict['C719d']\ + (F1sn+F2dn)*c3mu_dict['C719s'])/mN\ - 1/mN/DM_mass * F2sn * c3mu_dict['C61s'] } if NLO: my_cNR_dict['cNR5p'] = - 2*mN * (F1un*c3mu_dict['C719u']\ + F1dn*c3mu_dict['C719d']\ + F1sn*c3mu_dict['C719s'])\ + 2*((FT0up-FT1up)*c3mu_dict['C79u']\ + (FT0dp-FT1dp)*c3mu_dict['C79d']\ + (FT0sp-FT1sp)*c3mu_dict['C79s']) my_cNR_dict['cNR100p'] = - ((FT0up-FT1up)*c3mu_dict['C79u']\ + (FT0dp-FT1dp)*c3mu_dict['C79d']\ + (FT0sp-FT1sp)*c3mu_dict['C79s'])/(2*DM_mass*mN) my_cNR_dict['cNR5n'] = - 2*mN * (F1un*c3mu_dict['C719u']\ + F1dn*c3mu_dict['C719d'] + F1sn*c3mu_dict['C719s'])\ + 2*((FT0un-FT1un)*c3mu_dict['C79u']\ + (FT0dn-FT1dn)*c3mu_dict['C79d']\ + (FT0sn-FT1sn)*c3mu_dict['C79s']) my_cNR_dict['cNR100n'] = - ((FT0un-FT1un)*c3mu_dict['C79u']\ + (FT0dn-FT1dn)*c3mu_dict['C79d']\ + (FT0sn-FT1sn)*c3mu_dict['C79s'])/(2*DM_mass*mN) if self.DM_type == "M": my_cNR_dict = { 'cNR1p' : FGp*c3mu_dict['C71']\ + FSup*c3mu_dict['C75u'] + FSdp*c3mu_dict['C75d'] + FSsp*c3mu_dict['C75s']\ + 2*DM_mass * (F1up*c3mu_dict['C715u'] + F1dp*c3mu_dict['C715d'] + F1sp*c3mu_dict['C715s']), 'cNR2p' : 0, 'cNR3p' : 0, 'cNR4p' : - 4*( FAup*(c3mu_dict['C64u'] - np.sqrt(2)*GF*wmws*mu**2 / gs2_2GeV * c3mu_dict['C84u'])\ + FAdp*(c3mu_dict['C64d'] - np.sqrt(2)*GF*wmws*md**2 / gs2_2GeV * c3mu_dict['C84d'])\ + FAsp*(c3mu_dict['C64s'] - np.sqrt(2)*GF*wmws*ms**2 / gs2_2GeV * c3mu_dict['C84s'])\ + FAup*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D62ue'])\ + FAdp*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D62de'])\ + FAsp*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D62se'])\ + FAup*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D62umu'])\ + FAdp*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D62dmu'])\ + FAsp*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D62smu'])\ + FAup*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D62utau'])\ + FAdp*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D62dtau'])\ + FAsp*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D62stau'])), 'cNR5p' : 0, 'cNR6p' : mN/DM_mass * FGtildep * c3mu_dict['C74'], 'cNR7p' : - 4*DM_mass * (FAup*c3mu_dict['C717u'] + FAdp*c3mu_dict['C717d'] + FAsp*c3mu_dict['C717s']), 'cNR8p' : 2*( F1up*(c3mu_dict['C62u'] - np.sqrt(2)*GF*wmws*mu**2 / gs2_2GeV * c3mu_dict['C82u'])\ + F1dp*(c3mu_dict['C62d'] - np.sqrt(2)*GF*wmws*md**2 / gs2_2GeV * c3mu_dict['C82d'])\ + F1up*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D63eu'])\ + F1dp*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D63ed'])\ + F1up*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D63muu'])\ + F1dp*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D63mud'])\ + F1up*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D63tauu'])\ + F1dp*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D63taud'])), 'cNR9p' : 2*( (F1up+F2up)*(c3mu_dict['C62u'] - np.sqrt(2)*GF*wmws*mu**2 / gs2_2GeV * c3mu_dict['C82u'])\ + (F1dp+F2dp)*(c3mu_dict['C62d'] - np.sqrt(2)*GF*wmws*md**2 / gs2_2GeV * c3mu_dict['C82d'])\ + (F1sp+F2sp)*(c3mu_dict['C62s'] - np.sqrt(2)*GF*wmws*ms**2 / gs2_2GeV * c3mu_dict['C82s'])\ + (F1up+F2up)*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D63eu'])\ + (F1dp+F2dp)*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D63ed'])\ + (F1sp+F2sp)*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D63es'])\ + (F1up+F2up)*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D63muu'])\ + (F1dp+F2dp)*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D63mud'])\ + (F1sp+F2sp)*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D63mus'])\ + (F1up+F2up)*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D63tauu'])\ + (F1dp+F2dp)*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D63taud'])\ + (F1sp+F2sp)*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D63taus'])), 'cNR10p' : FGtildep * c3mu_dict['C73'], 'cNR11p' : - mN/DM_mass * (FSup*c3mu_dict['C76u']\ + FSdp*c3mu_dict['C76d']\ + FSsp*c3mu_dict['C76s'])\ - mN/DM_mass * FGp * c3mu_dict['C72']\ - 2*mN * ( F1up*c3mu_dict['C716u']\ + F1dp*c3mu_dict['C716d']\ + F1sp*c3mu_dict['C716s']), 'cNR12p' : 0, 'cNR13p' : mN/DM_mass * (FPup_pion*c3mu_dict['C78u'] + FPdp_pion*c3mu_dict['C78d'])\ + FPpup_pion*(c3mu_dict['C64u'] - np.sqrt(2)*GF*wmws*mu**2 / gs2_2GeV * c3mu_dict['C84u'])\ + FPpdp_pion*(c3mu_dict['C64d'] - np.sqrt(2)*GF*wmws*md**2 / gs2_2GeV * c3mu_dict['C84d'])\ + FPpup_pion*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D62ue'])\ + FPpdp_pion*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D62de'])\ + FPpup_pion*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D62umu'])\ + FPpdp_pion*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D62dmu'])\ + FPpup_pion*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D62utau'])\ + FPpdp_pion*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D62dtau']), 'cNR14p' : mN/DM_mass * (FPup_eta*c3mu_dict['C78u']\ + FPdp_eta*c3mu_dict['C78d']\ + FPsp_eta*c3mu_dict['C78s'])\ + FPpup_eta*(c3mu_dict['C64u'] - np.sqrt(2)*GF*wmws*mu**2 / gs2_2GeV * c3mu_dict['C84u'])\ + FPpdp_eta*(c3mu_dict['C64d'] - np.sqrt(2)*GF*wmws*md**2 / gs2_2GeV * c3mu_dict['C84d'])\ + FPpsp_eta*(c3mu_dict['C64s'] - np.sqrt(2)*GF*wmws*ms**2 / gs2_2GeV * c3mu_dict['C84s'])\ + FPpup_eta*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D62ue'])\ + FPpdp_eta*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D62de'])\ + FPpsp_eta*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D62se'])\ + FPpup_eta*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D62umu'])\ + FPpdp_eta*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D62dmu'])\ + FPpsp_eta*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D62smu'])\ + FPpup_eta*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D62utau'])\ + FPpdp_eta*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D62dtau'])\ + FPpsp_eta*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D62stau'])\ + 4*mN * (FAup*c3mu_dict['C718u']\ + FAdp*c3mu_dict['C718d']\ + FAsp*c3mu_dict['C718s']), 'cNR15p' : mN/DM_mass * FGtildep_pion * c3mu_dict['C74'], 'cNR16p' : mN/DM_mass * FGtildep_eta * c3mu_dict['C74'], 'cNR17p' : FPup_pion*c3mu_dict['C77u'] + FPdp_pion*c3mu_dict['C77d'], 'cNR18p' : FPup_eta*c3mu_dict['C77u'] + FPdp_eta*c3mu_dict['C77d'] + FPsp_eta*c3mu_dict['C77s'], 'cNR19p' : FGtildep_pion * c3mu_dict['C73'], 'cNR20p' : FGtildep_eta * c3mu_dict['C73'], 'cNR21p' : 0, 'cNR22p' : 0, 'cNR23p' : 0, 'cNR100p' : 0, 'cNR104p' : 0, 'cNR1n' : FGn*c3mu_dict['C71']\ + FSun*c3mu_dict['C75u'] + FSdn*c3mu_dict['C75d'] + FSsn*c3mu_dict['C75s']\ + 2*DM_mass * (F1un*c3mu_dict['C715u'] + F1dn*c3mu_dict['C715d'] + F1sn*c3mu_dict['C715s']), 'cNR2n' : 0, 'cNR3n' : 0, 'cNR4n' : - 4*( FAun*(c3mu_dict['C64u'] - np.sqrt(2)*GF*wmws*mu**2 / gs2_2GeV * c3mu_dict['C84u'])\ + FAdn*(c3mu_dict['C64d'] - np.sqrt(2)*GF*wmws*md**2 / gs2_2GeV * c3mu_dict['C84d'])\ + FAsn*(c3mu_dict['C64s'] - np.sqrt(2)*GF*wmws*ms**2 / gs2_2GeV * c3mu_dict['C84s'])\ + FAun*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D62ue'])\ + FAdn*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D62de'])\ + FAsn*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D62se'])\ + FAun*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D62umu'])\ + FAdn*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D62dmu'])\ + FAsn*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D62smu'])\ + FAun*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D62utau'])\ + FAdn*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D62dtau'])\ + FAsn*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D62stau'])), 'cNR5n' : 0, 'cNR6n' : mN/DM_mass * FGtilden * c3mu_dict['C74'], 'cNR7n' : - 4*DM_mass * (FAun*c3mu_dict['C717u'] + FAdn*c3mu_dict['C717d'] + FAsn*c3mu_dict['C717s']), 'cNR8n' : 2*( F1un*(c3mu_dict['C62u'] - np.sqrt(2)*GF*wmws*mu**2 / gs2_2GeV * c3mu_dict['C82u'])\ + F1dn*(c3mu_dict['C62d'] - np.sqrt(2)*GF*wmws*md**2 / gs2_2GeV * c3mu_dict['C82d'])\ + F1un*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D63eu'])\ + F1dn*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D63ed'])\ + F1un*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D63muu'])\ + F1dn*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D63mud'])\ + F1un*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D63tauu'])\ + F1dn*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D63taud'])), 'cNR9n' : 2*( (F1un+F2un)*(c3mu_dict['C62u'] - np.sqrt(2)*GF*wmws*mu**2 / gs2_2GeV * c3mu_dict['C82u'])\ + (F1dn+F2dn)*(c3mu_dict['C62d'] - np.sqrt(2)*GF*wmws*md**2 / gs2_2GeV * c3mu_dict['C82d'])\ + (F1sn+F2sn)*(c3mu_dict['C62s'] - np.sqrt(2)*GF*wmws*ms**2 / gs2_2GeV * c3mu_dict['C82s'])\ + (F1un+F2un)*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D63eu'])\ + (F1dn+F2dn)*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D63ed'])\ + (F1sn+F2sn)*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D63es'])\ + (F1un+F2un)*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D63muu'])\ + (F1dn+F2dn)*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D63mud'])\ + (F1sn+F2sn)*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D63mus'])\ + (F1un+F2up)*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D63tauu'])\ + (F1dn+F2dp)*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D63taud'])\ + (F1sp+F2sp)*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D63taus'])), 'cNR10n' : FGtilden * c3mu_dict['C73'], 'cNR11n' : - mN/DM_mass * (FSun*c3mu_dict['C76u']\ + FSdn*c3mu_dict['C76d']\ + FSsn*c3mu_dict['C76s'])\ - mN/DM_mass * FGn * c3mu_dict['C72']\ - 2*mN * ( F1un*c3mu_dict['C716u']\ + F1dn*c3mu_dict['C716d']\ + F1sn*c3mu_dict['C716s']), 'cNR12n' : 0, 'cNR13n' : mN/DM_mass * (FPun_pion*c3mu_dict['C78u'] + FPdn_pion*c3mu_dict['C78d'])\ + FPpun_pion*(c3mu_dict['C64u'] - np.sqrt(2)*GF*wmws*mu**2 / gs2_2GeV * c3mu_dict['C84u'])\ + FPpdn_pion*(c3mu_dict['C64d'] - np.sqrt(2)*GF*wmws*md**2 / gs2_2GeV * c3mu_dict['C84d'])\ + FPpun_pion*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D62ue'])\ + FPpdn_pion*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D62de'])\ + FPpun_pion*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D62umu'])\ + FPpdn_pion*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D62dmu'])\ + FPpun_pion*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D62utau'])\ + FPpdn_pion*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D62dtau']), 'cNR14n' : mN/DM_mass * (FPun_eta*c3mu_dict['C78u']\ + FPdn_eta*c3mu_dict['C78d']\ + FPsn_eta*c3mu_dict['C78s'])\ + FPpun_eta*(c3mu_dict['C64u'] - np.sqrt(2)*GF*wmws*mu**2 / gs2_2GeV * c3mu_dict['C84u'])\ + FPpdn_eta*(c3mu_dict['C64d'] - np.sqrt(2)*GF*wmws*md**2 / gs2_2GeV * c3mu_dict['C84d'])\ + FPpsn_eta*(c3mu_dict['C64s'] - np.sqrt(2)*GF*wmws*ms**2 / gs2_2GeV * c3mu_dict['C84s'])\ + FPpun_eta*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D62ue'])\ + FPpdn_eta*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D62de'])\ + FPpsn_eta*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C64e'] * c3mu_dict['D62se'])\ + FPpun_eta*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D62umu'])\ + FPpdn_eta*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D62dmu'])\ + FPpsn_eta*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C64mu'] * c3mu_dict['D62smu'])\ + FPpun_eta*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D62utau'])\ + FPpdn_eta*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D62dtau'])\ + FPpsn_eta*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C64tau'] * c3mu_dict['D62stau'])\ + 4*mN * (FAun*c3mu_dict['C718u']\ + FAdn*c3mu_dict['C718d']\ + FAsn*c3mu_dict['C718s']), 'cNR15n' : mN/DM_mass * FGtilden_pion * c3mu_dict['C74'], 'cNR16n' : mN/DM_mass * FGtilden_eta * c3mu_dict['C74'], 'cNR17n' : FPun_pion*c3mu_dict['C77u'] + FPdn_pion*c3mu_dict['C77d'], 'cNR18n' : FPun_eta*c3mu_dict['C77u'] + FPdn_eta*c3mu_dict['C77d'] + FPsn_eta*c3mu_dict['C77s'], 'cNR19n' : FGtilden_pion * c3mu_dict['C73'], 'cNR20n' : FGtilden_eta * c3mu_dict['C73'], 'cNR21n' : 0, 'cNR22n' : 0, 'cNR23n' : 0, 'cNR100n' : 0, 'cNR104n' : 0 } if self.DM_type == "C": my_cNR_dict = { 'cNR1p' : F1up * (c3mu_dict['C61u'] - np.sqrt(2)*GF*wmws*mu**2 / gs2_2GeV * c3mu_dict['C81u'])\ + F1dp * (c3mu_dict['C61d'] - np.sqrt(2)*GF*wmws*md**2 / gs2_2GeV * c3mu_dict['C81d'])\ + F1up*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C62e'] * c3mu_dict['D63eu'])\ + F1dp*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C62e'] * c3mu_dict['D63ed'])\ + F1up*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C62mu'] * c3mu_dict['D63muu'])\ + F1dp*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C62mu'] * c3mu_dict['D63mud'])\ + F1up*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C62tau'] * c3mu_dict['D63tauu'])\ + F1dp*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C62tau'] * c3mu_dict['D63taud'])\ + FGp*c3mu_dict['C65']/2/DM_mass\ + (FSup*c3mu_dict['C63u'] + FSdp*c3mu_dict['C63d'] + FSsp*c3mu_dict['C63s'])/2/DM_mass, 'cNR2p' : 0, 'cNR3p' : F2sp * c3mu_dict['C61s'], 'cNR4p' : 0, 'cNR5p' : 0, 'cNR6p' : 0, 'cNR7p' : -2*( FAup * (c3mu_dict['C62u']\ - np.sqrt(2)*GF*wmws*mu**2 / gs2_2GeV * c3mu_dict['C82u'])\ + FAdp * (c3mu_dict['C62d']\ - np.sqrt(2)*GF*wmws*md**2 / gs2_2GeV * c3mu_dict['C82d'])\ + FAsp * (c3mu_dict['C62s']\ - np.sqrt(2)*GF*wmws*ms**2 / gs2_2GeV * c3mu_dict['C82s'])\ + FAup*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C62e'] * c3mu_dict['D62ue'])\ + FAdp*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C62e'] * c3mu_dict['D62de'])\ + FAsp*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C62e'] * c3mu_dict['D62se'])\ + FAup*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C62mu'] * c3mu_dict['D62umu'])\ + FAdp*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C62mu'] * c3mu_dict['D62dmu'])\ + FAsp*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C62mu'] * c3mu_dict['D62smu'])\ + FAup*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C62tau'] * c3mu_dict['D62utau'])\ + FAdp*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C62tau'] * c3mu_dict['D62dtau'])\ + FAsp*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C62tau'] * c3mu_dict['D62stau'])), 'cNR8p' : 0, 'cNR9p' : 0, 'cNR10p' : FGtildep * c3mu_dict['C66']/2/DM_mass, 'cNR11p' : 0, 'cNR12p' : 0, 'cNR13p' : 0, 'cNR14p' : 0, 'cNR15p' : 0, 'cNR16p' : 0, 'cNR17p' : (FPup_pion*c3mu_dict['C64u'] + FPdp_pion*c3mu_dict['C64d'])/2/DM_mass, 'cNR18p' : ( FPup_eta*c3mu_dict['C64u']\ + FPdp_eta*c3mu_dict['C64d']\ + FPsp_eta*c3mu_dict['C64s'])/2/DM_mass, 'cNR19p' : FGtildep_pion * c3mu_dict['C66']/2/DM_mass, 'cNR20p' : FGtildep_eta * c3mu_dict['C66']/2/DM_mass, 'cNR21p' : 0, 'cNR22p' : 0, 'cNR23p' : 0, 'cNR100p' : (F1spslope - 1/mN**2/4 * F2sp) * c3mu_dict['C61s'], 'cNR104p' : 0, 'cNR1n' : F1un * (c3mu_dict['C61u'] - np.sqrt(2)*GF*wmws*mu**2 / gs2_2GeV * c3mu_dict['C81u'])\ + F1dn * (c3mu_dict['C61d'] - np.sqrt(2)*GF*wmws*md**2 / gs2_2GeV * c3mu_dict['C81d'])\ + F1un*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C62e'] * c3mu_dict['D63eu'])\ + F1dn*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C62e'] * c3mu_dict['D63ed'])\ + F1un*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C62mu'] * c3mu_dict['D63muu'])\ + F1dn*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C62mu'] * c3mu_dict['D63mud'])\ + F1un*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C62tau'] * c3mu_dict['D63tauu'])\ + F1dn*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C62tau'] * c3mu_dict['D63taud'])\ + FGn*c3mu_dict['C65']/2/DM_mass\ + (FSun*c3mu_dict['C63u'] + FSdn*c3mu_dict['C63d'] + FSsn*c3mu_dict['C63s'])/2/DM_mass, 'cNR2n' : 0, 'cNR3n' : F2sp * c3mu_dict['C61s'], 'cNR4n' : 0, 'cNR5n' : 0, 'cNR6n' : 0, 'cNR7n' : -2*( FAun * (c3mu_dict['C62u']\ - np.sqrt(2)*GF*wmws*mu**2 / gs2_2GeV * c3mu_dict['C82u'])\ + FAdn * (c3mu_dict['C62d']\ - np.sqrt(2)*GF*wmws*md**2 / gs2_2GeV * c3mu_dict['C82d'])\ + FAsn * (c3mu_dict['C62s']\ - np.sqrt(2)*GF*wmws*ms**2 / gs2_2GeV * c3mu_dict['C82s'])\ + FAun*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C62e'] * c3mu_dict['D62ue'])\ + FAdn*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C62e'] * c3mu_dict['D62de'])\ + FAsn*(np.sqrt(2)*GF*wmws/np.pi**2 * me**2 * np.log(2/MZ)\ * c3mu_dict['C62e'] * c3mu_dict['D62se'])\ + FAun*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C62mu'] * c3mu_dict['D62umu'])\ + FAdn*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C62mu'] * c3mu_dict['D62dmu'])\ + FAsn*(np.sqrt(2)*GF*wmws/np.pi**2 * mmu**2 * np.log(2/MZ)\ * c3mu_dict['C62mu'] * c3mu_dict['D62smu'])\ + FAun*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C62tau'] * c3mu_dict['D62utau'])\ + FAdn*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C62tau'] * c3mu_dict['D62dtau'])\ + FAsn*(np.sqrt(2)*GF*wmws/np.pi**2 * mtau**2 * np.log(2/MZ)\ * c3mu_dict['C62tau'] * c3mu_dict['D62stau'])), 'cNR8n' : 0, 'cNR9n' : 0, 'cNR10n' : FGtilden * c3mu_dict['C66']/2/DM_mass, 'cNR11n' : 0, 'cNR12n' : 0, 'cNR13n' : 0, 'cNR14n' : 0, 'cNR15n' : 0, 'cNR16n' : 0, 'cNR17n' : (FPun_pion*c3mu_dict['C64u'] + FPdn_pion*c3mu_dict['C64d'])/2/DM_mass, 'cNR18n' : ( FPun_eta*c3mu_dict['C64u']\ + FPdn_eta*c3mu_dict['C64d']\ + FPsn_eta*c3mu_dict['C64s'])/2/DM_mass, 'cNR19n' : FGtilden_pion * c3mu_dict['C66']/2/DM_mass, 'cNR20n' : FGtilden_eta * c3mu_dict['C66']/2/DM_mass, 'cNR21n' : 0, 'cNR22n' : 0, 'cNR23n' : 0, 'cNR100n' : (F1snslope - 1/mN**2/4 * F2sn) * c3mu_dict['C61s'], 'cNR104n' : 0 } if self.DM_type == "R": my_cNR_dict = { 'cNR1p' : FSup*c3mu_dict['C63u']/2/DM_mass\ + FSdp*c3mu_dict['C63d']/2/DM_mass\ + FSsp*c3mu_dict['C63s']/2/DM_mass\ + FGp*c3mu_dict['C65']/2/DM_mass, 'cNR2p' : 0, 'cNR3p' : 0, 'cNR4p' : 0, 'cNR5p' : 0, 'cNR6p' : 0, 'cNR7p' : 0, 'cNR8p' : 0, 'cNR9p' : 0, 'cNR10p' : FGtildep * c3mu_dict['C66']/2/DM_mass, 'cNR11p' : 0, 'cNR12p' : 0, 'cNR13p' : 0, 'cNR14p' : 0, 'cNR15p' : 0, 'cNR16p' : 0, 'cNR17p' : (FPup_pion*c3mu_dict['C64u'] + FPdp_pion*c3mu_dict['C64d'])/2/DM_mass, 'cNR18p' : FPup_eta*c3mu_dict['C64u']/2/DM_mass\ + FPdp_eta*c3mu_dict['C64d']/2/DM_mass\ + FPsp_eta*c3mu_dict['C64s']/2/DM_mass, 'cNR19p' : FGtildep_pion * c3mu_dict['C66']/2/DM_mass, 'cNR20p' : FGtildep_eta * c3mu_dict['C66']/2/DM_mass, 'cNR21p' : 0, 'cNR22p' : 0, 'cNR23p' : 0, 'cNR100p' : 0, 'cNR104p' : 0, 'cNR1n' : FSun*c3mu_dict['C63u']/2/DM_mass\ + FSdn*c3mu_dict['C63d']/2/DM_mass\ + FSsn*c3mu_dict['C63s']/2/DM_mass\ + FGn*c3mu_dict['C65']/2/DM_mass, 'cNR2n' : 0, 'cNR3n' : 0, 'cNR4n' : 0, 'cNR5n' : 0, 'cNR6n' : 0, 'cNR7n' : 0, 'cNR8n' : 0, 'cNR9n' : 0, 'cNR10n' : FGtilden * c3mu_dict['C66']/2/DM_mass, 'cNR11n' : 0, 'cNR12n' : 0, 'cNR13n' : 0, 'cNR14n' : 0, 'cNR15n' : 0, 'cNR16n' : 0, 'cNR17n' : (FPun_pion*c3mu_dict['C64u'] + FPdn_pion*c3mu_dict['C64d'])/2/DM_mass, 'cNR18n' : FPun_eta*c3mu_dict['C64u']/2/DM_mass\ + FPdn_eta*c3mu_dict['C64d']/2/DM_mass\ + FPsn_eta*c3mu_dict['C64s']/2/DM_mass, 'cNR19n' : FGtilden_pion * c3mu_dict['C66']/2/DM_mass, 'cNR20n' : FGtilden_eta * c3mu_dict['C66']/2/DM_mass, 'cNR21n' : 0, 'cNR22n' : 0, 'cNR23n' : 0, 'cNR100n' : 0, 'cNR104n' : 0 } return my_cNR_dict def cNR(self, DM_mass, q, RGE=None, NLO=None, DOUBLE_WEAK=None): """ The operator coefficients of O_1^N -- O_12^N as in 1308.6288 (multiply by propagators and sum up contributions) DM_mass is the DM mass in GeV RGE is an optional argument to turn RGE running on (True) or off (False). (Default True) If NLO is set to True, the coherently enhanced NLO terms for Q_9^(7) are added. (Default False) Returns a dictionary of coefficients for the NR Lagrangian, cNR1 -- cNR12, as in 1308.6288 The possible names are ['cNR1p', 'cNR1n', 'cNR2p', 'cNR2n', 'cNR3p', 'cNR3n', 'cNR4p', 'cNR4n', 'cNR5p', 'cNR5n', 'cNR6p', 'cNR6n', 'cNR7p', 'cNR7n', 'cNR8p', 'cNR8n', 'cNR9p', 'cNR9n', 'cNR10p', 'cNR10n', 'cNR11p', 'cNR11n', 'cNR12p', 'cNR12n'] """ if RGE is None: RGE = True if NLO is None: NLO = False if DOUBLE_WEAK is None: DOUBLE_WEAK = True meta = self.ip['meta'] mpi = self.ip['mpi0'] qsq = q**2 # The traditional coefficients, where different from above cNR_dict = {} my_cNR = self._my_cNR(DM_mass, RGE, NLO, DOUBLE_WEAK) # Add meson- / photon-pole contributions cNR_dict['cNR1p'] = my_cNR['cNR1p'] + qsq * my_cNR['cNR100p'] cNR_dict['cNR2p'] = my_cNR['cNR2p'] cNR_dict['cNR3p'] = my_cNR['cNR3p'] cNR_dict['cNR4p'] = my_cNR['cNR4p'] + qsq * my_cNR['cNR104p'] cNR_dict['cNR5p'] = my_cNR['cNR5p'] + 1/qsq * my_cNR['cNR21p'] cNR_dict['cNR6p'] = my_cNR['cNR6p']\ + 1/(mpi**2 + qsq) * my_cNR['cNR13p']\ + 1/(meta**2 + qsq) * my_cNR['cNR14p']\ + qsq/(mpi**2 + qsq) * my_cNR['cNR15p']\ + qsq/(meta**2 + qsq) * my_cNR['cNR16p']\ + 1/qsq * my_cNR['cNR22p'] cNR_dict['cNR7p'] = my_cNR['cNR7p'] cNR_dict['cNR8p'] = my_cNR['cNR8p'] cNR_dict['cNR9p'] = my_cNR['cNR9p'] cNR_dict['cNR10p'] = my_cNR['cNR10p']\ + 1/(mpi**2 + qsq) * my_cNR['cNR17p']\ + 1/(meta**2 + qsq) * my_cNR['cNR18p']\ + qsq/(mpi**2 + qsq) * my_cNR['cNR19p']\ + qsq/(meta**2 + qsq) * my_cNR['cNR20p'] cNR_dict['cNR11p'] = my_cNR['cNR11p'] + 1/qsq * my_cNR['cNR23p'] cNR_dict['cNR12p'] = my_cNR['cNR12p'] cNR_dict['cNR1n'] = my_cNR['cNR1n'] + qsq * my_cNR['cNR100n'] cNR_dict['cNR2n'] = my_cNR['cNR2n'] cNR_dict['cNR3n'] = my_cNR['cNR3n'] cNR_dict['cNR4n'] = my_cNR['cNR4n'] + qsq * my_cNR['cNR104n'] cNR_dict['cNR5n'] = my_cNR['cNR5n'] + 1/qsq * my_cNR['cNR21n'] cNR_dict['cNR6n'] = my_cNR['cNR6n']\ + 1/(mpi**2 + qsq) * my_cNR['cNR13n']\ + 1/(meta**2 + qsq) * my_cNR['cNR14n']\ + qsq/(mpi**2 + qsq) * my_cNR['cNR15n']\ + qsq/(meta**2 + qsq) * my_cNR['cNR16n']\ + 1/qsq * my_cNR['cNR22n'] cNR_dict['cNR7n'] = my_cNR['cNR7n'] cNR_dict['cNR8n'] = my_cNR['cNR8n'] cNR_dict['cNR9n'] = my_cNR['cNR9n'] cNR_dict['cNR10n'] = my_cNR['cNR10n']\ + 1/(mpi**2 + qsq) * my_cNR['cNR17n']\ + 1/(meta**2 + qsq) * my_cNR['cNR18n']\ + qsq/(mpi**2 + qsq) * my_cNR['cNR19n']\ + qsq/(meta**2 + qsq) * my_cNR['cNR20n'] cNR_dict['cNR11n'] = my_cNR['cNR11n'] + 1/qsq * my_cNR['cNR23n'] cNR_dict['cNR12n'] = my_cNR['cNR12n'] return cNR_dict def write_mma(self, DM_mass, qvec, RGE=None, NLO=None, DOUBLE_WEAK=None, path=None, filename=None): """ Write a text file with the NR coefficients that can be read into DMFormFactor The order is {cNR1p, cNR2p, ... , cNR1n, cNR2n, ... } Mandatory arguments are the DM mass DM_mass (in GeV) and the spatial momentum transfer qvec (in GeV) <path> should be a string with the path (including the trailing "/") where the file should be saved (default is './') <filename> is the filename (default 'cNR.m') """ if RGE is None: RGE=True if NLO is None: NLO=False if DOUBLE_WEAK is None: DOUBLE_WEAK = True if path is None: path = './' assert type(path) is str if path.endswith('/'): pass else: path += '/' if filename is None: filename = 'cNR.m' val = self.cNR(DM_mass, qvec, RGE, NLO) self.cNR_list_mma = '{' + str(val['cNR1p']) + ', '\ + str(val['cNR2p']) + ', '\ + str(val['cNR3p']) + ', '\ + str(val['cNR4p']) + ', '\ + str(val['cNR5p']) + ', '\ + str(val['cNR6p']) + ', '\ + str(val['cNR7p']) + ', '\ + str(val['cNR8p']) + ', '\ + str(val['cNR9p']) + ', '\ + str(val['cNR10p']) + ', '\ + str(val['cNR11p']) + ', '\ + str(val['cNR12p']) + ', '\ + str(val['cNR1n']) + ', '\ + str(val['cNR2n']) + ', '\ + str(val['cNR3n']) + ', '\ + str(val['cNR4n']) + ', '\ + str(val['cNR5n']) + ', '\ + str(val['cNR6n']) + ', '\ + str(val['cNR7n']) + ', '\ + str(val['cNR8n']) + ', '\ + str(val['cNR9n']) + ', '\ + str(val['cNR10n']) + ', '\ + str(val['cNR11n']) + ', '\ + str(val['cNR12n']) + '}' + '\n' output_file = str(os.path.expanduser(path)) + filename with open(output_file,'w') as f: f.write(self.cNR_list_mma) class WC_4flavor(object): def __init__(self, coeff_dict, DM_type, input_dict): """ Class for Wilson coefficients in 4 flavor QCD x QED plus DM. The argument should be a dictionary for the initial conditions of the 2 + 28 + 4 + 42 + 4 + 56 + 7 + 1 + 6 = 150 dimension-five to dimension-eight four-flavor-QCD Wilson coefficients (for Dirac DM) of the form {'C51' : value, 'C52' : value, ...}. For other DM types there are less coefficients. An arbitrary number of them can be given; the default values are zero. The second argument is the DM type; it can take the following values: "D" (Dirac fermion) "M" (Majorana fermion) "C" (Complex scalar) "R" (Real scalar) The possible name are (with an hopefully obvious notation): Dirac fermion: 'C51', 'C52', 'C61u', 'C61d', 'C61s', 'C61c', 'C61e', 'C61mu', 'C61tau', 'C62u', 'C62d', 'C62s', 'C62c', 'C62e', 'C62mu', 'C62tau', 'C63u', 'C63d', 'C63s', 'C63c', 'C63e', 'C63mu', 'C63tau', 'C64u', 'C64d', 'C64s', 'C64c', 'C64e', 'C64mu', 'C64tau', 'C71', 'C72', 'C73', 'C74', 'C75u', 'C75d', 'C75s', 'C75c', 'C75e', 'C75mu', 'C75tau', 'C76u', 'C76d', 'C76s', 'C76c', 'C76e', 'C76mu', 'C76tau', 'C77u', 'C77d', 'C77s', 'C77c', 'C77e', 'C77mu', 'C77tau', 'C78u', 'C78d', 'C78s', 'C78c', 'C78e', 'C78mu', 'C78tau', 'C79u', 'C79d', 'C79s', 'C79c', 'C79e', 'C79mu', 'C79tau', 'C710u', 'C710d', 'C710s', 'C710c', 'C710e', 'C710mu', 'C710tau', 'C711', 'C712', 'C713', 'C714', 'C715u', 'C715d', 'C715s', 'C715c', 'C715e', 'C715mu', 'C715tau', 'C716u', 'C716d', 'C716s', 'C716c', 'C716e', 'C716mu', 'C716tau', 'C717u', 'C717d', 'C717s', 'C717c', 'C717e', 'C717mu', 'C717tau', 'C718u', 'C718d', 'C718s', 'C718c', 'C718e', 'C718mu', 'C718tau', 'C719u', 'C719d', 'C719s', 'C719c', 'C719e', 'C719mu', 'C719tau', 'C720u', 'C720d', 'C720s', 'C720c', 'C720e', 'C720mu', 'C720tau', 'C721u', 'C721d', 'C721s', 'C721c', 'C721e', 'C721mu', 'C721tau', 'C722u', 'C722d', 'C722s', 'C722c', 'C722e', 'C722mu', 'C722tau', 'C723u', 'C723d', 'C723s', 'C723c', 'C723e', 'C723mu', 'C723tau', 'C725', 'C83u', 'C83d', 'C83s', 'C84u', 'C84d', 'C84s' Majorana fermion: 'C62u', 'C62d', 'C62s', 'C62c', 'C62e', 'C62mu', 'C62tau', 'C64u', 'C64d', 'C64s', 'C64c', 'C64e', 'C64mu', 'C64tau', 'C71', 'C72', 'C73', 'C74', 'C75u', 'C75d', 'C75s', 'C75c', 'C75e', 'C75mu', 'C75tau', 'C76u', 'C76d', 'C76s', 'C76c', 'C76e', 'C76mu', 'C76tau', 'C77u', 'C77d', 'C77s', 'C77c', 'C77e', 'C77mu', 'C77tau', 'C78u', 'C78d', 'C78s', 'C78c', 'C78e', 'C78mu', 'C78tau', 'C711', 'C712', 'C713', 'C714', 'C715u', 'C715d', 'C715s', 'C715c', 'C715e', 'C715mu', 'C715tau', 'C716u', 'C716d', 'C716s', 'C716c', 'C716e', 'C716mu', 'C716tau', 'C717u', 'C717d', 'C717s', 'C717c', 'C717e', 'C717mu', 'C717tau', 'C718u', 'C718d', 'C718s', 'C718c', 'C718e', 'C718mu', 'C718tau', 'C723u', 'C723d', 'C723s', 'C723c', 'C723e', 'C723mu', 'C723tau', 'C725', Complex Scalar: 'C61u', 'C61d', 'C61s', 'C61c', 'C61e', 'C61mu', 'C61tau', 'C62u', 'C62d', 'C62s', 'C62c', 'C62e', 'C62mu', 'C62tau', 'C65', 'C66', 'C63u', 'C63d', 'C63s', 'C63c', 'C63e', 'C63mu', 'C63tau', 'C64u', 'C64d', 'C64s', 'C64c', 'C64e', 'C64mu', 'C64tau', 'C67', 'C68', 'C69u', 'C69d', 'C69s', 'C69c', 'C69e', 'C69mu', 'C69tau', 'C610' Real Scalar: 'C65', 'C66' 'C63u', 'C63d', 'C63s', 'C63c', 'C63e', 'C63mu', 'C63tau', 'C64u', 'C64d', 'C64s', 'C64c', 'C64e', 'C64mu', 'C64tau', 'C67', 'C68', 'C69u', 'C69d', 'C69s', 'C69c', 'C69e', 'C69mu', 'C69tau', 'C610' (the notation corresponds to the numbering in 1707.06998). The Wilson coefficients should be specified in the MS-bar scheme at mb = 4.18 GeV. In order to calculate consistently to dim.8 in the EFT, we need also the dim.6 SM operators. The following subset of 6*8 + 4*4 = 64 operators is sufficient for our purposes: 'D61ud', 'D62ud', 'D63ud', 'D63du', 'D64ud', 'D65ud', 'D66ud', 'D66du', 'D61us', 'D62us', 'D63us', 'D63su', 'D64us', 'D65us', 'D66us', 'D66su', 'D61uc', 'D62uc', 'D63uc', 'D63cu', 'D64uc', 'D65uc', 'D66uc', 'D66cu', 'D61ds', 'D62ds', 'D63ds', 'D63sd', 'D64ds', 'D65ds', 'D66ds', 'D66sd', 'D61dc', 'D62dc', 'D63dc', 'D63cd', 'D64dc', 'D65dc', 'D66dc', 'D66cd', 'D61sc', 'D62sc', 'D63sc', 'D63cs', 'D64sc', 'D65sc', 'D66sc', 'D66cs', 'D61u', 'D62u', 'D63u', 'D64u', 'D61d', 'D62d', 'D63d', 'D64d', 'D61s', 'D62s', 'D63s', 'D64s', 'D61c', 'D62c', 'D63c', 'D64c' The initial conditions at scale mb have to given; e.g. using WC_5f The third argument is a dictionary with all input parameters. The class has four methods: run --- Run the Wilson from mb(mb) to mu_low [GeV; default 2 GeV], with 4 active quark flavors match ----- Match the Wilson coefficients from 4-flavor to 3-flavor QCD, at scale mu [GeV; default 2 GeV] cNR --- Calculate the cNR coefficients as defined in 1308.6288 It has two mandatory arguments: The DM mass in GeV and the momentum transfer in GeV write_mma --------- Writes an output file that can be loaded into mathematica, to be used in the DMFormFactor package [1308.6288]. """ self.DM_type = DM_type # First, we define a standard ordering for the Wilson coefficients, so that we can use arrays self.sm_name_list = ['D61ud', 'D62ud', 'D63ud', 'D63du', 'D64ud', 'D65ud', 'D66ud', 'D66du', 'D61us', 'D62us', 'D63us', 'D63su', 'D64us', 'D65us', 'D66us', 'D66su', 'D61uc', 'D62uc', 'D63uc', 'D63cu', 'D64uc', 'D65uc', 'D66uc', 'D66cu', 'D61ds', 'D62ds', 'D63ds', 'D63sd', 'D64ds', 'D65ds', 'D66ds', 'D66sd', 'D61dc', 'D62dc', 'D63dc', 'D63cd', 'D64dc', 'D65dc', 'D66dc', 'D66cd', 'D61sc', 'D62sc', 'D63sc', 'D63cs', 'D64sc', 'D65sc', 'D66sc', 'D66cs', 'D61u', 'D62u', 'D63u', 'D64u', 'D61d', 'D62d', 'D63d', 'D64d', 'D61s', 'D62s', 'D63s', 'D64s', 'D61c', 'D62c', 'D63c', 'D64c'] self.sm_lepton_name_list = ['D63eu', 'D63muu', 'D63tauu', 'D63ed', 'D63mud',\ 'D63taud', 'D63es', 'D63mus', 'D63taus', 'D62ue', 'D62umu', 'D62utau', 'D62de', 'D62dmu',\ 'D62dtau', 'D62se', 'D62smu', 'D62stau'] if self.DM_type == "D": self.wc_name_list = ['C51', 'C52', 'C61u', 'C61d', 'C61s', 'C61c', 'C61e', 'C61mu', 'C61tau', 'C62u', 'C62d', 'C62s', 'C62c', 'C62e', 'C62mu', 'C62tau', 'C63u', 'C63d', 'C63s', 'C63c', 'C63e', 'C63mu', 'C63tau', 'C64u', 'C64d', 'C64s', 'C64c', 'C64e', 'C64mu', 'C64tau', 'C71', 'C72', 'C73', 'C74', 'C75u', 'C75d', 'C75s', 'C75c', 'C75e', 'C75mu', 'C75tau', 'C76u', 'C76d', 'C76s', 'C76c', 'C76e', 'C76mu', 'C76tau', 'C77u', 'C77d', 'C77s', 'C77c', 'C77e', 'C77mu', 'C77tau', 'C78u', 'C78d', 'C78s', 'C78c', 'C78e', 'C78mu', 'C78tau', 'C79u', 'C79d', 'C79s', 'C79c', 'C79e', 'C79mu', 'C79tau', 'C710u', 'C710d', 'C710s', 'C710c', 'C710e', 'C710mu', 'C710tau', 'C711', 'C712', 'C713', 'C714', 'C715u', 'C715d', 'C715s', 'C715c', 'C715e', 'C715mu', 'C715tau', 'C716u', 'C716d', 'C716s', 'C716c', 'C716e', 'C716mu', 'C716tau', 'C717u', 'C717d', 'C717s', 'C717c', 'C717e', 'C717mu', 'C717tau', 'C718u', 'C718d', 'C718s', 'C718c', 'C718e', 'C718mu', 'C718tau', 'C719u', 'C719d', 'C719s', 'C719c', 'C719e', 'C719mu', 'C719tau', 'C720u', 'C720d', 'C720s', 'C720c', 'C720e', 'C720mu', 'C720tau', 'C721u', 'C721d', 'C721s', 'C721c', 'C721e', 'C721mu', 'C721tau', 'C722u', 'C722d', 'C722s', 'C722c', 'C722e', 'C722mu', 'C722tau', 'C723u', 'C723d', 'C723s', 'C723c', 'C723e', 'C723mu', 'C723tau', 'C725'] self.wc8_name_list = ['C81u', 'C81d', 'C81s', 'C82u', 'C82d', 'C82s',\ 'C83u', 'C83d', 'C83s', 'C84u', 'C84d', 'C84s'] # The 3-flavor list for matching only self.wc_name_list_3f = ['C51', 'C52', 'C61u', 'C61d', 'C61s', 'C61e', 'C61mu', 'C61tau', 'C62u', 'C62d', 'C62s', 'C62e', 'C62mu', 'C62tau', 'C63u', 'C63d', 'C63s', 'C63e', 'C63mu', 'C63tau', 'C64u', 'C64d', 'C64s', 'C64e', 'C64mu', 'C64tau', 'C71', 'C72', 'C73', 'C74', 'C75u', 'C75d', 'C75s', 'C75e', 'C75mu', 'C75tau', 'C76u', 'C76d', 'C76s', 'C76e', 'C76mu', 'C76tau', 'C77u', 'C77d', 'C77s', 'C77e', 'C77mu', 'C77tau', 'C78u', 'C78d', 'C78s', 'C78e', 'C78mu', 'C78tau', 'C79u', 'C79d', 'C79s', 'C79e', 'C79mu', 'C79tau', 'C710u', 'C710d', 'C710s', 'C710e', 'C710mu', 'C710tau', 'C711', 'C712', 'C713', 'C714', 'C715u', 'C715d', 'C715s', 'C715e', 'C715mu', 'C715tau', 'C716u', 'C716d', 'C716s', 'C716e', 'C716mu', 'C716tau', 'C717u', 'C717d', 'C717s', 'C717e', 'C717mu', 'C717tau', 'C718u', 'C718d', 'C718s', 'C718e', 'C718mu', 'C718tau', 'C719u', 'C719d', 'C719s', 'C719e', 'C719mu', 'C719tau', 'C720u', 'C720d', 'C720s', 'C720e', 'C720mu', 'C720tau', 'C721u', 'C721d', 'C721s', 'C721e', 'C721mu', 'C721tau', 'C722u', 'C722d', 'C722s', 'C722e', 'C722mu', 'C722tau', 'C723u', 'C723d', 'C723s', 'C723e', 'C723mu', 'C723tau', 'C725'] if self.DM_type == "M": self.wc_name_list = ['C62u', 'C62d', 'C62s', 'C62c', 'C62e', 'C62mu', 'C62tau', 'C64u', 'C64d', 'C64s', 'C64c', 'C64e', 'C64mu', 'C64tau', 'C71', 'C72', 'C73', 'C74', 'C75u', 'C75d', 'C75s', 'C75c', 'C75e', 'C75mu', 'C75tau', 'C76u', 'C76d', 'C76s', 'C76c', 'C76e', 'C76mu', 'C76tau', 'C77u', 'C77d', 'C77s', 'C77c', 'C77e', 'C77mu', 'C77tau', 'C78u', 'C78d', 'C78s', 'C78c', 'C78e', 'C78mu', 'C78tau', 'C711', 'C712', 'C713', 'C714', 'C715u', 'C715d', 'C715s', 'C715c', 'C715e', 'C715mu', 'C715tau', 'C716u', 'C716d', 'C716s', 'C716c', 'C716e', 'C716mu', 'C716tau', 'C717u', 'C717d', 'C717s', 'C717c', 'C717e', 'C717mu', 'C717tau', 'C718u', 'C718d', 'C718s', 'C718c', 'C718e', 'C718mu', 'C718tau', 'C723u', 'C723d', 'C723s', 'C723c', 'C723e', 'C723mu', 'C723tau', 'C725'] self.wc8_name_list = ['C82u', 'C82d', 'C82s', 'C84u', 'C84d', 'C84s'] # The list of indices to be deleted from the QCD/QED ADM because of less operators del_ind_list = np.r_[np.s_[0:9], np.s_[16:23], np.s_[62:76], np.s_[108:136]] # The list of indices to be deleted from the dim.8 ADM because of less operators del_ind_list_dim_8 = np.r_[np.s_[0:3], np.s_[6:9]] # The list of indices to be deleted from the ADT because of less operators (dim.6 part) del_ind_list_adt_quark = np.r_[np.s_[0:4]] # The 3-flavor list for matching only self.wc_name_list_3f = ['C62u', 'C62d', 'C62s', 'C62e', 'C62mu', 'C62tau', 'C64u', 'C64d', 'C64s', 'C64e', 'C64mu', 'C64tau', 'C71', 'C72', 'C73', 'C74', 'C75u', 'C75d', 'C75s', 'C75e', 'C75mu', 'C75tau', 'C76u', 'C76d', 'C76s', 'C76e', 'C76mu', 'C76tau', 'C77u', 'C77d', 'C77s', 'C77e', 'C77mu', 'C77tau', 'C78u', 'C78d', 'C78s', 'C78e', 'C78mu', 'C78tau', 'C711', 'C712', 'C713', 'C714', 'C715u', 'C715d', 'C715s', 'C715e', 'C715mu', 'C715tau', 'C716u', 'C716d', 'C716s', 'C716e', 'C716mu', 'C716tau', 'C717u', 'C717d', 'C717s', 'C717e', 'C717mu', 'C717tau', 'C718u', 'C718d', 'C718s', 'C718e', 'C718mu', 'C718tau', 'C723u', 'C723d', 'C723s', 'C723e', 'C723mu', 'C723tau', 'C725'] if self.DM_type == "C": self.wc_name_list = ['C61u', 'C61d', 'C61s', 'C61c', 'C61e', 'C61mu', 'C61tau', 'C62u', 'C62d', 'C62s', 'C62c', 'C62e', 'C62mu', 'C62tau', 'C65', 'C66', 'C63u', 'C63d', 'C63s', 'C63c', 'C63e', 'C63mu', 'C63tau', 'C64u', 'C64d', 'C64s', 'C64c', 'C64e', 'C64mu', 'C64tau', 'C67', 'C68', 'C69u', 'C69d', 'C69s', 'C69c', 'C69e', 'C69mu', 'C69tau', 'C610'] self.wc8_name_list = ['C81u', 'C81d', 'C81s', 'C82u', 'C82d', 'C82s'] # The list of indices to be deleted from the QCD/QED ADM because of less operators del_ind_list = [0,1] + [i for i in range(9,16)] + [i for i in range(23,30)]\ + [31] + [33] + [i for i in range(41,48)]\ + [i for i in range(55,76)] + [77] + [79] + [i for i in range(80,136)] # The list of indices to be deleted from the dim.8 ADM because of less operators del_ind_list_dim_8 = np.r_[np.s_[0:3], np.s_[6:9]] # The list of indices to be deleted from the ADT because of less operators (dim.6 part) del_ind_list_adt_quark = np.r_[np.s_[0:4]] # The 3-flavor list for matching only self.wc_name_list_3f = ['C61u', 'C61d', 'C61s', 'C61e', 'C61mu', 'C61tau', 'C62u', 'C62d', 'C62s', 'C62e', 'C62mu', 'C62tau', 'C65', 'C66', 'C63u', 'C63d', 'C63s', 'C63e', 'C63mu', 'C63tau', 'C64u', 'C64d', 'C64s', 'C64e', 'C64mu', 'C64tau', 'C67', 'C68', 'C69u', 'C69d', 'C69s', 'C69e', 'C69mu', 'C69tau', 'C610'] if self.DM_type == "R": self.wc_name_list = ['C65', 'C66', 'C63u', 'C63d', 'C63s', 'C63c', 'C63e', 'C63mu', 'C63tau', 'C64u', 'C64d', 'C64s', 'C64c', 'C64e', 'C64mu', 'C64tau', 'C67', 'C68', 'C69u', 'C69d', 'C69s', 'C69c', 'C69e', 'C69mu', 'C69tau', 'C610'] self.wc8_name_list = [] # The list of indices to be deleted from the QCD/QED ADM because of less operators del_ind_list = [i for i in range(0,30)] + [31] + [33] + [i for i in range(41,48)]\ + [i for i in range(55,76)]\ + [77] + [79] + [i for i in range(80,136)] # The 3-flavor list for matching only self.wc_name_list_3f = ['C65', 'C66', 'C63u', 'C63d', 'C63s', 'C63e', 'C63mu', 'C63tau', 'C64u', 'C64d', 'C64s', 'C64e', 'C64mu', 'C64tau', 'C67', 'C68', 'C69u', 'C69d', 'C69s', 'C69e', 'C69mu', 'C69tau', 'C610'] self.coeff_dict = {} # Issue a user warning if a key is not defined: for wc_name in coeff_dict.keys(): if wc_name in self.wc_name_list: pass elif wc_name in self.wc8_name_list: pass elif wc_name in self.sm_name_list: pass elif wc_name in self.sm_lepton_name_list: pass else: warnings.warn('The key ' + wc_name + ' is not a valid key. Typo?') # Create the dictionary. for wc_name in self.wc_name_list: if wc_name in coeff_dict.keys(): self.coeff_dict[wc_name] = coeff_dict[wc_name] else: self.coeff_dict[wc_name] = 0. for wc_name in self.wc8_name_list: if wc_name in coeff_dict.keys(): self.coeff_dict[wc_name] = coeff_dict[wc_name] else: self.coeff_dict[wc_name] = 0. for wc_name in self.sm_name_list: if wc_name in coeff_dict.keys(): self.coeff_dict[wc_name] = coeff_dict[wc_name] else: self.coeff_dict[wc_name] = 0. for wc_name in self.sm_lepton_name_list: if wc_name in coeff_dict.keys(): self.coeff_dict[wc_name] = coeff_dict[wc_name] else: self.coeff_dict[wc_name] = 0. # Create the np.array of coefficients: self.coeff_list_dm_dim5_dim6_dim7 = np.array(dict_to_list(self.coeff_dict, self.wc_name_list)) self.coeff_list_dm_dim8 = np.array(dict_to_list(self.coeff_dict, self.wc8_name_list)) self.coeff_list_sm_dim6 = np.array(dict_to_list(self.coeff_dict, self.sm_name_list)) self.coeff_list_sm_lepton_dim6 = np.array(dict_to_list(self.coeff_dict, self.sm_lepton_name_list)) # The dictionary of input parameters self.ip = input_dict #---------------------------# # The anomalous dimensions: # #---------------------------# if self.DM_type == "D": self.gamma_QED = adm.ADM_QED(4) self.gamma_QED2 = adm.ADM_QED2(4) self.gamma_QCD = adm.ADM_QCD(4) self.gamma_QCD2 = adm.ADM_QCD2(4) self.gamma_QCD_dim8 = adm.ADM_QCD_dim8(4) self.gamma_hat = adm.ADT_QCD(4, self.ip) if self.DM_type == "M": self.gamma_QED = np.delete(np.delete(adm.ADM_QED(4), del_ind_list, 0), del_ind_list, 1) self.gamma_QED2 = np.delete(np.delete(adm.ADM_QED2(4), del_ind_list, 0), del_ind_list, 1) self.gamma_QCD = np.delete(np.delete(adm.ADM_QCD(4), del_ind_list, 1), del_ind_list, 2) self.gamma_QCD2 = np.delete(np.delete(adm.ADM_QCD2(4), del_ind_list, 1), del_ind_list, 2) self.gamma_QCD_dim8 = np.delete(np.delete(adm.ADM_QCD_dim8(4), del_ind_list_dim_8, 0),\ del_ind_list_dim_8, 1) self.gamma_hat = np.delete(np.delete(adm.ADT_QCD(4, self.ip), del_ind_list_dim_8, 0),\ del_ind_list_adt_quark, 2) if self.DM_type == "C": self.gamma_QED = np.delete(np.delete(adm.ADM_QED(4), del_ind_list, 0), del_ind_list, 1) self.gamma_QED2 = np.delete(np.delete(adm.ADM_QED2(4), del_ind_list, 0), del_ind_list, 1) self.gamma_QCD = np.delete(np.delete(adm.ADM_QCD(4), del_ind_list, 1), del_ind_list, 2) self.gamma_QCD2 = np.delete(np.delete(adm.ADM_QCD2(4), del_ind_list, 1), del_ind_list, 2) self.gamma_QCD_dim8 = np.delete(np.delete(adm.ADM_QCD_dim8(4), del_ind_list_dim_8, 0),\ del_ind_list_dim_8, 1) self.gamma_hat = np.delete(np.delete(adm.ADT_QCD(4, self.ip), del_ind_list_dim_8, 0),\ del_ind_list_adt_quark, 2) if self.DM_type == "R": self.gamma_QED = np.delete(np.delete(adm.ADM_QED(4), del_ind_list, 0), del_ind_list, 1) self.gamma_QED2 = np.delete(np.delete(adm.ADM_QED2(4), del_ind_list, 0), del_ind_list, 1) self.gamma_QCD = np.delete(np.delete(adm.ADM_QCD(4), del_ind_list, 1), del_ind_list, 2) self.gamma_QCD2 = np.delete(np.delete(adm.ADM_QCD2(4), del_ind_list, 1), del_ind_list, 2) self.ADM_SM = adm.ADM_SM_QCD(4) #------------------------------------------------------------------------------# # The effective anomalous dimension for mixing into dimension eight -- quarks: # #------------------------------------------------------------------------------# # We need to contract the ADT with a subset of the dim.-6 DM Wilson coefficients if self.DM_type == "D": DM_dim6_init = np.delete(self.coeff_list_dm_dim5_dim6_dim7,\ np.r_[np.s_[0:16], np.s_[20:23], np.s_[27:144]]) elif self.DM_type == "M": DM_dim6_init = np.delete(self.coeff_list_dm_dim5_dim6_dim7, np.r_[np.s_[0:7], np.s_[11:86]]) elif self.DM_type == "C": DM_dim6_init = np.delete(self.coeff_list_dm_dim5_dim6_dim7, np.r_[np.s_[0:7], np.s_[11:40]]) if self.DM_type == "D" or self.DM_type == "M" or self.DM_type == "C": # The columns of ADM_eff correspond to SM6 operators; the rows of ADM_eff correspond to DM8 operators; C6_dot_ADM_hat = np.transpose(np.tensordot(DM_dim6_init, self.gamma_hat, (0,2))) # The effective ADM # # Note that the mixing of the SM operators with four equal flavors # does not contribute if we neglect yu, yd, ys! self.ADM_eff = [np.vstack((np.hstack((self.ADM_SM,\ np.vstack((C6_dot_ADM_hat,\ np.zeros((16, len(self.gamma_QCD_dim8))))))),\ np.hstack((np.zeros((len(self.gamma_QCD_dim8),\ len(self.coeff_list_sm_dim6))),\ self.gamma_QCD_dim8))))] if self.DM_type == "R": pass def run(self, mu_low=None, double_QCD=None): """ Running of 4-flavor Wilson coefficients Calculate the running from mb(mb) to mu_low [GeV; default 2 GeV] in the four-flavor theory. Return a dictionary of Wilson coefficients for the four-flavor Lagrangian at scale mu_low. """ if mu_low is None: mu_low=2 if self.DM_type == "D" or self.DM_type == "M" or self.DM_type == "C": if double_QCD is None: double_QCD=True else: double_QCD=False #-------------# # The running # #-------------# mb = self.ip['mb_at_mb'] alpha_at_mc = 1/self.ip['aMZinv'] as_2GeV = rge.AlphaS(self.ip['asMZ'],\ self.ip['Mz']).run({'mbmb': self.ip['mb_at_mb'],\ 'mcmc': self.ip['mc_at_mc']},\ {'mub': self.ip['mb_at_mb'],\ 'muc': self.ip['mc_at_mc']}, 2, 3, 1) gs2_2GeV = 4*np.pi*as_2GeV if self.DM_type == "D" or self.DM_type == "M" or self.DM_type == "C": if double_QCD: adm_eff = self.ADM_eff else: projector = np.vstack((np.hstack((np.zeros((64,64)),\ np.ones((64,12)))),\ np.zeros((12,76)))) adm_eff = [np.multiply(projector, self.ADM_eff[0])] else: pass as41 = rge.AlphaS(self.ip['asMZ'], self.ip['Mz']) as41_high = as41.run({'mbmb': self.ip['mb_at_mb'], 'mcmc': self.ip['mc_at_mc']},\ {'mub': self.ip['mb_at_mb'], 'muc': self.ip['mc_at_mc']}, mb, 4, 1) as41_low = as41.run({'mbmb': self.ip['mb_at_mb'], 'mcmc': self.ip['mc_at_mc']},\ {'mub': self.ip['mb_at_mb'], 'muc': self.ip['mc_at_mc']}, mu_low, 4, 1) evolve1 = rge.RGE(self.gamma_QCD, 4) evolve2 = rge.RGE(self.gamma_QCD2, 4) if self.DM_type == "D" or self.DM_type == "M" or self.DM_type == "C": evolve8 = rge.RGE(adm_eff, 4) else: pass # Mixing in the dim.6 DM-SM sector # C_at_mc_QCD = np.dot(evolve2.U0_as2(as41_high, as41_low),\ np.dot(evolve1.U0(as41_high, as41_low),\ self.coeff_list_dm_dim5_dim6_dim7)) C_at_mc_QED = np.dot(self.coeff_list_dm_dim5_dim6_dim7, self.gamma_QED)\ * np.log(mu_low/mb) * alpha_at_mc/(4*np.pi)\ + np.dot(self.coeff_list_dm_dim5_dim6_dim7, self.gamma_QED2)\ * np.log(mu_low/mb) * (alpha_at_mc/(4*np.pi))**2 if self.DM_type == "D" or self.DM_type == "M" or self.DM_type == "C": # Mixing in the dim.6 SM-SM and dim.8 DM-SM sector DIM6_DIM8_init = np.hstack((self.coeff_list_sm_dim6, self.coeff_list_dm_dim8)) DIM6_DIM8_at_mb = np.dot(evolve8.U0(as41_high, as41_low), DIM6_DIM8_init) # Revert back to dictionary dict_coeff_mc = list_to_dict(C_at_mc_QCD + C_at_mc_QED, self.wc_name_list) if self.DM_type == "D" or self.DM_type == "M" or self.DM_type == "C": dict_dm_dim8 = list_to_dict(np.delete(DIM6_DIM8_at_mb, np.s_[0:64]), self.wc8_name_list) dict_sm_dim6 = list_to_dict(np.delete(DIM6_DIM8_at_mb, np.s_[64:70]), self.sm_name_list) dict_sm_lepton_dim6 = list_to_dict(self.coeff_list_sm_lepton_dim6, self.sm_lepton_name_list) dict_coeff_mc.update(dict_dm_dim8) dict_coeff_mc.update(dict_sm_dim6) dict_coeff_mc.update(dict_sm_lepton_dim6) return dict_coeff_mc def match(self, RGE=None, double_QCD=None, mu=None): """ Match from four-flavor to three-flavor QCD Calculate the matching at mu [GeV; default 2 GeV]. Returns a dictionary of Wilson coefficients for the three-flavor Lagrangian at scale mu. The SM-SM Wilson coefficients are NOT returned. RGE is an optional argument to turn RGE running on (True) or off (False). (Default True) """ if mu is None: mu=2 if RGE is None: RGE=True if double_QCD is None: double_QCD=True # The new coefficients cdict3f = {} if RGE: cdold = self.run(mu, double_QCD) else: cdold = self.coeff_dict if self.DM_type == "D" or self.DM_type == "M": for wcn in self.wc_name_list_3f: cdict3f[wcn] = cdold[wcn] for wcn in self.wc8_name_list: cdict3f[wcn] = cdold[wcn] cdict3f['C71'] = cdold['C71'] - cdold['C75c'] cdict3f['C72'] = cdold['C72'] - cdold['C76c'] cdict3f['C73'] = cdold['C73'] + cdold['C77c'] cdict3f['C74'] = cdold['C74'] + cdold['C78c'] if self.DM_type == "C": for wcn in self.wc_name_list_3f: cdict3f[wcn] = cdold[wcn] for wcn in self.wc8_name_list: cdict3f[wcn] = cdold[wcn] cdict3f['C65'] = cdold['C65'] - cdold['C63c'] cdict3f['C66'] = cdold['C66'] + cdold['C64c'] if self.DM_type == "R": for wcn in self.wc_name_list_3f: cdict3f[wcn] = cdold[wcn] cdict3f['C65'] = cdold['C65'] - cdold['C63c'] cdict3f['C66'] = cdold['C66'] + cdold['C64c'] # return the 3-flavor coefficients return cdict3f def _my_cNR(self, DM_mass, RGE=None, NLO=None, double_QCD=None, DOUBLE_WEAK=None): """ Calculate the NR coefficients from four-flavor theory with meson contributions split off (mainly for internal use) """ return WC_3flavor(self.match(RGE, double_QCD, DOUBLE_WEAK), self.DM_type, self.ip)._my_cNR(DM_mass, RGE, NLO) def cNR(self, DM_mass, qvec, RGE=None, NLO=None, double_QCD=None, DOUBLE_WEAK=None): """ Calculate the NR coefficients from four-flavor theory """ return WC_3flavor(self.match(RGE, double_QCD), self.DM_type, self.ip).cNR(DM_mass, qvec, RGE, NLO, DOUBLE_WEAK) def write_mma(self, DM_mass, qvec, RGE=None, NLO=None, double_QCD=None, DOUBLE_WEAK=None, path=None, filename=None): """ Write a text file with the NR coefficients that can be read into DMFormFactor The order is {cNR1p, cNR2p, ... , cNR1n, cNR2n, ... } Mandatory arguments are the DM mass DM_mass (in GeV) and the spatial momentum transfer qvec (in GeV) <path> should be a string with the path (including the trailing "/") where the file should be saved (default is './') <filename> is the filename (default 'cNR.m') """ WC_3flavor(self.match(RGE, double_QCD), self.DM_type,\ self.ip).write_mma(DM_mass, qvec, RGE, NLO, DOUBLE_WEAK, path, filename) class WC_5flavor(object): def __init__(self, coeff_dict, DM_type, input_dict=None): # def __init__(self, coeff_dict, DM_type): """ Class for Wilson coefficients in 5 flavor QCD x QED plus DM. The argument should be a dictionary for the initial conditions of the 2 + 32 + 4 + 48 + 4 + 64 + 8 + 1 + 12 = 175 dimension-five to dimension-eight five-flavor-QCD Wilson coefficients (for Dirac DM) of the form {'C51' : value, 'C52' : value, ...}. For other DM types there are less coefficients. A subset of twist-two operators is currently only included for Dirac DM. An arbitrary number of them can be given; the default values are zero. The possible name are (with an hopefully obvious notation): The second argument is the DM type; it can take the following values: "D" (Dirac fermion) "M" (Majorana fermion) "C" (Complex scalar) "R" (Real scalar) Dirac fermion: 'C51', 'C52', 'C61u', 'C61d', 'C61s', 'C61c', 'C61b', 'C61e', 'C61mu', 'C61tau', 'C62u', 'C62d', 'C62s', 'C62c', 'C62b', 'C62e', 'C62mu', 'C62tau', 'C63u', 'C63d', 'C63s', 'C63c', 'C63b', 'C63e', 'C63mu', 'C63tau', 'C64u', 'C64d', 'C64s', 'C64c', 'C64b', 'C64e', 'C64mu', 'C64tau', 'C71', 'C72', 'C73', 'C74', 'C75u', 'C75d', 'C75s', 'C75c', 'C75b', 'C75e', 'C75mu', 'C75tau', 'C76u', 'C76d', 'C76s', 'C76c', 'C76b', 'C76e', 'C76mu', 'C76tau', 'C77u', 'C77d', 'C77s', 'C77c', 'C77b', 'C77e', 'C77mu', 'C77tau', 'C78u', 'C78d', 'C78s', 'C78c', 'C78b', 'C78e', 'C78mu', 'C78tau', 'C79u', 'C79d', 'C79s', 'C79c', 'C79b', 'C79e', 'C79mu', 'C79tau', 'C710u', 'C710d', 'C710s', 'C710c', 'C710b', 'C710e', 'C710mu', 'C710tau', 'C711', 'C712', 'C713', 'C714', 'C715u', 'C715d', 'C715s', 'C715c', 'C715b', 'C715e', 'C715mu', 'C715tau', 'C716u', 'C716d', 'C716s', 'C716c', 'C716b', 'C716e', 'C716mu', 'C716tau', 'C717u', 'C717d', 'C717s', 'C717c', 'C717b', 'C717e', 'C717mu', 'C717tau', 'C718u', 'C718d', 'C718s', 'C718c', 'C718b', 'C718e', 'C718mu', 'C718tau', 'C719u', 'C719d', 'C719s', 'C719c', 'C719b', 'C719e', 'C719mu', 'C719tau', 'C720u', 'C720d', 'C720s', 'C720c', 'C720b', 'C720e', 'C720mu', 'C720tau', 'C721u', 'C721d', 'C721s', 'C721c', 'C721b', 'C721e', 'C721mu', 'C721tau', 'C722u', 'C722d', 'C722s', 'C722c', 'C722b', 'C722e', 'C722mu', 'C722tau', 'C723u', 'C723d', 'C723s', 'C723c', 'C723b', 'C723e', 'C723mu', 'C723tau', 'C725', 'C81u', 'C81d', 'C81s', 'C82u', 'C82d', 'C82s' 'C83u', 'C83d', 'C83s', 'C84u', 'C84d', 'C84s' Majorana fermion: 'C62u', 'C62d', 'C62s', 'C62c', 'C62b', 'C62e', 'C62mu', 'C62tau', 'C64u', 'C64d', 'C64s', 'C64c', 'C64b', 'C64e', 'C64mu', 'C64tau', 'C71', 'C72', 'C73', 'C74', 'C75u', 'C75d', 'C75s', 'C75c', 'C75b', 'C75e', 'C75mu', 'C75tau', 'C76u', 'C76d', 'C76s', 'C76c', 'C76b', 'C76e', 'C76mu', 'C76tau', 'C77u', 'C77d', 'C77s', 'C77c', 'C77b', 'C77e', 'C77mu', 'C77tau', 'C78u', 'C78d', 'C78s', 'C78c', 'C78b', 'C78e', 'C78mu', 'C78tau', 'C711', 'C712', 'C713', 'C714', 'C715u', 'C715d', 'C715s', 'C715c', 'C715b', 'C715e', 'C715mu', 'C715tau', 'C716u', 'C716d', 'C716s', 'C716c', 'C716b', 'C716e', 'C716mu', 'C716tau', 'C717u', 'C717d', 'C717s', 'C717c', 'C717b', 'C717e', 'C717mu', 'C717tau', 'C718u', 'C718d', 'C718s', 'C718c', 'C718b', 'C718e', 'C718mu', 'C718tau', 'C723u', 'C723d', 'C723s', 'C723c', 'C723b', 'C723e', 'C723mu', 'C723tau', 'C725', Complex Scalar: 'C61u', 'C61d', 'C61s', 'C61c', 'C61b', 'C61e', 'C61mu', 'C61tau', 'C62u', 'C62d', 'C62s', 'C62c', 'C62b', 'C62e', 'C62mu', 'C62tau', 'C63u', 'C63d', 'C63s', 'C63c', 'C63b', 'C63e', 'C63mu', 'C63tau', 'C64u', 'C64d', 'C64s', 'C64c', 'C64b', 'C64e', 'C64mu', 'C64tau', 'C65', 'C66', 'C67', 'C68', 'C69u', 'C69d', 'C69s', 'C69c', 'C69b', 'C69e', 'C69mu', 'C69tau', 'C610' Real Scalar: 'C63u', 'C63d', 'C63s', 'C63c', 'C63b', 'C63e', 'C63mu', 'C63tau', 'C64u', 'C64d', 'C64s', 'C64c', 'C64b', 'C64e', 'C64mu', 'C64tau', 'C65', 'C66', 'C67', 'C68', 'C69u', 'C69d', 'C69s', 'C69c', 'C69b', 'C69e', 'C69mu', 'C69tau', 'C610' (the notation corresponds to the numbering in 1707.06998, 1801.04240, and 1809.03506). The Wilson coefficients should be specified in the MS-bar scheme at MZ = 91.1876 GeV. In order to calculate consistently to dim.8 in the EFT, we need also the dim.6 SM operators. The following subset of 10*8 + 5*4 = 100 operator coefficients are sufficient for our purposes: 'D61ud', 'D62ud', 'D63ud', 'D63du', 'D64ud', 'D65ud', 'D66ud', 'D66du', 'D61us', 'D62us', 'D63us', 'D63su', 'D64us', 'D65us', 'D66us', 'D66su', 'D61uc', 'D62uc', 'D63uc', 'D63cu', 'D64uc', 'D65uc', 'D66uc', 'D66cu', 'D61ub', 'D62ub', 'D63ub', 'D63bu', 'D64ub', 'D65ub', 'D66ub', 'D66bu', 'D61ds', 'D62ds', 'D63ds', 'D63sd', 'D64ds', 'D65ds', 'D66ds', 'D66sd', 'D61dc', 'D62dc', 'D63dc', 'D63cd', 'D64dc', 'D65dc', 'D66dc', 'D66cd', 'D61db', 'D62db', 'D63db', 'D63bd', 'D64db', 'D65db', 'D66db', 'D66bd', 'D61sc', 'D62sc', 'D63sc', 'D63cs', 'D64sc', 'D65sc', 'D66sc', 'D66cs', 'D61sb', 'D62sb', 'D63sb', 'D63bs', 'D64sb', 'D65sb', 'D66sb', 'D66bs', 'D61cb', 'D62cb', 'D63cb', 'D63bc', 'D64cb', 'D65cb', 'D66cb', 'D66bc', 'D61u', 'D62u', 'D63u', 'D64u', 'D61d', 'D62d', 'D63d', 'D64d', 'D61s', 'D62s', 'D63s', 'D64s', 'D61c', 'D62c', 'D63c', 'D64c', 'D61b', 'D62b', 'D63b', 'D64b' Unless specified otherwise by the user, the tree-level SM initial conditions at MZ are provided be default. For completeness, the default initial conditions at MZ for the corresponding leptonic operator Wilson coefficients are also given: 'D63eu', 'D63muu', 'D63tauu', 'D63ed', 'D63mud', 'D63taud', 'D63es', 'D63mus', 'D63taus', 'D62ue', 'D62umu', 'D62utau', 'D62de', 'D62dmu', 'D62dtau', 'D62se', 'D62smu', 'D62stau' The third argument is a dictionary with all input parameters. The class has four methods: run --- Run the Wilson from MZ = 91.1876 GeV to mu_low [GeV; default mb(mb)], with 5 active quark flavors match ----- Match the Wilson coefficients from 5-flavor to 4-flavor QCD, at scale mu [GeV; default mu = mb(mb)] cNR --- Calculate the cNR coefficients as defined in 1308.6288 It has two mandatory arguments: The DM mass in GeV and the momentum transfer in GeV write_mma --------- Write an output file that can be loaded into mathematica, to be used in the DMFormFactor package [1308.6288]. """ self.DM_type = DM_type # First, we define a standard ordering for the Wilson coefficients, so that we can use arrays self.sm_lepton_name_list = ['D63eu', 'D63muu', 'D63tauu', 'D63ed', 'D63mud',\ 'D63taud', 'D63es', 'D63mus', 'D63taus', 'D62ue', 'D62umu', 'D62utau', 'D62de', 'D62dmu',\ 'D62dtau', 'D62se', 'D62smu', 'D62stau'] self.sm_name_list = ['D61ud', 'D62ud', 'D63ud', 'D63du', 'D64ud', 'D65ud', 'D66ud', 'D66du', 'D61us', 'D62us', 'D63us', 'D63su', 'D64us', 'D65us', 'D66us', 'D66su', 'D61uc', 'D62uc', 'D63uc', 'D63cu', 'D64uc', 'D65uc', 'D66uc', 'D66cu', 'D61ub', 'D62ub', 'D63ub', 'D63bu', 'D64ub', 'D65ub', 'D66ub', 'D66bu', 'D61ds', 'D62ds', 'D63ds', 'D63sd', 'D64ds', 'D65ds', 'D66ds', 'D66sd', 'D61dc', 'D62dc', 'D63dc', 'D63cd', 'D64dc', 'D65dc', 'D66dc', 'D66cd', 'D61db', 'D62db', 'D63db', 'D63bd', 'D64db', 'D65db', 'D66db', 'D66bd', 'D61sc', 'D62sc', 'D63sc', 'D63cs', 'D64sc', 'D65sc', 'D66sc', 'D66cs', 'D61sb', 'D62sb', 'D63sb', 'D63bs', 'D64sb', 'D65sb', 'D66sb', 'D66bs', 'D61cb', 'D62cb', 'D63cb', 'D63bc', 'D64cb', 'D65cb', 'D66cb', 'D66bc', 'D61u', 'D62u', 'D63u', 'D64u', 'D61d', 'D62d', 'D63d', 'D64d', 'D61s', 'D62s', 'D63s', 'D64s', 'D61c', 'D62c', 'D63c', 'D64c', 'D61b', 'D62b', 'D63b', 'D64b'] self.sm_name_list_4f = ['D61ud', 'D62ud', 'D63ud', 'D63du', 'D64ud', 'D65ud', 'D66ud', 'D66du', 'D61us', 'D62us', 'D63us', 'D63su', 'D64us', 'D65us', 'D66us', 'D66su', 'D61uc', 'D62uc', 'D63uc', 'D63cu', 'D64uc', 'D65uc', 'D66uc', 'D66cu', 'D61ds', 'D62ds', 'D63ds', 'D63sd', 'D64ds', 'D65ds', 'D66ds', 'D66sd', 'D61dc', 'D62dc', 'D63dc', 'D63cd', 'D64dc', 'D65dc', 'D66dc', 'D66cd', 'D61sc', 'D62sc', 'D63sc', 'D63cs', 'D64sc', 'D65sc', 'D66sc', 'D66cs', 'D61u', 'D62u', 'D63u', 'D64u', 'D61d', 'D62d', 'D63d', 'D64d', 'D61s', 'D62s', 'D63s', 'D64s', 'D61c', 'D62c', 'D63c', 'D64c'] if self.DM_type == "D": self.wc_name_list = ['C51', 'C52', 'C61u', 'C61d', 'C61s', 'C61c', 'C61b', 'C61e', 'C61mu', 'C61tau', 'C62u', 'C62d', 'C62s', 'C62c', 'C62b', 'C62e', 'C62mu', 'C62tau', 'C63u', 'C63d', 'C63s', 'C63c', 'C63b', 'C63e', 'C63mu', 'C63tau', 'C64u', 'C64d', 'C64s', 'C64c', 'C64b', 'C64e', 'C64mu', 'C64tau', 'C71', 'C72', 'C73', 'C74', 'C75u', 'C75d', 'C75s', 'C75c', 'C75b', 'C75e', 'C75mu', 'C75tau', 'C76u', 'C76d', 'C76s', 'C76c', 'C76b', 'C76e', 'C76mu', 'C76tau', 'C77u', 'C77d', 'C77s', 'C77c', 'C77b', 'C77e', 'C77mu', 'C77tau', 'C78u', 'C78d', 'C78s', 'C78c', 'C78b', 'C78e', 'C78mu', 'C78tau', 'C79u', 'C79d', 'C79s', 'C79c', 'C79b', 'C79e', 'C79mu', 'C79tau', 'C710u', 'C710d', 'C710s', 'C710c', 'C710b', 'C710e', 'C710mu', 'C710tau', 'C711', 'C712', 'C713', 'C714', 'C715u', 'C715d', 'C715s', 'C715c', 'C715b', 'C715e', 'C715mu', 'C715tau', 'C716u', 'C716d', 'C716s', 'C716c', 'C716b', 'C716e', 'C716mu', 'C716tau', 'C717u', 'C717d', 'C717s', 'C717c', 'C717b', 'C717e', 'C717mu', 'C717tau', 'C718u', 'C718d', 'C718s', 'C718c', 'C718b', 'C718e', 'C718mu', 'C718tau', 'C719u', 'C719d', 'C719s', 'C719c', 'C719b', 'C719e', 'C719mu', 'C719tau', 'C720u', 'C720d', 'C720s', 'C720c', 'C720b', 'C720e', 'C720mu', 'C720tau', 'C721u', 'C721d', 'C721s', 'C721c', 'C721b', 'C721e', 'C721mu', 'C721tau', 'C722u', 'C722d', 'C722s', 'C722c', 'C722b', 'C722e', 'C722mu', 'C722tau', 'C723u', 'C723d', 'C723s', 'C723c', 'C723b', 'C723e', 'C723mu', 'C723tau', 'C725'] self.wc8_name_list = ['C81u', 'C81d', 'C81s', 'C82u', 'C82d', 'C82s',\ 'C83u', 'C83d', 'C83s', 'C84u', 'C84d', 'C84s'] self.wc_name_list_4f = ['C51', 'C52', 'C61u', 'C61d', 'C61s', 'C61c', 'C61e', 'C61mu', 'C61tau', 'C62u', 'C62d', 'C62s', 'C62c', 'C62e', 'C62mu', 'C62tau', 'C63u', 'C63d', 'C63s', 'C63c', 'C63e', 'C63mu', 'C63tau', 'C64u', 'C64d', 'C64s', 'C64c', 'C64e', 'C64mu', 'C64tau', 'C71', 'C72', 'C73', 'C74', 'C75u', 'C75d', 'C75s', 'C75c', 'C75e', 'C75mu', 'C75tau', 'C76u', 'C76d', 'C76s', 'C76c', 'C76e', 'C76mu', 'C76tau', 'C77u', 'C77d', 'C77s', 'C77c', 'C77e', 'C77mu', 'C77tau', 'C78u', 'C78d', 'C78s', 'C78c', 'C78e', 'C78mu', 'C78tau', 'C79u', 'C79d', 'C79s', 'C79c', 'C79e', 'C79mu', 'C79tau', 'C710u', 'C710d', 'C710s', 'C710c', 'C710e', 'C710mu', 'C710tau', 'C711', 'C712', 'C713', 'C714', 'C715u', 'C715d', 'C715s', 'C715c', 'C715e', 'C715mu', 'C715tau', 'C716u', 'C716d', 'C716s', 'C716c', 'C716e', 'C716mu', 'C716tau', 'C717u', 'C717d', 'C717s', 'C717c', 'C717e', 'C717mu', 'C717tau', 'C718u', 'C718d', 'C718s', 'C718c', 'C718e', 'C718mu', 'C718tau', 'C719u', 'C719d', 'C719s', 'C719c', 'C719e', 'C719mu', 'C719tau', 'C720u', 'C720d', 'C720s', 'C720c', 'C720e', 'C720mu', 'C720tau', 'C721u', 'C721d', 'C721s', 'C721c', 'C721e', 'C721mu', 'C721tau', 'C722u', 'C722d', 'C722s', 'C722c', 'C722e', 'C722mu', 'C722tau', 'C723u', 'C723d', 'C723s', 'C723c', 'C723e', 'C723mu', 'C723tau', 'C725'] if self.DM_type == "M": self.wc_name_list = ['C62u', 'C62d', 'C62s', 'C62c', 'C62b', 'C62e', 'C62mu', 'C62tau', 'C64u', 'C64d', 'C64s', 'C64c', 'C64b', 'C64e', 'C64mu', 'C64tau', 'C71', 'C72', 'C73', 'C74', 'C75u', 'C75d', 'C75s', 'C75c', 'C75b', 'C75e', 'C75mu', 'C75tau', 'C76u', 'C76d', 'C76s', 'C76c', 'C76b', 'C76e', 'C76mu', 'C76tau', 'C77u', 'C77d', 'C77s', 'C77c', 'C77b', 'C77e', 'C77mu', 'C77tau', 'C78u', 'C78d', 'C78s', 'C78c', 'C78b', 'C78e', 'C78mu', 'C78tau', 'C711', 'C712', 'C713', 'C714', 'C715u', 'C715d', 'C715s', 'C715c', 'C715b', 'C715e', 'C715mu', 'C715tau', 'C716u', 'C716d', 'C716s', 'C716c', 'C716b', 'C716e', 'C716mu', 'C716tau', 'C717u', 'C717d', 'C717s', 'C717c', 'C717b', 'C717e', 'C717mu', 'C717tau', 'C718u', 'C718d', 'C718s', 'C718c', 'C718b', 'C718e', 'C718mu', 'C718tau', 'C723u', 'C723d', 'C723s', 'C723c', 'C723b', 'C723e', 'C723mu', 'C723tau', 'C725'] self.wc8_name_list = ['C82u', 'C82d', 'C82s', 'C84u', 'C84d', 'C84s'] # The list of indices to be deleted from the QCD/QED ADM because of less operators del_ind_list = [i for i in range(0,10)] + [i for i in range(18,26)]\ + [i for i in range(70,86)] + [i for i in range(122,154)] # The list of indices to be deleted from the dim.8 ADM because of less operators del_ind_list_dim_8 = np.r_[np.s_[0:3], np.s_[6:9]] # The list of indices to be deleted from the ADT because of less operators (dim.6 part) del_ind_list_adt_quark = np.r_[np.s_[0:5]] # The 4-flavor list for matching only self.wc_name_list_4f = ['C62u', 'C62d', 'C62s', 'C62c', 'C62e', 'C62mu', 'C62tau', 'C64u', 'C64d', 'C64s', 'C64c', 'C64e', 'C64mu', 'C64tau', 'C71', 'C72', 'C73', 'C74', 'C75u', 'C75d', 'C75s', 'C75c', 'C75e', 'C75mu', 'C75tau', 'C76u', 'C76d', 'C76s', 'C76c', 'C76e', 'C76mu', 'C76tau', 'C77u', 'C77d', 'C77s', 'C77c', 'C77e', 'C77mu', 'C77tau', 'C78u', 'C78d', 'C78s', 'C78c', 'C78e', 'C78mu', 'C78tau', 'C711', 'C712', 'C713', 'C714', 'C715u', 'C715d', 'C715s', 'C715c', 'C715e', 'C715mu', 'C715tau', 'C716u', 'C716d', 'C716s', 'C716c', 'C716e', 'C716mu', 'C716tau', 'C717u', 'C717d', 'C717s', 'C717c', 'C717e', 'C717mu', 'C717tau', 'C718u', 'C718d', 'C718s', 'C718c', 'C718e', 'C718mu', 'C718tau', 'C723u', 'C723d', 'C723s', 'C723c', 'C723e', 'C723mu', 'C723tau', 'C725'] if self.DM_type == "C": self.wc_name_list = ['C61u', 'C61d', 'C61s', 'C61c', 'C61b', 'C61e', 'C61mu', 'C61tau', 'C62u', 'C62d', 'C62s', 'C62c', 'C62b', 'C62e', 'C62mu', 'C62tau', 'C65', 'C66', 'C63u', 'C63d', 'C63s', 'C63c', 'C63b', 'C63e', 'C63mu', 'C63tau', 'C64u', 'C64d', 'C64s', 'C64c', 'C64b', 'C64e', 'C64mu', 'C64tau', 'C67', 'C68', 'C69u', 'C69d', 'C69s', 'C69c', 'C69b', 'C69e', 'C69mu', 'C69tau', 'C610'] self.wc8_name_list = ['C81u', 'C81d', 'C81s', 'C82u', 'C82d', 'C82s'] # The list of indices to be deleted from the QCD/QED ADM because of less operators del_ind_list = [0,1] + [i for i in range(10,18)] + [i for i in range(26,34)]\ + [35] + [37] + [i for i in range(46,54)]\ + [i for i in range(62,86)] + [87] + [89] + [i for i in range(90,154)] # The list of indices to be deleted from the dim.8 ADM because of less operators del_ind_list_dim_8 = np.r_[np.s_[0:3], np.s_[6:9]] # The list of indices to be deleted from the ADT because of less operators (dim.6 part) del_ind_list_adt_quark = np.r_[np.s_[0:5]] # The 4-flavor list for matching only self.wc_name_list_4f = ['C61u', 'C61d', 'C61s', 'C61c', 'C61e', 'C61mu', 'C61tau', 'C62u', 'C62d', 'C62s', 'C62c', 'C62e', 'C62mu', 'C62tau', 'C65', 'C66', 'C63u', 'C63d', 'C63s', 'C63c', 'C63e', 'C63mu', 'C63tau', 'C64u', 'C64d', 'C64s', 'C64c', 'C64e', 'C64mu', 'C64tau', 'C67', 'C68', 'C69u', 'C69d', 'C69s', 'C69c', 'C69e', 'C69mu', 'C69tau', 'C610'] if self.DM_type == "R": self.wc_name_list = ['C65', 'C66', 'C63u', 'C63d', 'C63s', 'C63c', 'C63b', 'C63e', 'C63mu', 'C63tau', 'C64u', 'C64d', 'C64s', 'C64c', 'C64b', 'C64e', 'C64mu', 'C64tau', 'C67', 'C68', 'C69u', 'C69d', 'C69s', 'C69c', 'C69b', 'C69e', 'C69mu', 'C69tau', 'C610'] self.wc8_name_list = [] # The list of indices to be deleted from the QCD/QED ADM because of less operators del_ind_list = [i for i in range(0,34)] + [35] + [37] + [i for i in range(46,54)]\ + [i for i in range(62,86)]\ + [87] + [89] + [i for i in range(90,154)] # The 4-flavor list for matching only self.wc_name_list_4f = ['C65', 'C66', 'C63u', 'C63d', 'C63s', 'C63c', 'C63e', 'C63mu', 'C63tau', 'C64u', 'C64d', 'C64s', 'C64c', 'C64e', 'C64mu', 'C64tau', 'C67', 'C68', 'C69u', 'C69d', 'C69s', 'C69c', 'C69e', 'C69mu', 'C69tau', 'C610'] self.coeff_dict = {} # Issue a user warning if a key is not defined: for wc_name in coeff_dict.keys(): if wc_name in self.wc_name_list: pass elif wc_name in self.wc8_name_list: pass elif wc_name in self.sm_name_list: pass elif wc_name in self.sm_lepton_name_list: pass else: warnings.warn('The key ' + wc_name + ' is not a valid key. Typo?') # The dictionary of input parameters self.ip = input_dict # if input_dict is None: # self.ip = Num_input().input_parameters # else: # self.ip = Num_input(input_dict).input_parameters # Create the dictionary of Wilson coefficients. # # First, the default values (0 for DM operators, SM values for SM operators): # # This is actually conceptually not so good. # The SM initial conditions should be moved to a matching method above the e/w scale? for wc_name in self.wc_name_list: self.coeff_dict[wc_name] = 0. for wc_name in self.wc8_name_list: self.coeff_dict[wc_name] = 0. sw = np.sqrt(self.ip['sw2_MSbar']) cw = np.sqrt(1-sw**2) vd = (-1/2 - 2*sw**2*(-1/3))/(2*sw*cw) vu = (1/2 - 2*sw**2*(2/3))/(2*sw*cw) ad = -(-1/2)/(2*sw*cw) au = -(1/2)/(2*sw*cw) vl = (-1/2 - 2*sw**2*(-1))/(2*sw*cw) al = -(-1/2)/(2*sw*cw) self.coeff_dict['D61ud'] = vu*vd * 4*sw**2*cw**2 + 1/6 self.coeff_dict['D62ud'] = au*ad * 4*sw**2*cw**2 + 1/6 self.coeff_dict['D63ud'] = au*vd * 4*sw**2*cw**2 - 1/6 self.coeff_dict['D63du'] = ad*vu * 4*sw**2*cw**2 - 1/6 self.coeff_dict['D64ud'] = 1 self.coeff_dict['D65ud'] = 1 self.coeff_dict['D66ud'] = -1 self.coeff_dict['D66du'] = -1 self.coeff_dict['D61us'] = vu*vd * 4*sw**2*cw**2 self.coeff_dict['D62us'] = au*ad * 4*sw**2*cw**2 self.coeff_dict['D63us'] = au*vd * 4*sw**2*cw**2 self.coeff_dict['D63su'] = ad*vu * 4*sw**2*cw**2 self.coeff_dict['D64us'] = 0 self.coeff_dict['D65us'] = 0 self.coeff_dict['D66us'] = 0 self.coeff_dict['D66su'] = 0 self.coeff_dict['D61uc'] = vu*vu * 4*sw**2*cw**2 self.coeff_dict['D62uc'] = au*au * 4*sw**2*cw**2 self.coeff_dict['D63uc'] = au*vu * 4*sw**2*cw**2 self.coeff_dict['D63cu'] = au*vu * 4*sw**2*cw**2 self.coeff_dict['D64uc'] = 0 self.coeff_dict['D65uc'] = 0 self.coeff_dict['D66uc'] = 0 self.coeff_dict['D66cu'] = 0 self.coeff_dict['D61ub'] = vu*vd * 4*sw**2*cw**2 self.coeff_dict['D62ub'] = au*ad * 4*sw**2*cw**2 self.coeff_dict['D63ub'] = au*vd * 4*sw**2*cw**2 self.coeff_dict['D63bu'] = ad*vu * 4*sw**2*cw**2 self.coeff_dict['D64ub'] = 0 self.coeff_dict['D65ub'] = 0 self.coeff_dict['D66ub'] = 0 self.coeff_dict['D66bu'] = 0 self.coeff_dict['D61ds'] = vd*vd * 4*sw**2*cw**2 self.coeff_dict['D62ds'] = ad*ad * 4*sw**2*cw**2 self.coeff_dict['D63ds'] = ad*vd * 4*sw**2*cw**2 self.coeff_dict['D63sd'] = ad*vd * 4*sw**2*cw**2 self.coeff_dict['D64ds'] = 0 self.coeff_dict['D65ds'] = 0 self.coeff_dict['D66ds'] = 0 self.coeff_dict['D66sd'] = 0 self.coeff_dict['D61dc'] = vd*vu * 4*sw**2*cw**2 self.coeff_dict['D62dc'] = ad*au * 4*sw**2*cw**2 self.coeff_dict['D63dc'] = ad*vu * 4*sw**2*cw**2 self.coeff_dict['D63cd'] = au*vd * 4*sw**2*cw**2 self.coeff_dict['D64dc'] = 0 self.coeff_dict['D65dc'] = 0 self.coeff_dict['D66dc'] = 0 self.coeff_dict['D66cd'] = 0 self.coeff_dict['D61db'] = vd*vd * 4*sw**2*cw**2 self.coeff_dict['D62db'] = ad*ad * 4*sw**2*cw**2 self.coeff_dict['D63db'] = ad*vd * 4*sw**2*cw**2 self.coeff_dict['D63bd'] = ad*vd * 4*sw**2*cw**2 self.coeff_dict['D64db'] = 0 self.coeff_dict['D65db'] = 0 self.coeff_dict['D66db'] = 0 self.coeff_dict['D66bd'] = 0 self.coeff_dict['D61sc'] = vd*vu * 4*sw**2*cw**2 + 1/6 self.coeff_dict['D62sc'] = ad*au * 4*sw**2*cw**2 + 1/6 self.coeff_dict['D63sc'] = ad*vu * 4*sw**2*cw**2 - 1/6 self.coeff_dict['D63cs'] = au*vd * 4*sw**2*cw**2 - 1/6 self.coeff_dict['D64sc'] = 1 self.coeff_dict['D65sc'] = 1 self.coeff_dict['D66sc'] = -1 self.coeff_dict['D66cs'] = -1 self.coeff_dict['D61sb'] = vd*vd * 4*sw**2*cw**2 self.coeff_dict['D62sb'] = ad*ad * 4*sw**2*cw**2 self.coeff_dict['D63sb'] = ad*vd * 4*sw**2*cw**2 self.coeff_dict['D63bs'] = ad*vd * 4*sw**2*cw**2 self.coeff_dict['D64sb'] = 0 self.coeff_dict['D65sb'] = 0 self.coeff_dict['D66sb'] = 0 self.coeff_dict['D66bs'] = 0 self.coeff_dict['D61cb'] = vu*vd * 4*sw**2*cw**2 self.coeff_dict['D62cb'] = au*ad * 4*sw**2*cw**2 self.coeff_dict['D63cb'] = au*vd * 4*sw**2*cw**2 self.coeff_dict['D63bc'] = ad*vu * 4*sw**2*cw**2 self.coeff_dict['D64cb'] = 0 self.coeff_dict['D65cb'] = 0 self.coeff_dict['D66cb'] = 0 self.coeff_dict['D66bc'] = 0 self.coeff_dict['D61u'] = vu**2 * 2*sw**2*cw**2 self.coeff_dict['D62u'] = au**2 * 2*sw**2*cw**2 self.coeff_dict['D63u'] = vu*au * 4*sw**2*cw**2 self.coeff_dict['D64u'] = 0 self.coeff_dict['D61d'] = vd**2 * 2*sw**2*cw**2 self.coeff_dict['D62d'] = ad**2 * 2*sw**2*cw**2 self.coeff_dict['D63d'] = vd*ad * 4*sw**2*cw**2 self.coeff_dict['D64d'] = 0 self.coeff_dict['D61s'] = vd**2 * 2*sw**2*cw**2 self.coeff_dict['D62s'] = ad**2 * 2*sw**2*cw**2 self.coeff_dict['D63s'] = vd*ad * 4*sw**2*cw**2 self.coeff_dict['D64s'] = 0 self.coeff_dict['D61c'] = vu**2 * 2*sw**2*cw**2 self.coeff_dict['D62c'] = au**2 * 2*sw**2*cw**2 self.coeff_dict['D63c'] = vu*au * 4*sw**2*cw**2 self.coeff_dict['D64c'] = 0 self.coeff_dict['D61b'] = vd**2 * 2*sw**2*cw**2 self.coeff_dict['D62b'] = ad**2 * 2*sw**2*cw**2 self.coeff_dict['D63b'] = vd*ad * 4*sw**2*cw**2 self.coeff_dict['D64b'] = 0 # Leptons self.coeff_dict['D62ue'] = au*al * 4*sw**2*cw**2 self.coeff_dict['D62umu'] = au*al * 4*sw**2*cw**2 self.coeff_dict['D62utau'] = au*al * 4*sw**2*cw**2 self.coeff_dict['D62de'] = ad*al * 4*sw**2*cw**2 self.coeff_dict['D62dmu'] = ad*al * 4*sw**2*cw**2 self.coeff_dict['D62dtau'] = ad*al * 4*sw**2*cw**2 self.coeff_dict['D62se'] = ad*al * 4*sw**2*cw**2 self.coeff_dict['D62smu'] = ad*al * 4*sw**2*cw**2 self.coeff_dict['D62stau'] = ad*al * 4*sw**2*cw**2 self.coeff_dict['D63eu'] = al*vu * 4*sw**2*cw**2 self.coeff_dict['D63muu'] = al*vu * 4*sw**2*cw**2 self.coeff_dict['D63tauu'] = al*vu * 4*sw**2*cw**2 self.coeff_dict['D63ed'] = al*vd * 4*sw**2*cw**2 self.coeff_dict['D63mud'] = al*vd * 4*sw**2*cw**2 self.coeff_dict['D63taud'] = al*vd * 4*sw**2*cw**2 self.coeff_dict['D63es'] = al*vd * 4*sw**2*cw**2 self.coeff_dict['D63mus'] = al*vd * 4*sw**2*cw**2 self.coeff_dict['D63taus'] = al*vd * 4*sw**2*cw**2 # Now update with the user-specified values, if defined for wc_name in self.wc_name_list: if wc_name in coeff_dict.keys(): self.coeff_dict[wc_name] = coeff_dict[wc_name] else: pass for wc_name in self.wc8_name_list: if wc_name in coeff_dict.keys(): self.coeff_dict[wc_name] = coeff_dict[wc_name] else: pass for wc_name in self.sm_name_list: if wc_name in coeff_dict.keys(): self.coeff_dict[wc_name] = coeff_dict[wc_name] else: pass for wc_name in self.sm_lepton_name_list: if wc_name in coeff_dict.keys(): self.coeff_dict[wc_name] = coeff_dict[wc_name] else: pass # Create the np.array of coefficients: self.coeff_list_dm_dim5_dim6_dim7 = np.array(dict_to_list(self.coeff_dict, self.wc_name_list)) self.coeff_list_dm_dim8 = np.array(dict_to_list(self.coeff_dict, self.wc8_name_list)) self.coeff_list_sm_dim6 = np.array(dict_to_list(self.coeff_dict, self.sm_name_list)) self.coeff_list_sm_lepton_dim6 = np.array(dict_to_list(self.coeff_dict, self.sm_lepton_name_list)) #---------------------------# # The anomalous dimensions: # #---------------------------# if self.DM_type == "D": self.gamma_QED = adm.ADM_QED(5) self.gamma_QED2 = adm.ADM_QED2(5) self.gamma_QCD = adm.ADM_QCD(5) self.gamma_QCD2 = adm.ADM_QCD2(5) self.gamma_QCD_dim8 = adm.ADM_QCD_dim8(5) self.gamma_hat = adm.ADT_QCD(5, self.ip) if self.DM_type == "M": self.gamma_QED = np.delete(np.delete(adm.ADM_QED(5), del_ind_list, 0), del_ind_list, 1) self.gamma_QED2 = np.delete(np.delete(adm.ADM_QED2(5), del_ind_list, 0), del_ind_list, 1) self.gamma_QCD = np.delete(np.delete(adm.ADM_QCD(5), del_ind_list, 1), del_ind_list, 2) self.gamma_QCD2 = np.delete(np.delete(adm.ADM_QCD2(5), del_ind_list, 1), del_ind_list, 2) self.gamma_QCD_dim8 = np.delete(np.delete(adm.ADM_QCD_dim8(5), del_ind_list_dim_8, 0),\ del_ind_list_dim_8, 1) self.gamma_hat = np.delete(np.delete(adm.ADT_QCD(5, self.ip), del_ind_list_dim_8, 0),\ del_ind_list_adt_quark, 2) if self.DM_type == "C": self.gamma_QED = np.delete(np.delete(adm.ADM_QED(5), del_ind_list, 0), del_ind_list, 1) self.gamma_QED2 = np.delete(np.delete(adm.ADM_QED2(5), del_ind_list, 0), del_ind_list, 1) self.gamma_QCD = np.delete(np.delete(adm.ADM_QCD(5), del_ind_list, 1), del_ind_list, 2) self.gamma_QCD2 = np.delete(np.delete(adm.ADM_QCD2(5), del_ind_list, 1), del_ind_list, 2) self.gamma_QCD_dim8 = np.delete(np.delete(adm.ADM_QCD_dim8(5), del_ind_list_dim_8, 0),\ del_ind_list_dim_8, 1) self.gamma_hat = np.delete(np.delete(adm.ADT_QCD(5, self.ip), del_ind_list_dim_8, 0),\ del_ind_list_adt_quark, 2) if self.DM_type == "R": self.gamma_QED = np.delete(np.delete(adm.ADM_QED(5), del_ind_list, 0), del_ind_list, 1) self.gamma_QED2 = np.delete(np.delete(adm.ADM_QED2(5), del_ind_list, 0), del_ind_list, 1) self.gamma_QCD = np.delete(np.delete(adm.ADM_QCD(5), del_ind_list, 1), del_ind_list, 2) self.gamma_QCD2 = np.delete(np.delete(adm.ADM_QCD2(5), del_ind_list, 1), del_ind_list, 2) self.ADM_SM = adm.ADM_SM_QCD(5) #--------------------------------------------------------------------# # The effective anomalous dimension for mixing into dimension eight: # #--------------------------------------------------------------------# # We need to contract the ADT with a subset of the dim.-6 Wilson coefficients if self.DM_type == "D": DM_dim6_init = np.delete(self.coeff_list_dm_dim5_dim6_dim7,\ np.r_[np.s_[0:18], np.s_[23:26], np.s_[31:163]]) elif self.DM_type == "M": DM_dim6_init = np.delete(self.coeff_list_dm_dim5_dim6_dim7, np.r_[np.s_[0:8], np.s_[13:97]]) elif self.DM_type == "C": DM_dim6_init = np.delete(self.coeff_list_dm_dim5_dim6_dim7, np.r_[np.s_[0:8], np.s_[13:45]]) if self.DM_type == "D" or self.DM_type == "M" or self.DM_type == "C": # The columns of ADM_eff correspond to SM6 operators; # the rows of ADM_eff correspond to DM8 operators: C6_dot_ADM_hat = np.transpose(np.tensordot(DM_dim6_init, self.gamma_hat, (0,2))) # The effective ADM # # Note that the mixing of the SM operators with four equal flavors # does not contribute if we neglect yu, yd, ys! self.ADM_eff = [np.vstack((np.hstack((self.ADM_SM,\ np.vstack((C6_dot_ADM_hat,\ np.zeros((20, len(self.gamma_QCD_dim8))))))),\ np.hstack((np.zeros((len(self.gamma_QCD_dim8),\ len(self.coeff_list_sm_dim6))), self.gamma_QCD_dim8))))] if self.DM_type == "R": pass def run(self, mu_low=None, double_QCD=None): """ Running of 5-flavor Wilson coefficients Calculate the running from MZ to mu_low [GeV; default mb(mb)] in the five-flavor theory. Return a dictionary of Wilson coefficients for the five-flavor Lagrangian at scale mu_low. """ if mu_low is None: mu_low=self.ip['mb_at_mb'] if self.DM_type == "D" or self.DM_type == "M" or self.DM_type == "C": if double_QCD is None: double_QCD=True else: double_QCD=False #-------------# # The running # #-------------# MZ = self.ip['Mz'] alpha_at_mb = 1/self.ip['aMZinv'] if self.DM_type == "D" or self.DM_type == "M" or self.DM_type == "C": if double_QCD: adm_eff = self.ADM_eff else: projector = np.vstack((np.hstack((np.zeros((100,100)),\ np.ones((100,12)))), np.zeros((12,112)))) adm_eff = [np.multiply(projector, self.ADM_eff[0])] else: double_QCD=False as51 = rge.AlphaS(self.ip['asMZ'], self.ip['Mz']) as51_high = as51.run({'mbmb': self.ip['mb_at_mb'],\ 'mcmc': self.ip['mc_at_mc']},\ {'mub': self.ip['mb_at_mb'],\ 'muc': self.ip['mc_at_mc']}, MZ, 5, 1) as51_low = as51.run({'mbmb': self.ip['mb_at_mb'],\ 'mcmc': self.ip['mc_at_mc']},\ {'mub': self.ip['mb_at_mb'],\ 'muc': self.ip['mc_at_mc']}, mu_low, 5, 1) evolve1 = rge.RGE(self.gamma_QCD, 5) evolve2 = rge.RGE(self.gamma_QCD2, 5) if self.DM_type == "D" or self.DM_type == "M" or self.DM_type == "C": evolve8 = rge.RGE(adm_eff, 5) else: pass # Mixing in the dim.6 DM-SM sector # # Strictly speaking, MZ and mb should be defined at the same scale # (however, this is a higher-order difference) C_at_mb_QCD = np.dot(evolve2.U0_as2(as51_high, as51_low),\ np.dot(evolve1.U0(as51_high, as51_low),\ self.coeff_list_dm_dim5_dim6_dim7)) C_at_mb_QED = np.dot(self.coeff_list_dm_dim5_dim6_dim7, self.gamma_QED)\ * np.log(mu_low/MZ) * alpha_at_mb/(4*np.pi)\ + np.dot(self.coeff_list_dm_dim5_dim6_dim7, self.gamma_QED2)\ * np.log(mu_low/MZ) * (alpha_at_mb/(4*np.pi))**2 if self.DM_type == "D" or self.DM_type == "M" or self.DM_type == "C": # Mixing in the dim.6 SM-SM and dim.8 DM-SM sector DIM6_DIM8_init = np.hstack((self.coeff_list_sm_dim6, self.coeff_list_dm_dim8)) DIM6_DIM8_at_mb = np.dot(evolve8.U0(as51_high, as51_low), DIM6_DIM8_init) # Revert back to dictionary dict_coeff_mb = list_to_dict(C_at_mb_QCD + C_at_mb_QED, self.wc_name_list) if self.DM_type == "D" or self.DM_type == "M" or self.DM_type == "C": dict_dm_dim8 = list_to_dict(np.delete(DIM6_DIM8_at_mb, np.s_[0:100]), self.wc8_name_list) dict_sm_dim6 = list_to_dict(np.delete(DIM6_DIM8_at_mb, np.s_[100:112]), self.sm_name_list) dict_sm_lepton_dim6 = list_to_dict(self.coeff_list_sm_lepton_dim6, self.sm_lepton_name_list) dict_coeff_mb.update(dict_dm_dim8) dict_coeff_mb.update(dict_sm_dim6) dict_coeff_mb.update(dict_sm_lepton_dim6) return dict_coeff_mb def match(self, RGE=None, double_QCD=None, mu=None): """ Match from five-flavor to four-flavor QCD Calculate the matching at mu [GeV; default 4.18 GeV]. Returns a dictionary of Wilson coefficients for the four-flavor Lagrangian at scale mu. RGE is an optional argument to turn RGE running on (True) or off (False). (Default True) """ if RGE is None: RGE=True if mu is None: mu=self.ip['mb_at_mb'] if double_QCD is None: double_QCD=True # The new coefficients cdict4f = {} if RGE: cdold = self.run(mu, double_QCD) else: cdold = self.coeff_dict if self.DM_type == "D" or self.DM_type == "M": for wcn in self.wc_name_list_4f: cdict4f[wcn] = cdold[wcn] for wcn in self.wc8_name_list: cdict4f[wcn] = cdold[wcn] for wcn in self.sm_name_list_4f: cdict4f[wcn] = cdold[wcn] for wcn in self.sm_lepton_name_list: cdict4f[wcn] = cdold[wcn] cdict4f['C71'] = cdold['C71'] - cdold['C75b'] cdict4f['C72'] = cdold['C72'] - cdold['C76b'] cdict4f['C73'] = cdold['C73'] + cdold['C77b'] cdict4f['C74'] = cdold['C74'] + cdold['C78b'] if self.DM_type == "C": for wcn in self.wc_name_list_4f: cdict4f[wcn] = cdold[wcn] for wcn in self.wc8_name_list: cdict4f[wcn] = cdold[wcn] for wcn in self.sm_name_list_4f: cdict4f[wcn] = cdold[wcn] for wcn in self.sm_lepton_name_list: cdict4f[wcn] = cdold[wcn] cdict4f['C65'] = cdold['C65'] - cdold['C63b'] cdict4f['C66'] = cdold['C66'] + cdold['C64b'] if self.DM_type == "R": for wcn in self.wc_name_list_4f: cdict4f[wcn] = cdold[wcn] cdict4f['C65'] = cdold['C65'] - cdold['C63b'] cdict4f['C66'] = cdold['C66'] + cdold['C64b'] # return the 4-flavor coefficients return cdict4f def _my_cNR(self, DM_mass, RGE=None, NLO=None, double_QCD=None, DOUBLE_WEAK=None): """ Calculate the NR coefficients from four-flavor theory with meson contributions split off (mainly for internal use) """ return WC_4flavor(self.match(RGE, double_QCD), self.DM_type,\ self.ip)._my_cNR(DM_mass, RGE, NLO, double_QCD, DOUBLE_WEAK) def cNR(self, DM_mass, qvec, RGE=None, NLO=None, double_QCD=None, DOUBLE_WEAK=None): """ Calculate the NR coefficients from four-flavor theory """ return WC_4flavor(self.match(RGE, double_QCD), self.DM_type,\ self.ip).cNR(DM_mass, qvec, RGE, NLO, double_QCD, DOUBLE_WEAK) def write_mma(self, DM_mass, qvec, RGE=None, NLO=None, double_QCD=None, DOUBLE_WEAK=None, path=None, filename=None): """ Write a text file with the NR coefficients that can be read into DMFormFactor The order is {cNR1p, cNR2p, ... , cNR1n, cNR2n, ... } Mandatory arguments are the DM mass DM_mass (in GeV) and the spatial momentum transfer qvec (in GeV) <path> should be a string with the path (including the trailing "/") where the file should be saved (default is './') <filename> is the filename (default 'cNR.m') """ WC_4flavor(self.match(RGE, double_QCD), self.DM_type,\ self.ip).write_mma(DM_mass, qvec, RGE, NLO, double_QCD, DOUBLE_WEAK, path, filename) #-----------------------------# # The e/w Wilson coefficients # #-----------------------------# class WilCo_EW(object): def __init__(self, coeff_dict, Ychi, dchi, DM_type, input_dict): """ Class for DM Wilson coefficients in the SM unbroken phase The first argument should be a dictionary for the initial conditions of the 8 dimension-five Wilson coefficients of the form {'C51' : value, 'C52' : value, ...}; the 46 dimension-six Wilson coefficients of the form {'C611' : value, 'C621' : value, ...}; and the dimension-seven Wilson coefficient (currently not yet implemented). An arbitrary number of them can be given; the default values are zero. The possible keys are, for dchi != 1: 'C51', 'C52', 'C53', 'C54', 'C55', 'C56', 'C57', 'C58', 'C611', 'C621', 'C631', 'C641', 'C651', 'C661', 'C671', 'C681', 'C691', 'C6101', 'C6111', 'C6121', 'C6131', 'C6141', 'C612', 'C622', 'C632', 'C642', 'C652', 'C662', 'C672', 'C682', 'C692', 'C6102', 'C6112', 'C6122', 'C6132', 'C6142', 'C613', 'C623', 'C633', 'C643', 'C653', 'C663', 'C673', 'C683', 'C693', 'C6103', 'C6113', 'C6123', 'C6133', 'C6143', 'C615', 'C616', 'C617', 'C618' The possible keys are, for dchi = 1: 'C51', 'C53', 'C55', 'C57', 'C621', 'C631', 'C641', 'C661', 'C671', 'C681', 'C6101', 'C6111', 'C6131', 'C6141', 'C622', 'C632', 'C642', 'C662', 'C672', 'C682', 'C6102', 'C6112', 'C6132', 'C6142', 'C623', 'C633', 'C643', 'C663', 'C673', 'C683', 'C6103', 'C6113', 'C6133', 'C6143', 'C616', 'C618' The following set of 3*17 + 3*6 + 6*11 + 3*7 + 1 = 157 SM operator coefficients are also taken into account. They are generated, from the DM-SM operators, through mixing via penguin insertions. Note that any mixing within the SM sector is neglected. For this reason, the values after running are not returned. The possible keys are 'SM6111', 'SM6211', 'SM6311', 'SM6411', 'SM6511', 'SM6611', 'SM6711', 'SM6811', 'SM6911', 'SM61011', 'SM61111', 'SM61211', 'SM61311', 'SM61411', 'SM61511', 'SM61611', 'SM617711', 'SM6122', 'SM6222', 'SM6322', 'SM6422', 'SM6522', 'SM6622', 'SM6722', 'SM6822', 'SM6922', 'SM61022', 'SM61122', 'SM61222', 'SM61322', 'SM61422', 'SM61522', 'SM61622', 'SM617722', 'SM6133', 'SM6233', 'SM6333', 'SM6433', 'SM6533', 'SM6633', 'SM6733', 'SM6833', 'SM6933', 'SM61033', 'SM61133', 'SM61233', 'SM61333', 'SM61433', 'SM61533', 'SM61633', 'SM617733', 'SM6112', 'SM6212', 'SM6312', 'SM6321', 'SM6412', 'SM6421', 'SM6512', 'SM6612', 'SM6621', 'SM6712', 'SM6812', 'SM6912', 'SM6921', 'SM61012', 'SM61112', 'SM61121', 'SM61212', 'SM61221', 'SM61312', 'SM61321', 'SM61412', 'SM61421', 'SM61512', 'SM61521', 'SM61612', 'SM61621', 'SM617712', 'SM617721', 'SM6113', 'SM6213', 'SM6313', 'SM6331', 'SM6413', 'SM6431', 'SM6513', 'SM6613', 'SM6631', 'SM6713', 'SM6813', 'SM6913', 'SM6931', 'SM61013', 'SM61113', 'SM61131', 'SM61213', 'SM61231', 'SM61313', 'SM61331', 'SM61413', 'SM61431', 'SM61513', 'SM61531', 'SM61613', 'SM61631', 'SM617713', 'SM617731', 'SM6123', 'SM6223', 'SM6323', 'SM6332', 'SM6423', 'SM6432', 'SM6523', 'SM6623', 'SM6632', 'SM6723', 'SM6823', 'SM6923', 'SM6932', 'SM61023', 'SM61123', 'SM61132', 'SM61223', 'SM61232', 'SM61323', 'SM61332', 'SM61423', 'SM61432', 'SM61523', 'SM61532', 'SM61623', 'SM61632', 'SM617723', 'SM617732', 'SM6181', 'SM6191', 'SM6201', 'SM6211', 'SM6221', 'SM6231', 'SM6241', 'SM6182', 'SM6192', 'SM6202', 'SM6212', 'SM6222', 'SM6232', 'SM6242', 'SM6183', 'SM6193', 'SM6203', 'SM6213', 'SM6223', 'SM6233', 'SM6243', 'SM625' Unless specified otherwise by the user, the tree-level initial conditions are set to zero. Finally, four DM operator coefficients are also taken into account. They are generated, from the DM-SM operators, through mixing via penguin insertions. Note that any mixing within the DM sector is neglected. For this reason, the values after running are not returned. The possible keys are 'DM61', 'DM62', 'DM63', 'DM64' Unless specified otherwise by the user, the tree-level initial conditions are set to zero. Note that the numbering scheme for these coefficients is likely to change in the future. dchi is the dimension of the DM SU2 representation. Ychi is the DM hypercharge such that Q = I^3 + Y/2 The second-to-last argument is the DM type; it can only take the following value: "D" (Dirac fermion) Other DM types might be implemented in the future. The last argument is a dictionary with all input parameters. """ self.DM_type = DM_type self.Ychi = Ychi self.dchi = dchi if self.DM_type == "D": if self.dchi == 1: self.wc_name_list_dim_5 = ['C51', 'C53', 'C55', 'C57'] self.wc_name_list_dim_6 = ['C621', 'C631', 'C641', 'C661', 'C671',\ 'C681', 'C6101', 'C6111', 'C6131', 'C6141',\ 'C622', 'C632', 'C642', 'C662', 'C672',\ 'C682', 'C6102', 'C6112', 'C6132', 'C6142',\ 'C623', 'C633', 'C643', 'C663', 'C673',\ 'C683', 'C6103', 'C6113', 'C6133', 'C6143',\ 'C616', 'C618'] self.dm_name_list_dim_6 = ['DM61', 'DM62'] else: self.wc_name_list_dim_5 = ['C51', 'C52', 'C53', 'C54', 'C55', 'C56', 'C57', 'C58'] self.wc_name_list_dim_6 = ['C611', 'C621', 'C631', 'C641', 'C651', 'C661', 'C671',\ 'C681', 'C691', 'C6101', 'C6111', 'C6121', 'C6131', 'C6141',\ 'C612', 'C622', 'C632', 'C642', 'C652', 'C662', 'C672',\ 'C682', 'C692', 'C6102', 'C6112', 'C6122', 'C6132', 'C6142',\ 'C613', 'C623', 'C633', 'C643', 'C653', 'C663', 'C673',\ 'C683', 'C693', 'C6103', 'C6113', 'C6123', 'C6133', 'C6143',\ 'C615', 'C616', 'C617', 'C618'] self.dm_name_list_dim_6 = ['DM61', 'DM62', 'DM63', 'DM64'] self.sm_name_list_dim_6 = ['SM6111', 'SM6211', 'SM6311', 'SM6411', 'SM6511',\ 'SM6611', 'SM6711', 'SM6811', 'SM6911', 'SM61011',\ 'SM61111', 'SM61211', 'SM61311', 'SM61411',\ 'SM61511', 'SM61611', 'SM617711',\ 'SM6122', 'SM6222', 'SM6322', 'SM6422', 'SM6522',\ 'SM6622', 'SM6722', 'SM6822', 'SM6922', 'SM61022',\ 'SM61122', 'SM61222', 'SM61322', 'SM61422',\ 'SM61522', 'SM61622', 'SM617722',\ 'SM6133', 'SM6233', 'SM6333', 'SM6433', 'SM6533',\ 'SM6633', 'SM6733', 'SM6833', 'SM6933', 'SM61033',\ 'SM61133', 'SM61233', 'SM61333', 'SM61433',\ 'SM61533', 'SM61633', 'SM617733',\ 'SM6112', 'SM6212', 'SM6312', 'SM6321', 'SM6412',\ 'SM6421', 'SM6512', 'SM6612', 'SM6621', 'SM6712',\ 'SM6812', 'SM6912', 'SM6921', 'SM61012', 'SM61112',\ 'SM61121', 'SM61212', 'SM61221', 'SM61312', 'SM61321',\ 'SM61412', 'SM61421', 'SM61512', 'SM61521',\ 'SM61612', 'SM61621', 'SM617712', 'SM617721',\ 'SM6113', 'SM6213', 'SM6313', 'SM6331', 'SM6413',\ 'SM6431', 'SM6513', 'SM6613', 'SM6631', 'SM6713',\ 'SM6813', 'SM6913', 'SM6931', 'SM61013', 'SM61113',\ 'SM61131', 'SM61213', 'SM61231', 'SM61313', 'SM61331',\ 'SM61413', 'SM61431', 'SM61513', 'SM61531',\ 'SM61613', 'SM61631', 'SM617713', 'SM617731',\ 'SM6123', 'SM6223', 'SM6323', 'SM6332', 'SM6423',\ 'SM6432', 'SM6523', 'SM6623', 'SM6632', 'SM6723',\ 'SM6823', 'SM6923', 'SM6932', 'SM61023', 'SM61123',\ 'SM61132', 'SM61223', 'SM61232', 'SM61323', 'SM61332',\ 'SM61423', 'SM61432', 'SM61523', 'SM61532',\ 'SM61623', 'SM61632', 'SM617723', 'SM617732',\ 'SM6181', 'SM6191', 'SM6201', 'SM6211',\ 'SM6221', 'SM6231', 'SM6241',\ 'SM6182', 'SM6192', 'SM6202', 'SM6212',\ 'SM6222', 'SM6232', 'SM6242',\ 'SM6183', 'SM6193', 'SM6203', 'SM6213',\ 'SM6223', 'SM6233', 'SM6243', 'SM625'] else: raise Exception("Only Dirac fermion DM is implemented at the moment.") # Issue a user warning if a key is not defined or belongs to a redundant operator: for wc_name in coeff_dict.keys(): if wc_name in self.wc_name_list_dim_5: pass elif wc_name in self.wc_name_list_dim_6: pass elif wc_name in self.sm_name_list_dim_6: pass elif wc_name in self.dm_name_list_dim_6: pass else: if self.dchi == 1: warnings.warn('The key ' + wc_name + ' is not a valid key. Typo; or belongs to an operator that is redundant for dchi = 1?') else: warnings.warn('The key ' + wc_name + ' is not a valid key. Typo?') self.coeff_dict = {} # Create the dictionary: for wc_name in (self.wc_name_list_dim_5 + self.wc_name_list_dim_6\ + self.sm_name_list_dim_6 + self.dm_name_list_dim_6): if wc_name in coeff_dict.keys(): self.coeff_dict[wc_name] = coeff_dict[wc_name] else: self.coeff_dict[wc_name] = 0. # Create the np.array of coefficients: self.coeff_list_dim_5 = np.array(dict_to_list(self.coeff_dict, self.wc_name_list_dim_5)) self.coeff_list_dim_6 = np.array(dict_to_list(self.coeff_dict, self.wc_name_list_dim_6)) self.coeff_list_sm_dim_6 = np.array(dict_to_list(self.coeff_dict, self.sm_name_list_dim_6)) self.coeff_list_dm_dim_6 = np.array(dict_to_list(self.coeff_dict, self.dm_name_list_dim_6)) # The dictionary of input parameters self.ip = input_dict #---------# # Running # #---------# def run(self, mu_Lambda, muz=None): """Calculate the e/w running from scale mu_Lambda (to be given in GeV) to scale muz [muz = MZ by default]. """ if muz is None: muz = self.ip['Mz']+0.01 # Define the dictionary of initial condictions for gauge / Yukawa couplings # at the scale mu = MZ (MSbar): # # (In the future, implement also the "running and matching" of mtop to mu = MZ) # The quark masses at MZ: def mb(mu, mub, muc, nf, loop): return rge.M_Quark_MSbar('b', self.ip['mb_at_mb'], self.ip['mb_at_mb'], self.ip['asMZ'],\ self.ip['Mz']).run(mu, {'mbmb': self.ip['mb_at_mb'],\ 'mcmc': self.ip['mc_at_mc']},\ {'mub': mub, 'muc': muc}, nf, loop) def mc(mu, mub, muc, nf, loop): return rge.M_Quark_MSbar('c', self.ip['mc_at_mc'], self.ip['mc_at_mc'], self.ip['asMZ'],\ self.ip['Mz']).run(mu, {'mbmb': self.ip['mb_at_mb'],\ 'mcmc': self.ip['mc_at_mc']},\ {'mub': mub, 'muc': muc}, nf, loop) self.mb_at_MZ = mb(self.ip['Mz'], self.ip['mb_at_mb'], self.ip['mc_at_mc'], 5, 1) self.mc_at_MZ = mc(self.ip['Mz'], self.ip['mb_at_mb'], self.ip['mc_at_mc'], 5, 1) self.g2_at_MZ = np.sqrt(4*np.pi/self.ip['aMZinv']/self.ip['sw2_MSbar']) self.g1_at_MZ = np.sqrt(self.g2_at_MZ**2/(1/self.ip['sw2_MSbar'] - 1)) self.g3_at_MZ = np.sqrt(4*np.pi*self.ip['asMZ']) self.yc_at_MZ = np.sqrt(np.sqrt(2)*self.ip['GF'])*np.sqrt(2) * self.mc_at_MZ self.yb_at_MZ = np.sqrt(np.sqrt(2)*self.ip['GF'])*np.sqrt(2) * self.mb_at_MZ self.ytau_at_MZ = np.sqrt(np.sqrt(2)*self.ip['GF'])*np.sqrt(2) * self.ip['mtau'] self.yt_at_MZ = np.sqrt(np.sqrt(2)*self.ip['GF'])*np.sqrt(2) * self.ip['mt_at_MZ'] self.lam_at_MZ = 2*np.sqrt(2) * self.ip['GF'] * self.ip['Mh']**2 self.coupl_init_dict = {'g1': self.g1_at_MZ,\ 'g2': self.g2_at_MZ,\ 'gs': self.g3_at_MZ,\ 'ytau': self.ytau_at_MZ,\ 'yc': self.yc_at_MZ,\ 'yb': self.yb_at_MZ,\ 'yt': self.yt_at_MZ,\ 'lam': self.lam_at_MZ} # The full vector of dim.-6 Wilson coefficients C6_at_Lambda = np.concatenate((self.coeff_list_dim_6, self.coeff_list_sm_dim_6,\ self.coeff_list_dm_dim_6)) # The vector of rescaled dim.-5 Wilson coefficients # # The e/w dipole operators are defined with a prefactor g_{1,2}/(8*pi^2). # The ADM are calculated in a basis with prefactors 1/g_{1,2}. # Therefore, we need to rescale the Wilson coefficients by g_{1,2}(Lambda)^2/(8*pi^2) at mu=Lambda, # and then again by (8*pi^2)/g_{1,2}(MZ)^2 at mu=MZ. alpha1_at_Lambda = rge.CmuEW([], [], self.coupl_init_dict, self.ip['Mz'],\ mu_Lambda, muz, self.Ychi,\ self.dchi)._alphai(rge.CmuEW([], [],\ self.coupl_init_dict,\ self.ip['Mz'],\ mu_Lambda, muz,\ self.Ychi, self.dchi).ginit,\ self.ip['Mz'], mu_Lambda, self.Ychi, self.dchi)[0] alpha2_at_Lambda = rge.CmuEW([], [], self.coupl_init_dict, self.ip['Mz'],\ mu_Lambda, muz, self.Ychi,\ self.dchi)._alphai(rge.CmuEW([], [],\ self.coupl_init_dict,\ self.ip['Mz'],\ mu_Lambda, muz,\ self.Ychi, self.dchi).ginit,\ self.ip['Mz'], mu_Lambda, self.Ychi, self.dchi)[1] if self.dchi == 1: C5_at_Lambda_rescaled = self.coeff_list_dim_5 * np.array([alpha1_at_Lambda/(2*np.pi), 1,\ alpha1_at_Lambda/(2*np.pi), 1]) else: C5_at_Lambda_rescaled = self.coeff_list_dim_5 * np.array([alpha1_at_Lambda/(2*np.pi),\ alpha2_at_Lambda/(2*np.pi), 1, 1,\ alpha1_at_Lambda/(2*np.pi),\ alpha2_at_Lambda/(2*np.pi), 1, 1]) # The actual running C5_at_muz = rge.CmuEW(C5_at_Lambda_rescaled, adm.ADM5(self.Ychi, self.dchi),\ self.coupl_init_dict, self.ip['Mz'],\ mu_Lambda, muz, self.Ychi, self.dchi).run() C6_at_muz = rge.CmuEW(C6_at_Lambda, adm.ADM6(self.Ychi, self.dchi),\ self.coupl_init_dict, self.ip['Mz'],\ mu_Lambda, muz, self.Ychi, self.dchi).run() # Rescaling back to original normalization of dim.-5 Wilson coefficients alpha1_at_muz = rge.CmuEW([], [], self.coupl_init_dict, self.ip['Mz'],\ mu_Lambda, muz, self.Ychi,\ self.dchi)._alphai(rge.CmuEW([], [],\ self.coupl_init_dict,\ self.ip['Mz'],\ mu_Lambda, muz,\ self.Ychi, self.dchi).ginit,\ self.ip['Mz'], muz, self.Ychi, self.dchi)[0] alpha2_at_muz = rge.CmuEW([], [], self.coupl_init_dict, self.ip['Mz'],\ mu_Lambda, muz, self.Ychi,\ self.dchi)._alphai(rge.CmuEW([], [],\ self.coupl_init_dict,\ self.ip['Mz'],\ mu_Lambda, muz,\ self.Ychi, self.dchi).ginit,\ self.ip['Mz'], muz, self.Ychi, self.dchi)[1] if self.dchi == 1: C5_at_muz_rescaled = C5_at_muz * np.array([(2*np.pi)/alpha1_at_muz, 1,\ (2*np.pi)/alpha1_at_muz, 1]) else: C5_at_muz_rescaled = C5_at_muz * np.array([(2*np.pi)/alpha1_at_muz,\ (2*np.pi)/alpha2_at_muz, 1, 1,\ (2*np.pi)/alpha1_at_muz,\ (2*np.pi)/alpha2_at_muz, 1, 1]) # Convert arrays to dictionaries C5_at_muz_dict = list_to_dict(C5_at_muz_rescaled, self.wc_name_list_dim_5) C6_at_muz_dict = list_to_dict(C6_at_muz, self.wc_name_list_dim_6) C_at_muz_dict = {} for wc_name in self.wc_name_list_dim_5: C_at_muz_dict[wc_name] = C5_at_muz_dict[wc_name] for wc_name in self.wc_name_list_dim_6: C_at_muz_dict[wc_name] = C6_at_muz_dict[wc_name] return C_at_muz_dict #----------# # Matching # #----------# def match(self, DM_mass, mu_Lambda, DM_mass_threshold=None, RUN_EW=None, DIM4=None): """Calculate the matching from the relativistic theory to the five-flavor theory at scale MZ DM_mass is the DM mass, as it appears in the UV Lagrangian. It is not the physical DM mass after EWSB. mu_Lambda (to be given in GeV) is the starting scale of the RG evolution DM_mass_threshold is the DM mass below which DM is treated as "light" [default is 40 GeV] RUN_EW can have three values: - RUN_EW = True does the full leading-logarithmic resummation (this is the default) - RUN_EW = False -- no electroweak running DIM4 multiplies the dimension-four matching contributions. To be considered as an "checking tool", will be removed in the future Return a dictionary of Wilson coefficients for the five-flavor Lagrangian, with the following keys (only Dirac DM is implemented so far): Dirac fermion: 'C51', 'C52', 'C61u', 'C61d', 'C61s', 'C61c', 'C61b', 'C61e', 'C61mu', 'C61tau', 'C62u', 'C62d', 'C62s', 'C62c', 'C62b', 'C62e', 'C62mu', 'C62tau', 'C63u', 'C63d', 'C63s', 'C63c', 'C63b', 'C63e', 'C63mu', 'C63tau', 'C64u', 'C64d', 'C64s', 'C64c', 'C64b', 'C64e', 'C64mu', 'C64tau', 'C71', 'C72', 'C73', 'C74', 'C75u', 'C75d', 'C75s', 'C65c', 'C65b', 'C75e', 'C75mu', 'C75tau', 'C76u', 'C76d', 'C76s', 'C66c', 'C66b', 'C76e', 'C76mu', 'C76tau', 'C77u', 'C77d', 'C77s', 'C67c', 'C67b', 'C77e', 'C77mu', 'C77tau', 'C78u', 'C78d', 'C78s', 'C68c', 'C68b', 'C78e', 'C78mu', 'C78tau', 'C79u', 'C79d', 'C79s', 'C69c', 'C69b', 'C79e', 'C79mu', 'C79tau', 'C710u', 'C710d', 'C710s', 'C610c', 'C610b', 'C710e', 'C710mu', 'C710tau' """ if RUN_EW is None: RUN_EW = True self.RUN_EW = RUN_EW if DM_mass_threshold is None: DM_mass_threshold = 40 # GeV self.DM_mass_threshold = DM_mass_threshold if DIM4 is None: DIM4 = 1 else: DIM4 = 0 # Issue a user warning that matching results are not complete for Ychi != 0 if self.Ychi != 0: warnings.warn('Matching contributions from gauge interactions are not complete for Ychi != 0') # Some input parameters: vev = 1/np.sqrt(np.sqrt(2)*self.ip['GF']) alpha = 1/self.ip['aMZinv'] MW = self.ip['Mw'] MZ = self.ip['Mz'] Mh = self.ip['Mh'] sw = np.sqrt(self.ip['sw2_MSbar']) cw = np.sqrt(1-sw**2) # The Wilson coefficients in the "UV" EFT at scale MZ if RUN_EW: wcew_dict = self.run(mu_Lambda, muz=self.ip['Mz']) else: wcew_dict = self.coeff_dict # Calculate the physical DM mass in terms of DM_mass and the Wilson coefficients, # and the corresponding shift in the dimension-five Wilson coefficients. if DM_mass > DM_mass_threshold: if self.dchi == 1: self.DM_mass_phys = DM_mass - vev**2/2 * wcew_dict['C53'] wc5_dict_shifted = {} wc5_dict_shifted['C51'] = wcew_dict['C51']\ + vev**2/2/DM_mass * wcew_dict['C57'] * wcew_dict['C55'] wc5_dict_shifted['C53'] = wcew_dict['C53']\ + vev**2/2/DM_mass * wcew_dict['C57'] * wcew_dict['C57'] wc5_dict_shifted['C55'] = wcew_dict['C55']\ - vev**2/2/DM_mass * wcew_dict['C57'] * wcew_dict['C51'] wc5_dict_shifted['C57'] = wcew_dict['C57']\ - vev**2/2/DM_mass * wcew_dict['C57'] * wcew_dict['C53'] else: self.DM_mass_phys = DM_mass - vev**2/2 * (wcew_dict['C53'] + self.Ychi/4 * wcew_dict['C54']) wc5_dict_shifted = {} wc5_dict_shifted['C51'] = wcew_dict['C51']\ + vev**2/2/DM_mass * (wcew_dict['C57'] + self.Ychi/4\ * wcew_dict['C58']) * wcew_dict['C55'] wc5_dict_shifted['C52'] = wcew_dict['C52']\ + vev**2/2/DM_mass * (wcew_dict['C57'] + self.Ychi/4\ * wcew_dict['C58']) * wcew_dict['C56'] wc5_dict_shifted['C53'] = wcew_dict['C53']\ + vev**2/2/DM_mass * (wcew_dict['C57'] + self.Ychi/4\ * wcew_dict['C58']) * wcew_dict['C57'] wc5_dict_shifted['C54'] = wcew_dict['C54']\ + vev**2/2/DM_mass * (wcew_dict['C57'] + self.Ychi/4\ * wcew_dict['C58']) * wcew_dict['C58'] wc5_dict_shifted['C55'] = wcew_dict['C55']\ - vev**2/2/DM_mass * (wcew_dict['C57'] + self.Ychi/4\ * wcew_dict['C58']) * wcew_dict['C51'] wc5_dict_shifted['C56'] = wcew_dict['C56']\ - vev**2/2/DM_mass * (wcew_dict['C57'] + self.Ychi/4\ * wcew_dict['C58']) * wcew_dict['C52'] wc5_dict_shifted['C57'] = wcew_dict['C57']\ - vev**2/2/DM_mass * (wcew_dict['C57'] + self.Ychi/4\ * wcew_dict['C58']) * wcew_dict['C53'] wc5_dict_shifted['C58'] = wcew_dict['C58']\ - vev**2/2/DM_mass * (wcew_dict['C57'] + self.Ychi/4\ * wcew_dict['C58']) * wcew_dict['C54'] else: if self.dchi == 1: cosphi = np.sqrt((wcew_dict['C53'] - 2*DM_mass/vev**2)**2/\ ((wcew_dict['C53'] - 2*DM_mass/vev**2)**2 + wcew_dict['C57']**2)) sinphi = np.sqrt((wcew_dict['C57'])**2/\ ((wcew_dict['C53'] - 2*DM_mass/vev**2)**2 + wcew_dict['C57']**2)) pre_DM_mass_phys = DM_mass*cosphi + vev**2/2\ * (wcew_dict['C57'] * sinphi - wcew_dict['C53'] * cosphi) if pre_DM_mass_phys > 0: self.DM_mass_phys = pre_DM_mass_phys wc5_dict_shifted = {} wc5_dict_shifted['C51'] = cosphi * wcew_dict['C51'] + sinphi * wcew_dict['C55'] wc5_dict_shifted['C53'] = cosphi * wcew_dict['C53'] + sinphi * wcew_dict['C57'] wc5_dict_shifted['C55'] = cosphi * wcew_dict['C55'] - sinphi * wcew_dict['C51'] wc5_dict_shifted['C57'] = cosphi * wcew_dict['C57'] - sinphi * wcew_dict['C53'] else: self.DM_mass_phys = - pre_DM_mass_phys wc5_dict_shifted = {} wc5_dict_shifted['C51'] = cosphi * wcew_dict['C51'] - sinphi * wcew_dict['C55'] wc5_dict_shifted['C53'] = cosphi * wcew_dict['C53'] - sinphi * wcew_dict['C57'] wc5_dict_shifted['C55'] = cosphi * wcew_dict['C55'] + sinphi * wcew_dict['C51'] wc5_dict_shifted['C57'] = cosphi * wcew_dict['C57'] + sinphi * wcew_dict['C53'] else: cosphi = np.sqrt((wcew_dict['C53'] + self.Ychi/4 * wcew_dict['C54'] - 2*DM_mass/vev**2)**2/\ ((wcew_dict['C53'] + self.Ychi/4 * wcew_dict['C54'] - 2*DM_mass/vev**2)**2\ +(wcew_dict['C57'] + self.Ychi/4 * wcew_dict['C58'])**2)) sinphi = np.sqrt((wcew_dict['C57'] + self.Ychi/4 * wcew_dict['C58'])**2/\ ((wcew_dict['C53'] + self.Ychi/4 * wcew_dict['C54'] - 2*DM_mass/vev**2)**2\ +(wcew_dict['C57'] + self.Ychi/4 * wcew_dict['C58'])**2)) pre_DM_mass_phys = DM_mass*cosphi + vev**2/2 * ((wcew_dict['C57'] + self.Ychi/4\ * wcew_dict['C58'])*sinphi\ - (wcew_dict['C53'] + self.Ychi/4\ * wcew_dict['C54'])*cosphi) if pre_DM_mass_phys > 0: self.DM_mass_phys = pre_DM_mass_phys wc5_dict_shifted = {} wc5_dict_shifted['C51'] = cosphi * wcew_dict['C51'] + sinphi * wcew_dict['C55'] wc5_dict_shifted['C52'] = cosphi * wcew_dict['C52'] + sinphi * wcew_dict['C56'] wc5_dict_shifted['C53'] = cosphi * wcew_dict['C53'] + sinphi * wcew_dict['C57'] wc5_dict_shifted['C54'] = cosphi * wcew_dict['C54'] + sinphi * wcew_dict['C58'] wc5_dict_shifted['C55'] = cosphi * wcew_dict['C55'] - sinphi * wcew_dict['C51'] wc5_dict_shifted['C56'] = cosphi * wcew_dict['C56'] - sinphi * wcew_dict['C52'] wc5_dict_shifted['C57'] = cosphi * wcew_dict['C57'] - sinphi * wcew_dict['C53'] wc5_dict_shifted['C58'] = cosphi * wcew_dict['C58'] - sinphi * wcew_dict['C54'] else: self.DM_mass_phys = - pre_DM_mass_phys wc5_dict_shifted = {} wc5_dict_shifted['C51'] = cosphi * wcew_dict['C51'] - sinphi * wcew_dict['C55'] wc5_dict_shifted['C52'] = cosphi * wcew_dict['C52'] - sinphi * wcew_dict['C56'] wc5_dict_shifted['C53'] = cosphi * wcew_dict['C53'] - sinphi * wcew_dict['C57'] wc5_dict_shifted['C54'] = cosphi * wcew_dict['C54'] - sinphi * wcew_dict['C58'] wc5_dict_shifted['C55'] = cosphi * wcew_dict['C55'] + sinphi * wcew_dict['C51'] wc5_dict_shifted['C56'] = cosphi * wcew_dict['C56'] + sinphi * wcew_dict['C52'] wc5_dict_shifted['C57'] = cosphi * wcew_dict['C57'] + sinphi * wcew_dict['C53'] wc5_dict_shifted['C58'] = cosphi * wcew_dict['C58'] + sinphi * wcew_dict['C54'] # The redefinitions of the dim.-5 Wilson coefficients resulting from the mass shift: coeff_dict_shifted = wcew_dict coeff_dict_shifted.update(wc5_dict_shifted) # The Higgs penguin function. # The result is valid for all input values and gives (in principle) a real output. # Note that currently there is no distinction between e/w and light DM, # as the two-loop function for light DM is unknown. # Note also that we set the DM hypercharge to zero, Y=0, # since for Y!=0 tree-level Z exchange dominates. def higgs_penguin_fermion(dchi): return Higgspenguin(dchi, self.ip).f_q_hisano(self.DM_mass_phys) def twist_two_fermion(dchi): return Higgspenguin(dchi, self.ip).g_q_1_hisano(self.DM_mass_phys)\ + Higgspenguin(dchi, self.ip).g_q_2_hisano(self.DM_mass_phys) def W_box_fermion(dchi): return Higgspenguin(dchi, self.ip).d_q_hisano(self.DM_mass_phys) def higgs_penguin_gluon(dchi): return Higgspenguin(dchi, self.ip).hisano_fa(self.DM_mass_phys)\ + Higgspenguin(dchi, self.ip).hisano_fbc(self.DM_mass_phys) #-----------------------# # The new coefficients: # #-----------------------# coeff_dict_5f = {} if self.dchi == 1: coeff_dict_5f['C51'] = coeff_dict_shifted['C51'] coeff_dict_5f['C52'] = coeff_dict_shifted['C55'] coeff_dict_5f['C61u'] = coeff_dict_shifted['C621']/2 + coeff_dict_shifted['C631']/2\ + (3-8*sw**2)/6 * coeff_dict_shifted['C616']\ + 1/MZ**2 * (np.pi*alpha*self.Ychi)/(6*sw**2*cw**2) * (3-8*sw**2) * DIM4 coeff_dict_5f['C61d'] = coeff_dict_shifted['C621']/2 + coeff_dict_shifted['C641']/2\ - (3-4*sw**2)/6 * coeff_dict_shifted['C616']\ - 1/MZ**2 * (np.pi*alpha*self.Ychi)/(6*sw**2*cw**2) * (3-4*sw**2) * DIM4 coeff_dict_5f['C61s'] = coeff_dict_shifted['C622']/2 + coeff_dict_shifted['C642']/2\ - (3-4*sw**2)/6 * coeff_dict_shifted['C616']\ - 1/MZ**2 * (np.pi*alpha*self.Ychi)/(6*sw**2*cw**2) * (3-4*sw**2) * DIM4 coeff_dict_5f['C61c'] = coeff_dict_shifted['C622']/2 + coeff_dict_shifted['C632']/2\ + (3-8*sw**2)/6 * coeff_dict_shifted['C616']\ + 1/MZ**2 * (np.pi*alpha*self.Ychi)/(6*sw**2*cw**2) * (3-8*sw**2) * DIM4 coeff_dict_5f['C61b'] = coeff_dict_shifted['C623']/2 + coeff_dict_shifted['C643']/2\ - (3-4*sw**2)/6 * coeff_dict_shifted['C616']\ - 1/MZ**2 * (np.pi*alpha*self.Ychi)/(6*sw**2*cw**2) * (3-4*sw**2) * DIM4 coeff_dict_5f['C61e'] = coeff_dict_shifted['C6101']/2 + coeff_dict_shifted['C6111']/2\ - (1-4*sw**2)/2 * coeff_dict_shifted['C616']\ - 1/MZ**2 * (np.pi*alpha*self.Ychi)/(2*sw**2*cw**2) * (1-4*sw**2) * DIM4 coeff_dict_5f['C61mu'] = coeff_dict_shifted['C6102']/2 + coeff_dict_shifted['C6112']/2\ - (1-4*sw**2)/2 * coeff_dict_shifted['C616']\ - 1/MZ**2 * (np.pi*alpha*self.Ychi)/(2*sw**2*cw**2) * (1-4*sw**2) * DIM4 coeff_dict_5f['C61tau'] = coeff_dict_shifted['C6103']/2 + coeff_dict_shifted['C6113']/2\ - (1-4*sw**2)/2 * coeff_dict_shifted['C616']\ - 1/MZ**2 * (np.pi*alpha*self.Ychi)/(2*sw**2*cw**2) * (1-4*sw**2) * DIM4 coeff_dict_5f['C62u'] = coeff_dict_shifted['C661']/2 + coeff_dict_shifted['C671']/2\ + (3-8*sw**2)/6 * coeff_dict_shifted['C618'] coeff_dict_5f['C62d'] = coeff_dict_shifted['C661']/2 + coeff_dict_shifted['C681']/2\ - (3-4*sw**2)/6 * coeff_dict_shifted['C618'] coeff_dict_5f['C62s'] = coeff_dict_shifted['C662']/2 + coeff_dict_shifted['C682']/2\ - (3-4*sw**2)/6 * coeff_dict_shifted['C618'] coeff_dict_5f['C62c'] = coeff_dict_shifted['C662']/2 + coeff_dict_shifted['C672']/2\ + (3-8*sw**2)/6 * coeff_dict_shifted['C618'] coeff_dict_5f['C62b'] = coeff_dict_shifted['C663']/2 + coeff_dict_shifted['C683']/2\ - (3-4*sw**2)/6 * coeff_dict_shifted['C618'] coeff_dict_5f['C62e'] = coeff_dict_shifted['C6131']/2 + coeff_dict_shifted['C6141']/2\ - (1-4*sw**2)/2 * coeff_dict_shifted['C618'] coeff_dict_5f['C62mu'] = coeff_dict_shifted['C6132']/2 + coeff_dict_shifted['C6142']/2\ - (1-4*sw**2)/2 * coeff_dict_shifted['C618'] coeff_dict_5f['C62tau'] = coeff_dict_shifted['C6133']/2 + coeff_dict_shifted['C6143']/2\ - (1-4*sw**2)/2 * coeff_dict_shifted['C618'] coeff_dict_5f['C63u'] = - coeff_dict_shifted['C621']/2 + coeff_dict_shifted['C631']/2\ - 1/2 * coeff_dict_shifted['C616']\ - 1/MZ**2 * (np.pi*alpha*self.Ychi)/(2*sw**2*cw**2) * DIM4 coeff_dict_5f['C63d'] = - coeff_dict_shifted['C621']/2 + coeff_dict_shifted['C641']/2\ + 1/2 * coeff_dict_shifted['C616']\ + 1/MZ**2 * (np.pi*alpha*self.Ychi)/(2*sw**2*cw**2) * DIM4 coeff_dict_5f['C63s'] = - coeff_dict_shifted['C622']/2 + coeff_dict_shifted['C642']/2\ + 1/2 * coeff_dict_shifted['C616']\ + 1/MZ**2 * (np.pi*alpha*self.Ychi)/(2*sw**2*cw**2) * DIM4 coeff_dict_5f['C63c'] = - coeff_dict_shifted['C622']/2 + coeff_dict_shifted['C632']/2\ - 1/2 * coeff_dict_shifted['C616']\ - 1/MZ**2 * (np.pi*alpha*self.Ychi)/(2*sw**2*cw**2) * DIM4 coeff_dict_5f['C63b'] = - coeff_dict_shifted['C623']/2 + coeff_dict_shifted['C643']/2\ + 1/2 * coeff_dict_shifted['C616']\ + 1/MZ**2 * (np.pi*alpha*self.Ychi)/(2*sw**2*cw**2) * DIM4 coeff_dict_5f['C63e'] = - coeff_dict_shifted['C6101']/2 + coeff_dict_shifted['C6111']/2\ + 1/2 * coeff_dict_shifted['C616']\ + 1/MZ**2 * (np.pi*alpha*self.Ychi)/(2*sw**2*cw**2) * DIM4 coeff_dict_5f['C63mu'] = - coeff_dict_shifted['C6102']/2 + coeff_dict_shifted['C6112']/2\ + 1/2 * coeff_dict_shifted['C616']\ + 1/MZ**2 * (np.pi*alpha*self.Ychi)/(2*sw**2*cw**2) * DIM4 coeff_dict_5f['C63tau'] = - coeff_dict_shifted['C6103']/2 + coeff_dict_shifted['C6113']/2\ + 1/2 * coeff_dict_shifted['C616']\ + 1/MZ**2 * (np.pi*alpha*self.Ychi)/(2*sw**2*cw**2) * DIM4 coeff_dict_5f['C64u'] = - coeff_dict_shifted['C661']/2 + coeff_dict_shifted['C671']/2\ - 1/2 * coeff_dict_shifted['C618']\ + W_box_fermion(self.dchi) * DIM4 coeff_dict_5f['C64d'] = - coeff_dict_shifted['C661']/2 + coeff_dict_shifted['C681']/2\ + 1/2 * coeff_dict_shifted['C618']\ + W_box_fermion(self.dchi) * DIM4 coeff_dict_5f['C64s'] = - coeff_dict_shifted['C662']/2 + coeff_dict_shifted['C682']/2\ + 1/2 * coeff_dict_shifted['C618']\ + W_box_fermion(self.dchi) * DIM4 coeff_dict_5f['C64c'] = - coeff_dict_shifted['C662']/2 + coeff_dict_shifted['C672']/2\ - 1/2 * coeff_dict_shifted['C618']\ + W_box_fermion(self.dchi) * DIM4 coeff_dict_5f['C64b'] = - coeff_dict_shifted['C663']/2 + coeff_dict_shifted['C683']/2\ + 1/2 * coeff_dict_shifted['C618']\ + W_box_fermion(self.dchi) * DIM4 coeff_dict_5f['C64e'] = - coeff_dict_shifted['C6131']/2 + coeff_dict_shifted['C6141']/2\ + 1/2 * coeff_dict_shifted['C618']\ + W_box_fermion(self.dchi) * DIM4 coeff_dict_5f['C64mu'] = - coeff_dict_shifted['C6132']/2 + coeff_dict_shifted['C6142']/2\ + 1/2 * coeff_dict_shifted['C618']\ + W_box_fermion(self.dchi) * DIM4 coeff_dict_5f['C64tau'] = - coeff_dict_shifted['C6133']/2 + coeff_dict_shifted['C6143']/2\ + 1/2 * coeff_dict_shifted['C618']\ + W_box_fermion(self.dchi) * DIM4 coeff_dict_5f['C71'] = (1/Mh**2 * (coeff_dict_shifted['C53']))\ + higgs_penguin_gluon(self.dchi) * DIM4 coeff_dict_5f['C72'] = (1/Mh**2 * (coeff_dict_shifted['C57'])) coeff_dict_5f['C75u'] = - 1/Mh**2 * (coeff_dict_shifted['C53'])\ + higgs_penguin_fermion(self.dchi) * DIM4 coeff_dict_5f['C75d'] = - 1/Mh**2 * (coeff_dict_shifted['C53'])\ + higgs_penguin_fermion(self.dchi) * DIM4 coeff_dict_5f['C75s'] = - 1/Mh**2 * (coeff_dict_shifted['C53'])\ + higgs_penguin_fermion(self.dchi) * DIM4 coeff_dict_5f['C75c'] = - 1/Mh**2 * (coeff_dict_shifted['C53'])\ + higgs_penguin_fermion(self.dchi) * DIM4 coeff_dict_5f['C75b'] = - 1/Mh**2 * (coeff_dict_shifted['C53'])\ + higgs_penguin_fermion(self.dchi) * DIM4 coeff_dict_5f['C75e'] = - 1/Mh**2 * (coeff_dict_shifted['C53'])\ + higgs_penguin_fermion(self.dchi) * DIM4 coeff_dict_5f['C75mu'] = - 1/Mh**2 * (coeff_dict_shifted['C53'])\ + higgs_penguin_fermion(self.dchi) * DIM4 coeff_dict_5f['C75tau'] = - 1/Mh**2 * (coeff_dict_shifted['C53'])\ + higgs_penguin_fermion(self.dchi) * DIM4 coeff_dict_5f['C76u'] = - 1/Mh**2 * coeff_dict_shifted['C57'] coeff_dict_5f['C76d'] = - 1/Mh**2 * coeff_dict_shifted['C57'] coeff_dict_5f['C76s'] = - 1/Mh**2 * coeff_dict_shifted['C57'] coeff_dict_5f['C76c'] = - 1/Mh**2 * coeff_dict_shifted['C57'] coeff_dict_5f['C76b'] = - 1/Mh**2 * coeff_dict_shifted['C57'] coeff_dict_5f['C76e'] = - 1/Mh**2 * coeff_dict_shifted['C57'] coeff_dict_5f['C76mu'] = - 1/Mh**2 * coeff_dict_shifted['C57'] coeff_dict_5f['C76tau'] = - 1/Mh**2 * coeff_dict_shifted['C57'] coeff_dict_5f['C723u'] = twist_two_fermion(self.dchi) * DIM4 coeff_dict_5f['C723d'] = twist_two_fermion(self.dchi) * DIM4 coeff_dict_5f['C723s'] = twist_two_fermion(self.dchi) * DIM4 coeff_dict_5f['C723c'] = twist_two_fermion(self.dchi) * DIM4 coeff_dict_5f['C723b'] = twist_two_fermion(self.dchi) * DIM4 coeff_dict_5f['C723e'] = twist_two_fermion(self.dchi) * DIM4 coeff_dict_5f['C723mu'] = twist_two_fermion(self.dchi) * DIM4 coeff_dict_5f['C723tau'] = twist_two_fermion(self.dchi) * DIM4 else: coeff_dict_5f['C51'] = coeff_dict_shifted['C51'] + self.Ychi/2 * coeff_dict_shifted['C52'] coeff_dict_5f['C52'] = coeff_dict_shifted['C55'] + self.Ychi/2 * coeff_dict_shifted['C56'] coeff_dict_5f['C61u'] = - self.Ychi/8 * coeff_dict_shifted['C611']\ + coeff_dict_shifted['C621']/2\ + coeff_dict_shifted['C631']/2\ + self.Ychi * (3-8*sw**2)/24 * coeff_dict_shifted['C615']\ + (3-8*sw**2)/6 * coeff_dict_shifted['C616']\ + 1/MZ**2 * (np.pi*alpha*self.Ychi)/(6*sw**2*cw**2) * (3-8*sw**2) * DIM4 coeff_dict_5f['C61d'] = self.Ychi/8*coeff_dict_shifted['C611']\ + coeff_dict_shifted['C621']/2 + coeff_dict_shifted['C641']/2\ - self.Ychi * (3-4*sw**2)/24 * coeff_dict_shifted['C615']\ - (3-4*sw**2)/6 * coeff_dict_shifted['C616']\ - 1/MZ**2 * (np.pi*alpha*self.Ychi)/(6*sw**2*cw**2) * (3-4*sw**2) * DIM4 coeff_dict_5f['C61s'] = self.Ychi/8*coeff_dict_shifted['C612']\ + coeff_dict_shifted['C622']/2\ + coeff_dict_shifted['C642']/2\ - self.Ychi * (3-4*sw**2)/24 * coeff_dict_shifted['C615']\ - (3-4*sw**2)/6 * coeff_dict_shifted['C616']\ - 1/MZ**2 * (np.pi*alpha*self.Ychi)/(6*sw**2*cw**2) * (3-4*sw**2) * DIM4 coeff_dict_5f['C61c'] = - self.Ychi/8*coeff_dict_shifted['C612']\ + coeff_dict_shifted['C622']/2\ + coeff_dict_shifted['C632']/2\ + self.Ychi * (3-8*sw**2)/24 * coeff_dict_shifted['C615']\ + (3-8*sw**2)/6 * coeff_dict_shifted['C616']\ + 1/MZ**2 * (np.pi*alpha*self.Ychi)/(6*sw**2*cw**2) * (3-8*sw**2) * DIM4 coeff_dict_5f['C61b'] = self.Ychi/8*coeff_dict_shifted['C613']\ + coeff_dict_shifted['C623']/2\ + coeff_dict_shifted['C643']/2\ - self.Ychi * (3-4*sw**2)/24 * coeff_dict_shifted['C615']\ - (3-4*sw**2)/6 * coeff_dict_shifted['C616']\ - 1/MZ**2 * (np.pi*alpha*self.Ychi)/(6*sw**2*cw**2) * (3-4*sw**2) * DIM4 coeff_dict_5f['C61e'] = self.Ychi/8*coeff_dict_shifted['C691']\ + coeff_dict_shifted['C6101']/2\ + coeff_dict_shifted['C6111']/2\ - self.Ychi * (1-4*sw**2)/8 * coeff_dict_shifted['C615']\ - (1-4*sw**2)/2 * coeff_dict_shifted['C616']\ - 1/MZ**2 * (np.pi*alpha*self.Ychi)/(2*sw**2*cw**2) * (1-4*sw**2) * DIM4 coeff_dict_5f['C61mu'] = self.Ychi/8*coeff_dict_shifted['C692']\ + coeff_dict_shifted['C6102']/2\ + coeff_dict_shifted['C6112']/2\ - self.Ychi * (1-4*sw**2)/8 * coeff_dict_shifted['C615']\ - (1-4*sw**2)/2 * coeff_dict_shifted['C616']\ - 1/MZ**2 * (np.pi*alpha*self.Ychi)/(2*sw**2*cw**2) * (1-4*sw**2) * DIM4 coeff_dict_5f['C61tau'] = self.Ychi/8*coeff_dict_shifted['C693']\ + coeff_dict_shifted['C6103']/2\ + coeff_dict_shifted['C6113']/2\ - self.Ychi * (1-4*sw**2)/8 * coeff_dict_shifted['C615']\ - (1-4*sw**2)/2 * coeff_dict_shifted['C616']\ - 1/MZ**2 * (np.pi*alpha*self.Ychi)/(2*sw**2*cw**2) * (1-4*sw**2) * DIM4 coeff_dict_5f['C62u'] = - self.Ychi/8*coeff_dict_shifted['C651']\ + coeff_dict_shifted['C661']/2\ + coeff_dict_shifted['C671']/2\ + self.Ychi * (3-8*sw**2)/24 * coeff_dict_shifted['C617']\ + (3-8*sw**2)/6 * coeff_dict_shifted['C618'] coeff_dict_5f['C62d'] = self.Ychi/8*coeff_dict_shifted['C651']\ + coeff_dict_shifted['C661']/2\ + coeff_dict_shifted['C681']/2\ - self.Ychi * (3-4*sw**2)/24 * coeff_dict_shifted['C617']\ - (3-4*sw**2)/6 * coeff_dict_shifted['C618'] coeff_dict_5f['C62s'] = self.Ychi/8*coeff_dict_shifted['C652']\ + coeff_dict_shifted['C662']/2\ + coeff_dict_shifted['C682']/2\ - self.Ychi * (3-4*sw**2)/24 * coeff_dict_shifted['C617']\ - (3-4*sw**2)/6 * coeff_dict_shifted['C618'] coeff_dict_5f['C62c'] = - self.Ychi/8*coeff_dict_shifted['C652']\ + coeff_dict_shifted['C662']/2\ + coeff_dict_shifted['C672']/2\ + self.Ychi * (3-8*sw**2)/24 * coeff_dict_shifted['C617']\ + (3-8*sw**2)/6 * coeff_dict_shifted['C618'] coeff_dict_5f['C62b'] = self.Ychi/8*coeff_dict_shifted['C653']\ + coeff_dict_shifted['C663']/2\ + coeff_dict_shifted['C683']/2\ - self.Ychi * (3-4*sw**2)/24 * coeff_dict_shifted['C617']\ - (3-4*sw**2)/6 * coeff_dict_shifted['C618'] coeff_dict_5f['C62e'] = self.Ychi/8*coeff_dict_shifted['C6121']\ + coeff_dict_shifted['C6131']/2\ + coeff_dict_shifted['C6141']/2\ - self.Ychi * (1-4*sw**2)/8 * coeff_dict_shifted['C617']\ - (1-4*sw**2)/2 * coeff_dict_shifted['C618'] coeff_dict_5f['C62mu'] = self.Ychi/8*coeff_dict_shifted['C6122']\ + coeff_dict_shifted['C6132']/2\ + coeff_dict_shifted['C6142']/2\ - self.Ychi * (1-4*sw**2)/8 * coeff_dict_shifted['C617']\ - (1-4*sw**2)/2 * coeff_dict_shifted['C618'] coeff_dict_5f['C62tau'] = self.Ychi/8*coeff_dict_shifted['C6123']\ + coeff_dict_shifted['C6133']/2\ + coeff_dict_shifted['C6143']/2\ - self.Ychi * (1-4*sw**2)/8 * coeff_dict_shifted['C617']\ - (1-4*sw**2)/2 * coeff_dict_shifted['C618'] coeff_dict_5f['C63u'] = self.Ychi/8*coeff_dict_shifted['C611']\ - coeff_dict_shifted['C621']/2\ + coeff_dict_shifted['C631']/2\ - self.Ychi/8 * coeff_dict_shifted['C615']\ - 1/2 * coeff_dict_shifted['C616']\ - 1/MZ**2 * (np.pi*alpha*self.Ychi)/(2*sw**2*cw**2) * DIM4 coeff_dict_5f['C63d'] = - self.Ychi/8*coeff_dict_shifted['C611']\ - coeff_dict_shifted['C621']/2\ + coeff_dict_shifted['C641']/2\ + self.Ychi/8 * coeff_dict_shifted['C615']\ + 1/2 * coeff_dict_shifted['C616']\ + 1/MZ**2 * (np.pi*alpha*self.Ychi)/(2*sw**2*cw**2) * DIM4 coeff_dict_5f['C63s'] = - self.Ychi/8*coeff_dict_shifted['C612']\ - coeff_dict_shifted['C622']/2\ + coeff_dict_shifted['C642']/2\ + self.Ychi/8 * coeff_dict_shifted['C615']\ + 1/2 * coeff_dict_shifted['C616']\ + 1/MZ**2 * (np.pi*alpha*self.Ychi)/(2*sw**2*cw**2) * DIM4 coeff_dict_5f['C63c'] = self.Ychi/8*coeff_dict_shifted['C612']\ - coeff_dict_shifted['C622']/2\ + coeff_dict_shifted['C632']/2\ - self.Ychi/8 * coeff_dict_shifted['C615']\ - 1/2 * coeff_dict_shifted['C616']\ - 1/MZ**2 * (np.pi*alpha*self.Ychi)/(2*sw**2*cw**2) * DIM4 coeff_dict_5f['C63b'] = - self.Ychi/8*coeff_dict_shifted['C613']\ - coeff_dict_shifted['C623']/2\ + coeff_dict_shifted['C643']/2\ + self.Ychi/8 * coeff_dict_shifted['C615']\ + 1/2 * coeff_dict_shifted['C616']\ + 1/MZ**2 * (np.pi*alpha*self.Ychi)/(2*sw**2*cw**2) * DIM4 coeff_dict_5f['C63e'] = - self.Ychi/8*coeff_dict_shifted['C691']\ - coeff_dict_shifted['C6101']/2\ + coeff_dict_shifted['C6111']/2\ + self.Ychi/8 * coeff_dict_shifted['C615']\ + 1/2 * coeff_dict_shifted['C616']\ + 1/MZ**2 * (np.pi*alpha*self.Ychi)/(2*sw**2*cw**2) * DIM4 coeff_dict_5f['C63mu'] = - self.Ychi/8*coeff_dict_shifted['C692']\ - coeff_dict_shifted['C6102']/2\ + coeff_dict_shifted['C6112']/2\ + self.Ychi/8 * coeff_dict_shifted['C615']\ + 1/2 * coeff_dict_shifted['C616']\ + 1/MZ**2 * (np.pi*alpha*self.Ychi)/(2*sw**2*cw**2) * DIM4 coeff_dict_5f['C63tau'] = - self.Ychi/8*coeff_dict_shifted['C693']\ - coeff_dict_shifted['C6103']/2\ + coeff_dict_shifted['C6113']/2\ + self.Ychi/8 * coeff_dict_shifted['C615']\ + 1/2 * coeff_dict_shifted['C616']\ + 1/MZ**2 * (np.pi*alpha*self.Ychi)/(2*sw**2*cw**2) * DIM4 coeff_dict_5f['C64u'] = self.Ychi/8*coeff_dict_shifted['C651']\ - coeff_dict_shifted['C661']/2\ + coeff_dict_shifted['C671']/2\ - self.Ychi/8 * coeff_dict_shifted['C617']\ - 1/2 * coeff_dict_shifted['C618']\ + W_box_fermion(self.dchi) * DIM4 coeff_dict_5f['C64d'] = - self.Ychi/8*coeff_dict_shifted['C651']\ - coeff_dict_shifted['C661']/2\ + coeff_dict_shifted['C681']/2\ + self.Ychi/8 * coeff_dict_shifted['C617']\ + 1/2 * coeff_dict_shifted['C618']\ + W_box_fermion(self.dchi) * DIM4 coeff_dict_5f['C64s'] = - self.Ychi/8*coeff_dict_shifted['C652']\ - coeff_dict_shifted['C662']/2\ + coeff_dict_shifted['C682']/2\ + self.Ychi/8 * coeff_dict_shifted['C617']\ + 1/2 * coeff_dict_shifted['C618']\ + W_box_fermion(self.dchi) * DIM4 coeff_dict_5f['C64c'] = self.Ychi/8*coeff_dict_shifted['C652']\ - coeff_dict_shifted['C662']/2\ + coeff_dict_shifted['C672']/2\ - self.Ychi/8 * coeff_dict_shifted['C617']\ - 1/2 * coeff_dict_shifted['C618']\ + W_box_fermion(self.dchi) * DIM4 coeff_dict_5f['C64b'] = - self.Ychi/8*coeff_dict_shifted['C653']\ - coeff_dict_shifted['C663']/2\ + coeff_dict_shifted['C683']/2\ + self.Ychi/8 * coeff_dict_shifted['C617']\ + 1/2 * coeff_dict_shifted['C618']\ + W_box_fermion(self.dchi) * DIM4 coeff_dict_5f['C64e'] = - self.Ychi/8*coeff_dict_shifted['C6121']\ - coeff_dict_shifted['C6131']/2\ + coeff_dict_shifted['C6141']/2\ + self.Ychi/8 * coeff_dict_shifted['C617']\ + 1/2 * coeff_dict_shifted['C618']\ + W_box_fermion(self.dchi) * DIM4 coeff_dict_5f['C64mu'] = - self.Ychi/8*coeff_dict_shifted['C6122']\ - coeff_dict_shifted['C6132']/2\ + coeff_dict_shifted['C6142']/2\ + self.Ychi/8 * coeff_dict_shifted['C617']\ + 1/2 * coeff_dict_shifted['C618']\ + W_box_fermion(self.dchi) * DIM4 coeff_dict_5f['C64tau'] = - self.Ychi/8*coeff_dict_shifted['C6123']\ - coeff_dict_shifted['C6133']/2\ + coeff_dict_shifted['C6143']/2\ + self.Ychi/8 * coeff_dict_shifted['C617']\ + 1/2 * coeff_dict_shifted['C618']\ + W_box_fermion(self.dchi) * DIM4 coeff_dict_5f['C71'] = 1/Mh**2 * (coeff_dict_shifted['C53'] + self.Ychi/4\ * coeff_dict_shifted['C54'])\ + higgs_penguin_gluon(self.dchi) * DIM4 coeff_dict_5f['C72'] = 1/Mh**2 * (coeff_dict_shifted['C57'] + self.Ychi/4\ * coeff_dict_shifted['C58']) coeff_dict_5f['C75u'] = - 1/Mh**2 * (coeff_dict_shifted['C53'] + self.Ychi/4\ * coeff_dict_shifted['C54'])\ + higgs_penguin_fermion(self.dchi) * DIM4 coeff_dict_5f['C75d'] = - 1/Mh**2 * (coeff_dict_shifted['C53'] + self.Ychi/4\ * coeff_dict_shifted['C54'])\ + higgs_penguin_fermion(self.dchi) * DIM4 coeff_dict_5f['C75s'] = - 1/Mh**2 * (coeff_dict_shifted['C53'] + self.Ychi/4\ * coeff_dict_shifted['C54'])\ + higgs_penguin_fermion(self.dchi) * DIM4 coeff_dict_5f['C75c'] = - 1/Mh**2 * (coeff_dict_shifted['C53'] + self.Ychi/4\ * coeff_dict_shifted['C54'])\ + higgs_penguin_fermion(self.dchi) * DIM4 coeff_dict_5f['C75b'] = - 1/Mh**2 * (coeff_dict_shifted['C53'] + self.Ychi/4\ * coeff_dict_shifted['C54'])\ + higgs_penguin_fermion(self.dchi) * DIM4 coeff_dict_5f['C75e'] = - 1/Mh**2 * (coeff_dict_shifted['C53'] + self.Ychi/4\ * coeff_dict_shifted['C54'])\ + higgs_penguin_fermion(self.dchi) * DIM4 coeff_dict_5f['C75mu'] = - 1/Mh**2 * (coeff_dict_shifted['C53'] + self.Ychi/4\ * coeff_dict_shifted['C54'])\ + higgs_penguin_fermion(self.dchi) * DIM4 coeff_dict_5f['C75tau'] = - 1/Mh**2 * (coeff_dict_shifted['C53'] + self.Ychi/4\ * coeff_dict_shifted['C54'])\ + higgs_penguin_fermion(self.dchi) * DIM4 coeff_dict_5f['C76u'] = - 1/Mh**2 * (coeff_dict_shifted['C57'] + self.Ychi/4\ * coeff_dict_shifted['C58']) coeff_dict_5f['C76d'] = - 1/Mh**2 * (coeff_dict_shifted['C57'] + self.Ychi/4\ * coeff_dict_shifted['C58']) coeff_dict_5f['C76s'] = - 1/Mh**2 * (coeff_dict_shifted['C57'] + self.Ychi/4\ * coeff_dict_shifted['C58']) coeff_dict_5f['C76c'] = - 1/Mh**2 * (coeff_dict_shifted['C57'] + self.Ychi/4\ * coeff_dict_shifted['C58']) coeff_dict_5f['C76b'] = - 1/Mh**2 * (coeff_dict_shifted['C57'] + self.Ychi/4\ * coeff_dict_shifted['C58']) coeff_dict_5f['C76e'] = - 1/Mh**2 * (coeff_dict_shifted['C57'] + self.Ychi/4\ * coeff_dict_shifted['C58']) coeff_dict_5f['C76mu'] = - 1/Mh**2 * (coeff_dict_shifted['C57'] + self.Ychi/4\ * coeff_dict_shifted['C58']) coeff_dict_5f['C76tau'] = - 1/Mh**2 * (coeff_dict_shifted['C57'] + self.Ychi/4\ * coeff_dict_shifted['C58']) coeff_dict_5f['C723u'] = twist_two_fermion(self.dchi) * DIM4 coeff_dict_5f['C723d'] = twist_two_fermion(self.dchi) * DIM4 coeff_dict_5f['C723s'] = twist_two_fermion(self.dchi) * DIM4 coeff_dict_5f['C723c'] = twist_two_fermion(self.dchi) * DIM4 coeff_dict_5f['C723b'] = twist_two_fermion(self.dchi) * DIM4 coeff_dict_5f['C723e'] = twist_two_fermion(self.dchi) * DIM4 coeff_dict_5f['C723mu'] = twist_two_fermion(self.dchi) * DIM4 coeff_dict_5f['C723tau'] = twist_two_fermion(self.dchi) * DIM4 coeff_dict_5f['C73'] = 0 coeff_dict_5f['C74'] = 0 coeff_dict_5f['C77u'] = 0 coeff_dict_5f['C77d'] = 0 coeff_dict_5f['C77s'] = 0 coeff_dict_5f['C77c'] = 0 coeff_dict_5f['C77b'] = 0 coeff_dict_5f['C77e'] = 0 coeff_dict_5f['C77mu'] = 0 coeff_dict_5f['C77tau'] = 0 coeff_dict_5f['C78u'] = 0 coeff_dict_5f['C78d'] = 0 coeff_dict_5f['C78s'] = 0 coeff_dict_5f['C78c'] = 0 coeff_dict_5f['C78b'] = 0 coeff_dict_5f['C78e'] = 0 coeff_dict_5f['C78mu'] = 0 coeff_dict_5f['C78tau'] = 0 coeff_dict_5f['C79u'] = 0 coeff_dict_5f['C79d'] = 0 coeff_dict_5f['C79s'] = 0 coeff_dict_5f['C79c'] = 0 coeff_dict_5f['C79b'] = 0 coeff_dict_5f['C79e'] = 0 coeff_dict_5f['C79mu'] = 0 coeff_dict_5f['C79tau'] = 0 coeff_dict_5f['C710u'] = 0 coeff_dict_5f['C710d'] = 0 coeff_dict_5f['C710s'] = 0 coeff_dict_5f['C710c'] = 0 coeff_dict_5f['C710b'] = 0 coeff_dict_5f['C710e'] = 0 coeff_dict_5f['C710mu'] = 0 coeff_dict_5f['C710tau'] = 0 coeff_dict_5f['C711'] = 0 coeff_dict_5f['C712'] = 0 coeff_dict_5f['C713'] = 0 coeff_dict_5f['C714'] = 0 coeff_dict_5f['C715u'] = 0 coeff_dict_5f['C715d'] = 0 coeff_dict_5f['C715s'] = 0 coeff_dict_5f['C715c'] = 0 coeff_dict_5f['C715b'] = 0 coeff_dict_5f['C715e'] = 0 coeff_dict_5f['C715mu'] = 0 coeff_dict_5f['C715tau'] = 0 coeff_dict_5f['C716u'] = 0 coeff_dict_5f['C716d'] = 0 coeff_dict_5f['C716s'] = 0 coeff_dict_5f['C716c'] = 0 coeff_dict_5f['C716b'] = 0 coeff_dict_5f['C716e'] = 0 coeff_dict_5f['C716mu'] = 0 coeff_dict_5f['C716tau'] = 0 coeff_dict_5f['C717u'] = 0 coeff_dict_5f['C717d'] = 0 coeff_dict_5f['C717s'] = 0 coeff_dict_5f['C717c'] = 0 coeff_dict_5f['C717b'] = 0 coeff_dict_5f['C717e'] = 0 coeff_dict_5f['C717mu'] = 0 coeff_dict_5f['C717tau'] = 0 coeff_dict_5f['C718u'] = 0 coeff_dict_5f['C718d'] = 0 coeff_dict_5f['C718s'] = 0 coeff_dict_5f['C718c'] = 0 coeff_dict_5f['C718b'] = 0 coeff_dict_5f['C718e'] = 0 coeff_dict_5f['C718mu'] = 0 coeff_dict_5f['C718tau'] = 0 coeff_dict_5f['C719u'] = 0 coeff_dict_5f['C719d'] = 0 coeff_dict_5f['C719s'] = 0 coeff_dict_5f['C719c'] = 0 coeff_dict_5f['C719b'] = 0 coeff_dict_5f['C719e'] = 0 coeff_dict_5f['C719mu'] = 0 coeff_dict_5f['C719tau'] = 0 coeff_dict_5f['C720u'] = 0 coeff_dict_5f['C720d'] = 0 coeff_dict_5f['C720s'] = 0 coeff_dict_5f['C720c'] = 0 coeff_dict_5f['C720b'] = 0 coeff_dict_5f['C720e'] = 0 coeff_dict_5f['C720mu'] = 0 coeff_dict_5f['C720tau'] = 0 coeff_dict_5f['C721u'] = 0 coeff_dict_5f['C721d'] = 0 coeff_dict_5f['C721s'] = 0 coeff_dict_5f['C721c'] = 0 coeff_dict_5f['C721b'] = 0 coeff_dict_5f['C721e'] = 0 coeff_dict_5f['C721mu'] = 0 coeff_dict_5f['C721tau'] = 0 coeff_dict_5f['C722u'] = 0 coeff_dict_5f['C722d'] = 0 coeff_dict_5f['C722s'] = 0 coeff_dict_5f['C722c'] = 0 coeff_dict_5f['C722b'] = 0 coeff_dict_5f['C722e'] = 0 coeff_dict_5f['C722mu'] = 0 coeff_dict_5f['C722tau'] = 0 coeff_dict_5f['C725'] = 0 return coeff_dict_5f def _my_cNR(self, DM_mass, mu_Lambda, RGE=None, NLO=None, double_QCD=None, DOUBLE_WEAK=None, DM_mass_threshold=None, RUN_EW=None, DIM4=None): """ Calculate the NR coefficients from four-flavor theory with meson contributions split off (mainly for internal use) """ return WC_5flavor(self.match(DM_mass, mu_Lambda, DM_mass_threshold, RUN_EW, DIM4),\ self.DM_type, self.ip)._my_cNR(self.DM_mass_phys, RGE, NLO, double_QCD, DOUBLE_WEAK) def cNR(self, DM_mass, qvec, mu_Lambda, RGE=None, NLO=None, double_QCD=None, DOUBLE_WEAK=None, DM_mass_threshold=None, RUN_EW=None, DIM4=None): """ Calculate the NR coefficients from four-flavor theory """ return WC_5flavor(self.match(DM_mass, mu_Lambda, DM_mass_threshold, RUN_EW, DIM4),\ self.DM_type, self.ip).cNR(DM_mass, qvec, RGE, NLO, double_QCD, DOUBLE_WEAK) def write_mma(self, DM_mass, qvec, mu_Lambda, RGE=None, NLO=None, double_QCD=None, DOUBLE_WEAK=None,\ DM_mass_threshold=None, RUN_EW=None, DIM4=None, path=None, filename=None): """ Write a text file with the NR coefficients that can be read into DMFormFactor The order is {cNR1p, cNR2p, ... , cNR1n, cNR2n, ... } Mandatory arguments are the DM mass DM_mass (in GeV) and the momentum transfer qvec (in GeV) <path> should be a string with the path (including the trailing "/") where the file should be saved (default is '.') <filename> is the filename (default 'cNR.m') """ WC_5flavor(self.match(DM_mass, mu_Lambda, DM_mass_threshold, RUN_EW, DIM4),\ self.DM_type, self.ip).write_mma(DM_mass, qvec, RGE, NLO, double_QCD, DOUBLE_WEAK, path, filename)
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74c01f5abe2afcd29106124bf83fdc950c518ad3
22,889
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Python
python/ks_api_client/api/mis_order_api.py
ashwinkp/ksapi
c348765cefb4d51fd90febcbfa9ff890b67bdc7d
[ "Apache-2.0" ]
7
2022-02-05T16:20:37.000Z
2022-02-27T16:48:28.000Z
python/ks_api_client/api/mis_order_api.py
ashwinkp/ksapi
c348765cefb4d51fd90febcbfa9ff890b67bdc7d
[ "Apache-2.0" ]
19
2022-02-03T12:40:08.000Z
2022-03-30T09:12:46.000Z
python/ks_api_client/api/mis_order_api.py
ashwinkp/ksapi
c348765cefb4d51fd90febcbfa9ff890b67bdc7d
[ "Apache-2.0" ]
12
2021-12-23T06:14:21.000Z
2022-03-28T07:47:19.000Z
# coding: utf-8 from __future__ import absolute_import import re # noqa: F401 # python 2 and python 3 compatibility library import six from ks_api_client.api_client import ApiClient from ks_api_client.exceptions import ( # noqa: F401 ApiTypeError, ApiValueError ) class MISOrderApi(object): def __init__(self, api_client=None): if api_client is None: api_client = ApiClient() self.api_client = api_client def cancel_mis_order(self, consumerKey, sessionToken, orderId, **kwargs): # noqa: E501 """Cancel a MIS order # noqa: E501 This method makes a synchronous HTTP request by default. To make an asynchronous HTTP request, please pass async_req=True >>> thread = api.cancel_mis_order(consumerKey, sessionToken, orderId, async_req=True) >>> result = thread.get() :param consumerKey: (required) :type consumerKey: str :param sessionToken: (required) :type sessionToken: str :param orderId: Order ID to cancel. (required) :type orderId: str :param async_req: Whether to execute the request asynchronously. :type async_req: bool, optional :param _preload_content: if False, the urllib3.HTTPResponse object will be returned without reading/decoding response data. Default is True. :type _preload_content: bool, optional :param _request_timeout: timeout setting for this request. If one number provided, it will be total request timeout. It can also be a pair (tuple) of (connection, read) timeouts. :return: Returns the result object. If the method is called asynchronously, returns the request thread. :rtype: object """ kwargs['_return_http_data_only'] = True return self.cancel_mis_order_with_http_info(consumerKey, sessionToken, orderId, **kwargs) # noqa: E501 def cancel_mis_order_with_http_info(self, consumerKey, sessionToken, orderId, **kwargs): # noqa: E501 """Cancel a MIS order # noqa: E501 This method makes a synchronous HTTP request by default. To make an asynchronous HTTP request, please pass async_req=True >>> thread = api.cancel_mis_order_with_http_info(consumerKey, sessionToken, orderId, async_req=True) >>> result = thread.get() :param consumerKey: (required) :type consumerKey: str :param sessionToken: (required) :type sessionToken: str :param orderId: Order ID to cancel. (required) :type orderId: str :param async_req: Whether to execute the request asynchronously. :type async_req: bool, optional :param _return_http_data_only: response data without head status code and headers :type _return_http_data_only: bool, optional :param _preload_content: if False, the urllib3.HTTPResponse object will be returned without reading/decoding response data. Default is True. :type _preload_content: bool, optional :param _request_timeout: timeout setting for this request. If one number provided, it will be total request timeout. It can also be a pair (tuple) of (connection, read) timeouts. :param _request_auth: set to override the auth_settings for an a single request; this effectively ignores the authentication in the spec for a single request. :type _request_auth: dict, optional :return: Returns the result object. If the method is called asynchronously, returns the request thread. :rtype: tuple(object, status_code(int), headers(HTTPHeaderDict)) """ local_var_params = locals() all_params = [ 'consumerKey', 'sessionToken', 'orderId' ] all_params.extend( [ 'async_req', '_return_http_data_only', '_preload_content', '_request_timeout', '_request_auth' ] ) for key, val in six.iteritems(local_var_params['kwargs']): if key not in all_params: raise ApiTypeError( "Got an unexpected keyword argument '%s'" " to method cancel_mis_order" % key ) local_var_params[key] = val del local_var_params['kwargs'] # verify the required parameter 'consumerKey' is set if self.api_client.client_side_validation and ('consumerKey' not in local_var_params or # noqa: E501 local_var_params['consumerKey'] is None): # noqa: E501 raise ApiValueError("Missing the required parameter `consumerKey` when calling `cancel_mis_order`") # noqa: E501 # verify the required parameter 'sessionToken' is set if self.api_client.client_side_validation and ('sessionToken' not in local_var_params or # noqa: E501 local_var_params['sessionToken'] is None): # noqa: E501 raise ApiValueError("Missing the required parameter `sessionToken` when calling `cancel_mis_order`") # noqa: E501 # verify the required parameter 'orderId' is set if self.api_client.client_side_validation and ('orderId' not in local_var_params or # noqa: E501 local_var_params['orderId'] is None): # noqa: E501 raise ApiValueError("Missing the required parameter `orderId` when calling `cancel_mis_order`") # noqa: E501 collection_formats = {} path_params = {} if 'orderId' in local_var_params: path_params['orderId'] = local_var_params['orderId'] # noqa: E501 query_params = [] header_params = {} if 'consumerKey' in local_var_params: header_params['consumerKey'] = local_var_params['consumerKey'] # noqa: E501 if 'sessionToken' in local_var_params: header_params['sessionToken'] = local_var_params['sessionToken'] # noqa: E501 form_params = [] local_var_files = {} body_params = None # HTTP header `Accept` header_params['Accept'] = self.api_client.select_header_accept( ['application/json']) # noqa: E501 # Authentication setting auth_settings = ['bearerAuth'] # noqa: E501 return self.api_client.call_api( '/orders/1.0/order/mis/{orderId}', 'DELETE', path_params, query_params, header_params, body=body_params, post_params=form_params, files=local_var_files, response_type='object', # noqa: E501 auth_settings=auth_settings, async_req=local_var_params.get('async_req'), _return_http_data_only=local_var_params.get('_return_http_data_only'), # noqa: E501 _preload_content=local_var_params.get('_preload_content', True), _request_timeout=local_var_params.get('_request_timeout'), collection_formats=collection_formats, _request_auth=local_var_params.get('_request_auth')) def modify_mis_order(self, consumerKey, sessionToken, ExistingMISOrder, **kwargs): # noqa: E501 """Modify an existing MIS order # noqa: E501 This method makes a synchronous HTTP request by default. To make an asynchronous HTTP request, please pass async_req=True >>> thread = api.modify_mis_order(consumerKey, sessionToken, ExistingMISOrder, async_req=True) >>> result = thread.get() :param consumerKey: Unique ID for your application (required) :type consumerKey: str :param sessionToken: Session ID for your application (required) :type sessionToken: str :param ExistingMISOrder: (required) :type ExistingMISOrder: ExistingMISOrder :param async_req: Whether to execute the request asynchronously. :type async_req: bool, optional :param _preload_content: if False, the urllib3.HTTPResponse object will be returned without reading/decoding response data. Default is True. :type _preload_content: bool, optional :param _request_timeout: timeout setting for this request. If one number provided, it will be total request timeout. It can also be a pair (tuple) of (connection, read) timeouts. :return: Returns the result object. If the method is called asynchronously, returns the request thread. :rtype: object """ kwargs['_return_http_data_only'] = True return self.modify_mis_order_with_http_info(consumerKey, sessionToken, ExistingMISOrder, **kwargs) # noqa: E501 def modify_mis_order_with_http_info(self, consumerKey, sessionToken, ExistingMISOrder, **kwargs): # noqa: E501 """Modify an existing MIS order # noqa: E501 This method makes a synchronous HTTP request by default. To make an asynchronous HTTP request, please pass async_req=True >>> thread = api.modify_mis_order_with_http_info(consumerKey, sessionToken, ExistingMISOrder, async_req=True) >>> result = thread.get() :param consumerKey: Unique ID for your application (required) :type consumerKey: str :param sessionToken: Session ID for your application (required) :type sessionToken: str :param ExistingMISOrder: (required) :type ExistingMISOrder: ExistingMISOrder :param async_req: Whether to execute the request asynchronously. :type async_req: bool, optional :param _return_http_data_only: response data without head status code and headers :type _return_http_data_only: bool, optional :param _preload_content: if False, the urllib3.HTTPResponse object will be returned without reading/decoding response data. Default is True. :type _preload_content: bool, optional :param _request_timeout: timeout setting for this request. If one number provided, it will be total request timeout. It can also be a pair (tuple) of (connection, read) timeouts. :param _request_auth: set to override the auth_settings for an a single request; this effectively ignores the authentication in the spec for a single request. :type _request_auth: dict, optional :return: Returns the result object. If the method is called asynchronously, returns the request thread. :rtype: tuple(object, status_code(int), headers(HTTPHeaderDict)) """ local_var_params = locals() all_params = [ 'consumerKey', 'sessionToken', 'ExistingMISOrder' ] all_params.extend( [ 'async_req', '_return_http_data_only', '_preload_content', '_request_timeout', '_request_auth' ] ) for key, val in six.iteritems(local_var_params['kwargs']): if key not in all_params: raise ApiTypeError( "Got an unexpected keyword argument '%s'" " to method modify_mis_order" % key ) local_var_params[key] = val del local_var_params['kwargs'] # verify the required parameter 'consumerKey' is set if self.api_client.client_side_validation and ('consumerKey' not in local_var_params or # noqa: E501 local_var_params['consumerKey'] is None): # noqa: E501 raise ApiValueError("Missing the required parameter `consumerKey` when calling `modify_mis_order`") # noqa: E501 # verify the required parameter 'sessionToken' is set if self.api_client.client_side_validation and ('sessionToken' not in local_var_params or # noqa: E501 local_var_params['sessionToken'] is None): # noqa: E501 raise ApiValueError("Missing the required parameter `sessionToken` when calling `modify_mis_order`") # noqa: E501 # verify the required parameter 'ExistingMISOrder' is set if self.api_client.client_side_validation and ('ExistingMISOrder' not in local_var_params or # noqa: E501 local_var_params['ExistingMISOrder'] is None): # noqa: E501 raise ApiValueError("Missing the required parameter `ExistingMISOrder` when calling `modify_mis_order`") # noqa: E501 collection_formats = {} path_params = {} query_params = [] header_params = {} if 'consumerKey' in local_var_params: header_params['consumerKey'] = local_var_params['consumerKey'] # noqa: E501 if 'sessionToken' in local_var_params: header_params['sessionToken'] = local_var_params['sessionToken'] # noqa: E501 form_params = [] local_var_files = {} body_params = None if 'ExistingMISOrder' in local_var_params: body_params = local_var_params['ExistingMISOrder'] # HTTP header `Accept` header_params['Accept'] = self.api_client.select_header_accept( ['application/json']) # noqa: E501 # HTTP header `Content-Type` header_params['Content-Type'] = self.api_client.select_header_content_type( # noqa: E501 ['application/json']) # noqa: E501 # Authentication setting auth_settings = ['bearerAuth'] # noqa: E501 return self.api_client.call_api( '/orders/1.0/order/mis', 'PUT', path_params, query_params, header_params, body=body_params, post_params=form_params, files=local_var_files, response_type='object', # noqa: E501 auth_settings=auth_settings, async_req=local_var_params.get('async_req'), _return_http_data_only=local_var_params.get('_return_http_data_only'), # noqa: E501 _preload_content=local_var_params.get('_preload_content', True), _request_timeout=local_var_params.get('_request_timeout'), collection_formats=collection_formats, _request_auth=local_var_params.get('_request_auth')) def place_new_mis_order(self, consumerKey, sessionToken, NewMISOrder, **kwargs): # noqa: E501 """Place a New MIS order # noqa: E501 This method makes a synchronous HTTP request by default. To make an asynchronous HTTP request, please pass async_req=True >>> thread = api.place_new_mis_order(consumerKey, sessionToken, NewMISOrder, async_req=True) >>> result = thread.get() :param consumerKey: Unique ID for your application (required) :type consumerKey: str :param sessionToken: Session ID Generated with successful login. (required) :type sessionToken: str :param NewMISOrder: (required) :type NewMISOrder: NewMISOrder :param async_req: Whether to execute the request asynchronously. :type async_req: bool, optional :param _preload_content: if False, the urllib3.HTTPResponse object will be returned without reading/decoding response data. Default is True. :type _preload_content: bool, optional :param _request_timeout: timeout setting for this request. If one number provided, it will be total request timeout. It can also be a pair (tuple) of (connection, read) timeouts. :return: Returns the result object. If the method is called asynchronously, returns the request thread. :rtype: object """ kwargs['_return_http_data_only'] = True return self.place_new_mis_order_with_http_info(consumerKey, sessionToken, NewMISOrder, **kwargs) # noqa: E501 def place_new_mis_order_with_http_info(self, consumerKey, sessionToken, NewMISOrder, **kwargs): # noqa: E501 """Place a New MIS order # noqa: E501 This method makes a synchronous HTTP request by default. To make an asynchronous HTTP request, please pass async_req=True >>> thread = api.place_new_mis_order_with_http_info(consumerKey, sessionToken, NewMISOrder, async_req=True) >>> result = thread.get() :param consumerKey: Unique ID for your application (required) :type consumerKey: str :param sessionToken: Session ID Generated with successful login. (required) :type sessionToken: str :param NewMISOrder: (required) :type NewMISOrder: NewMISOrder :param async_req: Whether to execute the request asynchronously. :type async_req: bool, optional :param _return_http_data_only: response data without head status code and headers :type _return_http_data_only: bool, optional :param _preload_content: if False, the urllib3.HTTPResponse object will be returned without reading/decoding response data. Default is True. :type _preload_content: bool, optional :param _request_timeout: timeout setting for this request. If one number provided, it will be total request timeout. It can also be a pair (tuple) of (connection, read) timeouts. :param _request_auth: set to override the auth_settings for an a single request; this effectively ignores the authentication in the spec for a single request. :type _request_auth: dict, optional :return: Returns the result object. If the method is called asynchronously, returns the request thread. :rtype: tuple(object, status_code(int), headers(HTTPHeaderDict)) """ local_var_params = locals() all_params = [ 'consumerKey', 'sessionToken', 'NewMISOrder' ] all_params.extend( [ 'async_req', '_return_http_data_only', '_preload_content', '_request_timeout', '_request_auth' ] ) for key, val in six.iteritems(local_var_params['kwargs']): if key not in all_params: raise ApiTypeError( "Got an unexpected keyword argument '%s'" " to method place_new_mis_order" % key ) local_var_params[key] = val del local_var_params['kwargs'] # verify the required parameter 'consumerKey' is set if self.api_client.client_side_validation and ('consumerKey' not in local_var_params or # noqa: E501 local_var_params['consumerKey'] is None): # noqa: E501 raise ApiValueError("Missing the required parameter `consumerKey` when calling `place_new_mis_order`") # noqa: E501 # verify the required parameter 'sessionToken' is set if self.api_client.client_side_validation and ('sessionToken' not in local_var_params or # noqa: E501 local_var_params['sessionToken'] is None): # noqa: E501 raise ApiValueError("Missing the required parameter `sessionToken` when calling `place_new_mis_order`") # noqa: E501 # verify the required parameter 'NewMISOrder' is set if self.api_client.client_side_validation and ('NewMISOrder' not in local_var_params or # noqa: E501 local_var_params['NewMISOrder'] is None): # noqa: E501 raise ApiValueError("Missing the required parameter `NewMISOrder` when calling `place_new_mis_order`") # noqa: E501 collection_formats = {} path_params = {} query_params = [] header_params = {} if 'consumerKey' in local_var_params: header_params['consumerKey'] = local_var_params['consumerKey'] # noqa: E501 if 'sessionToken' in local_var_params: header_params['sessionToken'] = local_var_params['sessionToken'] # noqa: E501 form_params = [] local_var_files = {} body_params = None if 'NewMISOrder' in local_var_params: body_params = local_var_params['NewMISOrder'] # HTTP header `Accept` header_params['Accept'] = self.api_client.select_header_accept( ['application/json']) # noqa: E501 # HTTP header `Content-Type` header_params['Content-Type'] = self.api_client.select_header_content_type( # noqa: E501 ['application/json']) # noqa: E501 # Authentication setting auth_settings = ['bearerAuth'] # noqa: E501 return self.api_client.call_api( '/orders/1.0/order/mis', 'POST', path_params, query_params, header_params, body=body_params, post_params=form_params, files=local_var_files, response_type='object', # noqa: E501 auth_settings=auth_settings, async_req=local_var_params.get('async_req'), _return_http_data_only=local_var_params.get('_return_http_data_only'), # noqa: E501 _preload_content=local_var_params.get('_preload_content', True), _request_timeout=local_var_params.get('_request_timeout'), collection_formats=collection_formats, _request_auth=local_var_params.get('_request_auth'))
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0
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0
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6
74dc4c1e38276504181b16d9db0458c55ad83426
377
py
Python
Python-BlockLetters.py
H2oPtic/Codecademy-Education
454ecff36a055fa17b4b338e1c6f1e9b3b94ef66
[ "MIT" ]
null
null
null
Python-BlockLetters.py
H2oPtic/Codecademy-Education
454ecff36a055fa17b4b338e1c6f1e9b3b94ef66
[ "MIT" ]
null
null
null
Python-BlockLetters.py
H2oPtic/Codecademy-Education
454ecff36a055fa17b4b338e1c6f1e9b3b94ef66
[ "MIT" ]
null
null
null
#Gal Conradi #Im buying a Catamaran print(" BB BB") print(" BB BB") print(" BBBBBBBBBBBBBB)") print(" BBB BB)") print(" BBB BB)") print(" BBBBBBBBBBBB)") print(" BBB BB)") print(" BBB BB)") print(" BBBBBBBBBBBBBB)") print(" BB BB") print(" BB BB") print("") print("Dont Trust, Verify!")
25.133333
29
0.488064
41
377
4.487805
0.341463
0.304348
0.195652
0.304348
0.521739
0.521739
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0.344828
377
15
30
25.133333
0.744939
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6
2d3084bd835a35161918df9acce7c7d2ba4b5431
19
py
Python
main.py
nizarabdouss/tradingbotV2
6e141b7f229c1a86f0dec3c0aa895d2bbf8fc845
[ "MIT" ]
null
null
null
main.py
nizarabdouss/tradingbotV2
6e141b7f229c1a86f0dec3c0aa895d2bbf8fc845
[ "MIT" ]
null
null
null
main.py
nizarabdouss/tradingbotV2
6e141b7f229c1a86f0dec3c0aa895d2bbf8fc845
[ "MIT" ]
null
null
null
import getCharts
4.75
16
0.789474
2
19
7.5
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3
17
6.333333
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6
74609c753f3c42f2ff01ab774f133e3197fc1a42
42
py
Python
cubework/module/metric/__init__.py
kurisusnowdeng/Cubework
56c0d35f87765efc8f2b6d47a4ccea6f2ec626aa
[ "Apache-2.0" ]
null
null
null
cubework/module/metric/__init__.py
kurisusnowdeng/Cubework
56c0d35f87765efc8f2b6d47a4ccea6f2ec626aa
[ "Apache-2.0" ]
null
null
null
cubework/module/metric/__init__.py
kurisusnowdeng/Cubework
56c0d35f87765efc8f2b6d47a4ccea6f2ec626aa
[ "Apache-2.0" ]
null
null
null
from .metrics import Accuracy, Perplexity
21
41
0.833333
5
42
7
1
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42
0.945946
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0
1
0
1
0
1
0
0
6
74744763e1250002b3ef808ea7a1ad9a9c1131ee
8,912
py
Python
tests/integration/test_worker.py
illinois-cs241/broadway-api
5a2ac7e5542ca4bb7aa40a9f6a2e6afed314e2ee
[ "NCSA" ]
10
2018-11-27T17:07:38.000Z
2020-02-10T19:59:04.000Z
tests/integration/test_worker.py
illinois-cs241/broadway-api
5a2ac7e5542ca4bb7aa40a9f6a2e6afed314e2ee
[ "NCSA" ]
75
2018-10-27T07:08:55.000Z
2019-09-29T01:52:53.000Z
tests/integration/test_worker.py
illinois-cs241/broadway-api
5a2ac7e5542ca4bb7aa40a9f6a2e6afed314e2ee
[ "NCSA" ]
2
2019-07-11T03:10:22.000Z
2019-12-22T01:16:11.000Z
import logging import time import json import websockets from tests.base import BaseTest from tests._fixtures.config import HEARTBEAT_INTERVAL import tornado.testing logging.disable(logging.WARNING) class RegisterGraderEndpointsTest(BaseTest): def test_register(self): self.assertIsNotNone(self.register_worker(self.get_header())) def test_duplicate_id(self): worker_id = "duplicate" self.register_worker(self.get_header(), worker_id=worker_id, expected_code=200) self.register_worker(self.get_header(), worker_id=worker_id, expected_code=400) def test_reregister_id(self): worker_id = self.register_worker(self.get_header(), expected_code=200) time.sleep(HEARTBEAT_INTERVAL * 2 + 1) self.register_worker(self.get_header(), worker_id=worker_id, expected_code=200) def test_unauthorized(self): self.register_worker(None, 401) def test_wrong_token(self): self.register_worker(self.get_header("invalid"), 401) class PollGradingJobEndpointsTest(BaseTest): def test_unauthorized(self): worker_id = self.register_worker(self.get_header()) self.assertEqual(self.poll_job(worker_id, None), 401) def test_wrong_token(self): worker_id = self.register_worker(self.get_header()) self.assertEqual(self.poll_job(worker_id, self.get_header("invalid")), 401) def test_invalid_worker_id(self): self.assertEqual(self.poll_job("1234", self.get_header()), 401) def test_empty_poll(self): worker_id = self.register_worker(self.get_header()) self.assertEqual(self.poll_job(worker_id, self.get_header()), 498) class UpdateGradingJobEndpointsTest(BaseTest): def test_unauthorized(self): worker_id = self.register_worker(self.get_header()) self.post_job_result(worker_id, None, "1234", True, 401) def test_wrong_token(self): worker_id = self.register_worker(self.get_header()) self.post_job_result(worker_id, self.get_header("invalid"), "1234", True, 401) def test_invalid_worker_id(self): self.post_job_result("1234", self.get_header(), "1234", True, 401) class HeartBeatEndpointsTest(BaseTest): def test_unauthorized(self): worker_id = self.register_worker(self.get_header()) self.send_heartbeat(worker_id, None, 401) def test_wrong_token(self): worker_id = self.register_worker(self.get_header()) self.send_heartbeat(worker_id, self.get_header("fake"), 401) def test_invalid_worker_id(self): self.send_heartbeat("1234", self.get_header(), 401) def test_valid_heartbeat(self): worker_id = self.register_worker(self.get_header()) self.send_heartbeat(worker_id, self.get_header()) class WorkerWSEndpointTest(BaseTest): @tornado.testing.gen_test async def test_decode_error(self): async with self.worker_ws_conn( worker_id="test_worker", headers=self.get_header() ) as conn: try: await conn.send("i'm not json") except Exception as e: self.assertEqual(e.code, 1011) # submit job result before registering @tornado.testing.gen_test async def test_bad_job_result(self): async with self.worker_ws_conn( worker_id="test_worker", headers=self.get_header() ) as conn: try: await conn.send( json.dumps( { "type": "job_result", "args": { "grading_job_id": "someid", "success": True, "results": [{"res": "spoof"}], "logs": {"stdout": "stdout", "stderr": "stderr"}, }, } ) ) await conn.recv() except Exception as e: self.assertEqual(e.code, 1002) @tornado.testing.gen_test async def test_register(self): async with self.worker_ws_conn( worker_id="test_worker", headers=self.get_header() ) as conn: await conn.send( json.dumps({"type": "register", "args": {"hostname": "eniac"}}) ) ack = json.loads(await conn.recv()) self.assertTrue(ack["success"]) @tornado.testing.gen_test async def test_pong(self): async with self.worker_ws_conn( worker_id="test_worker", headers=self.get_header() ) as conn: await conn.send( json.dumps({"type": "register", "args": {"hostname": "eniac"}}) ) ack = json.loads(await conn.recv()) self.assertTrue(ack["success"]) await conn.pong() @tornado.testing.gen_test async def test_no_token(self): async with self.worker_ws_conn(worker_id="test_worker", headers=None) as conn: try: await conn.send( json.dumps({"type": "register", "args": {"hostname": "eniac"}}) ) ack = json.loads(await conn.recv()) self.assertFalse(ack["success"]) except websockets.exceptions.ConnectionClosed as e: self.assertEqual(e.code, 1008) @tornado.testing.gen_test async def test_wrong_token(self): async with self.worker_ws_conn( worker_id="test_worker", headers=self.get_header("invalid") ) as conn: try: await conn.send( json.dumps({"type": "register", "args": {"hostname": "eniac"}}) ) ack = json.loads(await conn.recv()) self.assertFalse(ack["success"]) except websockets.exceptions.ConnectionClosed as e: self.assertEqual(e.code, 1008) @tornado.testing.gen_test async def test_duplicate_token(self): async with self.worker_ws_conn( worker_id="test_worker", headers=self.get_header() ) as conn1: await conn1.send( json.dumps({"type": "register", "args": {"hostname": "eniac"}}) ) # worker 1 should successfully register ack = json.loads(await conn1.recv()) self.assertTrue(ack["success"]) async with self.worker_ws_conn( worker_id="test_worker", headers=self.get_header() ) as conn2: try: await conn2.send( json.dumps({"type": "register", "args": {"hostname": "eniac"}}) ) # worker 2 should fail ack = json.loads(await conn2.recv()) self.assertFalse(ack["success"]) except websockets.exceptions.ConnectionClosed as e: self.assertEqual(e.code, 1002) @tornado.testing.gen_test async def test_reregister(self): async with self.worker_ws_conn( worker_id="test_worker", headers=self.get_header() ) as conn1: await conn1.send( json.dumps({"type": "register", "args": {"hostname": "eniac"}}) ) # worker 1 should succeed ack = json.loads(await conn1.recv()) self.assertTrue(ack["success"]) async with self.worker_ws_conn( worker_id="test_worker", headers=self.get_header() ) as conn2: await conn2.send( json.dumps({"type": "register", "args": {"hostname": "eniac"}}) ) # worker 2 should also succeed ack = json.loads(await conn2.recv()) self.assertTrue(ack["success"]) @tornado.testing.gen_test async def test_wrong_job_id(self): async with self.worker_ws_conn( worker_id="test_worker", headers=self.get_header() ) as conn: await conn.send( json.dumps({"type": "register", "args": {"hostname": "eniac"}}) ) ack = json.loads(await conn.recv()) self.assertTrue(ack["success"]) try: await conn.send( json.dumps( { "type": "job_result", "args": { "grading_job_id": "no_such_id", "success": True, "results": [{"res": "spoof"}], "logs": {"stdout": "stdout", "stderr": "stderr"}, }, } ) ) except websockets.exceptions.ConnectionClosed as e: self.assertEqual(e.code, 1002)
35.365079
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8,912
4.94324
0.117647
0.063466
0.086848
0.064301
0.834029
0.821086
0.802505
0.755532
0.721712
0.712735
0
0.018956
0.32518
8,912
251
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35.505976
0.777519
0.016607
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0.10101
1
0.080808
false
0
0.035354
0
0.141414
0
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null
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0
0
0
6
749097d54938b5e4c3f688adbcc8e702f396dc3e
33
py
Python
addons14/storage_image/tests/__init__.py
odoochain/addons_oca
55d456d798aebe16e49b4a6070765f206a8885ca
[ "MIT" ]
1
2021-06-10T14:59:13.000Z
2021-06-10T14:59:13.000Z
addons14/storage_image/tests/__init__.py
odoochain/addons_oca
55d456d798aebe16e49b4a6070765f206a8885ca
[ "MIT" ]
null
null
null
addons14/storage_image/tests/__init__.py
odoochain/addons_oca
55d456d798aebe16e49b4a6070765f206a8885ca
[ "MIT" ]
1
2021-04-09T09:44:44.000Z
2021-04-09T09:44:44.000Z
from . import test_storage_image
16.5
32
0.848485
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33
5.2
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1
33
33
0.896552
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true
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1
0
1
0
0
6
74943f3669a0411e8b4b035647fd6cb8806ad85a
106
py
Python
terrascript/newrelic/d.py
vfoucault/python-terrascript
fe82b3d7e79ffa72b7871538f999828be0a115d0
[ "BSD-2-Clause" ]
null
null
null
terrascript/newrelic/d.py
vfoucault/python-terrascript
fe82b3d7e79ffa72b7871538f999828be0a115d0
[ "BSD-2-Clause" ]
null
null
null
terrascript/newrelic/d.py
vfoucault/python-terrascript
fe82b3d7e79ffa72b7871538f999828be0a115d0
[ "BSD-2-Clause" ]
null
null
null
from terrascript import _data class newrelic_application(_data): pass application = newrelic_application
21.2
39
0.858491
12
106
7.25
0.666667
0.436782
0
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0.103774
106
4
40
26.5
0.915789
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false
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0
0
0
0
1
1
0
1
0
0
6
7789901d8d2248e3ad1577139dd99bb783130021
25,059
py
Python
STowl_multi.py
yiwangz/LS_learning
18e876035de368d5a4db3ed0532bfd113e282812
[ "MIT" ]
null
null
null
STowl_multi.py
yiwangz/LS_learning
18e876035de368d5a4db3ed0532bfd113e282812
[ "MIT" ]
null
null
null
STowl_multi.py
yiwangz/LS_learning
18e876035de368d5a4db3ed0532bfd113e282812
[ "MIT" ]
null
null
null
import numpy as np from sklearn import svm #from sklearn import linear_model #from statsmodels.sandbox.regression.predstd import wls_prediction_std from sklearn.linear_model import LogisticRegression from sklearn import preprocessing from pygam import GAM, LinearGAM, s, l #from patsy import dmatrix #import pandas as pd import statsmodels.api as sm import statsmodels.formula.api as smf ######################################################################################################################## ######################################################################################################################## ## calculate propensity score class propensityScore: def __init__(self, Xall, Aall, uniqueIndex, dataLabel): self.Xall = Xall self.Aall = Aall self.uniqueIndex = uniqueIndex self.dataLabel = dataLabel def p(self, obsSetting = 'trial'): if obsSetting == 'trial': pall = np.full(self.Aall.shape[0], 0.5) elif obsSetting == 'observational': pall = [] for i in self.uniqueIndex: index = [item for sublist in np.where(self.dataLabel == i) for item in sublist] #[l for l, x in enumerate(self.dataLabel) if x == i] pvec = np.zeros(len(index)) Xtemp = self.Xall[index,:] Atemp = self.Aall[index] logReg = LogisticRegression() logReg.fit(Xtemp[:,:], Atemp) index1 = [item for sublist in np.where(Atemp == 1) for item in sublist] index0 = [item for sublist in np.where(Atemp == -1) for item in sublist] pvec[index1] = logReg.predict_proba(Xtemp)[index1, 1] pvec[index0] = logReg.predict_proba(Xtemp)[index0, 0] pall = np.concatenate((pall, pvec)) return pall ######################################################################################################################## ######################################################################################################################## ## Model selection (parameter tuning). class tuneStat: def __init__(self, Xall, Aall, Ball, m, uniqueIndex, dataLabel, model): self.Xall = Xall self.Aall = Aall self.Ball = Ball self.m = m self.uniqueIndex = uniqueIndex self.dataLabel = dataLabel self.model = model def tsSSE(self, model='linear'): sse = 0 for i in self.uniqueIndex: index = [item for sublist in np.where(self.dataLabel == i) for item in sublist] #[l for l, x in enumerate(self.dataLabel) if x == i] Xfit = self.Xall[index,:] Afit = self.Aall[index] Bfit = self.Ball[index] Af = Afit * self.model.decision_function(Xfit) Xmat = np.column_stack((Xfit, Af)) if model == 'linear': Xmat = sm.add_constant(Xmat) BModel = sm.OLS(Bfit, Xmat) res = BModel.fit() pred = res.predict() elif model == 'GAM': BModel = LinearGAM(fit_intercept=True) res = BModel.fit(Xmat, Bfit) pred = res.predict(Xmat) sse = sse + sum([(Bfit[elem]-pred[elem])**2 for elem in range(len(Bfit))]) return sse class tuneStat_longitudinal: def __init__(self, Xall, Aall, Ball, B_mat, miss_mat, n_valid, m, uniqueIndex, dataLable, model): self.Xall = Xall self.Aall = Aall self.Ball = Ball self.B_mat = B_mat self.miss_mat = miss_mat self.n_valid = n_valid self.m = m self.uniqueIndex = uniqueIndex self.dataLabel = dataLable self.model = model def tsSSE_multiple(self): d = self.Xall.shape[1] fit_mat = np.full([int(self.n_valid*self.m-np.sum(self.miss_mat)),int(5+d*2)], np.nan) B_obs = np.copy(self.B_mat) B_obs[self.miss_mat == 1] = np.nan fit_index = 0 for i in range(self.n_valid): for j in range(self.m): if not np.isnan(B_obs[i,j]): fit_mat[fit_index,0] = i fit_mat[fit_index,1] = 1 fit_mat[fit_index,2] = (j+1)/self.m fit_mat[fit_index,3:(3+d)] = self.Xall[i,:] fit_mat[fit_index,(3+d):(3+d*2)] = self.Xall[i,:]*(j+1)/self.m fit_mat[fit_index,(3+d*2)] = self.Aall[i]*self.model.decision_function(self.Xall[i,:]) fit_mat[fit_index,(4+d*2)] = B_obs[i,j] fit_index = fit_index+1 mod = sm.NominalGEE(endog=fit_mat[:,-1],exog=fit_mat[:,1:(4+d*2)],groups=fit_mat[:,0]) res = mod.fit() pred = res.predict(fit_mat[:,1:(4+d*2)]) sse = sum([(fit_mat[elem,-1] - pred[elem])**2 for elem in range(len(pred))]) return sse def tsSSE_single(self): sse = 0 for i in self.uniqueIndex: index = [item for sublist in np.where(self.dataLabel == i) for item in sublist] Xfit = self.Xall[index, :] Afit = self.Aall[index] Bfit = self.Ball[index] time = np.repeat((i+1)/self.m,len(index)) Xt = Xfit*((i+1)/self.m) Af = Afit*self.model.decision_function(Xfit) Xmat = np.column_stack((Xfit,time,Xt,Af)) BModel = LinearGAM(l(0)+l(1)+l(2)+l(3)+l(4)+l(5)+l(6)+l(7)+l(8)+l(9)+ s(10)+s(11)+s(12)+s(13)+s(14)+s(15)+s(16)+s(17)+s(18)+s(19)+s(20)+l(21),fit_intercept=True) res = BModel.fit(Xmat, Bfit) ##the GAM model can be specified differently pred = res.predict(Xmat) sse = sse + sum([(Bfit[elem]-pred[elem])**2 for elem in range(len(index))]) return sse ######################################################################################################################## ######################################################################################################################## ## calculate the estimated value function separately class EVF: def evfCal(self, Xall, Aall, Ball, uniqueIndex, dataLabel, model): labelall = model.predict(Xall) evfSeq = np.zeros(len(uniqueIndex)) for i in uniqueIndex: index = [item for sublist in np.where(dataLabel == i) for item in sublist] #[l for l, x in enumerate(dataLabel) if x == i] Acal = Aall[index] Bcal = Ball[index] labelcal = labelall[index] evfSeq[i] = sum(Bcal*(Acal==labelcal))/sum((Acal==labelcal)) self.evfSeq = evfSeq ######################################################################################################################## ######################################################################################################################## ## Self training OWL class STowlLinear: def __init__(self, Xall, Aall, Ball, B_mat, miss_mat, n_valid, m, uniqueIndex, dataLabel, pall): self.Xall = Xall self.Aall = Aall self.Ball = Ball self.B_mat = B_mat self.miss_mat = miss_mat self.n_valid = n_valid self.m = m self.uniqueIndex = uniqueIndex self.dataLabel = dataLabel self.pall = pall def iniFit(self, cost, study='single'): if study == 'single': index = [] for i in range(self.m): index = np.concatenate((index, [item for sublist in np.where(self.dataLabel == i) for item in sublist])) index1 = [item for sublist in np.where(self.dataLabel == 0) for item in sublist] indexRemain = index[len(index1):] indexRemain = [int(indexRemain[elem]) for elem in range(len(indexRemain))] elif study == 'longitudinal': index = [] for i in self.uniqueIndex: index = np.concatenate((index, [item for sublist in np.where(self.dataLabel == i) for item in sublist])) index1 = [item for sublist in np.where(self.dataLabel == self.m-1) for item in sublist] indexRemain = index[:(len(index)-len(index1))] indexRemain = [int(indexRemain[elem]) for elem in range(len(indexRemain))] X1 = self.Xall[index1, :] A1 = self.Aall[index1] B1 = self.Ball[index1] p1 = self.pall[index1] dataLabel1 = self.dataLabel[index1] Xremain = self.Xall[indexRemain, :] ##ordered Aremain = self.Aall[indexRemain] ##ordered Bremain = self.Ball[indexRemain] ##ordered premain = self.pall[indexRemain] ##ordered dataLabelremain = self.dataLabel[indexRemain] model_ini = svm.SVC(kernel='linear', C=cost, decision_function_shape="ovo") model_ini.fit(X1, A1, sample_weight=B1/p1) pred_ini = model_ini.predict(Xremain) self.pred_ini = pred_ini self.cost = cost self.X1 = X1 self.A1 = A1 self.B1 = B1 self.p1 = p1 self.Xremain = Xremain self.Aremain = Aremain self.Bremain = Bremain self.premain = premain self.study = study self.dataLabel1 = dataLabel1 self.dataLabelremain = dataLabelremain ## set itertol=0, track=True to perform convergence analysis def fit(self, lam, itermax=50, itertol=1e-4, track=True): if not hasattr(self, 'pred_ini'): print('Run iniFit() for initial predicted labels!') else: iter = 0 rel_obj = 1 obj_old = 1 if self.m == 2: lam = [lam] predRemainK = np.copy(self.pred_ini) X_aux = np.concatenate((self.X1, self.Xremain, self.Xremain), axis=0) B_aux = np.concatenate((self.B1/self.p1, self.Bremain/self.premain)) wts_aux = np.repeat(1, self.A1.shape[0]) if self.study == 'single': index = [] for i in range(1,self.m): index.append([item for sublist in np.where(self.dataLabelremain == i) for item in sublist]) #[l for l, x in enumerate(self.dataLabel) if x == i] for j in range(self.m-1): Btemp = self.Bremain[index[j]] ptemp = self.premain[index[j]] B_aux = np.concatenate((B_aux, np.repeat(np.average(Btemp/ptemp, axis=0), len(index[j])))) wts_aux = np.concatenate((wts_aux, np.repeat(lam[j], len(index[j])))) for k in range(self.m-1): wts_aux = np.concatenate((wts_aux, np.repeat(1-lam[j], len(index[j])))) wts_aux = wts_aux*B_aux elif self.study == 'longitudinal': uniqueIndex_new = self.uniqueIndex.copy() uniqueIndex_new.remove(self.m-1) index = [] for i in uniqueIndex_new: index.append([item for sublist in np.where(self.dataLabelremain == i) for item in sublist]) #[l for l, x in enumerate(self.dataLabel) if x == i] for j in range(len(uniqueIndex_new)): Btemp = self.Bremain[index[j]] ptemp = self.premain[index[j]] B_aux = np.concatenate((B_aux, np.repeat(np.average(Btemp/ptemp, axis=0), len(index[j])))) wts_aux = np.concatenate((wts_aux, np.repeat(lam[j], len(index[j])))) for k in range(len(uniqueIndex_new)): wts_aux = np.concatenate((wts_aux, np.repeat(1-lam[k], len(index[k])))) wts_aux = wts_aux*B_aux if track: obj_path = np.full(itermax, np.nan) pred_path = np.full([itermax, (self.Aall.shape[0])], np.nan) model_path = [] ts_path = np.full(itermax, np.nan) while (iter < itermax and rel_obj >= itertol): A_aux = np.concatenate((self.A1, self.Aremain, predRemainK)) ##this is wrong modelk = svm.SVC(kernel='linear', C=self.cost, decision_function_shape="ovo") modelk.fit(X_aux, A_aux, sample_weight=wts_aux) ##this is wrong xi_vec = 1-A_aux*modelk.decision_function(X_aux) xi_vec[xi_vec < 0] = 0 obj_new = np.sum(np.power(modelk.coef_,2))*(1/2)+np.sum(xi_vec*wts_aux)*self.cost rel_obj = abs(obj_new-obj_old)/obj_old obj_old = np.copy(obj_new) predRemainK = modelk.predict(self.Xremain) tuning_stat = tuneStat_longitudinal(self.Xall, self.Aall, self.Ball, self.B_mat, self.miss_mat, self.n_valid, self.m, self.uniqueIndex, self.dataLabel, modelk) ts_stat = tuning_stat.tsSSE_single() predk = modelk.predict(self.Xall) if track: obj_path[iter] = obj_new pred_path[iter,:] = predk model_path.append(modelk) ts_path[iter] = ts_stat iter += 1 if iter >= itermax: conv = 99 else: conv = iter self.conv = conv self.objConv = obj_new self.predConv = predk self.modelConv = modelk self.tsConv = ts_stat if track: self.objPath = obj_path self.predPath = pred_path self.modelPath = model_path self.tsPath = ts_path ## predictions on new datasets def predict(self, Xindpt, track): ## results based on final model if not track: if not hasattr(self, 'modelConv'): print('Please run fit() first.') else: return self.modelConv.predict(Xindpt) ##nindpt*1 ## results based on the whole path of models (multi-D predicted labels) else: if not hasattr(self, 'modelPath'): print('Please run fit() with track = True.') else: predOut = [] for model in self.modelPath: predOut.append(model.predict(Xindpt)) return np.asarray(predOut) ##nindpt*conv ######################################################################################################################## ######################################################################################################################## ## calculate the norm of RKHS for nonlinear kernel class RKHSnorm: def __init__(self, sv, svIndex, lagMulti, gamma): self.sv = sv ##support vectors self.svIndex = svIndex ##index of support vectors self.lagMulti = lagMulti ##Lagrange Multiplier self.gamma = gamma def omegaNorm(self): omega_penalty = np.zeros(len(self.svIndex)**2) for i in range(len(self.svIndex)): for j in range(len(self.svIndex)): omega_penalty[i*len(self.svIndex)+j] = self.lagMulti[0,i]*self.lagMulti[0,j]*np.exp(-self.gamma*np.sum(np.power(self.sv[i]-self.sv[j],2))) norm_result = 0.5*np.sum(omega_penalty) return norm_result ######################################################################################################################## ######################################################################################################################## ## Self training OWL class STowlNonlinear: def __init__(self, Xall, Aall, Ball, B_mat, miss_mat, n_valid, m, uniqueIndex, dataLabel, pall): self.Xall = Xall self.Aall = Aall self.Ball = Ball self.B_mat = B_mat self.miss_mat = miss_mat self.n_valid = n_valid self.m = m self.uniqueIndex = uniqueIndex self.dataLabel = dataLabel self.pall = pall def iniFit(self, cost, gamma, study='single'): if study == 'single': index = [] for i in range(self.m): index = np.concatenate((index, [item for sublist in np.where(self.dataLabel == i) for item in sublist])) index1 = [item for sublist in np.where(self.dataLabel == 0) for item in sublist] indexRemain = index[len(index1):] indexRemain = [int(indexRemain[elem]) for elem in range(len(indexRemain))] elif study == 'longitudinal': index = [] for i in self.uniqueIndex: index = np.concatenate((index, [item for sublist in np.where(self.dataLabel == i) for item in sublist])) index1 = [item for sublist in np.where(self.dataLabel == self.m-1) for item in sublist] indexRemain = index[:(len(index)-len(index1))] indexRemain = [int(indexRemain[elem]) for elem in range(len(indexRemain))] X1 = self.Xall[index1, :] A1 = self.Aall[index1] B1 = self.Ball[index1] p1 = self.pall[index1] dataLabel1 = self.dataLabel[index1] Xremain = self.Xall[indexRemain, :] ##ordered Aremain = self.Aall[indexRemain] ##ordered Bremain = self.Ball[indexRemain] ##ordered premain = self.pall[indexRemain] ##ordered dataLabelremain = self.dataLabel[indexRemain] model_ini = svm.SVC(kernel='rbf', C=cost, gamma=gamma, decision_function_shape="ovo") model_ini.fit(X1, A1, sample_weight=B1/p1) pred_ini = model_ini.predict(Xremain) self.pred_ini = pred_ini self.cost = cost self.gamma = gamma self.X1 = X1 self.A1 = A1 self.B1 = B1 self.p1 = p1 self.Xremain = Xremain self.Aremain = Aremain self.Bremain = Bremain self.premain = premain self.study = study self.dataLabel1 = dataLabel1 self.dataLabelremain = dataLabelremain ## set itertol=0, track=True to perform convergence analysis def fit(self, lam, itermax=50, itertol=1e-4, track=True): if not hasattr(self, 'pred_ini'): print('Run iniFit() for initial predicted labels!') else: predRemainK = np.copy(self.pred_ini) X_aux = np.concatenate((self.X1, self.Xremain, self.Xremain), axis=0) B_aux = np.concatenate((self.B1 / self.p1, self.Bremain / self.premain)) wts_aux = np.repeat(1, self.A1.shape[0]) if self.study == 'single': index = [] for i in range(1, self.m): index.append([item for sublist in np.where(self.dataLabelremain == i) for item in sublist]) # [l for l, x in enumerate(self.dataLabel) if x == i] for j in range(self.m - 1): Btemp = self.Bremain[index[j]] ptemp = self.premain[index[j]] B_aux = np.concatenate((B_aux, np.repeat(np.average(Btemp / ptemp, axis=0), len(index[j])))) wts_aux = np.concatenate((wts_aux, np.repeat(lam[j], len(index[j])))) for k in range(self.m - 1): wts_aux = np.concatenate((wts_aux, np.repeat(1 - lam[j], len(index[j])))) wts_aux = wts_aux * B_aux elif self.study == 'longitudinal': uniqueIndex_new = self.uniqueIndex.copy() uniqueIndex_new.remove(self.m - 1) index = [] for i in uniqueIndex_new: index.append([item for sublist in np.where(self.dataLabelremain == i) for item in sublist]) # [l for l, x in enumerate(self.dataLabel) if x == i] for j in range(len(uniqueIndex_new)): Btemp = self.Bremain[index[j]] ptemp = self.premain[index[j]] B_aux = np.concatenate((B_aux, np.repeat(np.average(Btemp / ptemp, axis=0), len(index[j])))) wts_aux = np.concatenate((wts_aux, np.repeat(lam[j], len(index[j])))) for k in range(len(uniqueIndex_new)): wts_aux = np.concatenate((wts_aux, np.repeat(1 - lam[k], len(index[k])))) wts_aux = wts_aux * B_aux if track: obj_path = np.full(itermax, np.nan) pred_path = np.full([itermax, (self.Aall.shape[0])], np.nan) model_path = [] ts_path = np.full(itermax, np.nan) while (iter < itermax and rel_obj >= itertol): A_aux = np.concatenate((self.A1, self.Aremain, predRemainK)) modelk = svm.SVC(kernel='rbf', C=self.cost, gamma=self.gamma, decision_function_shape="ovo") modelk.fit(X_aux, A_aux, sample_weight=wts_aux) lagMulti = modelk.dual_coef_ ## Lagrange multiplier times label y. Summation = 0. svIndex = modelk.support_ sv = modelk.support_vectors_ baseObj = RKHSnorm(sv, svIndex, lagMulti, self.gamma) rkhsNorm = baseObj.omegaNorm() xi_vec = 1-A_aux*modelk.decision_function(X_aux) xi_vec[xi_vec < 0] = 0 obj_new = rkhsNorm+np.sum(xi_vec*wts_aux)*self.cost rel_obj = abs(obj_new - obj_old)/obj_old obj_old = np.copy(obj_new) predRemainK = modelk.predict(self.Xremain) tuning_stat = tuneStat_longitudinal(self.Xall, self.Aall, self.Ball, self.B_mat, self.miss_mat, self.n_valid, self.m, self.uniqueIndex, self.dataLabel, modelk) ts_stat = tuning_stat.tsSSE_single() predk = modelk.predict(self.Xall) if track: obj_path[iter] = obj_new pred_path[iter,:] = predk model_path.append(modelk) ts_path[iter] = ts_stat iter += 1 if iter >= itermax: conv = 99 else: conv = iter self.conv = conv self.objConv = obj_new self.predConv = predk self.modelConv = modelk self.tsConv = ts_stat if track: self.objPath = obj_path self.predPath = pred_path self.modelPath = model_path self.tsPath = ts_path ## predictions on new datasets def predict(self, Xindpt, track): ## results based on final model if not track: if not hasattr(self, 'modelConv'): print('Please run fit() first.') else: return self.modelConv.predict(Xindpt) ##nindpt*1 ## results based on the whole path of models (multi-D predicted labels) else: if not hasattr(self, 'modelPath'): print('Please run fit() with track = True.') else: predOut = [] for model in self.modelPath: predOut.append(model.predict(Xindpt)) return np.asarray(predOut) ##nindpt*conv ######################################################################################################################## ######################################################################################################################## ## Evaluate prediction performance (accuracy). class evalPred: def __init__(self, predLabel, trueLabel): self.pred = predLabel self.true = trueLabel def acc(self): # only one set of predicted labels (e.g., conv) if self.pred.ndim == 1: return np.sum(self.pred == self.true)/self.true.shape[0] # multiple rows of predicted labels (e.g. path) else: acc_vec = np.full(self.pred.shape[0], np.nan) for ii in np.arange(self.pred.shape[0]): acc_vec[ii] = np.sum(self.pred[ii, :] == self.true)/ self.true.shape[0] return(acc_vec) ######################################################################################################################## ######################################################################################################################## ## Evaluate tuning process. class evalTune: def maxTune(self, ts_array, acc_array, method='max'): dim = len(ts_array.shape) opt_idx = [] tune_idx = [] for i in range(dim): opt_idx.append([np.where(acc_array == np.amax(acc_array))[i][0]]) if method == 'max': for j in range(dim): tune_idx.append([np.where(ts_array == np.amax(ts_array))[j][0]]) elif method == 'min': for j in range(dim): tune_idx.append([np.where(ts_array == np.amin(ts_array))[j][0]]) self.tune_idx = tune_idx self.opt_idx = opt_idx
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0.714815
0.703772
0.700226
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25,059
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6
77aca5e18627d0aeef946e48603b6c66ea63a597
33
py
Python
Attack_SplitNN/build/lib/attacksplitnn/defense/__init__.py
EduardaChagas/Cybersecurity-FL
52db1a31e71e021f2ce57231a27341c4c080ad3b
[ "MIT" ]
10
2021-04-16T00:38:34.000Z
2022-02-11T01:28:52.000Z
Attack_SplitNN/build/lib/attacksplitnn/defense/__init__.py
EduardaChagas/Cybersecurity-FL
52db1a31e71e021f2ce57231a27341c4c080ad3b
[ "MIT" ]
7
2021-03-27T04:49:06.000Z
2021-06-20T06:16:32.000Z
Attack_SplitNN/build/lib/attacksplitnn/defense/__init__.py
EduardaChagas/Cybersecurity-FL
52db1a31e71e021f2ce57231a27341c4c080ad3b
[ "MIT" ]
3
2021-07-07T21:55:52.000Z
2022-03-17T21:17:51.000Z
from .noisedgrad import max_norm
16.5
32
0.848485
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5.4
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6
77b346d1798928f0b5ca5b0ae6aacbe97bead2ae
76,844
py
Python
pybind/slxos/v16r_1_00b/brocade_fabric_service_rpc/show_fibrechannel_interface_info/output/show_fibrechannel_interface/show_fibrechannel_info/__init__.py
shivharis/pybind
4e1c6d54b9fd722ccec25546ba2413d79ce337e6
[ "Apache-2.0" ]
null
null
null
pybind/slxos/v16r_1_00b/brocade_fabric_service_rpc/show_fibrechannel_interface_info/output/show_fibrechannel_interface/show_fibrechannel_info/__init__.py
shivharis/pybind
4e1c6d54b9fd722ccec25546ba2413d79ce337e6
[ "Apache-2.0" ]
null
null
null
pybind/slxos/v16r_1_00b/brocade_fabric_service_rpc/show_fibrechannel_interface_info/output/show_fibrechannel_interface/show_fibrechannel_info/__init__.py
shivharis/pybind
4e1c6d54b9fd722ccec25546ba2413d79ce337e6
[ "Apache-2.0" ]
1
2021-11-05T22:15:42.000Z
2021-11-05T22:15:42.000Z
from operator import attrgetter import pyangbind.lib.xpathhelper as xpathhelper from pyangbind.lib.yangtypes import RestrictedPrecisionDecimalType, RestrictedClassType, TypedListType from pyangbind.lib.yangtypes import YANGBool, YANGListType, YANGDynClass, ReferenceType from pyangbind.lib.base import PybindBase from decimal import Decimal from bitarray import bitarray import __builtin__ class show_fibrechannel_info(PybindBase): """ This class was auto-generated by the PythonClass plugin for PYANG from YANG module brocade-fabric-service - based on the path /brocade_fabric_service_rpc/show-fibrechannel-interface-info/output/show-fibrechannel-interface/show-fibrechannel-info. Each member element of the container is represented as a class variable - with a specific YANG type. """ __slots__ = ('_pybind_generated_by', '_path_helper', '_yang_name', '_rest_name', '_extmethods', '__port_interface','__port_index','__port_type','__port_wwn','__remote_port_wwn','__remote_node_wwn','__port_state','__port_status','__port_status_message','__port_health','__port_trunked','__port_trunk_master','__port_actual_distance','__port_desired_credit','__port_buffer_allocated','__port_licensed','__port_address','__port_fec','__port_configured_speed','__port_actual_speed',) _yang_name = 'show-fibrechannel-info' _rest_name = 'show-fibrechannel-info' _pybind_generated_by = 'container' def __init__(self, *args, **kwargs): path_helper_ = kwargs.pop("path_helper", None) if path_helper_ is False: self._path_helper = False elif path_helper_ is not None and isinstance(path_helper_, xpathhelper.YANGPathHelper): self._path_helper = path_helper_ elif hasattr(self, "_parent"): path_helper_ = getattr(self._parent, "_path_helper", False) self._path_helper = path_helper_ else: self._path_helper = False extmethods = kwargs.pop("extmethods", None) if extmethods is False: self._extmethods = False elif extmethods is not None and isinstance(extmethods, dict): self._extmethods = extmethods elif hasattr(self, "_parent"): extmethods = getattr(self._parent, "_extmethods", None) self._extmethods = extmethods else: self._extmethods = False self.__port_desired_credit = YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..4294967295']}, int_size=32), is_leaf=True, yang_name="port-desired-credit", rest_name="port-desired-credit", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Provides Fibre Channel port Desired Credit\nInformation'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='uint32', is_config=True) self.__port_wwn = YANGDynClass(base=RestrictedClassType(base_type=unicode, restriction_dict={'pattern': u'[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]'}), is_leaf=True, yang_name="port-wwn", rest_name="port-wwn", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Local Fibre Channel port WWN'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='common-def:wwn-type', is_config=True) self.__port_health = YANGDynClass(base=unicode, is_leaf=True, yang_name="port-health", rest_name="port-health", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Provides the Fibre Channel port health\ninformation'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='string', is_config=True) self.__port_buffer_allocated = YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..4294967295']}, int_size=32), is_leaf=True, yang_name="port-buffer-allocated", rest_name="port-buffer-allocated", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Provides the Fibre Channel port Buffer\nAllocation'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='uint32', is_config=True) self.__port_fec = YANGDynClass(base=unicode, is_leaf=True, yang_name="port-fec", rest_name="port-fec", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Provide FEC operational status on a port'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='string', is_config=True) self.__port_interface = YANGDynClass(base=RestrictedClassType(base_type=unicode, restriction_dict={'pattern': u'((([0-9]|[1][0-6]))/([1-9]|[1-9][0-9]|[1-9][0-9][0-9])(:[1-4])?)', 'length': [u'3..16']}), is_leaf=True, yang_name="port-interface", rest_name="port-interface", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'The Fibre Channel port\nInterface[rbridge-id/slot/port]'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='interface:interface-type', is_config=True) self.__port_actual_distance = YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..4294967295']}, int_size=32), is_leaf=True, yang_name="port-actual-distance", rest_name="port-actual-distance", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Provides the Fibre Channel port Actual\nDistance Information'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='uint32', is_config=True) self.__port_trunked = YANGDynClass(base=YANGBool, is_leaf=True, yang_name="port-trunked", rest_name="port-trunked", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Provides the Fibre Channel port trunk\ninformation'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='boolean', is_config=True) self.__remote_port_wwn = YANGDynClass(base=RestrictedClassType(base_type=unicode, restriction_dict={'pattern': u'[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]'}), is_leaf=True, yang_name="remote-port-wwn", rest_name="remote-port-wwn", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Fibre Channel port remotePort WWN'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='common-def:wwn-type', is_config=True) self.__port_actual_speed = YANGDynClass(base=unicode, is_leaf=True, yang_name="port-actual-speed", rest_name="port-actual-speed", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Provide the actual speed of the port.'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='string', is_config=True) self.__port_state = YANGDynClass(base=unicode, is_leaf=True, yang_name="port-state", rest_name="port-state", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Fibre Channel port State -\nOnline/Offline'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='string', is_config=True) self.__port_index = YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..4294967295']}, int_size=32), is_leaf=True, yang_name="port-index", rest_name="port-index", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'The Fibre Channel port index'}}, is_keyval=True, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='uint32', is_config=True) self.__remote_node_wwn = YANGDynClass(base=RestrictedClassType(base_type=unicode, restriction_dict={'pattern': u'[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]'}), is_leaf=True, yang_name="remote-node-wwn", rest_name="remote-node-wwn", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Fibre Channel ports remoteNode WWN'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='common-def:wwn-type', is_config=True) self.__port_licensed = YANGDynClass(base=YANGBool, is_leaf=True, yang_name="port-licensed", rest_name="port-licensed", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Provides if the port is\nlicensed or not. Set to TRUE\nfor licenced ports'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='boolean', is_config=True) self.__port_type = YANGDynClass(base=RestrictedClassType(base_type=unicode, restriction_dict={'pattern': u'E-Port|U-Port|G-Port|F-Port', 'length': [u'6']}), is_leaf=True, yang_name="port-type", rest_name="port-type", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Fibre Channel port type'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='porttype-type', is_config=True) self.__port_address = YANGDynClass(base=RestrictedClassType(base_type=unicode, restriction_dict={'pattern': u'[0-9a-fA-F]*', 'length': [u'6']}), is_leaf=True, yang_name="port-address", rest_name="port-address", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'24 bit PID of a port'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='fabric-portid-type', is_config=True) self.__port_status = YANGDynClass(base=unicode, is_leaf=True, yang_name="port-status", rest_name="port-status", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Fibre Channel port Status -\nOnline/No_Module/No_Light/Disabled\nIn_Sync/No_Sync'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='string', is_config=True) self.__port_configured_speed = YANGDynClass(base=unicode, is_leaf=True, yang_name="port-configured-speed", rest_name="port-configured-speed", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Provide the configured speed of the port.'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='string', is_config=True) self.__port_trunk_master = YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..4294967295']}, int_size=32), is_leaf=True, yang_name="port-trunk-master", rest_name="port-trunk-master", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Provides the Fibre Channel port trunk\nmaster information'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='uint32', is_config=True) self.__port_status_message = YANGDynClass(base=unicode, is_leaf=True, yang_name="port-status-message", rest_name="port-status-message", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Provides the Fibre Channel port status\nmessages'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='string', is_config=True) load = kwargs.pop("load", None) if args: if len(args) > 1: raise TypeError("cannot create a YANG container with >1 argument") all_attr = True for e in self._pyangbind_elements: if not hasattr(args[0], e): all_attr = False break if not all_attr: raise ValueError("Supplied object did not have the correct attributes") for e in self._pyangbind_elements: nobj = getattr(args[0], e) if nobj._changed() is False: continue setmethod = getattr(self, "_set_%s" % e) if load is None: setmethod(getattr(args[0], e)) else: setmethod(getattr(args[0], e), load=load) def _path(self): if hasattr(self, "_parent"): return self._parent._path()+[self._yang_name] else: return [u'brocade_fabric_service_rpc', u'show-fibrechannel-interface-info', u'output', u'show-fibrechannel-interface', u'show-fibrechannel-info'] def _rest_path(self): if hasattr(self, "_parent"): if self._rest_name: return self._parent._rest_path()+[self._rest_name] else: return self._parent._rest_path() else: return [u'show-fibrechannel-interface-info', u'output', u'show-fibrechannel-interface', u'show-fibrechannel-info'] def _get_port_interface(self): """ Getter method for port_interface, mapped from YANG variable /brocade_fabric_service_rpc/show_fibrechannel_interface_info/output/show_fibrechannel_interface/show_fibrechannel_info/port_interface (interface:interface-type) YANG Description: The Fibre Channel port interface. It is represented in the format rbridge-id/slot/port. """ return self.__port_interface def _set_port_interface(self, v, load=False): """ Setter method for port_interface, mapped from YANG variable /brocade_fabric_service_rpc/show_fibrechannel_interface_info/output/show_fibrechannel_interface/show_fibrechannel_info/port_interface (interface:interface-type) If this variable is read-only (config: false) in the source YANG file, then _set_port_interface is considered as a private method. Backends looking to populate this variable should do so via calling thisObj._set_port_interface() directly. YANG Description: The Fibre Channel port interface. It is represented in the format rbridge-id/slot/port. """ if hasattr(v, "_utype"): v = v._utype(v) try: t = YANGDynClass(v,base=RestrictedClassType(base_type=unicode, restriction_dict={'pattern': u'((([0-9]|[1][0-6]))/([1-9]|[1-9][0-9]|[1-9][0-9][0-9])(:[1-4])?)', 'length': [u'3..16']}), is_leaf=True, yang_name="port-interface", rest_name="port-interface", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'The Fibre Channel port\nInterface[rbridge-id/slot/port]'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='interface:interface-type', is_config=True) except (TypeError, ValueError): raise ValueError({ 'error-string': """port_interface must be of a type compatible with interface:interface-type""", 'defined-type': "interface:interface-type", 'generated-type': """YANGDynClass(base=RestrictedClassType(base_type=unicode, restriction_dict={'pattern': u'((([0-9]|[1][0-6]))/([1-9]|[1-9][0-9]|[1-9][0-9][0-9])(:[1-4])?)', 'length': [u'3..16']}), is_leaf=True, yang_name="port-interface", rest_name="port-interface", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'The Fibre Channel port\nInterface[rbridge-id/slot/port]'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='interface:interface-type', is_config=True)""", }) self.__port_interface = t if hasattr(self, '_set'): self._set() def _unset_port_interface(self): self.__port_interface = YANGDynClass(base=RestrictedClassType(base_type=unicode, restriction_dict={'pattern': u'((([0-9]|[1][0-6]))/([1-9]|[1-9][0-9]|[1-9][0-9][0-9])(:[1-4])?)', 'length': [u'3..16']}), is_leaf=True, yang_name="port-interface", rest_name="port-interface", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'The Fibre Channel port\nInterface[rbridge-id/slot/port]'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='interface:interface-type', is_config=True) def _get_port_index(self): """ Getter method for port_index, mapped from YANG variable /brocade_fabric_service_rpc/show_fibrechannel_interface_info/output/show_fibrechannel_interface/show_fibrechannel_info/port_index (uint32) YANG Description: The Fibre Channel port index of the RBridge. """ return self.__port_index def _set_port_index(self, v, load=False): """ Setter method for port_index, mapped from YANG variable /brocade_fabric_service_rpc/show_fibrechannel_interface_info/output/show_fibrechannel_interface/show_fibrechannel_info/port_index (uint32) If this variable is read-only (config: false) in the source YANG file, then _set_port_index is considered as a private method. Backends looking to populate this variable should do so via calling thisObj._set_port_index() directly. YANG Description: The Fibre Channel port index of the RBridge. """ parent = getattr(self, "_parent", None) if parent is not None and load is False: raise AttributeError("Cannot set keys directly when" + " within an instantiated list") if hasattr(v, "_utype"): v = v._utype(v) try: t = YANGDynClass(v,base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..4294967295']}, int_size=32), is_leaf=True, yang_name="port-index", rest_name="port-index", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'The Fibre Channel port index'}}, is_keyval=True, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='uint32', is_config=True) except (TypeError, ValueError): raise ValueError({ 'error-string': """port_index must be of a type compatible with uint32""", 'defined-type': "uint32", 'generated-type': """YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..4294967295']}, int_size=32), is_leaf=True, yang_name="port-index", rest_name="port-index", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'The Fibre Channel port index'}}, is_keyval=True, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='uint32', is_config=True)""", }) self.__port_index = t if hasattr(self, '_set'): self._set() def _unset_port_index(self): self.__port_index = YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..4294967295']}, int_size=32), is_leaf=True, yang_name="port-index", rest_name="port-index", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'The Fibre Channel port index'}}, is_keyval=True, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='uint32', is_config=True) def _get_port_type(self): """ Getter method for port_type, mapped from YANG variable /brocade_fabric_service_rpc/show_fibrechannel_interface_info/output/show_fibrechannel_interface/show_fibrechannel_info/port_type (porttype-type) """ return self.__port_type def _set_port_type(self, v, load=False): """ Setter method for port_type, mapped from YANG variable /brocade_fabric_service_rpc/show_fibrechannel_interface_info/output/show_fibrechannel_interface/show_fibrechannel_info/port_type (porttype-type) If this variable is read-only (config: false) in the source YANG file, then _set_port_type is considered as a private method. Backends looking to populate this variable should do so via calling thisObj._set_port_type() directly. """ if hasattr(v, "_utype"): v = v._utype(v) try: t = YANGDynClass(v,base=RestrictedClassType(base_type=unicode, restriction_dict={'pattern': u'E-Port|U-Port|G-Port|F-Port', 'length': [u'6']}), is_leaf=True, yang_name="port-type", rest_name="port-type", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Fibre Channel port type'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='porttype-type', is_config=True) except (TypeError, ValueError): raise ValueError({ 'error-string': """port_type must be of a type compatible with porttype-type""", 'defined-type': "brocade-fabric-service:porttype-type", 'generated-type': """YANGDynClass(base=RestrictedClassType(base_type=unicode, restriction_dict={'pattern': u'E-Port|U-Port|G-Port|F-Port', 'length': [u'6']}), is_leaf=True, yang_name="port-type", rest_name="port-type", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Fibre Channel port type'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='porttype-type', is_config=True)""", }) self.__port_type = t if hasattr(self, '_set'): self._set() def _unset_port_type(self): self.__port_type = YANGDynClass(base=RestrictedClassType(base_type=unicode, restriction_dict={'pattern': u'E-Port|U-Port|G-Port|F-Port', 'length': [u'6']}), is_leaf=True, yang_name="port-type", rest_name="port-type", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Fibre Channel port type'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='porttype-type', is_config=True) def _get_port_wwn(self): """ Getter method for port_wwn, mapped from YANG variable /brocade_fabric_service_rpc/show_fibrechannel_interface_info/output/show_fibrechannel_interface/show_fibrechannel_info/port_wwn (common-def:wwn-type) YANG Description: Local Fibre Channel port WWN. """ return self.__port_wwn def _set_port_wwn(self, v, load=False): """ Setter method for port_wwn, mapped from YANG variable /brocade_fabric_service_rpc/show_fibrechannel_interface_info/output/show_fibrechannel_interface/show_fibrechannel_info/port_wwn (common-def:wwn-type) If this variable is read-only (config: false) in the source YANG file, then _set_port_wwn is considered as a private method. Backends looking to populate this variable should do so via calling thisObj._set_port_wwn() directly. YANG Description: Local Fibre Channel port WWN. """ if hasattr(v, "_utype"): v = v._utype(v) try: t = YANGDynClass(v,base=RestrictedClassType(base_type=unicode, restriction_dict={'pattern': u'[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]'}), is_leaf=True, yang_name="port-wwn", rest_name="port-wwn", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Local Fibre Channel port WWN'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='common-def:wwn-type', is_config=True) except (TypeError, ValueError): raise ValueError({ 'error-string': """port_wwn must be of a type compatible with common-def:wwn-type""", 'defined-type': "common-def:wwn-type", 'generated-type': """YANGDynClass(base=RestrictedClassType(base_type=unicode, restriction_dict={'pattern': u'[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]'}), is_leaf=True, yang_name="port-wwn", rest_name="port-wwn", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Local Fibre Channel port WWN'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='common-def:wwn-type', is_config=True)""", }) self.__port_wwn = t if hasattr(self, '_set'): self._set() def _unset_port_wwn(self): self.__port_wwn = YANGDynClass(base=RestrictedClassType(base_type=unicode, restriction_dict={'pattern': u'[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]'}), is_leaf=True, yang_name="port-wwn", rest_name="port-wwn", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Local Fibre Channel port WWN'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='common-def:wwn-type', is_config=True) def _get_remote_port_wwn(self): """ Getter method for remote_port_wwn, mapped from YANG variable /brocade_fabric_service_rpc/show_fibrechannel_interface_info/output/show_fibrechannel_interface/show_fibrechannel_info/remote_port_wwn (common-def:wwn-type) YANG Description: WWN of the remote port that connects to this Fibre Channel port. """ return self.__remote_port_wwn def _set_remote_port_wwn(self, v, load=False): """ Setter method for remote_port_wwn, mapped from YANG variable /brocade_fabric_service_rpc/show_fibrechannel_interface_info/output/show_fibrechannel_interface/show_fibrechannel_info/remote_port_wwn (common-def:wwn-type) If this variable is read-only (config: false) in the source YANG file, then _set_remote_port_wwn is considered as a private method. Backends looking to populate this variable should do so via calling thisObj._set_remote_port_wwn() directly. YANG Description: WWN of the remote port that connects to this Fibre Channel port. """ if hasattr(v, "_utype"): v = v._utype(v) try: t = YANGDynClass(v,base=RestrictedClassType(base_type=unicode, restriction_dict={'pattern': u'[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]'}), is_leaf=True, yang_name="remote-port-wwn", rest_name="remote-port-wwn", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Fibre Channel port remotePort WWN'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='common-def:wwn-type', is_config=True) except (TypeError, ValueError): raise ValueError({ 'error-string': """remote_port_wwn must be of a type compatible with common-def:wwn-type""", 'defined-type': "common-def:wwn-type", 'generated-type': """YANGDynClass(base=RestrictedClassType(base_type=unicode, restriction_dict={'pattern': u'[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]'}), is_leaf=True, yang_name="remote-port-wwn", rest_name="remote-port-wwn", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Fibre Channel port remotePort WWN'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='common-def:wwn-type', is_config=True)""", }) self.__remote_port_wwn = t if hasattr(self, '_set'): self._set() def _unset_remote_port_wwn(self): self.__remote_port_wwn = YANGDynClass(base=RestrictedClassType(base_type=unicode, restriction_dict={'pattern': u'[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]'}), is_leaf=True, yang_name="remote-port-wwn", rest_name="remote-port-wwn", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Fibre Channel port remotePort WWN'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='common-def:wwn-type', is_config=True) def _get_remote_node_wwn(self): """ Getter method for remote_node_wwn, mapped from YANG variable /brocade_fabric_service_rpc/show_fibrechannel_interface_info/output/show_fibrechannel_interface/show_fibrechannel_info/remote_node_wwn (common-def:wwn-type) YANG Description: WWN of the remote switch that connects to this Fibre Channel port. """ return self.__remote_node_wwn def _set_remote_node_wwn(self, v, load=False): """ Setter method for remote_node_wwn, mapped from YANG variable /brocade_fabric_service_rpc/show_fibrechannel_interface_info/output/show_fibrechannel_interface/show_fibrechannel_info/remote_node_wwn (common-def:wwn-type) If this variable is read-only (config: false) in the source YANG file, then _set_remote_node_wwn is considered as a private method. Backends looking to populate this variable should do so via calling thisObj._set_remote_node_wwn() directly. YANG Description: WWN of the remote switch that connects to this Fibre Channel port. """ if hasattr(v, "_utype"): v = v._utype(v) try: t = YANGDynClass(v,base=RestrictedClassType(base_type=unicode, restriction_dict={'pattern': u'[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]'}), is_leaf=True, yang_name="remote-node-wwn", rest_name="remote-node-wwn", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Fibre Channel ports remoteNode WWN'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='common-def:wwn-type', is_config=True) except (TypeError, ValueError): raise ValueError({ 'error-string': """remote_node_wwn must be of a type compatible with common-def:wwn-type""", 'defined-type': "common-def:wwn-type", 'generated-type': """YANGDynClass(base=RestrictedClassType(base_type=unicode, restriction_dict={'pattern': u'[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]'}), is_leaf=True, yang_name="remote-node-wwn", rest_name="remote-node-wwn", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Fibre Channel ports remoteNode WWN'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='common-def:wwn-type', is_config=True)""", }) self.__remote_node_wwn = t if hasattr(self, '_set'): self._set() def _unset_remote_node_wwn(self): self.__remote_node_wwn = YANGDynClass(base=RestrictedClassType(base_type=unicode, restriction_dict={'pattern': u'[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]:[0-9a-fA-F][0-9a-fA-F]'}), is_leaf=True, yang_name="remote-node-wwn", rest_name="remote-node-wwn", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Fibre Channel ports remoteNode WWN'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='common-def:wwn-type', is_config=True) def _get_port_state(self): """ Getter method for port_state, mapped from YANG variable /brocade_fabric_service_rpc/show_fibrechannel_interface_info/output/show_fibrechannel_interface/show_fibrechannel_info/port_state (string) YANG Description: This specifies the Fibre Channel port State. The state can be Online or Offline. """ return self.__port_state def _set_port_state(self, v, load=False): """ Setter method for port_state, mapped from YANG variable /brocade_fabric_service_rpc/show_fibrechannel_interface_info/output/show_fibrechannel_interface/show_fibrechannel_info/port_state (string) If this variable is read-only (config: false) in the source YANG file, then _set_port_state is considered as a private method. Backends looking to populate this variable should do so via calling thisObj._set_port_state() directly. YANG Description: This specifies the Fibre Channel port State. The state can be Online or Offline. """ if hasattr(v, "_utype"): v = v._utype(v) try: t = YANGDynClass(v,base=unicode, is_leaf=True, yang_name="port-state", rest_name="port-state", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Fibre Channel port State -\nOnline/Offline'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='string', is_config=True) except (TypeError, ValueError): raise ValueError({ 'error-string': """port_state must be of a type compatible with string""", 'defined-type': "string", 'generated-type': """YANGDynClass(base=unicode, is_leaf=True, yang_name="port-state", rest_name="port-state", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Fibre Channel port State -\nOnline/Offline'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='string', is_config=True)""", }) self.__port_state = t if hasattr(self, '_set'): self._set() def _unset_port_state(self): self.__port_state = YANGDynClass(base=unicode, is_leaf=True, yang_name="port-state", rest_name="port-state", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Fibre Channel port State -\nOnline/Offline'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='string', is_config=True) def _get_port_status(self): """ Getter method for port_status, mapped from YANG variable /brocade_fabric_service_rpc/show_fibrechannel_interface_info/output/show_fibrechannel_interface/show_fibrechannel_info/port_status (string) YANG Description: Provides the Fibre Channel port status. The Fibre Channel port status can be Online, No Module, No Light, In Sync, No Sync etc. """ return self.__port_status def _set_port_status(self, v, load=False): """ Setter method for port_status, mapped from YANG variable /brocade_fabric_service_rpc/show_fibrechannel_interface_info/output/show_fibrechannel_interface/show_fibrechannel_info/port_status (string) If this variable is read-only (config: false) in the source YANG file, then _set_port_status is considered as a private method. Backends looking to populate this variable should do so via calling thisObj._set_port_status() directly. YANG Description: Provides the Fibre Channel port status. The Fibre Channel port status can be Online, No Module, No Light, In Sync, No Sync etc. """ if hasattr(v, "_utype"): v = v._utype(v) try: t = YANGDynClass(v,base=unicode, is_leaf=True, yang_name="port-status", rest_name="port-status", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Fibre Channel port Status -\nOnline/No_Module/No_Light/Disabled\nIn_Sync/No_Sync'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='string', is_config=True) except (TypeError, ValueError): raise ValueError({ 'error-string': """port_status must be of a type compatible with string""", 'defined-type': "string", 'generated-type': """YANGDynClass(base=unicode, is_leaf=True, yang_name="port-status", rest_name="port-status", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Fibre Channel port Status -\nOnline/No_Module/No_Light/Disabled\nIn_Sync/No_Sync'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='string', is_config=True)""", }) self.__port_status = t if hasattr(self, '_set'): self._set() def _unset_port_status(self): self.__port_status = YANGDynClass(base=unicode, is_leaf=True, yang_name="port-status", rest_name="port-status", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Fibre Channel port Status -\nOnline/No_Module/No_Light/Disabled\nIn_Sync/No_Sync'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='string', is_config=True) def _get_port_status_message(self): """ Getter method for port_status_message, mapped from YANG variable /brocade_fabric_service_rpc/show_fibrechannel_interface_info/output/show_fibrechannel_interface/show_fibrechannel_info/port_status_message (string) YANG Description: Provides the Fibre Channel port status messages. It consists of messages like down stream, trunk port, trunk master etc. """ return self.__port_status_message def _set_port_status_message(self, v, load=False): """ Setter method for port_status_message, mapped from YANG variable /brocade_fabric_service_rpc/show_fibrechannel_interface_info/output/show_fibrechannel_interface/show_fibrechannel_info/port_status_message (string) If this variable is read-only (config: false) in the source YANG file, then _set_port_status_message is considered as a private method. Backends looking to populate this variable should do so via calling thisObj._set_port_status_message() directly. YANG Description: Provides the Fibre Channel port status messages. It consists of messages like down stream, trunk port, trunk master etc. """ if hasattr(v, "_utype"): v = v._utype(v) try: t = YANGDynClass(v,base=unicode, is_leaf=True, yang_name="port-status-message", rest_name="port-status-message", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Provides the Fibre Channel port status\nmessages'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='string', is_config=True) except (TypeError, ValueError): raise ValueError({ 'error-string': """port_status_message must be of a type compatible with string""", 'defined-type': "string", 'generated-type': """YANGDynClass(base=unicode, is_leaf=True, yang_name="port-status-message", rest_name="port-status-message", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Provides the Fibre Channel port status\nmessages'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='string', is_config=True)""", }) self.__port_status_message = t if hasattr(self, '_set'): self._set() def _unset_port_status_message(self): self.__port_status_message = YANGDynClass(base=unicode, is_leaf=True, yang_name="port-status-message", rest_name="port-status-message", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Provides the Fibre Channel port status\nmessages'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='string', is_config=True) def _get_port_health(self): """ Getter method for port_health, mapped from YANG variable /brocade_fabric_service_rpc/show_fibrechannel_interface_info/output/show_fibrechannel_interface/show_fibrechannel_info/port_health (string) YANG Description: Provides the Fibre Channel port health information. It consists of information like fabric watch licence details, etc. """ return self.__port_health def _set_port_health(self, v, load=False): """ Setter method for port_health, mapped from YANG variable /brocade_fabric_service_rpc/show_fibrechannel_interface_info/output/show_fibrechannel_interface/show_fibrechannel_info/port_health (string) If this variable is read-only (config: false) in the source YANG file, then _set_port_health is considered as a private method. Backends looking to populate this variable should do so via calling thisObj._set_port_health() directly. YANG Description: Provides the Fibre Channel port health information. It consists of information like fabric watch licence details, etc. """ if hasattr(v, "_utype"): v = v._utype(v) try: t = YANGDynClass(v,base=unicode, is_leaf=True, yang_name="port-health", rest_name="port-health", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Provides the Fibre Channel port health\ninformation'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='string', is_config=True) except (TypeError, ValueError): raise ValueError({ 'error-string': """port_health must be of a type compatible with string""", 'defined-type': "string", 'generated-type': """YANGDynClass(base=unicode, is_leaf=True, yang_name="port-health", rest_name="port-health", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Provides the Fibre Channel port health\ninformation'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='string', is_config=True)""", }) self.__port_health = t if hasattr(self, '_set'): self._set() def _unset_port_health(self): self.__port_health = YANGDynClass(base=unicode, is_leaf=True, yang_name="port-health", rest_name="port-health", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Provides the Fibre Channel port health\ninformation'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='string', is_config=True) def _get_port_trunked(self): """ Getter method for port_trunked, mapped from YANG variable /brocade_fabric_service_rpc/show_fibrechannel_interface_info/output/show_fibrechannel_interface/show_fibrechannel_info/port_trunked (boolean) YANG Description: Provides the Fibre Channel port trunk information. This parameter is set to 'true' for trunked ports and 'false' for non trunked ports. """ return self.__port_trunked def _set_port_trunked(self, v, load=False): """ Setter method for port_trunked, mapped from YANG variable /brocade_fabric_service_rpc/show_fibrechannel_interface_info/output/show_fibrechannel_interface/show_fibrechannel_info/port_trunked (boolean) If this variable is read-only (config: false) in the source YANG file, then _set_port_trunked is considered as a private method. Backends looking to populate this variable should do so via calling thisObj._set_port_trunked() directly. YANG Description: Provides the Fibre Channel port trunk information. This parameter is set to 'true' for trunked ports and 'false' for non trunked ports. """ if hasattr(v, "_utype"): v = v._utype(v) try: t = YANGDynClass(v,base=YANGBool, is_leaf=True, yang_name="port-trunked", rest_name="port-trunked", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Provides the Fibre Channel port trunk\ninformation'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='boolean', is_config=True) except (TypeError, ValueError): raise ValueError({ 'error-string': """port_trunked must be of a type compatible with boolean""", 'defined-type': "boolean", 'generated-type': """YANGDynClass(base=YANGBool, is_leaf=True, yang_name="port-trunked", rest_name="port-trunked", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Provides the Fibre Channel port trunk\ninformation'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='boolean', is_config=True)""", }) self.__port_trunked = t if hasattr(self, '_set'): self._set() def _unset_port_trunked(self): self.__port_trunked = YANGDynClass(base=YANGBool, is_leaf=True, yang_name="port-trunked", rest_name="port-trunked", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Provides the Fibre Channel port trunk\ninformation'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='boolean', is_config=True) def _get_port_trunk_master(self): """ Getter method for port_trunk_master, mapped from YANG variable /brocade_fabric_service_rpc/show_fibrechannel_interface_info/output/show_fibrechannel_interface/show_fibrechannel_info/port_trunk_master (uint32) YANG Description: Provides the Fibre Channel port trunk master information. This parameter value is set to '1' for trunk master and '0' for slave ports. """ return self.__port_trunk_master def _set_port_trunk_master(self, v, load=False): """ Setter method for port_trunk_master, mapped from YANG variable /brocade_fabric_service_rpc/show_fibrechannel_interface_info/output/show_fibrechannel_interface/show_fibrechannel_info/port_trunk_master (uint32) If this variable is read-only (config: false) in the source YANG file, then _set_port_trunk_master is considered as a private method. Backends looking to populate this variable should do so via calling thisObj._set_port_trunk_master() directly. YANG Description: Provides the Fibre Channel port trunk master information. This parameter value is set to '1' for trunk master and '0' for slave ports. """ if hasattr(v, "_utype"): v = v._utype(v) try: t = YANGDynClass(v,base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..4294967295']}, int_size=32), is_leaf=True, yang_name="port-trunk-master", rest_name="port-trunk-master", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Provides the Fibre Channel port trunk\nmaster information'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='uint32', is_config=True) except (TypeError, ValueError): raise ValueError({ 'error-string': """port_trunk_master must be of a type compatible with uint32""", 'defined-type': "uint32", 'generated-type': """YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..4294967295']}, int_size=32), is_leaf=True, yang_name="port-trunk-master", rest_name="port-trunk-master", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Provides the Fibre Channel port trunk\nmaster information'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='uint32', is_config=True)""", }) self.__port_trunk_master = t if hasattr(self, '_set'): self._set() def _unset_port_trunk_master(self): self.__port_trunk_master = YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..4294967295']}, int_size=32), is_leaf=True, yang_name="port-trunk-master", rest_name="port-trunk-master", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Provides the Fibre Channel port trunk\nmaster information'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='uint32', is_config=True) def _get_port_actual_distance(self): """ Getter method for port_actual_distance, mapped from YANG variable /brocade_fabric_service_rpc/show_fibrechannel_interface_info/output/show_fibrechannel_interface/show_fibrechannel_info/port_actual_distance (uint32) YANG Description: Provides the Fibre Channel port Actual Distance Information. """ return self.__port_actual_distance def _set_port_actual_distance(self, v, load=False): """ Setter method for port_actual_distance, mapped from YANG variable /brocade_fabric_service_rpc/show_fibrechannel_interface_info/output/show_fibrechannel_interface/show_fibrechannel_info/port_actual_distance (uint32) If this variable is read-only (config: false) in the source YANG file, then _set_port_actual_distance is considered as a private method. Backends looking to populate this variable should do so via calling thisObj._set_port_actual_distance() directly. YANG Description: Provides the Fibre Channel port Actual Distance Information. """ if hasattr(v, "_utype"): v = v._utype(v) try: t = YANGDynClass(v,base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..4294967295']}, int_size=32), is_leaf=True, yang_name="port-actual-distance", rest_name="port-actual-distance", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Provides the Fibre Channel port Actual\nDistance Information'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='uint32', is_config=True) except (TypeError, ValueError): raise ValueError({ 'error-string': """port_actual_distance must be of a type compatible with uint32""", 'defined-type': "uint32", 'generated-type': """YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..4294967295']}, int_size=32), is_leaf=True, yang_name="port-actual-distance", rest_name="port-actual-distance", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Provides the Fibre Channel port Actual\nDistance Information'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='uint32', is_config=True)""", }) self.__port_actual_distance = t if hasattr(self, '_set'): self._set() def _unset_port_actual_distance(self): self.__port_actual_distance = YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..4294967295']}, int_size=32), is_leaf=True, yang_name="port-actual-distance", rest_name="port-actual-distance", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Provides the Fibre Channel port Actual\nDistance Information'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='uint32', is_config=True) def _get_port_desired_credit(self): """ Getter method for port_desired_credit, mapped from YANG variable /brocade_fabric_service_rpc/show_fibrechannel_interface_info/output/show_fibrechannel_interface/show_fibrechannel_info/port_desired_credit (uint32) YANG Description: Provides the Fibre Channel port Desired Credit Information. """ return self.__port_desired_credit def _set_port_desired_credit(self, v, load=False): """ Setter method for port_desired_credit, mapped from YANG variable /brocade_fabric_service_rpc/show_fibrechannel_interface_info/output/show_fibrechannel_interface/show_fibrechannel_info/port_desired_credit (uint32) If this variable is read-only (config: false) in the source YANG file, then _set_port_desired_credit is considered as a private method. Backends looking to populate this variable should do so via calling thisObj._set_port_desired_credit() directly. YANG Description: Provides the Fibre Channel port Desired Credit Information. """ if hasattr(v, "_utype"): v = v._utype(v) try: t = YANGDynClass(v,base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..4294967295']}, int_size=32), is_leaf=True, yang_name="port-desired-credit", rest_name="port-desired-credit", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Provides Fibre Channel port Desired Credit\nInformation'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='uint32', is_config=True) except (TypeError, ValueError): raise ValueError({ 'error-string': """port_desired_credit must be of a type compatible with uint32""", 'defined-type': "uint32", 'generated-type': """YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..4294967295']}, int_size=32), is_leaf=True, yang_name="port-desired-credit", rest_name="port-desired-credit", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Provides Fibre Channel port Desired Credit\nInformation'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='uint32', is_config=True)""", }) self.__port_desired_credit = t if hasattr(self, '_set'): self._set() def _unset_port_desired_credit(self): self.__port_desired_credit = YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..4294967295']}, int_size=32), is_leaf=True, yang_name="port-desired-credit", rest_name="port-desired-credit", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Provides Fibre Channel port Desired Credit\nInformation'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='uint32', is_config=True) def _get_port_buffer_allocated(self): """ Getter method for port_buffer_allocated, mapped from YANG variable /brocade_fabric_service_rpc/show_fibrechannel_interface_info/output/show_fibrechannel_interface/show_fibrechannel_info/port_buffer_allocated (uint32) YANG Description: Provides the Fibre Channel port Buffer Allocation. """ return self.__port_buffer_allocated def _set_port_buffer_allocated(self, v, load=False): """ Setter method for port_buffer_allocated, mapped from YANG variable /brocade_fabric_service_rpc/show_fibrechannel_interface_info/output/show_fibrechannel_interface/show_fibrechannel_info/port_buffer_allocated (uint32) If this variable is read-only (config: false) in the source YANG file, then _set_port_buffer_allocated is considered as a private method. Backends looking to populate this variable should do so via calling thisObj._set_port_buffer_allocated() directly. YANG Description: Provides the Fibre Channel port Buffer Allocation. """ if hasattr(v, "_utype"): v = v._utype(v) try: t = YANGDynClass(v,base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..4294967295']}, int_size=32), is_leaf=True, yang_name="port-buffer-allocated", rest_name="port-buffer-allocated", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Provides the Fibre Channel port Buffer\nAllocation'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='uint32', is_config=True) except (TypeError, ValueError): raise ValueError({ 'error-string': """port_buffer_allocated must be of a type compatible with uint32""", 'defined-type': "uint32", 'generated-type': """YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..4294967295']}, int_size=32), is_leaf=True, yang_name="port-buffer-allocated", rest_name="port-buffer-allocated", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Provides the Fibre Channel port Buffer\nAllocation'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='uint32', is_config=True)""", }) self.__port_buffer_allocated = t if hasattr(self, '_set'): self._set() def _unset_port_buffer_allocated(self): self.__port_buffer_allocated = YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..4294967295']}, int_size=32), is_leaf=True, yang_name="port-buffer-allocated", rest_name="port-buffer-allocated", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Provides the Fibre Channel port Buffer\nAllocation'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='uint32', is_config=True) def _get_port_licensed(self): """ Getter method for port_licensed, mapped from YANG variable /brocade_fabric_service_rpc/show_fibrechannel_interface_info/output/show_fibrechannel_interface/show_fibrechannel_info/port_licensed (boolean) YANG Description: Indicates if the port is licensed or not. This is set to 'true' for licenced ports and 'false' for non licenced ports. """ return self.__port_licensed def _set_port_licensed(self, v, load=False): """ Setter method for port_licensed, mapped from YANG variable /brocade_fabric_service_rpc/show_fibrechannel_interface_info/output/show_fibrechannel_interface/show_fibrechannel_info/port_licensed (boolean) If this variable is read-only (config: false) in the source YANG file, then _set_port_licensed is considered as a private method. Backends looking to populate this variable should do so via calling thisObj._set_port_licensed() directly. YANG Description: Indicates if the port is licensed or not. This is set to 'true' for licenced ports and 'false' for non licenced ports. """ if hasattr(v, "_utype"): v = v._utype(v) try: t = YANGDynClass(v,base=YANGBool, is_leaf=True, yang_name="port-licensed", rest_name="port-licensed", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Provides if the port is\nlicensed or not. Set to TRUE\nfor licenced ports'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='boolean', is_config=True) except (TypeError, ValueError): raise ValueError({ 'error-string': """port_licensed must be of a type compatible with boolean""", 'defined-type': "boolean", 'generated-type': """YANGDynClass(base=YANGBool, is_leaf=True, yang_name="port-licensed", rest_name="port-licensed", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Provides if the port is\nlicensed or not. Set to TRUE\nfor licenced ports'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='boolean', is_config=True)""", }) self.__port_licensed = t if hasattr(self, '_set'): self._set() def _unset_port_licensed(self): self.__port_licensed = YANGDynClass(base=YANGBool, is_leaf=True, yang_name="port-licensed", rest_name="port-licensed", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Provides if the port is\nlicensed or not. Set to TRUE\nfor licenced ports'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='boolean', is_config=True) def _get_port_address(self): """ Getter method for port_address, mapped from YANG variable /brocade_fabric_service_rpc/show_fibrechannel_interface_info/output/show_fibrechannel_interface/show_fibrechannel_info/port_address (fabric-portid-type) YANG Description: Fibre Channel address (24 bit address PID). Uses hexadecimal format. """ return self.__port_address def _set_port_address(self, v, load=False): """ Setter method for port_address, mapped from YANG variable /brocade_fabric_service_rpc/show_fibrechannel_interface_info/output/show_fibrechannel_interface/show_fibrechannel_info/port_address (fabric-portid-type) If this variable is read-only (config: false) in the source YANG file, then _set_port_address is considered as a private method. Backends looking to populate this variable should do so via calling thisObj._set_port_address() directly. YANG Description: Fibre Channel address (24 bit address PID). Uses hexadecimal format. """ if hasattr(v, "_utype"): v = v._utype(v) try: t = YANGDynClass(v,base=RestrictedClassType(base_type=unicode, restriction_dict={'pattern': u'[0-9a-fA-F]*', 'length': [u'6']}), is_leaf=True, yang_name="port-address", rest_name="port-address", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'24 bit PID of a port'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='fabric-portid-type', is_config=True) except (TypeError, ValueError): raise ValueError({ 'error-string': """port_address must be of a type compatible with fabric-portid-type""", 'defined-type': "brocade-fabric-service:fabric-portid-type", 'generated-type': """YANGDynClass(base=RestrictedClassType(base_type=unicode, restriction_dict={'pattern': u'[0-9a-fA-F]*', 'length': [u'6']}), is_leaf=True, yang_name="port-address", rest_name="port-address", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'24 bit PID of a port'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='fabric-portid-type', is_config=True)""", }) self.__port_address = t if hasattr(self, '_set'): self._set() def _unset_port_address(self): self.__port_address = YANGDynClass(base=RestrictedClassType(base_type=unicode, restriction_dict={'pattern': u'[0-9a-fA-F]*', 'length': [u'6']}), is_leaf=True, yang_name="port-address", rest_name="port-address", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'24 bit PID of a port'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='fabric-portid-type', is_config=True) def _get_port_fec(self): """ Getter method for port_fec, mapped from YANG variable /brocade_fabric_service_rpc/show_fibrechannel_interface_info/output/show_fibrechannel_interface/show_fibrechannel_info/port_fec (string) YANG Description: Provide port FEC operational status of a port. Active - When FEC enabled and operational on a port. Inactive - When FEC is not operational on a port. Not Supported - When the platform doesn't support FEC feature. """ return self.__port_fec def _set_port_fec(self, v, load=False): """ Setter method for port_fec, mapped from YANG variable /brocade_fabric_service_rpc/show_fibrechannel_interface_info/output/show_fibrechannel_interface/show_fibrechannel_info/port_fec (string) If this variable is read-only (config: false) in the source YANG file, then _set_port_fec is considered as a private method. Backends looking to populate this variable should do so via calling thisObj._set_port_fec() directly. YANG Description: Provide port FEC operational status of a port. Active - When FEC enabled and operational on a port. Inactive - When FEC is not operational on a port. Not Supported - When the platform doesn't support FEC feature. """ if hasattr(v, "_utype"): v = v._utype(v) try: t = YANGDynClass(v,base=unicode, is_leaf=True, yang_name="port-fec", rest_name="port-fec", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Provide FEC operational status on a port'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='string', is_config=True) except (TypeError, ValueError): raise ValueError({ 'error-string': """port_fec must be of a type compatible with string""", 'defined-type': "string", 'generated-type': """YANGDynClass(base=unicode, is_leaf=True, yang_name="port-fec", rest_name="port-fec", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Provide FEC operational status on a port'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='string', is_config=True)""", }) self.__port_fec = t if hasattr(self, '_set'): self._set() def _unset_port_fec(self): self.__port_fec = YANGDynClass(base=unicode, is_leaf=True, yang_name="port-fec", rest_name="port-fec", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Provide FEC operational status on a port'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='string', is_config=True) def _get_port_configured_speed(self): """ Getter method for port_configured_speed, mapped from YANG variable /brocade_fabric_service_rpc/show_fibrechannel_interface_info/output/show_fibrechannel_interface/show_fibrechannel_info/port_configured_speed (string) YANG Description: Provides the Fibre Channel port Configured Speed Information. """ return self.__port_configured_speed def _set_port_configured_speed(self, v, load=False): """ Setter method for port_configured_speed, mapped from YANG variable /brocade_fabric_service_rpc/show_fibrechannel_interface_info/output/show_fibrechannel_interface/show_fibrechannel_info/port_configured_speed (string) If this variable is read-only (config: false) in the source YANG file, then _set_port_configured_speed is considered as a private method. Backends looking to populate this variable should do so via calling thisObj._set_port_configured_speed() directly. YANG Description: Provides the Fibre Channel port Configured Speed Information. """ if hasattr(v, "_utype"): v = v._utype(v) try: t = YANGDynClass(v,base=unicode, is_leaf=True, yang_name="port-configured-speed", rest_name="port-configured-speed", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Provide the configured speed of the port.'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='string', is_config=True) except (TypeError, ValueError): raise ValueError({ 'error-string': """port_configured_speed must be of a type compatible with string""", 'defined-type': "string", 'generated-type': """YANGDynClass(base=unicode, is_leaf=True, yang_name="port-configured-speed", rest_name="port-configured-speed", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Provide the configured speed of the port.'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='string', is_config=True)""", }) self.__port_configured_speed = t if hasattr(self, '_set'): self._set() def _unset_port_configured_speed(self): self.__port_configured_speed = YANGDynClass(base=unicode, is_leaf=True, yang_name="port-configured-speed", rest_name="port-configured-speed", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Provide the configured speed of the port.'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='string', is_config=True) def _get_port_actual_speed(self): """ Getter method for port_actual_speed, mapped from YANG variable /brocade_fabric_service_rpc/show_fibrechannel_interface_info/output/show_fibrechannel_interface/show_fibrechannel_info/port_actual_speed (string) YANG Description: Provides the Fibre Channel port Actual speed Information. """ return self.__port_actual_speed def _set_port_actual_speed(self, v, load=False): """ Setter method for port_actual_speed, mapped from YANG variable /brocade_fabric_service_rpc/show_fibrechannel_interface_info/output/show_fibrechannel_interface/show_fibrechannel_info/port_actual_speed (string) If this variable is read-only (config: false) in the source YANG file, then _set_port_actual_speed is considered as a private method. Backends looking to populate this variable should do so via calling thisObj._set_port_actual_speed() directly. YANG Description: Provides the Fibre Channel port Actual speed Information. """ if hasattr(v, "_utype"): v = v._utype(v) try: t = YANGDynClass(v,base=unicode, is_leaf=True, yang_name="port-actual-speed", rest_name="port-actual-speed", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Provide the actual speed of the port.'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='string', is_config=True) except (TypeError, ValueError): raise ValueError({ 'error-string': """port_actual_speed must be of a type compatible with string""", 'defined-type': "string", 'generated-type': """YANGDynClass(base=unicode, is_leaf=True, yang_name="port-actual-speed", rest_name="port-actual-speed", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Provide the actual speed of the port.'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='string', is_config=True)""", }) self.__port_actual_speed = t if hasattr(self, '_set'): self._set() def _unset_port_actual_speed(self): self.__port_actual_speed = YANGDynClass(base=unicode, is_leaf=True, yang_name="port-actual-speed", rest_name="port-actual-speed", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=False, extensions={u'tailf-common': {u'info': u'Provide the actual speed of the port.'}}, namespace='urn:brocade.com:mgmt:brocade-fabric-service', defining_module='brocade-fabric-service', yang_type='string', is_config=True) port_interface = __builtin__.property(_get_port_interface, _set_port_interface) port_index = __builtin__.property(_get_port_index, _set_port_index) port_type = __builtin__.property(_get_port_type, _set_port_type) port_wwn = __builtin__.property(_get_port_wwn, _set_port_wwn) remote_port_wwn = __builtin__.property(_get_remote_port_wwn, _set_remote_port_wwn) remote_node_wwn = __builtin__.property(_get_remote_node_wwn, _set_remote_node_wwn) port_state = __builtin__.property(_get_port_state, _set_port_state) port_status = __builtin__.property(_get_port_status, _set_port_status) port_status_message = __builtin__.property(_get_port_status_message, _set_port_status_message) port_health = __builtin__.property(_get_port_health, _set_port_health) port_trunked = __builtin__.property(_get_port_trunked, _set_port_trunked) port_trunk_master = __builtin__.property(_get_port_trunk_master, _set_port_trunk_master) port_actual_distance = __builtin__.property(_get_port_actual_distance, _set_port_actual_distance) port_desired_credit = __builtin__.property(_get_port_desired_credit, _set_port_desired_credit) port_buffer_allocated = __builtin__.property(_get_port_buffer_allocated, _set_port_buffer_allocated) port_licensed = __builtin__.property(_get_port_licensed, _set_port_licensed) port_address = __builtin__.property(_get_port_address, _set_port_address) port_fec = __builtin__.property(_get_port_fec, _set_port_fec) port_configured_speed = __builtin__.property(_get_port_configured_speed, _set_port_configured_speed) port_actual_speed = __builtin__.property(_get_port_actual_speed, _set_port_actual_speed) _pyangbind_elements = {'port_interface': port_interface, 'port_index': port_index, 'port_type': port_type, 'port_wwn': port_wwn, 'remote_port_wwn': remote_port_wwn, 'remote_node_wwn': remote_node_wwn, 'port_state': port_state, 'port_status': port_status, 'port_status_message': port_status_message, 'port_health': port_health, 'port_trunked': port_trunked, 'port_trunk_master': port_trunk_master, 'port_actual_distance': port_actual_distance, 'port_desired_credit': port_desired_credit, 'port_buffer_allocated': port_buffer_allocated, 'port_licensed': port_licensed, 'port_address': port_address, 'port_fec': port_fec, 'port_configured_speed': port_configured_speed, 'port_actual_speed': port_actual_speed, }
82.010672
710
0.75324
11,179
76,844
4.933447
0.025315
0.048322
0.074341
0.021323
0.930083
0.912041
0.897772
0.888887
0.882232
0.875542
0
0.012452
0.111694
76,844
936
711
82.098291
0.795491
0.238002
0
0.502119
0
0.067797
0.443925
0.246352
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0.133475
false
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0
0
0
0
0
0
0
0
6
77b34b15d526d8d96ffd13eda1c8a4ffbcdab3d2
252
py
Python
ps2_census/utils.py
spascou/ps2-census
4edce4b9bfe8af9aca2f28244cb4f70cad67dc93
[ "MIT" ]
4
2020-05-19T16:20:32.000Z
2020-10-13T06:09:01.000Z
ps2_census/utils.py
spascou/ps2-census
4edce4b9bfe8af9aca2f28244cb4f70cad67dc93
[ "MIT" ]
null
null
null
ps2_census/utils.py
spascou/ps2-census
4edce4b9bfe8af9aca2f28244cb4f70cad67dc93
[ "MIT" ]
1
2021-03-08T06:14:53.000Z
2021-03-08T06:14:53.000Z
from .constants import COMMAND_PREFIX, SERVICE_ID_PREFIX, Command def command_key(command: Command, prefix: str = COMMAND_PREFIX) -> str: return f"{prefix}{command}" def bool2str(arg: bool) -> str: return "true" if arg is True else "false"
25.2
71
0.722222
36
252
4.916667
0.555556
0.220339
0.180791
0
0
0
0
0
0
0
0
0.004762
0.166667
252
9
72
28
0.838095
0
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0
0.103175
0
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1
0.4
false
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0.2
0.4
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null
1
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null
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1
0
0
0
1
1
0
0
6
77d74782eadf8fcdb67a0a9c378e7f18358d040b
2,566
py
Python
stars/test/test_tech.py
therussellhome/inherit_the_stars
aa498103e1683625f762afee8c95ffcebb77ca03
[ "Unlicense" ]
null
null
null
stars/test/test_tech.py
therussellhome/inherit_the_stars
aa498103e1683625f762afee8c95ffcebb77ca03
[ "Unlicense" ]
null
null
null
stars/test/test_tech.py
therussellhome/inherit_the_stars
aa498103e1683625f762afee8c95ffcebb77ca03
[ "Unlicense" ]
null
null
null
import unittest from .. import * class _TestPlayer: pass class TechTestCase(unittest.TestCase): def test_is_available1(self): t = tech.Tech(level=tech_level.TechLevel( energy=1, weapons=2, propulsion=3, construction=4, electonics=5, biotechnology=6 )) l = tech_level.TechLevel() self.assertFalse(t.is_available(level=l)) def test_is_available2(self): t = tech.Tech(level=tech_level.TechLevel( energy=1, weapons=2, propulsion=3, construction=4, electonics=5, biotechnology=6 )) l = tech_level.TechLevel( energy=6, weapons=5, propulsion=4, construction=4, electonics=5, biotechnology=6 ) self.assertTrue(t.is_available(level=l)) def test_is_available3(self): t = tech.Tech(race_requirements='Kender') r = race.Race() self.assertFalse(t.is_available(race=r)) def test_is_available4(self): t = tech.Tech(race_requirements='Kender') r = race.Race(primary_race_trait='Kender') self.assertTrue(t.is_available(race=r)) def test_is_available5(self): t = tech.Tech() r = race.Race() self.assertTrue(t.is_available(race=r)) def test_is_available6(self): t = tech.Tech(race_requirements='Kender 2ndSight') r = race.Race(lrt_2ndSight=True) self.assertFalse(t.is_available(race=r)) def test_is_available7(self): t = tech.Tech(race_requirements='Kender 2ndSight') r = race.Race(primary_race_trait='Kender', lrt_2ndSight=True) self.assertTrue(t.is_available(race=r)) def test_is_available8(self): t = tech.Tech(race_requirements='-Akultan') r = race.Race() self.assertTrue(t.is_available(race=r)) def test_is_available9(self): t = tech.Tech(race_requirements='Kender', level=tech_level.TechLevel( energy=1, weapons=2, propulsion=3, construction=4, electonics=5, biotechnology=6 )) l = tech_level.TechLevel( energy=6, weapons=5, propulsion=4, construction=4, electonics=5, biotechnology=6 ) r = race.Race(primary_race_trait='Kender') self.assertTrue(t.is_available(level=l, race=r))
28.831461
77
0.56742
291
2,566
4.838488
0.175258
0.044744
0.057528
0.083097
0.836648
0.825994
0.805398
0.75071
0.712358
0.712358
0
0.024841
0.325409
2,566
88
78
29.159091
0.788562
0
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0
0
0.028839
0
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0.116883
1
0.116883
false
0.012987
0.025974
0
0.168831
0
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0
null
0
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1
1
1
1
1
1
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null
0
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0
0
0
0
0
0
0
0
0
0
6
77f93e7c4975db428dd03488c385716b36bf8692
20
py
Python
rugosa/emulation/call_hooks/stdlib/__init__.py
Defense-Cyber-Crime-Center/rugosa
70f5b1db7e3f02ecccb0495fe1c0c77930769276
[ "MIT" ]
1
2022-03-13T03:03:31.000Z
2022-03-13T03:03:31.000Z
rugosa/emulation/call_hooks/stdlib/__init__.py
Defense-Cyber-Crime-Center/rugosa
70f5b1db7e3f02ecccb0495fe1c0c77930769276
[ "MIT" ]
null
null
null
rugosa/emulation/call_hooks/stdlib/__init__.py
Defense-Cyber-Crime-Center/rugosa
70f5b1db7e3f02ecccb0495fe1c0c77930769276
[ "MIT" ]
null
null
null
from .libc import *
10
19
0.7
3
20
4.666667
1
0
0
0
0
0
0
0
0
0
0
0
0.2
20
1
20
20
0.875
0
0
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1
0
true
0
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1
0
1
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null
0
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0
1
0
1
0
1
0
0
6
bb27dad713e1ac8f23bbae157a68fdf5d5a72e4d
33
py
Python
dridex/__init__.py
futex/mwcfg-modules
a65bc69fd302215485f2ea62c4fd35c6b8f04397
[ "BSD-3-Clause" ]
23
2021-05-01T19:19:36.000Z
2022-03-19T22:10:25.000Z
dridex/__init__.py
futex/mwcfg-modules
a65bc69fd302215485f2ea62c4fd35c6b8f04397
[ "BSD-3-Clause" ]
3
2021-05-01T22:10:32.000Z
2021-05-15T13:35:22.000Z
dridex/__init__.py
futex/mwcfg-modules
a65bc69fd302215485f2ea62c4fd35c6b8f04397
[ "BSD-3-Clause" ]
8
2021-05-01T21:13:54.000Z
2021-11-22T06:53:54.000Z
from .loader import DridexLoader
16.5
32
0.848485
4
33
7
1
0
0
0
0
0
0
0
0
0
0
0
0.121212
33
1
33
33
0.965517
0
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true
0
1
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1
1
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null
0
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null
0
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0
0
1
0
1
0
1
0
0
6
bb3882aa51f453a1b0c233be7f666b3992f2d5a7
113
py
Python
api/app.py
NamrataSitlani/medhavi
d4d93289fca53c199bc9ba5810604386ea643910
[ "Apache-2.0" ]
1
2019-09-29T05:33:16.000Z
2019-09-29T05:33:16.000Z
api/app.py
NamrataSitlani/medhavi
d4d93289fca53c199bc9ba5810604386ea643910
[ "Apache-2.0" ]
1
2019-09-09T05:10:21.000Z
2019-09-09T05:10:21.000Z
api/app.py
NamrataSitlani/medhavi
d4d93289fca53c199bc9ba5810604386ea643910
[ "Apache-2.0" ]
8
2019-08-01T11:43:01.000Z
2019-10-03T05:35:50.000Z
from flask import Blueprint from flask_restful import Api api_bp = Blueprint('api', __name__) api = Api(api_bp)
18.833333
35
0.778761
18
113
4.5
0.444444
0.222222
0.197531
0
0
0
0
0
0
0
0
0
0.141593
113
5
36
22.6
0.835052
0
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0
0.026549
0
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0
0
0
1
0
false
0
0.5
0
0.5
0.5
1
0
0
null
1
1
0
0
0
0
0
0
0
0
0
0
0
1
0
0
0
0
0
0
0
0
0
0
null
0
0
0
0
0
0
0
0
1
0
0
1
0
6
bb58f423dced24533b159e36a8fe516d175059a7
25,641
py
Python
server/resources/porting/prop.py
mirokymac/propAPIne
b6bc952ac1996644653c50c3336b12c8d9ee6d86
[ "MIT" ]
null
null
null
server/resources/porting/prop.py
mirokymac/propAPIne
b6bc952ac1996644653c50c3336b12c8d9ee6d86
[ "MIT" ]
null
null
null
server/resources/porting/prop.py
mirokymac/propAPIne
b6bc952ac1996644653c50c3336b12c8d9ee6d86
[ "MIT" ]
null
null
null
# -*- coding: utf-8 -*- """ Created on Tue Jul 9 11:17:03 2019 @author: Zihao.MAI porting of cool prop gas properties """ __all__ = ["mProp", "flasher"] REFPROP_READY = False from difflib import SequenceMatcher from functools import reduce from json import load as load_json import logging #from os.path import isfile, getsize #import pickle import re import CoolProp.CoolProp as cp from ..util.load_csv import Load_csv, Key # 初始化环境 logger = logging.getLogger(__name__) # 输入输出变量列表 # 不建议H和S作为intype,因为使用的reference不一样 loader = Load_csv(r'./common/CoolProp.AbstractState.IO.csv') tmp_SIcal_types = loader(Key(0)) tmp_io_flags = loader(Key(2)) tmp_qc_flags = loader(Key(3)) tmp_ABcal_types = loader(Key(4)) OTYPE = dict(zip(tmp_SIcal_types, tmp_ABcal_types)) ITYPE = frozenset([i for i, j in zip(tmp_SIcal_types, tmp_io_flags) if "I" in j]) QCTYPE = frozenset([i for i, j in zip(tmp_SIcal_types, tmp_qc_flags) if j]) OTYPE_MIX = { "VAPFRAC": "mole_fractions_vapor", "LIQFRAC": "mole_fractions_liquid" } OTYPE_COMBO = { "CRIT": frozenset(("TCRIT", "PCRIT", "ACENTRIC", "M")), "FLOW": frozenset(("D", "V", "M", "Z")), "HEAT": frozenset(("S", "H", "U", "CP")) } # 构建ITYPE_AB def input_construct(type1:str, type2:str, value1:float, value2:float): type1 = type1[0] + type1[1:].lower() type2 = type2[0] + type2[1:].lower() if type1 in "DHSU": type1 += "mass" if type2 in "DHSU": type2 += "mass" res = None if type1[0] < type2[0]: res = { "ipair": getattr(cp, type1 + type2 + "_INPUTS"), "Value1": value1, "Value2": value2 } else: res = { "ipair": getattr(cp, type2 + type1 + "_INPUTS"), "Value1": value2, "Value2": value1 } return res TYPE_PATTERN = r"[A-Za-z0-9]+" MIXTURE_PATTERN = r"[A-Z0-9]+\s?\:\s?\d+\.?\d*" del loader, tmp_ABcal_types, tmp_io_flags, tmp_qc_flags, tmp_SIcal_types # 物料字典 loader = './common/fluidlist.json' with open(loader, "r") as loader: SUBS_P = load_json(loader) #SUBS_M_CP = dict() #SUBS_M_REFPROP = dict() # 尝试载入REFPROP PATH_TO_REFPROP = "./refprop/" cp.set_config_string(5, PATH_TO_REFPROP) try: cp.PropsSI('H', 'P', 101325, 'Q', 1, 'REFPROP::Water') REFPROP_READY = True logger.critical("Refprop loaded.") except: REFPROP_READY = False logger.critical("Refprop unable to load.") #def prop(sub:str, # outType:list, # inputType1:str, # inputValue1:float, # inputType2:str, # inputValue2:float, # backend:str="CP")-> dict: # # pass # ## 废弃代码: mProp/AbstractState可以完全覆盖这部分的内容。 #def pProp(sub:str, # outType:list, # inputType1:str, # inputValue1:float, # inputType2:str, # inputValue2:float, # backend:str="CP")-> dict: # # res = dict() # errtext = "" # mode_refprop = False # extend_backend_req = False # # 检查REFPROP可用性 # if backend == "REFPROP": # if REFPROP_READY: # mode_refprop = True # else: # errtext += "Warning: No REFPROP support on server!\n" # res.update({"warning": True, # "message": errtext}) # mode_refprop = False # # 转换输出关键字为list # if type(outType) != list: # if type(outType) == str: # outType = [outType] # else: # errtext += "Input Error: Invalid output type: " + str(outType) # logger.error(errtext) # res.update({"error": True, # "message": errtext}) # return {"result": res} # # 将所有文本输入转化为大写 # sub = sub.upper() # backend = backend.upper() # inputType1 = inputType1.upper() # inputType2 = inputType2.upper() # outType = set(list(map(str.upper, outType))) # # # 检查纯物质名字是否受到支持 # if sub in SUBS_P: # if mode_refprop: # if SUBS_P[sub][1] != "N/A": # errtext += "Input Error: Not a REFPROP supported substance" + str(sub) # logger.error(errtext) # res.update({"error": True, # "message": errtext}) # return {"result": res} # else: # sub = "REFPROP::" + SUBS_P[sub][1] # else: # # 检查使用的backend类型 # if backend in ("CP", "COOLPROP"): # sub = SUBS_P[sub][0] # elif backend in ("PENGROBINSON", "PENG-ROBINSON", "PR"): # sub = "PR::" + SUBS_P[sub][0] # else: # errtext += "Input Error: Not supported backend [%s] requested." % backend # logger.error(errtext) # res.update({"error": True, # "message": errtext}) # return {"result": res} # else: # extend_backend_req = True # # if inputType1 == inputType2 and not set(outType).issubset(QCTYPE): # errtext += "Input Error. Only one input Type [%s] is given." % inputType1 # logger.error(errtext) # res.update({"error": True, # "message": errtext}) # return {"result": res} # # if SequenceMatcher(None, inputType1, inputType2).find_longest_match(0, len(inputType1), 0, len(inputType2)).size and not set(outType).issubset(QCTYPE): # errtext += "Input Error. Input Type [%s&%s] is the same." % (inputType1, inputType2) # logger.error(errtext) # res.update({"error": True, # "message": errtext}) # return {"result": res} # # if {inputType1, inputType2}.issubset(ITYPE) and not set(outType).issubset(QCTYPE): # errtext += "Input Error. Invalid input type combo [%s&%s]." % (inputType1, inputType2) # logger.error(errtext) # res.update({"error": True, # "message": errtext}) # return {"result": res} # # for item in ("H", "S"): # if item in inputType1 + inputType2: # errtext += "Warning: Unexpected result due to [%s] using difference Reference point on different backend.\n" % item # logger.warning(errtext) # res.update({"warning": True, # "message": errtext}) # # if type(inputValue1) == float and type(inputValue2) == float: # errtext += "Input Error. Invalid values are not numbers." # logger.error(errtext) # res.update({"error": True, # "message": errtext}) # return {"result": res} # # # 处理输出项 # for item in set(OTYPE_COMBO.keys()).intersection(outType): # outType.remove(item) # outType.union(OTYPE_COMBO[item]) # # if outType - set(OTYPE.keys()): # errtext += "Warning: Unsupported Output Type keywords: %s \n" % list(outType - OTYPE) # logger.warning(errtext) # res.update({"warning": True, # "message": errtext}) # # outType = outType.intersection(OTYPE.keys()) # # for item in outType: # try: # if extend_backend_req: # # todo: impletementing of pProp_extend() # res.update(pProp_extend()) # else: # res.update({item: cp.PropsSI(item, inputType1, inputValue1, inputType2, inputValue2, sub)}) # except Exception as e: # errtext += "Calculation Error: Fail to cal [%s]:\n" % item # errtext += str(e) # res.update({"warning": True, # "message": errtext}) # # if {"message", "warning"} == set(res.keys()): # errtext += "Fatal Calculation Error: No result calculated!" # res.update({"warning": True, # "message": errtext}) # # return {"result": res} def mProp(sub:str, outType:list, inputType1:str, inputValue1:float, inputType2:str, inputValue2:float, backend:str="CP")-> dict: res = dict() errtext = "" mode_refprop = False extend_backend_req = False mixture = None flash = [] # 检查REFPROP可用性 if backend == "REFPROP": if REFPROP_READY: mode_refprop = True else: errtext += "Warning: No REFPROP support on server!\n" res.update({"warning": True, "message": errtext}) mode_refprop = False # 转换输出关键字为list if type(outType) != list: if type(outType) == str: outType = re.findall(TYPE_PATTERN, outType) else: errtext += "Input Error: Invalid output type: " + str(outType) logger.error(errtext) res.update({"error": True, "message": errtext}) return {"result": res} # 将所有文本输入转化为大写 sub = sub.upper() backend = backend.upper() inputType1 = inputType1.upper() inputType2 = inputType2.upper() outType = set(list(map(str.upper, outType))) # 检查纯物质名字是否受到支持 # 1-检查REFPROPbackend可用性 if sub in SUBS_P: if mode_refprop: if SUBS_P[sub][1] == "N/A": errtext += "Input Error: Not a REFPROP supported substance " + str(sub) logger.error(errtext) res.update({"error": True, "message": errtext}) return {"result": res} else: sub = SUBS_P[sub][1] else: # 检查使用的backend类型 if backend in ("CP", "COOLPROP") or (not mode_refprop and backend == "REFPROP"): sub_ = SUBS_P[sub][0] elif backend in ("PENGROBINSON", "PENG-ROBINSON", "PR"): sub_ = SUBS_P[sub][0] else: errtext += "Input Error: Not supported backend [%s] requested." % backend logger.error(errtext) res.update({"error": True, "message": errtext}) return {"result": res} # todo: make extend pure backend avaible if sub_ == "N/A": # extend_backend_req = True errtext += "Input Error: Not a CoolProp supported substance " + str(sub) logger.error(errtext) res.update({"error": True, "message": errtext}) return {"result": res} sub = sub_ del sub_ else: # 2-检查混合物可用性 # 2.1-检查是否输入了混合物组分 # 2.2-检查是否在组成自定义混合物的物质名中包含了混合物名称 # 2.3-检查组成自定义混合物的物质是否都是物性数据库支持的物质 # 2.4-检查各物质份额是否均为正数 # 2.5-归一化混合物组成 mixture = re.findall(MIXTURE_PATTERN, sub) if mixture: # get substance name sub = list(map(lambda x: x.split(":")[0], mixture)) # get substance fraction mixture = list(map(lambda x: float(x.split(":")[1]), mixture)) if set(sub) - set(SUBS_P.keys()): errtext += "Input Error: Not supported substance for mixture: " + ", ".join(sub) logger.error(errtext) res.update({"error": True, "message": errtext}) return {"result": res} else: if reduce(lambda acc, x: SUBS_P[x][2] or acc, sub, False): errtext += "Input Error: Building a mixture with a mixture..." logger.error(errtext) res.update({"error": True, "message": errtext}) return {"result": res} else: if backend in ("CP", "COOLPROP"): sub = "&".join([SUBS_P[i][0] for i in sub]) elif mode_refprop: sub = "&".join([SUBS_P[i][1] for i in sub]) if "N/A" in sub: errtext += "Input Error: Not REFPROP supported substance is detected." logger.error(errtext) res.update({"error": True, "message": errtext}) return {"result": res} # 检查混合组分输入是否均为正数 if not reduce(lambda acc, x: acc and (x > 0), mixture, True): errtext += "Input Error: Building a mixture with a mixture..." logger.error(errtext) res.update({"error": True, "message": errtext}) return {"result": res} mixture = [i/sum(mixture) for i in mixture] else: extend_backend_req = True if not outType.issubset(QCTYPE): if inputType1 == inputType2: errtext += "Input Error. Only one input Type [%s] is given." % inputType1 logger.error(errtext) res.update({"error": True, "message": errtext}) return {"result": res} if SequenceMatcher(None, inputType1, inputType2).find_longest_match(0, len(inputType1), 0, len(inputType2)).size: errtext += "Input Error. Input Type [%s&%s] is the same." % (inputType1, inputType2) logger.error(errtext) res.update({"error": True, "message": errtext}) return {"result": res} if not {inputType1, inputType2}.issubset(ITYPE): errtext += "Input Error. Invalid input type combo [%s&%s]." % (inputType1, inputType2) logger.error(errtext) res.update({"error": True, "message": errtext}) return {"result": res} for item in ("H", "S"): if item in inputType1 + inputType2: errtext += "Warning: Unexpected result due to [%s] using difference Reference point on different backend.\n" % item logger.warning(errtext) res.update({"warning": True, "message": errtext}) try: inputValue1 = float(inputValue1) inputValue2 = float(inputValue2) except: errtext += "Input Error. Invalid values are not numbers." logger.error(errtext) res.update({"error": True, "message": errtext}) return {"result": res} if backend in ("PENGROBINSON", "PENG-ROBINSON", "PR"): backend = "PR" elif backend in ("CP", "COOLPROP") or not mode_refprop: backend = "HEOS" elif backend == "REFPROP" and mode_refprop: backend = "REFPROP" # 处理输出项 # 构建闪蒸计算输出 flash = set(OTYPE_MIX.keys()) flash &= outType outType -= flash # 如果将进行闪蒸计算而目标组成不是混合物 if not mixture and flash: flash = [] errtext += "Input Error. Not support flash calculation for predefine mixture or pure component." logger.error(errtext) res.update({"error": True, "message": errtext}) # 构建组合输出 for item in set(OTYPE_COMBO.keys()).intersection(outType): outType.remove(item) outType = outType.union(OTYPE_COMBO[item]) # 构建普通输出 if outType - set(OTYPE.keys()): errtext += "Warning: Unsupported Output Type keywords: %s \n" % list(outType - set(OTYPE.keys())) logger.warning(errtext) res.update({"warning": True, "message": errtext}) outType = outType.intersection(OTYPE.keys()) if extend_backend_req: # todo: impletementing of mProp_extend() res.update(mProp_extend()) else: sub = cp.AbstractState(backend, sub) if mixture: sub.set_mole_fractions(mixture) sub.update( **input_construct( inputType1, inputType2, inputValue1, inputValue2 ) ) for item in outType: try: res.update({ item: sub.keyed_output(getattr(cp, OTYPE[item])) }) except Exception as e: errtext += "Calculation Error: Fail to cal [%s]:\n" % item errtext += str(e) res.update({"warning": True, "message": errtext}) for item in flash: try: res.update({ item: getattr(sub, OTYPE_MIX[item])() }) except Exception as e: errtext += "Calculation Error: Fail to cal [%s]:\n" % item errtext += str(e) res.update({"warning": True, "message": errtext}) if {"message", "warning"} == set(res.keys()): errtext += "Fatal Calculation Error: No result calculated!" res.update({"warning": True, "message": errtext}) return {"result": res} # #def pProp_extend(): # pass def mProp_extend(): errtext = "" errtext += "Extended component database not impletemented." logger.warning(errtext) return {"error": True, "message": errtext} def flasher(sub:str, inputType1:str, inputValue1:float, inputType2:str, inputValue2:float, backend:str="CP")-> dict: res = dict() errtext = "" extend_backend_req = False mode_refprop = False mixture = None outType = ("D", "H", "M", "S", "U", "V", "Z") # 检查REFPROP可用性 if backend == "REFPROP": if REFPROP_READY: mode_refprop = True else: errtext += "Warning: No REFPROP support on server!\n" res.update({"warning": True, "message": errtext}) mode_refprop = False # 将所有文本输入转化为大写 sub = sub.upper() backend = backend.upper() inputType1 = inputType1.upper() inputType2 = inputType2.upper() # 检查纯物质名字是否受到支持 # 2-检查混合物可用性 mixture = re.findall(MIXTURE_PATTERN, sub) if mixture: # get substance name sub = list(map(lambda x: x.split(":")[0], mixture)) # get substance fraction mixture = list(map(lambda x: float(x.split(":")[1]), mixture)) if set(sub) - set(SUBS_P.keys()): errtext += "Input Error: Not supported substance for mixture: " + ", ".join(sub) logger.error(errtext) res.update({"error": True, "message": errtext}) return {"result": res} else: if reduce(lambda acc, x: SUBS_P[x][2] or acc, sub, False): errtext += "Input Error: Building a mixture with a mixture..." logger.error(errtext) res.update({"error": True, "message": errtext}) return {"result": res} else: if backend in ("CP", "COOLPROP"): sub = "&".join([SUBS_P[i][0] for i in sub]) elif mode_refprop: sub = "&".join([SUBS_P[i][1] for i in sub]) if "N/A" in sub: errtext += "Input Error: Not supported substance for REFPROP is detected." logger.error(errtext) res.update({"error": True, "message": errtext}) return {"result": res} else: extend_backend_req = True # 检查混合组分输入是否均为正数 if not reduce(lambda acc, x: acc and (x > 0), mixture, True): errtext += "Input Error: Building a mixture with a mixture..." logger.error(errtext) res.update({"error": True, "message": errtext}) return {"result": res} mixture = [i/sum(mixture) for i in mixture] else: extend_backend_req = True if not mixture: errtext += "Input Error: Can not calculate flashing for pure component." logger.error(errtext) res.update({"error": True, "message": errtext}) return {"result": res} if type(sub) == str: res.update({"components": sub.split("&")}) if inputType1 == inputType2: errtext += "Input Error. Only one input Type [%s] is given." % inputType1 logger.error(errtext) res.update({"error": True, "message": errtext}) return {"result": res} if SequenceMatcher(None, inputType1, inputType2).find_longest_match(0, len(inputType1), 0, len(inputType2)).size: errtext += "Input Error. Input Type [%s&%s] is the same." % (inputType1, inputType2) logger.error(errtext) res.update({"error": True, "message": errtext}) return {"result": res} if not {inputType1, inputType2}.issubset(ITYPE): errtext += "Input Error. Invalid input type combo [%s&%s]." % (inputType1, inputType2) logger.error(errtext) res.update({"error": True, "message": errtext}) return {"result": res} for item in ("H", "S"): if item in inputType1 + inputType2: errtext += "Warning: Unexpected result due to [%s] using difference Reference point on different backend.\n" % item logger.warning(errtext) res.update({"warning": True, "message": errtext}) try: inputValue1 = float(inputValue1) inputValue2 = float(inputValue2) except: errtext += "Input Error. Invalid values are not numbers." logger.error(errtext) res.update({"error": True, "message": errtext}) return {"result": res} if backend in ("PENGROBINSON", "PENG-ROBINSON", "PR"): backend = "PR" elif backend in ("CP", "COOLPROP") or not mode_refprop: backend = "HEOS" elif backend == "REFPROP" and mode_refprop: backend = "REFPROP" if extend_backend_req: # todo: impletementing of mProp_extend() res.update(mProp_extend()) else: sub = cp.AbstractState(backend, sub) sub.set_mole_fractions(mixture) sub.update( **input_construct( inputType1, inputType2, inputValue1, inputValue2 ) ) # Q = sub.keyed_output(getattr(cp, "iQ")) T = sub.T() P = sub.p() rtn = dict() for item in outType: try: rtn.update({ item: sub.keyed_output(getattr(cp, OTYPE[item])) }) except Exception as e: errtext += "Calculation Error: Fail to cal [%s] for INFLOW:\n" % item errtext += str(e) res.update({"warning": True, "message": errtext}) rtn.update({"Fraction": mixture}) res.update({ "IN": rtn, "T": T, "P": P, "Q": Q }) if not (0 < Q < 1): errtext += "Input Error: INFLOW is single phase" res.update({"warning": True, "message": errtext}) return {"result": res} for mix in OTYPE_MIX: _mixture = None sub.set_mole_fractions(mixture) try: _mixture = getattr(sub, OTYPE_MIX[mix])() except Exception as e: errtext += "Calculation Error: Fail to cal [%s]:\n" % mix errtext += str(e) res.update({"warning": True, "message": errtext}) continue sub.set_mole_fractions(_mixture) sub.specify_phase(cp.iphase_gas if mix == "VAPFRAC" else cp.iphase_liquid) sub.update(cp.PT_INPUTS, P, T) rtn = dict() for item in outType: try: rtn.update({ item: sub.keyed_output(getattr(cp, OTYPE[item])) }) except Exception as e: errtext += "Calculation Error: Fail to cal [%s] for INFLOW:\n" % item errtext += str(e) res.update({"warning": True, "message": errtext}) rtn.update({"Fraction": _mixture}) res.update({mix: rtn}) if {"message", "warning"} == set(res.keys()): errtext += "Fatal Calculation Error: No result calculated!" res.update({"warning": True, "message": errtext}) return {"result": res}
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24a21fa009a7772f27568fd2474c9f50e89e1d5e
35
py
Python
bitinfer/wrappers/__init__.py
piero2c/BitInfer
f265870ce374dccc78a425402caa5a9f36dfe99f
[ "MIT" ]
1
2021-09-11T18:30:34.000Z
2021-09-11T18:30:34.000Z
bitinfer/wrappers/__init__.py
piero2c/BitInfer
f265870ce374dccc78a425402caa5a9f36dfe99f
[ "MIT" ]
null
null
null
bitinfer/wrappers/__init__.py
piero2c/BitInfer
f265870ce374dccc78a425402caa5a9f36dfe99f
[ "MIT" ]
null
null
null
from .bert_modeling import BitModel
35
35
0.885714
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true
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6
24c9e8c77128e00a5b67538223f3c1adeb86f767
5,394
py
Python
mozurestsdk/commerce/catalog/admin/attributedefinition/producttypes/producttypeoption.py
Mozu/mozu-python-sdk
9cc918aca7db3639264184e5266e8e508a08a7dd
[ "Apache-2.0" ]
1
2021-03-22T12:38:42.000Z
2021-03-22T12:38:42.000Z
mozurestsdk/commerce/catalog/admin/attributedefinition/producttypes/producttypeoption.py
Mozu/mozu-python-sdk
9cc918aca7db3639264184e5266e8e508a08a7dd
[ "Apache-2.0" ]
null
null
null
mozurestsdk/commerce/catalog/admin/attributedefinition/producttypes/producttypeoption.py
Mozu/mozu-python-sdk
9cc918aca7db3639264184e5266e8e508a08a7dd
[ "Apache-2.0" ]
2
2015-09-30T19:49:00.000Z
2015-09-30T19:51:03.000Z
""" This code was generated by Codezu. Changes to this file may cause incorrect behavior and will be lost if the code is regenerated. """ from mozurestsdk.mozuclient import default as default_client from mozurestsdk.mozuurl import MozuUrl; from mozurestsdk.urllocation import UrlLocation from mozurestsdk.apicontext import ApiContext; class ProductTypeOption(object): def __init__(self, apiContext: ApiContext = None, dataViewMode="Live", mozuClient = None): if (apiContext is not None and apiContext.dataViewMode is None): apiContext.dataViewMode = dataViewMode; else: apiContext = ApiContext(dataViewMode = dataViewMode); self.client = mozuClient or default_client(); self.client.withApiContext(apiContext); def getOptions(self,productTypeId): """ Retrieves a list of option product attributes defined for the specified product type. Args: | productTypeId (int) - Identifier of the product type. Returns: | array of AttributeInProductType Raises: | ApiException """ url = MozuUrl("/api/commerce/catalog/admin/attributedefinition/producttypes/{productTypeId}/Options", "GET", UrlLocation.TenantPod, False); url.formatUrl("productTypeId", productTypeId); self.client.withResourceUrl(url).execute(); return self.client.result(); def getOption(self,productTypeId, attributeFQN, responseFields = None): """ Retrieves the details of an option attribute defined for the specified product type. Args: | productTypeId (int) - Identifier of the product type. | attributeFQN (string) - The fully qualified name of the attribute, which is a user defined attribute identifier. | responseFields (string) - Use this field to include those fields which are not included by default. Returns: | AttributeInProductType Raises: | ApiException """ url = MozuUrl("/api/commerce/catalog/admin/attributedefinition/producttypes/{productTypeId}/Options/{attributeFQN}?responseFields={responseFields}", "GET", UrlLocation.TenantPod, False); url.formatUrl("attributeFQN", attributeFQN); url.formatUrl("productTypeId", productTypeId); url.formatUrl("responseFields", responseFields); self.client.withResourceUrl(url).execute(); return self.client.result(); def addOption(self,attributeInProductType, productTypeId, responseFields = None): """ Assigns an option attribute to the product type based on the information supplied in the request. Args: | attributeInProductType(attributeInProductType) - Properties of an attribute definition associated with a specific product type. When an attribute is applied to a product type, each product of that type maintains the same set of attributes. | productTypeId (int) - Identifier of the product type. | responseFields (string) - Use this field to include those fields which are not included by default. Returns: | AttributeInProductType Raises: | ApiException """ url = MozuUrl("/api/commerce/catalog/admin/attributedefinition/producttypes/{productTypeId}/Options?responseFields={responseFields}", "POST", UrlLocation.TenantPod, False); url.formatUrl("productTypeId", productTypeId); url.formatUrl("responseFields", responseFields); self.client.withResourceUrl(url).withBody(attributeInProductType).execute(); return self.client.result(); def updateOption(self,attributeInProductType, productTypeId, attributeFQN, responseFields = None): """ Updates an option attribute definition for the specified product type. Args: | attributeInProductType(attributeInProductType) - Properties of an attribute definition associated with a specific product type. When an attribute is applied to a product type, each product of that type maintains the same set of attributes. | productTypeId (int) - Identifier of the product type. | attributeFQN (string) - The fully qualified name of the attribute, which is a user defined attribute identifier. | responseFields (string) - Use this field to include those fields which are not included by default. Returns: | AttributeInProductType Raises: | ApiException """ url = MozuUrl("/api/commerce/catalog/admin/attributedefinition/producttypes/{productTypeId}/Options/{attributeFQN}?responseFields={responseFields}", "PUT", UrlLocation.TenantPod, False); url.formatUrl("attributeFQN", attributeFQN); url.formatUrl("productTypeId", productTypeId); url.formatUrl("responseFields", responseFields); self.client.withResourceUrl(url).withBody(attributeInProductType).execute(); return self.client.result(); def deleteOption(self,productTypeId, attributeFQN): """ Removes an option attribute definition for the specified product type. Args: | productTypeId (int) - Identifier of the product type. | attributeFQN (string) - The fully qualified name of the attribute, which is a user defined attribute identifier. Raises: | ApiException """ url = MozuUrl("/api/commerce/catalog/admin/attributedefinition/producttypes/{productTypeId}/Options/{attributeFQN}", "DELETE", UrlLocation.TenantPod, False); url.formatUrl("attributeFQN", attributeFQN); url.formatUrl("productTypeId", productTypeId); self.client.withResourceUrl(url).execute();
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6
7038a784ccc14a979a4c039a81cee5f6d1c276f1
66
py
Python
OptimalTransportBalancing/__init__.py
MGIMM/Optimal_Transport_Balancing
99af9b7fe5d19db422178e612917bfdcb0e5b3f1
[ "MIT" ]
null
null
null
OptimalTransportBalancing/__init__.py
MGIMM/Optimal_Transport_Balancing
99af9b7fe5d19db422178e612917bfdcb0e5b3f1
[ "MIT" ]
null
null
null
OptimalTransportBalancing/__init__.py
MGIMM/Optimal_Transport_Balancing
99af9b7fe5d19db422178e612917bfdcb0e5b3f1
[ "MIT" ]
null
null
null
from .OptimalTransportBalancing import OptimalTransportBalancing
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6
5615a6a300acb00199089d290949779970fb89f6
28
py
Python
app/auth/google/__init__.py
alcarruth/fullstack-p3-item-catalog
5f0311675719ea1788495ada672eb3da21e44922
[ "MIT" ]
1
2019-07-19T15:36:58.000Z
2019-07-19T15:36:58.000Z
app/auth/google/__init__.py
alcarruth/fullstack-p3-item-catalog
5f0311675719ea1788495ada672eb3da21e44922
[ "MIT" ]
null
null
null
app/auth/google/__init__.py
alcarruth/fullstack-p3-item-catalog
5f0311675719ea1788495ada672eb3da21e44922
[ "MIT" ]
null
null
null
from google_auth import *
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1
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6
5659dbde96a1bc8bcabd1d652d8d7bc7b5476483
2,633
py
Python
tests/test_cli.py
json-transformations/jsoncat
56f3a42f01487ba778b39d5c1399a247e09a7194
[ "MIT" ]
1
2020-10-09T02:02:04.000Z
2020-10-09T02:02:04.000Z
tests/test_cli.py
json-transformations/jsoncat
56f3a42f01487ba778b39d5c1399a247e09a7194
[ "MIT" ]
null
null
null
tests/test_cli.py
json-transformations/jsoncat
56f3a42f01487ba778b39d5c1399a247e09a7194
[ "MIT" ]
1
2020-10-09T02:02:08.000Z
2020-10-09T02:02:08.000Z
import json import pytest import click.testing from jsoncat import cli D1 = {"asteroid": "433 Eros"} D2 = {"asteroid": "951 Gaspra"} J1 = json.dumps(D1) J2 = json.dumps(D2) JE = '{Invalid JSON' @pytest.fixture def runner(): return click.testing.CliRunner() def test_no_args_with_stdin(runner): result = runner.invoke(cli.jsoncat, args=[], input=J1) assert result.exit_code == 0 assert eval(result.output) == D1 def test_stdin_arg(runner): result = runner.invoke(cli.jsoncat, args=['-'], input=J1) assert result.exit_code == 0 assert eval(result.output) == D1 def test_single_filename(runner): with runner.isolated_filesystem(): with open('t1.json', 'w') as f: f.write(J1) result = runner.invoke(cli.jsoncat, args=['t1.json']) assert result.exit_code == 0 assert eval(result.output) == D1 def test_stdin_arg_plus_filename(runner): with runner.isolated_filesystem(): with open('t2.json', 'w') as f: f.write(J2) result = runner.invoke(cli.jsoncat, args=['-', 't2.json'], input=J1) assert result.exit_code == 0 assert eval(result.output) == [D1, D2] def test_stdin_as_second_arg(runner): with runner.isolated_filesystem(): with open('t1.json', 'w') as f: f.write(J1) result = runner.invoke(cli.jsoncat, args=['t1.json', '-'], input=J2) assert result.exit_code == 0 assert eval(result.output) == [D1, D2] def test_two_filenames(runner): with runner.isolated_filesystem(): with open('t1.json', 'w') as f: f.write(J1) with open('t2.json', 'w') as f: f.write(J2) result = runner.invoke(cli.jsoncat, args=['t1.json', 't2.json']) assert result.exit_code == 0 assert eval(result.output) == [D1, D2] def test_two_filenames_reversed(runner): with runner.isolated_filesystem(): with open('t1.json', 'w') as f: f.write(J1) with open('t2.json', 'w') as f: f.write(J2) result = runner.invoke(cli.jsoncat, args=['t2.json', 't1.json']) assert result.exit_code == 0 assert eval(result.output) == [D2, D1] def test_indented_json(runner): result = runner.invoke(cli.jsoncat, args=[], input=J1) assert result.exit_code == 0 assert len(result.output.splitlines()) == 3 def test_compact_json(runner): result = runner.invoke(cli.jsoncat, args=['--indent=0'], input=J1) assert result.exit_code == 0 assert len(result.output.splitlines()) == 1
28.311828
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2,633
4.354749
0.175978
0.040411
0.103913
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0.813342
0.747915
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0
0.031171
0.244588
2,633
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0.144928
false
0
0.057971
0.014493
0.217391
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null
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0
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0
0
6
569eb0336204d0b12c7b406621b9c2c0a970f544
36
py
Python
bertopic/__init__.py
ashishpatel26/BERTopic
d38cef4edffb3ab2565baeccdb7b816a5d41e5dd
[ "MIT" ]
null
null
null
bertopic/__init__.py
ashishpatel26/BERTopic
d38cef4edffb3ab2565baeccdb7b816a5d41e5dd
[ "MIT" ]
null
null
null
bertopic/__init__.py
ashishpatel26/BERTopic
d38cef4edffb3ab2565baeccdb7b816a5d41e5dd
[ "MIT" ]
2
2020-10-28T07:51:50.000Z
2021-01-03T12:51:40.000Z
from bertopic.model import BERTopic
18
35
0.861111
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36
6.2
0.8
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true
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0
6
3b26cf38eb309de4101ec628afe39ff8702e3c45
260,256
py
Python
instances/passenger_demand/pas-20210422-1717-int18e/14.py
LHcau/scheduling-shared-passenger-and-freight-transport-on-a-fixed-infrastructure
bba1e6af5bc8d9deaa2dc3b83f6fe9ddf15d2a11
[ "BSD-3-Clause" ]
null
null
null
instances/passenger_demand/pas-20210422-1717-int18e/14.py
LHcau/scheduling-shared-passenger-and-freight-transport-on-a-fixed-infrastructure
bba1e6af5bc8d9deaa2dc3b83f6fe9ddf15d2a11
[ "BSD-3-Clause" ]
null
null
null
instances/passenger_demand/pas-20210422-1717-int18e/14.py
LHcau/scheduling-shared-passenger-and-freight-transport-on-a-fixed-infrastructure
bba1e6af5bc8d9deaa2dc3b83f6fe9ddf15d2a11
[ "BSD-3-Clause" ]
null
null
null
""" PASSENGERS """ numPassengers = 34512 passenger_arriving = ( (9, 6, 6, 9, 6, 3, 4, 6, 5, 1, 0, 0, 0, 5, 8, 8, 7, 6, 1, 6, 1, 3, 3, 2, 0, 0), # 0 (10, 6, 7, 9, 10, 4, 3, 9, 3, 1, 0, 0, 0, 9, 8, 4, 4, 9, 5, 6, 6, 3, 1, 2, 1, 0), # 1 (12, 8, 12, 11, 13, 3, 6, 4, 7, 4, 0, 2, 0, 11, 11, 8, 9, 9, 7, 6, 3, 3, 3, 3, 2, 0), # 2 (12, 10, 9, 11, 8, 9, 8, 3, 2, 1, 3, 0, 0, 8, 12, 4, 9, 10, 7, 2, 3, 8, 3, 2, 2, 0), # 3 (17, 11, 6, 10, 11, 6, 3, 4, 4, 3, 0, 4, 0, 11, 13, 7, 6, 19, 6, 5, 5, 2, 1, 3, 0, 0), # 4 (13, 18, 14, 10, 11, 5, 7, 5, 5, 3, 1, 3, 0, 11, 20, 9, 8, 8, 6, 3, 5, 5, 2, 0, 2, 0), # 5 (18, 13, 11, 13, 8, 7, 11, 2, 9, 3, 1, 2, 0, 17, 7, 11, 3, 11, 1, 9, 2, 3, 2, 4, 0, 0), # 6 (11, 23, 13, 13, 9, 5, 4, 9, 6, 1, 6, 0, 0, 11, 13, 7, 7, 5, 12, 3, 2, 2, 4, 3, 1, 0), # 7 (16, 14, 9, 11, 14, 3, 5, 9, 4, 2, 0, 0, 0, 9, 10, 6, 11, 4, 6, 4, 1, 5, 2, 1, 0, 0), # 8 (20, 13, 12, 9, 8, 5, 7, 7, 8, 4, 2, 0, 0, 16, 14, 15, 8, 15, 9, 7, 3, 5, 5, 5, 1, 0), # 9 (9, 18, 16, 20, 10, 6, 5, 6, 7, 2, 1, 1, 0, 13, 10, 5, 9, 10, 7, 9, 6, 5, 2, 3, 0, 0), # 10 (16, 10, 6, 14, 12, 6, 4, 6, 9, 3, 1, 2, 0, 15, 10, 12, 10, 6, 6, 3, 4, 9, 6, 3, 1, 0), # 11 (15, 20, 23, 9, 14, 9, 2, 3, 10, 2, 2, 1, 0, 15, 17, 11, 14, 12, 10, 8, 3, 4, 6, 4, 3, 0), # 12 (18, 17, 10, 18, 18, 3, 3, 9, 11, 6, 4, 0, 0, 19, 11, 16, 8, 15, 6, 6, 0, 6, 1, 3, 2, 0), # 13 (6, 21, 14, 16, 8, 4, 5, 5, 9, 3, 3, 3, 0, 29, 11, 8, 6, 17, 10, 6, 3, 5, 10, 3, 2, 0), # 14 (6, 30, 20, 19, 15, 9, 7, 10, 6, 2, 2, 1, 0, 13, 17, 4, 10, 19, 12, 14, 7, 3, 5, 5, 1, 0), # 15 (21, 18, 10, 21, 18, 6, 14, 8, 5, 5, 1, 2, 0, 18, 13, 10, 13, 27, 12, 10, 3, 5, 7, 1, 1, 0), # 16 (22, 23, 6, 15, 9, 9, 5, 3, 13, 3, 2, 2, 0, 16, 17, 10, 17, 13, 10, 4, 2, 3, 3, 1, 2, 0), # 17 (19, 15, 15, 26, 12, 7, 3, 9, 7, 1, 2, 1, 0, 24, 15, 11, 20, 11, 9, 11, 6, 6, 7, 0, 1, 0), # 18 (26, 12, 14, 22, 6, 8, 10, 6, 9, 7, 1, 1, 0, 19, 17, 20, 7, 12, 9, 10, 4, 3, 5, 7, 1, 0), # 19 (20, 15, 15, 17, 15, 8, 8, 7, 7, 0, 3, 2, 0, 18, 13, 12, 18, 12, 7, 5, 5, 9, 7, 4, 3, 0), # 20 (18, 10, 10, 19, 20, 6, 5, 7, 11, 3, 4, 0, 0, 21, 20, 12, 12, 10, 15, 8, 7, 8, 2, 4, 2, 0), # 21 (17, 19, 11, 13, 19, 7, 6, 5, 5, 1, 2, 2, 0, 21, 19, 15, 8, 15, 7, 6, 5, 12, 3, 2, 2, 0), # 22 (18, 18, 16, 13, 16, 6, 7, 3, 4, 3, 5, 2, 0, 15, 19, 15, 8, 14, 5, 5, 7, 7, 3, 2, 2, 0), # 23 (17, 15, 14, 17, 12, 10, 6, 8, 12, 2, 4, 2, 0, 19, 18, 12, 12, 13, 9, 6, 2, 6, 16, 5, 2, 0), # 24 (20, 18, 18, 12, 14, 6, 8, 4, 4, 3, 4, 0, 0, 26, 15, 10, 5, 8, 9, 7, 6, 7, 9, 3, 0, 0), # 25 (16, 13, 17, 23, 12, 8, 6, 9, 7, 4, 7, 0, 0, 17, 13, 13, 9, 18, 17, 6, 0, 7, 3, 4, 1, 0), # 26 (8, 24, 8, 20, 16, 8, 13, 13, 7, 10, 4, 1, 0, 25, 13, 14, 6, 19, 13, 13, 10, 7, 6, 3, 1, 0), # 27 (12, 17, 16, 22, 12, 5, 7, 5, 14, 6, 4, 1, 0, 22, 21, 16, 14, 17, 6, 6, 4, 2, 7, 2, 1, 0), # 28 (14, 14, 6, 11, 12, 7, 8, 11, 6, 3, 2, 2, 0, 15, 13, 9, 6, 10, 6, 3, 4, 9, 3, 1, 3, 0), # 29 (14, 21, 17, 10, 17, 2, 4, 2, 12, 3, 3, 0, 0, 19, 11, 7, 14, 20, 7, 7, 1, 10, 7, 2, 1, 0), # 30 (19, 13, 25, 17, 14, 6, 5, 10, 4, 3, 4, 3, 0, 17, 9, 12, 8, 11, 10, 15, 5, 2, 4, 1, 0, 0), # 31 (21, 19, 11, 19, 20, 7, 2, 10, 6, 3, 1, 1, 0, 9, 15, 10, 10, 10, 11, 3, 6, 10, 4, 2, 1, 0), # 32 (22, 13, 17, 20, 9, 4, 8, 8, 9, 2, 1, 3, 0, 17, 14, 12, 9, 10, 7, 8, 6, 6, 3, 2, 0, 0), # 33 (24, 14, 21, 20, 17, 5, 9, 3, 7, 4, 3, 1, 0, 16, 10, 12, 14, 9, 15, 5, 4, 8, 7, 2, 0, 0), # 34 (20, 15, 19, 15, 12, 5, 6, 10, 4, 2, 1, 3, 0, 17, 21, 12, 6, 12, 13, 14, 7, 5, 6, 2, 1, 0), # 35 (20, 21, 14, 14, 13, 6, 3, 3, 3, 1, 2, 2, 0, 11, 7, 19, 10, 15, 10, 7, 11, 14, 6, 7, 2, 0), # 36 (16, 16, 13, 12, 11, 4, 6, 7, 9, 5, 4, 0, 0, 22, 14, 13, 8, 25, 8, 5, 10, 6, 8, 1, 3, 0), # 37 (17, 18, 14, 12, 11, 5, 5, 6, 7, 4, 5, 1, 0, 27, 19, 15, 10, 10, 6, 6, 3, 13, 9, 5, 2, 0), # 38 (17, 21, 13, 16, 14, 5, 10, 3, 5, 3, 1, 1, 0, 18, 12, 17, 6, 18, 7, 8, 4, 2, 4, 1, 4, 0), # 39 (21, 18, 11, 15, 14, 6, 7, 11, 9, 0, 1, 0, 0, 21, 15, 18, 15, 11, 4, 7, 3, 11, 11, 2, 1, 0), # 40 (25, 19, 18, 17, 16, 12, 7, 10, 3, 3, 5, 1, 0, 13, 9, 9, 10, 15, 10, 8, 6, 6, 7, 4, 3, 0), # 41 (22, 20, 17, 17, 9, 7, 9, 8, 11, 5, 1, 0, 0, 19, 19, 9, 13, 18, 7, 5, 4, 9, 4, 0, 1, 0), # 42 (22, 9, 13, 12, 18, 6, 7, 7, 6, 2, 4, 2, 0, 29, 17, 10, 15, 19, 4, 7, 3, 11, 5, 2, 1, 0), # 43 (25, 21, 15, 16, 15, 5, 6, 7, 7, 4, 3, 1, 0, 17, 17, 12, 9, 17, 5, 5, 4, 6, 4, 3, 0, 0), # 44 (20, 16, 19, 23, 13, 3, 5, 8, 4, 1, 4, 2, 0, 16, 23, 12, 9, 14, 13, 3, 6, 3, 8, 2, 3, 0), # 45 (19, 16, 16, 18, 20, 4, 7, 7, 5, 3, 2, 1, 0, 18, 23, 12, 9, 15, 5, 12, 3, 9, 4, 3, 1, 0), # 46 (22, 16, 18, 18, 15, 9, 7, 5, 8, 1, 2, 1, 0, 21, 14, 10, 8, 16, 14, 9, 2, 12, 10, 2, 3, 0), # 47 (22, 16, 10, 17, 18, 5, 6, 6, 5, 4, 2, 2, 0, 22, 21, 15, 11, 11, 8, 3, 3, 6, 4, 3, 1, 0), # 48 (23, 16, 16, 22, 14, 5, 6, 5, 6, 3, 2, 0, 0, 13, 15, 10, 11, 11, 9, 9, 7, 8, 6, 5, 1, 0), # 49 (25, 15, 20, 14, 10, 4, 8, 4, 5, 1, 2, 2, 0, 12, 14, 13, 7, 22, 5, 2, 5, 9, 2, 6, 1, 0), # 50 (21, 12, 16, 13, 15, 7, 7, 7, 9, 4, 0, 1, 0, 13, 11, 12, 8, 17, 8, 3, 2, 7, 12, 1, 4, 0), # 51 (21, 18, 6, 26, 13, 7, 6, 7, 5, 2, 2, 0, 0, 18, 24, 16, 14, 12, 3, 4, 8, 4, 7, 4, 2, 0), # 52 (18, 27, 16, 16, 8, 4, 7, 7, 7, 4, 2, 0, 0, 15, 10, 7, 14, 14, 10, 10, 7, 6, 7, 1, 1, 0), # 53 (12, 8, 16, 18, 20, 8, 4, 12, 4, 1, 2, 1, 0, 25, 17, 7, 6, 16, 7, 20, 3, 9, 5, 4, 2, 0), # 54 (22, 16, 15, 20, 16, 8, 4, 5, 12, 4, 0, 2, 0, 9, 16, 18, 6, 14, 8, 8, 3, 6, 6, 2, 1, 0), # 55 (22, 19, 14, 13, 20, 6, 7, 3, 6, 3, 3, 0, 0, 17, 14, 12, 11, 14, 11, 5, 4, 8, 4, 4, 2, 0), # 56 (18, 15, 14, 19, 11, 3, 4, 4, 7, 5, 1, 2, 0, 22, 20, 5, 12, 9, 7, 6, 6, 10, 6, 4, 2, 0), # 57 (21, 21, 17, 19, 11, 9, 4, 4, 8, 4, 2, 1, 0, 19, 13, 15, 6, 9, 8, 14, 4, 4, 3, 2, 0, 0), # 58 (14, 18, 8, 10, 12, 5, 3, 7, 7, 4, 3, 1, 0, 26, 20, 14, 10, 19, 8, 10, 6, 11, 6, 4, 2, 0), # 59 (20, 21, 12, 13, 7, 5, 8, 5, 4, 2, 1, 2, 0, 17, 18, 10, 9, 18, 8, 6, 3, 7, 3, 1, 1, 0), # 60 (18, 16, 15, 19, 17, 2, 6, 3, 10, 8, 3, 1, 0, 15, 10, 13, 7, 16, 8, 5, 3, 7, 5, 5, 0, 0), # 61 (23, 12, 15, 9, 12, 6, 5, 4, 2, 3, 4, 1, 0, 19, 16, 15, 8, 18, 5, 8, 6, 7, 2, 4, 1, 0), # 62 (26, 13, 17, 8, 9, 10, 7, 7, 5, 5, 2, 0, 0, 17, 14, 7, 11, 18, 7, 8, 2, 4, 7, 2, 4, 0), # 63 (20, 19, 10, 23, 16, 0, 8, 9, 12, 2, 2, 0, 0, 17, 15, 14, 8, 10, 8, 12, 5, 5, 3, 4, 0, 0), # 64 (18, 11, 13, 11, 18, 8, 11, 2, 6, 3, 6, 2, 0, 19, 10, 14, 9, 20, 7, 2, 3, 5, 6, 2, 1, 0), # 65 (30, 21, 13, 17, 14, 9, 2, 3, 6, 4, 1, 1, 0, 18, 8, 14, 8, 16, 6, 7, 8, 8, 4, 7, 1, 0), # 66 (23, 14, 14, 15, 20, 7, 2, 12, 6, 1, 2, 1, 0, 24, 17, 11, 8, 11, 7, 4, 1, 6, 9, 2, 2, 0), # 67 (13, 16, 12, 18, 17, 5, 11, 6, 5, 5, 2, 1, 0, 12, 15, 10, 17, 14, 9, 8, 5, 11, 6, 4, 4, 0), # 68 (17, 30, 17, 14, 15, 6, 3, 6, 9, 6, 1, 2, 0, 18, 20, 14, 14, 21, 7, 7, 3, 5, 3, 5, 0, 0), # 69 (15, 17, 16, 17, 18, 8, 6, 5, 9, 1, 6, 0, 0, 20, 17, 17, 15, 15, 4, 5, 4, 11, 4, 2, 1, 0), # 70 (20, 18, 14, 21, 11, 4, 9, 4, 6, 4, 5, 4, 0, 23, 13, 14, 13, 16, 6, 10, 3, 5, 2, 3, 1, 0), # 71 (13, 20, 18, 11, 13, 9, 9, 3, 6, 4, 1, 3, 0, 14, 11, 19, 12, 12, 10, 9, 5, 7, 3, 4, 1, 0), # 72 (20, 17, 11, 24, 12, 7, 5, 4, 10, 3, 1, 0, 0, 14, 11, 5, 13, 13, 13, 8, 3, 9, 3, 4, 2, 0), # 73 (17, 22, 13, 26, 14, 6, 9, 3, 7, 4, 5, 1, 0, 17, 17, 8, 5, 14, 5, 8, 5, 8, 5, 2, 2, 0), # 74 (23, 16, 9, 16, 10, 8, 5, 4, 4, 7, 3, 1, 0, 19, 11, 10, 8, 9, 5, 5, 6, 6, 6, 5, 1, 0), # 75 (19, 16, 18, 19, 13, 6, 11, 5, 8, 3, 5, 3, 0, 16, 15, 15, 5, 17, 8, 4, 3, 5, 10, 3, 2, 0), # 76 (23, 20, 13, 15, 7, 9, 4, 5, 9, 3, 2, 1, 0, 29, 12, 12, 8, 14, 5, 7, 8, 6, 13, 5, 1, 0), # 77 (11, 14, 15, 14, 16, 10, 5, 4, 7, 3, 1, 1, 0, 12, 15, 5, 6, 9, 9, 9, 10, 4, 6, 3, 1, 0), # 78 (19, 11, 20, 14, 12, 8, 7, 3, 8, 4, 2, 2, 0, 20, 18, 6, 3, 17, 12, 10, 4, 14, 6, 1, 1, 0), # 79 (21, 15, 25, 12, 16, 5, 3, 5, 9, 4, 3, 1, 0, 11, 14, 12, 11, 13, 12, 6, 2, 8, 4, 2, 0, 0), # 80 (20, 22, 12, 11, 11, 7, 3, 1, 9, 1, 4, 3, 0, 18, 19, 10, 8, 11, 12, 6, 11, 10, 12, 1, 0, 0), # 81 (10, 12, 15, 9, 13, 6, 5, 5, 5, 3, 4, 2, 0, 26, 9, 12, 4, 24, 7, 5, 2, 5, 6, 2, 1, 0), # 82 (18, 14, 9, 16, 12, 10, 9, 5, 8, 3, 1, 1, 0, 20, 12, 17, 7, 19, 9, 4, 2, 8, 3, 1, 0, 0), # 83 (16, 14, 20, 19, 14, 6, 9, 4, 8, 3, 2, 0, 0, 29, 17, 16, 8, 13, 4, 4, 2, 8, 6, 3, 1, 0), # 84 (16, 16, 19, 17, 10, 3, 5, 5, 4, 3, 2, 0, 0, 19, 15, 6, 12, 13, 9, 4, 3, 6, 8, 6, 2, 0), # 85 (15, 12, 17, 11, 20, 1, 5, 4, 8, 4, 1, 2, 0, 11, 16, 13, 11, 14, 3, 5, 1, 10, 4, 3, 0, 0), # 86 (16, 20, 19, 12, 15, 6, 3, 7, 10, 0, 6, 2, 0, 14, 12, 11, 15, 11, 7, 8, 2, 8, 4, 3, 1, 0), # 87 (23, 20, 13, 21, 11, 4, 8, 6, 4, 3, 4, 0, 0, 20, 14, 10, 6, 13, 6, 6, 3, 9, 5, 3, 1, 0), # 88 (17, 13, 18, 19, 9, 5, 6, 4, 7, 3, 6, 0, 0, 26, 10, 9, 10, 12, 8, 4, 5, 7, 6, 5, 1, 0), # 89 (25, 12, 10, 15, 7, 8, 6, 6, 9, 3, 0, 4, 0, 19, 16, 8, 7, 16, 7, 5, 2, 6, 2, 3, 2, 0), # 90 (24, 17, 9, 12, 9, 6, 6, 6, 4, 5, 3, 0, 0, 19, 13, 10, 3, 10, 3, 7, 3, 5, 6, 2, 1, 0), # 91 (18, 16, 10, 10, 12, 2, 7, 6, 13, 6, 4, 1, 0, 19, 12, 8, 8, 24, 8, 12, 7, 6, 6, 4, 3, 0), # 92 (12, 17, 14, 14, 10, 10, 5, 3, 6, 1, 1, 1, 0, 24, 13, 15, 11, 18, 14, 1, 7, 7, 6, 2, 1, 0), # 93 (20, 17, 11, 18, 11, 4, 5, 9, 11, 5, 0, 0, 0, 10, 14, 10, 10, 18, 4, 9, 2, 4, 5, 9, 0, 0), # 94 (10, 19, 14, 15, 10, 5, 4, 4, 5, 2, 3, 0, 0, 18, 8, 13, 5, 18, 6, 6, 2, 3, 4, 6, 2, 0), # 95 (26, 10, 13, 13, 7, 8, 3, 3, 12, 3, 1, 1, 0, 16, 14, 9, 11, 13, 5, 6, 4, 8, 2, 3, 1, 0), # 96 (24, 22, 15, 19, 13, 6, 8, 2, 9, 2, 2, 1, 0, 26, 14, 11, 5, 13, 7, 6, 3, 8, 3, 2, 2, 0), # 97 (20, 12, 15, 18, 21, 5, 3, 7, 4, 6, 5, 3, 0, 22, 17, 8, 9, 6, 10, 3, 3, 7, 6, 1, 2, 0), # 98 (20, 11, 14, 13, 16, 6, 5, 5, 11, 1, 2, 2, 0, 17, 15, 17, 6, 11, 7, 4, 5, 5, 5, 0, 3, 0), # 99 (23, 12, 17, 6, 22, 6, 5, 5, 6, 2, 2, 0, 0, 25, 15, 10, 9, 12, 6, 6, 4, 3, 3, 1, 1, 0), # 100 (21, 8, 7, 13, 17, 5, 5, 3, 10, 3, 4, 2, 0, 28, 20, 9, 9, 9, 5, 4, 3, 7, 3, 2, 2, 0), # 101 (25, 20, 14, 22, 11, 6, 4, 3, 9, 3, 2, 0, 0, 20, 18, 7, 8, 13, 6, 10, 4, 8, 8, 1, 1, 0), # 102 (9, 10, 11, 17, 14, 6, 2, 4, 7, 4, 0, 0, 0, 10, 14, 12, 9, 13, 8, 6, 2, 3, 5, 2, 0, 0), # 103 (15, 21, 22, 23, 12, 6, 3, 5, 5, 2, 2, 1, 0, 18, 14, 12, 11, 17, 7, 7, 6, 6, 6, 3, 0, 0), # 104 (21, 19, 15, 12, 13, 4, 7, 5, 8, 2, 2, 2, 0, 10, 16, 9, 6, 13, 4, 5, 4, 11, 5, 8, 0, 0), # 105 (18, 16, 16, 13, 7, 6, 6, 2, 3, 6, 2, 1, 0, 20, 11, 19, 5, 16, 5, 3, 4, 5, 7, 2, 2, 0), # 106 (17, 15, 10, 16, 8, 7, 8, 6, 6, 2, 1, 2, 0, 24, 12, 15, 9, 10, 6, 4, 6, 8, 11, 4, 5, 0), # 107 (9, 14, 14, 16, 15, 4, 5, 5, 6, 3, 3, 3, 0, 30, 12, 5, 6, 14, 4, 3, 5, 11, 8, 1, 1, 0), # 108 (11, 14, 10, 13, 15, 6, 4, 5, 8, 1, 2, 1, 0, 20, 19, 11, 3, 13, 7, 6, 6, 3, 6, 2, 2, 0), # 109 (17, 8, 15, 20, 18, 1, 4, 5, 6, 3, 3, 1, 0, 22, 14, 11, 11, 14, 11, 4, 2, 9, 4, 1, 1, 0), # 110 (22, 12, 11, 12, 10, 5, 7, 4, 10, 0, 5, 2, 0, 15, 3, 11, 5, 12, 6, 5, 5, 7, 6, 1, 0, 0), # 111 (11, 13, 11, 13, 11, 6, 4, 9, 7, 4, 1, 2, 0, 19, 10, 6, 11, 12, 8, 7, 8, 5, 3, 3, 2, 0), # 112 (15, 7, 12, 12, 11, 4, 1, 5, 7, 3, 0, 2, 0, 17, 13, 9, 7, 13, 6, 7, 2, 4, 5, 2, 1, 0), # 113 (18, 12, 13, 17, 12, 6, 4, 3, 6, 4, 4, 0, 0, 23, 14, 7, 12, 11, 7, 6, 4, 8, 5, 2, 4, 0), # 114 (14, 10, 13, 12, 10, 4, 6, 4, 7, 1, 0, 0, 0, 14, 15, 6, 10, 11, 7, 7, 6, 4, 1, 3, 0, 0), # 115 (14, 17, 15, 15, 11, 6, 6, 4, 8, 1, 0, 3, 0, 23, 16, 12, 10, 13, 7, 3, 12, 4, 5, 2, 2, 0), # 116 (16, 12, 12, 11, 15, 10, 6, 5, 5, 2, 0, 2, 0, 27, 11, 9, 9, 10, 4, 5, 4, 8, 7, 0, 0, 0), # 117 (14, 17, 12, 12, 14, 4, 4, 3, 4, 4, 3, 1, 0, 13, 12, 11, 6, 15, 7, 10, 6, 5, 3, 4, 0, 0), # 118 (13, 16, 15, 13, 6, 7, 1, 7, 3, 2, 1, 2, 0, 13, 15, 15, 4, 11, 5, 4, 4, 7, 3, 8, 2, 0), # 119 (16, 15, 17, 19, 11, 5, 5, 5, 4, 3, 2, 2, 0, 16, 11, 12, 2, 8, 11, 4, 4, 4, 7, 1, 0, 0), # 120 (15, 15, 6, 15, 10, 9, 3, 4, 5, 1, 0, 1, 0, 18, 9, 13, 4, 13, 7, 3, 4, 6, 8, 3, 2, 0), # 121 (13, 14, 16, 16, 19, 6, 2, 0, 8, 2, 3, 4, 0, 17, 10, 9, 5, 11, 9, 7, 4, 4, 2, 3, 1, 0), # 122 (24, 7, 23, 16, 15, 6, 3, 4, 5, 3, 1, 2, 0, 15, 10, 9, 11, 8, 2, 2, 4, 8, 6, 3, 1, 0), # 123 (16, 15, 13, 10, 11, 7, 6, 8, 6, 2, 2, 0, 0, 22, 14, 9, 6, 13, 10, 7, 8, 9, 5, 1, 2, 0), # 124 (15, 18, 13, 10, 15, 9, 4, 7, 8, 3, 1, 0, 0, 18, 8, 15, 6, 20, 10, 2, 5, 5, 7, 2, 0, 0), # 125 (12, 14, 5, 14, 17, 6, 4, 4, 3, 6, 1, 1, 0, 20, 9, 12, 15, 13, 6, 4, 7, 10, 8, 1, 2, 0), # 126 (21, 15, 17, 11, 12, 8, 4, 10, 7, 3, 0, 1, 0, 16, 7, 5, 7, 13, 6, 6, 1, 5, 2, 3, 1, 0), # 127 (21, 10, 8, 24, 12, 4, 6, 4, 10, 3, 3, 0, 0, 15, 7, 11, 10, 9, 7, 5, 9, 6, 4, 3, 0, 0), # 128 (18, 12, 13, 16, 6, 6, 3, 6, 10, 2, 0, 2, 0, 16, 14, 12, 9, 15, 6, 4, 5, 3, 4, 2, 3, 0), # 129 (16, 6, 15, 12, 17, 4, 11, 5, 4, 3, 1, 2, 0, 9, 16, 6, 8, 7, 4, 8, 2, 4, 3, 4, 3, 0), # 130 (12, 16, 14, 17, 9, 4, 5, 2, 3, 1, 0, 2, 0, 11, 14, 4, 10, 15, 4, 3, 3, 2, 7, 6, 1, 0), # 131 (19, 13, 16, 14, 5, 7, 6, 1, 12, 2, 1, 2, 0, 17, 12, 19, 8, 7, 8, 8, 1, 4, 7, 3, 2, 0), # 132 (12, 15, 10, 12, 15, 6, 4, 3, 8, 3, 3, 1, 0, 13, 11, 7, 4, 13, 5, 2, 5, 6, 2, 3, 0, 0), # 133 (13, 13, 10, 13, 14, 3, 2, 5, 2, 2, 1, 3, 0, 18, 15, 11, 15, 13, 4, 7, 2, 7, 4, 2, 2, 0), # 134 (17, 17, 11, 12, 18, 4, 5, 5, 8, 1, 2, 1, 0, 13, 11, 12, 10, 11, 7, 5, 4, 6, 1, 1, 0, 0), # 135 (12, 8, 18, 17, 13, 3, 4, 3, 6, 3, 1, 0, 0, 16, 9, 9, 11, 11, 3, 3, 2, 8, 5, 2, 1, 0), # 136 (14, 23, 12, 16, 7, 7, 4, 7, 2, 4, 0, 0, 0, 18, 9, 17, 6, 14, 9, 7, 2, 6, 11, 3, 0, 0), # 137 (9, 13, 11, 16, 22, 3, 4, 7, 7, 1, 1, 0, 0, 11, 17, 16, 8, 11, 4, 5, 6, 7, 4, 4, 1, 0), # 138 (15, 16, 12, 10, 14, 8, 8, 3, 5, 4, 0, 2, 0, 13, 10, 12, 8, 9, 6, 5, 5, 3, 4, 0, 1, 0), # 139 (17, 13, 21, 12, 5, 3, 6, 6, 5, 4, 2, 1, 0, 10, 17, 8, 11, 11, 7, 8, 1, 9, 4, 3, 1, 0), # 140 (14, 12, 23, 8, 15, 7, 7, 5, 5, 2, 0, 1, 0, 8, 12, 12, 5, 17, 6, 6, 7, 6, 9, 1, 1, 0), # 141 (21, 6, 11, 16, 14, 4, 8, 6, 6, 1, 3, 2, 0, 12, 8, 5, 11, 10, 6, 3, 6, 12, 9, 2, 3, 0), # 142 (19, 14, 14, 13, 8, 6, 3, 6, 8, 4, 3, 3, 0, 15, 22, 6, 4, 15, 6, 2, 5, 8, 3, 2, 2, 0), # 143 (14, 18, 14, 3, 11, 10, 7, 1, 6, 4, 3, 0, 0, 16, 15, 6, 8, 10, 7, 1, 5, 9, 5, 4, 1, 0), # 144 (10, 8, 11, 12, 13, 6, 3, 5, 9, 1, 1, 1, 0, 18, 12, 9, 5, 12, 7, 5, 5, 3, 8, 4, 1, 0), # 145 (20, 14, 11, 13, 9, 5, 6, 2, 3, 1, 2, 0, 0, 23, 26, 6, 6, 10, 7, 8, 6, 8, 8, 3, 2, 0), # 146 (13, 8, 5, 9, 13, 5, 6, 6, 7, 1, 3, 2, 0, 17, 11, 8, 3, 18, 4, 5, 6, 6, 5, 1, 1, 0), # 147 (20, 14, 16, 8, 11, 9, 3, 6, 8, 3, 0, 1, 0, 16, 4, 7, 6, 11, 4, 3, 2, 6, 3, 1, 0, 0), # 148 (9, 9, 6, 10, 9, 7, 6, 1, 5, 2, 1, 3, 0, 17, 21, 9, 6, 9, 9, 6, 3, 4, 2, 4, 0, 0), # 149 (16, 13, 16, 14, 8, 5, 7, 2, 8, 3, 2, 1, 0, 13, 11, 10, 14, 10, 5, 3, 1, 7, 6, 2, 1, 0), # 150 (12, 11, 9, 11, 12, 6, 5, 4, 6, 1, 2, 0, 0, 15, 15, 9, 9, 11, 5, 6, 3, 6, 1, 0, 2, 0), # 151 (16, 7, 15, 11, 8, 10, 3, 0, 7, 1, 1, 0, 0, 10, 8, 10, 14, 9, 4, 4, 7, 5, 6, 2, 1, 0), # 152 (22, 13, 14, 11, 10, 2, 5, 2, 6, 1, 0, 0, 0, 16, 11, 8, 7, 10, 2, 6, 3, 2, 6, 5, 0, 0), # 153 (14, 11, 12, 12, 14, 7, 4, 4, 5, 0, 2, 0, 0, 21, 10, 6, 5, 11, 7, 6, 5, 3, 1, 2, 1, 0), # 154 (18, 12, 15, 14, 9, 5, 3, 4, 10, 1, 2, 2, 0, 11, 12, 6, 4, 10, 5, 8, 3, 4, 3, 2, 1, 0), # 155 (15, 8, 7, 12, 12, 2, 3, 4, 6, 2, 5, 1, 0, 22, 13, 6, 9, 12, 9, 4, 0, 8, 3, 5, 2, 0), # 156 (15, 10, 13, 14, 17, 5, 6, 4, 6, 2, 2, 1, 0, 18, 11, 8, 6, 12, 6, 1, 0, 9, 5, 4, 2, 0), # 157 (11, 7, 11, 6, 12, 9, 10, 5, 6, 2, 0, 0, 0, 15, 13, 4, 7, 10, 8, 2, 2, 3, 3, 3, 0, 0), # 158 (14, 8, 13, 13, 9, 5, 3, 7, 6, 4, 1, 1, 0, 9, 14, 8, 4, 14, 3, 3, 3, 7, 3, 0, 0, 0), # 159 (16, 12, 12, 9, 14, 9, 1, 3, 9, 5, 2, 1, 0, 14, 11, 8, 7, 14, 7, 4, 1, 3, 5, 5, 2, 0), # 160 (5, 6, 6, 11, 8, 4, 5, 6, 5, 3, 3, 0, 0, 18, 10, 6, 8, 18, 8, 5, 7, 4, 1, 1, 3, 0), # 161 (12, 11, 13, 15, 9, 5, 5, 3, 4, 5, 3, 2, 0, 11, 15, 13, 0, 15, 5, 4, 0, 7, 4, 1, 0, 0), # 162 (12, 7, 9, 12, 12, 6, 2, 2, 8, 2, 3, 2, 0, 17, 5, 8, 4, 7, 9, 4, 5, 4, 3, 1, 0, 0), # 163 (12, 5, 16, 11, 12, 2, 3, 4, 5, 0, 0, 1, 0, 10, 11, 7, 5, 8, 6, 4, 3, 6, 4, 2, 1, 0), # 164 (14, 7, 6, 9, 11, 1, 4, 6, 6, 1, 2, 0, 0, 9, 11, 5, 4, 11, 5, 5, 4, 4, 4, 2, 1, 0), # 165 (12, 10, 12, 4, 13, 6, 4, 1, 3, 0, 3, 0, 0, 9, 5, 12, 4, 10, 4, 3, 6, 6, 4, 3, 1, 0), # 166 (10, 8, 13, 12, 9, 3, 3, 5, 8, 2, 3, 1, 0, 14, 11, 11, 4, 9, 4, 2, 2, 2, 2, 4, 1, 0), # 167 (12, 2, 10, 9, 16, 2, 1, 2, 6, 2, 1, 1, 0, 13, 11, 5, 8, 7, 8, 7, 4, 6, 2, 5, 0, 0), # 168 (7, 8, 13, 8, 15, 2, 5, 2, 5, 1, 2, 0, 0, 5, 12, 10, 2, 11, 8, 4, 1, 5, 1, 2, 1, 0), # 169 (10, 10, 9, 14, 6, 6, 3, 7, 4, 3, 1, 4, 0, 16, 11, 6, 4, 8, 4, 6, 2, 4, 3, 0, 0, 0), # 170 (9, 6, 6, 14, 7, 4, 3, 2, 4, 2, 0, 0, 0, 12, 9, 6, 5, 7, 3, 4, 4, 6, 5, 3, 2, 0), # 171 (14, 9, 8, 10, 6, 1, 4, 4, 3, 1, 1, 0, 0, 7, 10, 7, 6, 12, 3, 2, 3, 4, 2, 1, 2, 0), # 172 (12, 5, 10, 6, 12, 5, 4, 6, 1, 0, 1, 2, 0, 13, 7, 5, 7, 7, 3, 5, 3, 6, 2, 3, 0, 0), # 173 (9, 2, 8, 11, 11, 6, 0, 5, 0, 2, 2, 1, 0, 7, 6, 4, 3, 10, 2, 2, 3, 4, 0, 1, 0, 0), # 174 (6, 5, 8, 5, 3, 5, 2, 6, 2, 1, 1, 1, 0, 10, 4, 8, 5, 10, 4, 1, 0, 6, 2, 0, 0, 0), # 175 (10, 3, 3, 9, 7, 3, 1, 2, 6, 1, 1, 0, 0, 11, 5, 4, 3, 5, 5, 4, 1, 4, 3, 0, 0, 0), # 176 (4, 6, 7, 5, 7, 2, 5, 4, 2, 2, 1, 1, 0, 7, 11, 4, 1, 4, 5, 4, 3, 3, 4, 1, 1, 0), # 177 (8, 5, 7, 8, 5, 2, 5, 4, 3, 1, 1, 0, 0, 5, 7, 8, 4, 7, 5, 0, 2, 3, 1, 1, 0, 0), # 178 (0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0), # 179 ) station_arriving_intensity = ( (9.037558041069182, 9.9455194074477, 9.380309813302512, 11.18640199295418, 9.998434093697302, 5.64957887766721, 7.462864107673047, 8.375717111362961, 10.962178311902413, 7.124427027940266, 7.569477294994085, 8.816247140951113, 9.150984382641052), # 0 (9.637788873635953, 10.602109249460566, 9.999623864394273, 11.925259655897909, 10.660482607453627, 6.0227704512766005, 7.955044094274649, 8.927124701230275, 11.686041587399236, 7.59416524609887, 8.069573044721038, 9.398189989465838, 9.755624965391739), # 1 (10.236101416163518, 11.256093307603763, 10.616476113985344, 12.66117786839663, 11.320133352749538, 6.3944732061224006, 8.445273314329269, 9.476325446227955, 12.407016252379588, 8.062044795036982, 8.567681667797364, 9.9778187736955, 10.357856690777442), # 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175 (7.783401338172574, 5.43939752805582, 7.141334500348018, 7.240217585455879, 6.497598131222556, 3.2431880162330953, 2.4350904747283635, 2.493898669360387, 3.5993132003319848, 1.2727074498561304, 1.0050261315038191, 0.6044444151498269, 0.0, 8.663860992238513, 6.648888566648095, 5.025130657519095, 3.8181223495683905, 7.1986264006639695, 3.4914581371045417, 2.4350904747283635, 2.3165628687379254, 3.248799065611278, 2.4134058618186267, 1.4282669000696038, 0.49449068436871096, 0.0), # 176 (7.364651114019479, 5.1422434428188195, 6.763894774163046, 6.8548779138368925, 6.1536241794411275, 3.0729708143032117, 2.303209722771056, 2.3632421869755245, 3.411239266567542, 1.2044820345067013, 0.9512625957354108, 0.5722293043286669, 0.0, 8.204835340308824, 6.2945223476153345, 4.756312978677054, 3.6134461035201033, 6.822478533135084, 3.3085390617657344, 2.303209722771056, 2.1949791530737226, 3.0768120897205637, 2.284959304612298, 1.3527789548326095, 0.4674766766198928, 0.0), # 177 (6.944302033758534, 4.8446646126595665, 6.383962142986221, 6.467413861806007, 5.807464529102536, 2.901438231926097, 2.170966094473966, 2.2315417532170994, 3.2215818063414514, 1.1359591891952627, 0.897243665621434, 0.5398446619322442, 0.0, 7.742963105690853, 5.938291281254685, 4.486218328107169, 3.4078775675857873, 6.443163612682903, 3.1241584545039394, 2.170966094473966, 2.072455879947212, 2.903732264551268, 2.1558046206020025, 1.2767924285972443, 0.44042405569632426, 0.0), # 178 (0.0, 0.0, 0.0, 0.0, 0.0, 0.0, 0.0, 0.0, 0.0, 0.0, 0.0, 0.0, 0.0, 0.0, 0.0, 0.0, 0.0, 0.0, 0.0, 0.0, 0.0, 0.0, 0.0, 0.0, 0.0, 0.0), # 179 ) passenger_allighting_rate = ( (0, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 1, 0, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 1), # 0 (0, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 1, 0, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 1), # 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160 (0, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 1, 0, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 1), # 161 (0, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 1, 0, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 1), # 162 (0, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 1, 0, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 1), # 163 (0, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 1, 0, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 1), # 164 (0, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 1, 0, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 1), # 165 (0, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 1, 0, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 1), # 166 (0, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 1, 0, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 1), # 167 (0, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 1, 0, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 1), # 168 (0, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 1, 0, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 1), # 169 (0, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 1, 0, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 1), # 170 (0, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 1, 0, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 1), # 171 (0, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 1, 0, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 1), # 172 (0, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 1, 0, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 1), # 173 (0, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 1, 0, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 1), # 174 (0, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 1, 0, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 1), # 175 (0, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 1, 0, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 1), # 176 (0, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 1, 0, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 1), # 177 (0, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 1, 0, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 1), # 178 (0, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 1, 0, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 0.07692307692307693, 1), # 179 ) """ parameters for reproducibiliy. More information: https://numpy.org/doc/stable/reference/random/parallel.html """ #initial entropy entropy = 8991598675325360468762009371570610170 #index for seed sequence child child_seed_index = ( 1, # 0 13, # 1 )
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3b30c1ecc7c8601f82245da25ceb6f1834a945ef
105
py
Python
src/hkserror/__init__.py
huykingsofm/hkserror
a15b80fe9e8b3c2a37f901d82358db032fb32ec9
[ "MIT" ]
null
null
null
src/hkserror/__init__.py
huykingsofm/hkserror
a15b80fe9e8b3c2a37f901d82358db032fb32ec9
[ "MIT" ]
null
null
null
src/hkserror/__init__.py
huykingsofm/hkserror
a15b80fe9e8b3c2a37f901d82358db032fb32ec9
[ "MIT" ]
null
null
null
from hkserror.hkserror import HKSError, HTypeError, HFormatError from hkserror.version import __version__
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3b47789fe4104f1d9fd6eb67649c660fda0a7566
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py
Python
SUPPLEMENTAL_FIGURES.py
tortugar/Schott_etal_2022
5cccec4d59184397df39f0bae3544b9c8294ffe2
[ "MIT" ]
null
null
null
SUPPLEMENTAL_FIGURES.py
tortugar/Schott_etal_2022
5cccec4d59184397df39f0bae3544b9c8294ffe2
[ "MIT" ]
null
null
null
SUPPLEMENTAL_FIGURES.py
tortugar/Schott_etal_2022
5cccec4d59184397df39f0bae3544b9c8294ffe2
[ "MIT" ]
null
null
null
#!/usr/bin/env python3 # -*- coding: utf-8 -*- """ Created on Sun Oct 10 18:30:46 2021 @author: fearthekraken """ import AS import pwaves import sleepy import numpy as np import pandas as pd import seaborn as sns import matplotlib.pyplot as plt import scipy.stats as stats from statsmodels.stats.anova import AnovaRM from statsmodels.stats.multicomp import MultiComparison #%% ### Supp. FIGURE 1D - FISH quantification ### df = pd.read_csv('/home/fearthekraken/Documents/Data/sleepRec_processed/FISH_counts.csv') plt.figure() sns.boxplot(x='MARKER LABEL', y='%CRH + MARKER', order=['VGLUT1','VGLUT2','GAD2'], data=df, whis=np.inf, color='white', fliersize=0) sns.stripplot(x='MARKER LABEL', y='%CRH + MARKER', hue='Mouse', order=['VGLUT1','VGLUT2','GAD2'], data=df, palette={'Marlin':'lightgreen', 'SERT1':'lightblue', 'Nemo':'lightgray'}, size=10, linewidth=1, edgecolor='black') plt.show() print('') for marker_label in ['VGLUT1', 'VGLUT2', 'GAD2']: p = df['%CRH + MARKER'].iloc[np.where(df['MARKER LABEL']==marker_label)[0]] print(f'{round(p.mean(),2)}% of CRH+ neurons co-express {marker_label} (+/-{round(p.std(),2)}%)') #%% ### Supp. FIGURE 2B - time-normalized DF/F activity across brain state transitions ### ppath = '/home/fearthekraken/Documents/Data/photometry' recordings = sleepy.load_recordings(ppath, 'crh_photometry.txt')[1] sequence=[3,4,1,2]; state_thres=[(0,10000)]*len(sequence); nstates=[20,20,20,20]; vm=[0.2, 1.9] # NREM --> IS --> REM --> WAKE _, mx_pwave, _ = pwaves.stateseq(ppath, recordings, sequence=sequence, nstates=nstates, state_thres=state_thres, ma_thr=20, ma_state=3, flatten_tnrem=4, fmax=25, pnorm=1, vm=vm, psmooth=[2,2], mode='dff', mouse_avg='mouse', print_stats=False) #%% ### Supp. FIGURE 2C,D,E - DF/F activity at brain state transitions ### ppath = '/home/fearthekraken/Documents/Data/photometry' recordings = sleepy.load_recordings(ppath, 'crh_photometry.txt')[1] transitions = [(3,4)]; pre=40; post=15; vm=[0.3, 1.9]; tr_label = 'NtN' # NREM --> IS #transitions = [(4,1)]; pre=15; post=40; vm=[0.1, 2.1]; tr_label = 'tNR' # IS --> REM #transitions = [(1,2)]; pre=40; post=15; vm=[0.1, 2.1]; tr_label = 'RW' # REM --> WAKE si_threshold = [pre]*6; sj_threshold = [post]*6 mice, tr_act, tr_spe = pwaves.activity_transitions(ppath, recordings, transitions=transitions, pre=pre, post=post, si_threshold=si_threshold, sj_threshold=sj_threshold, ma_thr=20, ma_state=3, flatten_tnrem=4, vm=vm, fmax=25, pnorm=1, psmooth=[3,3], mode='dff', mouse_avg='trials', base_int=5, print_stats=True) #%% ### Supp. FIGURE 2F - DF/F activity following single & cluster P-waves ### ppath = '/home/fearthekraken/Documents/Data/photometry' recordings = sleepy.load_recordings(ppath, 'pwaves_photometry.txt')[1] # get DF/F timecourse data, store in dataframe pzscore=[0,0,0]; p_iso=0.8; pcluster=0 mice, iso_mx = pwaves.dff_timecourse(ppath, recordings, istate=0, plotMode='', dff_win=[0,2], pzscore=pzscore, mouse_avg='mouse', # single P-waves p_iso=p_iso, pcluster=pcluster, clus_event='waves', psmooth=(8,15), print_stats=False) pzscore=[0,0,0]; p_iso=0; pcluster=0.5 mice, clus_mx = pwaves.dff_timecourse(ppath, recordings, istate=0, plotMode='', dff_win=[0,2], pzscore=pzscore, mouse_avg='mouse', # clustered P-waves p_iso=p_iso, pcluster=pcluster, clus_event='waves', psmooth=(8,15), print_stats=False) df = pd.DataFrame({'Mouse' : np.tile(mice,2), 'Event' : np.repeat(['single', 'cluster'], len(mice)), 'DFF' : np.concatenate((iso_mx[2].mean(axis=1), clus_mx[2].mean(axis=1))) }) # bar plot plt.figure(); sns.barplot(x='Event', y='DFF', data=df, ci=68, palette={'single':'salmon', 'cluster':'mediumslateblue'}) sns.pointplot(x='Event', y='DFF', hue='Mouse', data=df, ci=None, markers='', color='black'); plt.gca().get_legend().remove(); plt.show() # stats p = stats.ttest_rel(df['DFF'].iloc[np.where(df['Event'] == 'single')[0]], df['DFF'].iloc[np.where(df['Event'] == 'cluster')[0]]) print(f'single vs cluster P-waves -- T={round(p.statistic,3)}, p-value={round(p.pvalue,5)}') #%% ### Supp. FIGURE 2G -averaged DF/F surrounding P-waves in each brain state ### ppath = '/home/fearthekraken/Documents/Data/photometry' recordings = sleepy.load_recordings(ppath, 'pwaves_photometry.txt')[1] for s in [1,2,3,4]: pwaves.dff_timecourse(ppath, recordings, istate=s, dff_win=[2,2], plotMode='03', pzscore=[0,0,0], mouse_avg='mouse', ma_thr=20, ma_state=3, flatten_tnrem=4, p_iso=0, pcluster=0) #%% ### Supp. FIGURE 3B,C,D - P-wave frequency at brain state transitions ### ppath ='/media/fearthekraken/Mandy_HardDrive1/nrem_transitions/' recordings = sleepy.load_recordings(ppath, 'pwaves_mice.txt')[0] transitions = [(3,4)]; pre=40; post=15; vm=[0.4,2.0]; tr_label = 'NtN' # NREM --> IS #transitions = [(4,1)]; pre=15; post=40; vm=[0.1, 2.0]; tr_label = 'tNR' # IS --> REM #transitions = [(1,2)]; pre=40; post=15; vm=[0.1, 2.0]; tr_label = 'RW' # REM --> WAKE si_threshold = [pre]*6; sj_threshold = [post]*6 mice, tr_act, tr_spe = pwaves.activity_transitions(ppath, recordings, transitions=transitions, pre=pre, post=post, si_threshold=si_threshold, sj_threshold=sj_threshold, ma_thr=20, ma_state=3, flatten_tnrem=4, vm=vm, fmax=25, pnorm=1, psmooth=[3,3], mode='pwaves', mouse_avg='trials', base_int=5, print_stats=True) #%% ### Supp. FIGURE 3E - time-normalized frequency of single & clustered P-waves across brain state transitions ### ppath ='/media/fearthekraken/Mandy_HardDrive1/nrem_transitions/' recordings = sleepy.load_recordings(ppath, 'pwaves_mice.txt')[0] sequence=[3,4,1,2]; state_thres=[(0,10000)]*len(sequence); nstates=[20,20,20,20]; vm=[0.2,2.0] # NREM --> IS --> REM --> WAKE mice,smx,sspe = pwaves.stateseq(ppath, recordings, sequence=sequence, nstates=nstates, state_thres=state_thres, fmax=25, # single P-waves pnorm=1, vm=vm, psmooth=[2,2], mode='pwaves', mouse_avg='mouse', p_iso=0.8, pcluster=0, clus_event='waves', pplot=False, print_stats=False) mice,cmx,cspe = pwaves.stateseq(ppath, recordings, sequence=sequence, nstates=nstates, state_thres=state_thres, fmax=25, # clustered P-waves pnorm=1, vm=vm, psmooth=[2,2], mode='pwaves', mouse_avg='mouse', p_iso=0, pcluster=0.5, clus_event='waves', pplot=False, print_stats=False) # plot timecourses pwaves.plot_activity_transitions([smx, cmx], [mice, mice], plot_id=['salmon', 'mediumslateblue'], group_labels=['single', 'cluster'], xlim=nstates, xlabel='Time (normalized)', ylabel='P-waves/s', title='NREM-->tNREM-->REM-->Wake') #%% ### Supp. FIGURE 3F - average single & cluster P-wave frequency in each brain state ### ppath ='/media/fearthekraken/Mandy_HardDrive1/nrem_transitions/' recordings = sleepy.load_recordings(ppath, 'pwaves_mice.txt')[0] mice,x,sfreq,swf = pwaves.state_freq(ppath, recordings, istate=[1,2,3,4], p_iso=0.8, pcluster=0, # single P-waves clus_event='waves', pplot=False, print_stats=False) mice,x,cfreq,cwf = pwaves.state_freq(ppath, recordings, istate=[1,2,3,4], p_iso=0, pcluster=0.5, # clustered P-waves clus_event='waves', pplot=False, print_stats=False) # bar plot pwaves.plot_state_freq(x, [mice,mice], [sfreq,cfreq], [swf,cwf], group_colors=['salmon', 'mediumslateblue'], group_labels=['single','cluster'], legend='groups', title='Avg. P-wave frequency - single vs clustered waves') # stats df = pd.DataFrame(columns=['Mouse', 'State', 'Event', 'Freq']) for i,s in enumerate(['REM', 'Wake', 'NREM', 'IS']): df = df.append(pd.DataFrame({'Mouse' : np.tile(mice,2), 'State' : [s]*len(mice)*2, 'Event' : np.repeat(['single', 'cluster'], len(mice)), 'Freq' : np.concatenate((sfreq[:,i], cfreq[:,i])) })) # two-way repeated measures ANOVA res_anova = AnovaRM(data=df, depvar='Freq', subject='Mouse', within=['Event', 'State']).fit() print(res_anova); print(' ### P-values ###'); print(res_anova.anova_table['Pr > F']) # post hocs - single and cluster P-wave frequency compared between each pair of brain states single_df = df.iloc[np.where(df['Event'] == 'single')[0], :]; clus_df = df.iloc[np.where(df['Event'] == 'cluster')[0], :] mc_single = MultiComparison(single_df['Freq'], single_df['State']).allpairtest(stats.ttest_rel, method='bonf'); mc_clus = MultiComparison(clus_df['Freq'], clus_df['State']).allpairtest(stats.ttest_rel, method='bonf') print('\nSingle P-waves\n'); print(mc_single[0]); print('\nCluster P-waves\n'); print(mc_clus[0]); # post hocs - for each brain state, single compared to cluster P-wave frequency print('\nSingle vs cluster P-waves\n') for s in ['REM', 'Wake', 'NREM', 'IS']: p = stats.ttest_rel(single_df['Freq'].iloc[np.where(single_df['State'] == s)[0]], clus_df['Freq'].iloc[np.where(clus_df['State'] == s)[0]]) print(f'{s} -- T={round(p.statistic,3)}, p-value={round(p.pvalue,5)}, sig={"yes" if p.pvalue < 0.05 else "no"}') #%% ### Supp. FIGURE 3G - average spectral power surrounding single & cluster P-waves ### ppath ='/media/fearthekraken/Mandy_HardDrive1/nrem_transitions/' recordings = sleepy.load_recordings(ppath, 'pwaves_mice.txt')[0] # top - averaged spectrograms filename = 'sp_win3_single'; win=[-3,3]; pnorm=2; p_iso=0.8; pcluster=0 pwaves.avg_SP(ppath, recordings, istate=[1], win=win, mouse_avg='mouse', plaser=False, pnorm=pnorm, psmooth=[2,2], # single P-waves fmax=25, vm=[0.6,2.0], p_iso=p_iso, pcluster=pcluster, clus_event='waves', pload=filename, psave=filename) filename = 'sp_win3_cluster'; win=[-3,3]; pnorm=2; p_iso=0; pcluster=0.5 pwaves.avg_SP(ppath, recordings, istate=[1], win=win, mouse_avg='mouse', plaser=False, pnorm=pnorm, psmooth=[2,2], # clustered P-waves fmax=25, vm=[0.6,2.0], p_iso=p_iso, pcluster=pcluster, clus_event='waves', pload=filename, psave=filename) # bottom - average high theta power filename = 'sp_win3_single'; win=[-3,3]; pnorm=2; p_iso=0.8; pcluster=0 mice, sdict, t = pwaves.avg_band_power(ppath, recordings, istate=[1], win=win, mouse_avg='mouse', plaser=False, pnorm=pnorm, # single P-waves psmooth=0, bands=[(8,15)], band_colors=['green'], p_iso=p_iso, pcluster=pcluster, clus_event='waves', ylim=[0.6,1.8], pload=filename, psave=filename) filename = 'sp_win3_cluster'; win=[-3,3]; pnorm=2; p_iso=0; pcluster=0.5 mice, cdict, t = pwaves.avg_band_power(ppath, recordings, istate=[1], win=win, mouse_avg='mouse', plaser=False, pnorm=pnorm, # clustered P-waves psmooth=0, bands=[(8,15)], band_colors=['green'], p_iso=p_iso, pcluster=pcluster, clus_event='waves', ylim=[0.6,1.8], pload=filename, psave=filename) # right - mean power in 1 s time window x = np.intersect1d(np.where(t>=-0.5)[0], np.where(t<=0.5)[0]) # get columns between -0.5 s and +0.5 s df = pd.DataFrame({'Mouse' : np.tile(mice,2), 'Event' : np.repeat(['single', 'cluster'], len(mice)), 'Pwr' : np.concatenate((sdict[(8,15)][:,x].mean(axis=1), cdict[(8,15)][:,x].mean(axis=1))) }) fig = plt.figure(); sns.barplot(x='Event', y='Pwr', data=df, ci=68, palette={'single':'salmon', 'cluster':'mediumslateblue'}) sns.pointplot(x='Event', y='Pwr', hue='Mouse', data=df, ci=None, markers='', color='black'); plt.gca().get_legend().remove() plt.title('Single vs Clustered P-waves'); plt.show() # stats p = stats.ttest_rel(df['Pwr'].iloc[np.where(df['Event'] == 'single')[0]], df['Pwr'].iloc[np.where(df['Event'] == 'cluster')[0]]) print(f'single vs cluster P-waves -- T={round(p.statistic,3)}, p-value={round(p.pvalue,5)}') #%% ### Supp. FIGURE 4A - % time in each brain state before and during the laser ### ppath = '/home/fearthekraken/Documents/Data/sleepRec_processed/' recordings = sleepy.load_recordings(ppath, 'crh_chr2_ol.txt')[1] BS, t, df = AS.laser_brainstate(ppath, recordings, pre=400, post=520, flatten_tnrem=4, ma_state=3, ma_thr=20, edge=10, sf=0, ci='sem') #%% ### Supp. FIGURE 4B- averaged spectral band power before and during the laser ### ppath = '/home/fearthekraken/Documents/Data/sleepRec_processed/' recordings = sleepy.load_recordings(ppath, 'crh_chr2_ol.txt')[1] bands=[(0.5,4), (6,10), (11,15), (55,99)]; band_labels=['delta', 'theta', 'sigma', 'gamma']; band_colors=['firebrick', 'limegreen', 'cyan', 'purple'] AS.laser_triggered_eeg_avg(ppath, recordings, pre=400, post=520, fmax=100, laser_dur=120, pnorm=1, psmooth=3, harmcs=10, iplt_level=2, vm=[0.6,1.4], sf=7, bands=bands, band_labels=band_labels, band_colors=band_colors, ci=95) #%% ### Supp. FIGURE 4C - laser-triggered change in REM transition probability ### ppath = '/home/fearthekraken/Documents/Data/sleepRec_processed/' recordings = sleepy.load_recordings(ppath, 'crh_chr2_ol.txt')[1] AS.laser_transition_probability(ppath, recordings, pre=400, post=520, ma_state=3, ma_thr=20, sf=10) #%% ### Supp. FIGURE 4D, spectral power during NREM-->REM transitions ### ppath = '/home/fearthekraken/Documents/Data/sleepRec_processed/' recordings = sleepy.load_recordings(ppath, 'crh_chr2_ol.txt')[1] pre=40; post=40; si_threshold=[pre]*6; sj_threshold=[post]*6 bands=[(0.5,4), (6,12), (13,20), (50,100)]; band_labels=['delta', 'theta', 'sigma', 'gamma']; band_colors=['firebrick', 'limegreen', 'cyan', 'purple'] AS.avg_sp_transitions(ppath, recordings, transitions=[(3,1)], pre=pre, post=post, si_threshold=si_threshold, sj_threshold=sj_threshold, laser=1, bands=bands, band_labels=band_labels, band_colors=band_colors, flatten_tnrem=3, ma_thr=20, ma_state=3, fmax=100, pnorm=1, psmooth=[3,3], vm=[(0.1,2.5),(0.1,2.5)], mouse_avg='mouse', sf=0) #%% ### Supp. FIGURE 4E - power spectrum for each brain state, ChR2 & eYFP mice ### ppath = '/home/fearthekraken/Documents/Data/sleepRec_processed/' recordings = sleepy.load_recordings(ppath, 'crh_chr2_ol.txt')[1] _ = AS.sleep_spectrum_simple(ppath, recordings, istate=[1,2,3,4], pmode=1, pnorm=0, fmax=30, ma_thr=20, # ChR2 ma_state=3, flatten_tnrem=4, harmcs=10) recordings = sleepy.load_recordings(ppath, 'crh_yfp_chr2_ol.txt')[1] _ = AS.sleep_spectrum_simple(ppath, recordings, istate=[1,2,3,4], pmode=1, pnorm=0, fmax=30, ma_thr=20, # eYFP ma_state=3, flatten_tnrem=4, harmcs=10) #%% ### Supp. FIGURE 4G,H - eYFP percent time spent in each brain state surrounding laser ### ppath = '/home/fearthekraken/Documents/Data/sleepRec_processed/' recordings = sleepy.load_recordings(ppath, 'crh_yfp_chr2_ol.txt')[1] BS, t, df = AS.laser_brainstate(ppath, recordings, pre=400, post=520, flatten_tnrem=4, ma_state=3, ma_thr=20, edge=10, sf=0, ci='sem', ylim=[0,80]) #%% ### Supp. FIGURE 4I - eYFP averaged SPs and frequency band power surrounding laser ### ppath = '/home/fearthekraken/Documents/Data/sleepRec_processed/' recordings = sleepy.load_recordings(ppath, 'crh_yfp_chr2_ol.txt')[1] bands=[(0.5,4), (6,10), (11,15), (55,99)]; band_labels=['delta', 'theta', 'sigma', 'gamma']; band_colors=['firebrick', 'limegreen', 'cyan', 'purple'] AS.laser_triggered_eeg_avg(ppath, recordings, pre=400, post=520, fmax=100, laser_dur=120, pnorm=1, psmooth=3, harmcs=10, iplt_level=2, vm=[0.6,1.4], sf=7, bands=bands, band_labels=band_labels, band_colors=band_colors, ci=95, ylim=[0.6,1.3]) #%% ### Supp. FIGURE 4J - closed loop overall REM duration ### ppath = '/home/fearthekraken/Documents/Data/sleepRec_processed/' ctr_rec = sleepy.load_recordings(ppath, 'crh_yfp_chr2_cl.txt')[1]; exp_rec = sleepy.load_recordings(ppath, 'crh_chr2_cl.txt')[1] AS.compare_online_analysis(ppath, ctr_rec, exp_rec, istate=1, stat='dur', mouse_avg='mouse', group_colors=['gray','blue'], ylim=[0,120]) # eYFP vs ChR2 ctr_rec = sleepy.load_recordings(ppath, 'crh_yfp_ic_cl.txt')[1]; exp_rec = sleepy.load_recordings(ppath, 'crh_ic_cl.txt')[1] AS.compare_online_analysis(ppath, ctr_rec, exp_rec, istate=1, stat='dur', mouse_avg='mouse', group_colors=['gray','red'], ylim=[0,120]) # eYFP vs iC++ #%% ### Supp. FIGURE 4K - closed loop total % time in REM ### ppath = '/home/fearthekraken/Documents/Data/sleepRec_processed/' ctr_rec = sleepy.load_recordings(ppath, 'crh_yfp_chr2_cl.txt')[1]; exp_rec = sleepy.load_recordings(ppath, 'crh_chr2_cl.txt')[1] AS.compare_online_analysis(ppath, ctr_rec, exp_rec, istate=1, stat='perc', mouse_avg='mouse', group_colors=['gray','blue'], ylim=[0,12]) # eYFP vs ChR2 ctr_rec = sleepy.load_recordings(ppath, 'crh_yfp_ic_cl.txt')[1]; exp_rec = sleepy.load_recordings(ppath, 'crh_ic_cl.txt')[1] AS.compare_online_analysis(ppath, ctr_rec, exp_rec, istate=1, stat='perc', mouse_avg='mouse', group_colors=['gray','red'], ylim=[0,12]) # eYFP vs iC++ #%% ### Supp. FIGURE 5B - average amplitude and half-width of spontaneous & laser-triggered P-waves ### ppath = '/home/fearthekraken/Documents/Data/sleepRec_processed' recordings = sleepy.load_recordings(ppath, 'lsr_pwaves.txt')[1] filename = 'lsr_stats' df = pwaves.get_lsr_stats(ppath, recordings, istate=[1,2,3,4], post_stim=0.1, flatten_tnrem=4, ma_thr=20, ma_state=3, psave=filename) pwaves.lsr_pwave_size(df, stat='amp2', plotMode='03', istate=1, mouse_avg='mouse') pwaves.lsr_pwave_size(df, stat='halfwidth', plotMode='03', istate=1, mouse_avg='mouse') #%% ### Supp. FIGURE 5C - average spectral power surrounding single & cluster P-waves ### ppath = '/home/fearthekraken/Documents/Data/sleepRec_processed' recordings = sleepy.load_recordings(ppath, 'lsr_pwaves.txt')[1] # top - averaged spectrograms filename = 'sp_win3_single_lsr'; win=[-3,3]; pnorm=2; p_iso=0.8; pcluster=0 pwaves.avg_SP(ppath, recordings, istate=[1], mode='pwaves', win=win, plaser=True, post_stim=0.1, mouse_avg='mouse', # single lsr P-waves pnorm=pnorm, psmooth=[(3,3),(5,5)], vm=[(0.6,1.65),(0.8,1.5)], fmax=25, recalc_highres=False, p_iso=p_iso, pcluster=pcluster, clus_event='waves', pload=filename, psave=filename) filename = 'sp_win3_cluster_lsr'; win=[-3,3]; pnorm=2; p_iso=0; pcluster=0.5 pwaves.avg_SP(ppath, recordings, istate=[1], mode='pwaves', win=win, plaser=True, post_stim=0.1, mouse_avg='mouse', # clustered lsr P-waves pnorm=pnorm, psmooth=[(7,7),(5,5)], vm=[(0.6,1.65),(0.8,1.5)], fmax=25, recalc_highres=False, p_iso=p_iso, pcluster=pcluster, clus_event='waves', pload=filename, psave=filename) # bottom - averaged high theta power filename = 'sp_win3_single_lsr'; win=[-3,3]; pnorm=2; p_iso=0.8; pcluster=0 mice,lsr_iso,spon_iso,t = pwaves.avg_band_power(ppath, recordings, istate=[1], mode='pwaves', win=win, plaser=True, post_stim=0.1, # single ls P-waves mouse_avg='mouse', bands=[(8,15)], band_colors=[('green')], pnorm=pnorm, psmooth=(4,4), fmax=25, p_iso=p_iso, pcluster=pcluster, clus_event='waves', pload=filename, psave=filename, ylim=[0.5,2]) filename = 'sp_win3_cluster_lsr'; win=[-3,3]; pnorm=2; p_iso=0; pcluster=0.5 mice,lsr_clus,spon_clus,t = pwaves.avg_band_power(ppath, recordings, istate=[1], mode='pwaves', win=win, plaser=True, post_stim=0.1, # clustered lsr P-waves mouse_avg='mouse', bands=[(8,15)], band_colors=[('green')], pnorm=pnorm, psmooth=(4,4), fmax=25, p_iso=p_iso, pcluster=pcluster, clus_event='waves', pload=filename, psave=filename, ylim=[0.5,2]) # right - mean power in 1 s time window x = np.intersect1d(np.where(t>=-0.5)[0], np.where(t<=0.5)[0]) # get columns between -0.5 s and +0.5 s df = pd.DataFrame({'Mouse' : np.tile(mice,2), 'Event' : np.repeat(['single', 'cluster'], len(mice)), 'Pwr' : np.concatenate((lsr_iso[(8,15)][:,x].mean(axis=1), lsr_clus[(8,15)][:,x].mean(axis=1))) }) fig = plt.figure(); sns.barplot(x='Event', y='Pwr', data=df, ci=68, palette={'single':'salmon', 'cluster':'mediumslateblue'}) sns.pointplot(x='Event', y='Pwr', hue='Mouse', data=df, ci=None, markers='', color='black'); plt.gca().get_legend().remove() plt.title('Laser-triggered Single vs Clustered P-waves'); plt.show() # stats p = stats.ttest_rel(df['Pwr'].iloc[np.where(df['Event'] == 'single')[0]], df['Pwr'].iloc[np.where(df['Event'] == 'cluster')[0]]) print(f'single vs cluster laser P-waves -- T={round(p.statistic,3)}, p-value={round(p.pvalue,5)}') #%% ### Supp. FIGURE 5D,E,F - spectral power preceding successful & failed laser pulses ### ppath = '/home/fearthekraken/Documents/Data/sleepRec_processed' recordings = sleepy.load_recordings(ppath, 'lsr_pwaves.txt')[1] # D - normalized power spectrum filename = 'sp_win3pre_pnorm1'; win=[-3,0]; pnorm=1 pwaves.lsr_prev_theta_success(ppath, recordings, win=win, mode='spectrum', theta_band=[0,20], post_stim=0.1, pnorm=pnorm, psmooth=3, ci='sem', nbins=14, prange1=(), prange2=(), mouse_avg='trials', pload=filename, psave=filename) # E - mean theta power filename = 'sp_win3pre_pnorm1'; win=[-3,0]; pnorm=1 pwaves.lsr_prev_theta_success(ppath, recordings, win=win, mode='power', theta_band=[6,12], post_stim=0.1, pnorm=pnorm, psmooth=0, ci='sem', nbins=14, prange1=(), prange2=(0,4), mouse_avg='trials', pload=filename, psave=filename) # F - mean theta frequency filename = 'sp_win3pre_pnorm0'; win=[-3,0]; pnorm=0 pwaves.lsr_prev_theta_success(ppath, recordings, win=win, mode='mean freq', theta_band=[6,12], post_stim=0.1, pnorm=pnorm, psmooth=0, ci='sem', nbins=14, prange1=(), prange2=(6.5,9.5), mouse_avg='trials', pload=filename, psave=filename) #%% ### Supp. FIGURE 6A - hm3dq power spectrums, saline vs cno ### ppath = '/media/fearthekraken/Mandy_HardDrive1/nrem_transitions/' (c, e) = AS.load_recordings(ppath, 'crh_hm3dq_tnrem.txt', dose=True, pwave_channel=False); e=e['0.25'] AS.compare_power_spectrums(ppath, [c, e], ['hm3dq-saline', 'hm3dq-cno'], istate=[1,2,3,4], pmode=0, pnorm=0, fmax=30, flatten_tnrem=4, ma_thr=20, ma_state=3, colors=['gray', 'blue']) #%% ### Supp. FIGURE 6B - hm4di power spectrums, saline vs cno ### ppath = '/media/fearthekraken/Mandy_HardDrive1/nrem_transitions/' (c, e) = AS.load_recordings(ppath, 'crh_hm4di_tnrem.txt', dose=True, pwave_channel=False); e=e['5'] AS.compare_power_spectrums(ppath, [c, e], ['hm4di-saline', 'hm4di-cno'], istate=[1,2,3,4], pmode=0, pnorm=0, fmax=30, flatten_tnrem=4, ma_thr=20, ma_state=3, colors=['gray', 'red']) #%% ### Supp. FIGURE 6D - mCherry percent time spent in REM ## ppath = '/media/fearthekraken/Mandy_HardDrive1/dreadds_processed/' (c, e) = AS.load_recordings(ppath, 'mCherry_all.txt', dose=True, pwave_channel=False); hm3dq=e['0.25']; hm4di=e['5'] m1, T1 = pwaves.sleep_timecourse(ppath, c, istate=[1], tbin=18000, n=1, stats='perc', flatten_tnrem=4, pplot=False) # saline m2, T2 = pwaves.sleep_timecourse(ppath, hm3dq, istate=[1], tbin=18000, n=1, stats='perc', flatten_tnrem=4, pplot=False) # 0.25 mg/kg CNO m3, T3 = pwaves.sleep_timecourse(ppath, hm4di, istate=[1], tbin=18000, n=1, stats='perc', flatten_tnrem=4, pplot=False) # 5.0 mg/kg CNO pwaves.plot_sleep_timecourse([T1,T2,T3], [m1,m2,m3], tstart=0, tbin=18000, stats='perc', plotMode='03', group_colors=['gray', 'orangered', 'brown'], group_labels=['saline','0.25 mg/kg cno', '5.0 mg/kg cno']) # stats df = pwaves.df_from_timecourse_dict([T1,T2,T3], [m1,m2,m3], ['0','0.25', '5']) res_anova = AnovaRM(data=df, depvar='t0', subject='Mouse', within=['dose']).fit() print('\n\n ### REM PERCENTAGE ###\n'); print(res_anova) #%% ### Supp. FIGURE 6E - mCherry mean REM duration ## ppath = '/media/fearthekraken/Mandy_HardDrive1/dreadds_processed/' (c, e) = AS.load_recordings(ppath, 'mCherry_all.txt', dose=True, pwave_channel=False); hm3dq=e['0.25']; hm4di=e['5'] m1, T1 = pwaves.sleep_timecourse(ppath, c, istate=[1], tbin=18000, n=1, stats='dur', flatten_tnrem=4, pplot=False) # saline m2, T2 = pwaves.sleep_timecourse(ppath, hm3dq, istate=[1], tbin=18000, n=1, stats='dur', flatten_tnrem=4, pplot=False) # 0.25 mg/kg CNO m3, T3 = pwaves.sleep_timecourse(ppath, hm4di, istate=[1], tbin=18000, n=1, stats='dur', flatten_tnrem=4, pplot=False) # 5.0 mg/kg CNO pwaves.plot_sleep_timecourse([T1,T2,T3], [m1,m2,m3], tstart=0, tbin=18000, stats='dur', plotMode='03', group_colors=['gray', 'orangered', 'brown'], group_labels=['saline','0.25 mg/kg cno', '5.0 mg/kg cno']) # stats df = pwaves.df_from_timecourse_dict([T1,T2,T3], [m1,m2,m3], ['0','0.25', '5']) res_anova = AnovaRM(data=df, depvar='t0', subject='Mouse', within=['dose']).fit() print('\n\n ### REM DURATION ###\n'); print(res_anova) #%% ### Supp. FIGURE 6F - mCherry mean REM frequency ### ppath = '/media/fearthekraken/Mandy_HardDrive1/dreadds_processed/' (c, e) = AS.load_recordings(ppath, 'mCherry_all.txt', dose=True, pwave_channel=False); hm3dq=e['0.25']; hm4di=e['5'] m1, T1 = pwaves.sleep_timecourse(ppath, c, istate=[1], tbin=18000, n=1, stats='freq', flatten_tnrem=4, pplot=False) # saline m2, T2 = pwaves.sleep_timecourse(ppath, hm3dq, istate=[1], tbin=18000, n=1, stats='freq', flatten_tnrem=4, pplot=False) # 0.25 mg/kg CNO m3, T3 = pwaves.sleep_timecourse(ppath, hm4di, istate=[1], tbin=18000, n=1, stats='freq', flatten_tnrem=4, pplot=False) # 5.0 mg/kg CNO pwaves.plot_sleep_timecourse([T1,T2,T3], [m1,m2,m3], tstart=0, tbin=18000, stats='freq', plotMode='03', group_colors=['gray', 'orangered', 'brown'], group_labels=['saline','0.25 mg/kg cno', '5.0 mg/kg cno']) # stats df = pwaves.df_from_timecourse_dict([T1,T2,T3], [m1,m2,m3], ['0','0.25', '5']) res_anova = AnovaRM(data=df, depvar='t0', subject='Mouse', within=['dose']).fit() print('\n\n ### REM FREQUENCY ###\n'); print(res_anova) #%% ### Supp. FIGURE 6G - mCherry percent time spent in Wake/NREM/IS ### ppath = '/media/fearthekraken/Mandy_HardDrive1/dreadds_processed/' (c, e) = AS.load_recordings(ppath, 'mCherry_all.txt', dose=True, pwave_channel=False); hm3dq=e['0.25']; hm4di=e['5'] m1, T1 = pwaves.sleep_timecourse(ppath, c, istate=[2,3,4], tbin=18000, n=1, stats='perc', flatten_tnrem=4, pplot=False) # saline m2, T2 = pwaves.sleep_timecourse(ppath, hm3dq, istate=[2,3,4], tbin=18000, n=1, stats='perc', flatten_tnrem=4, pplot=False) # 0.25 mg/kg CNO m3, T3 = pwaves.sleep_timecourse(ppath, hm4di, istate=[2,3,4], tbin=18000, n=1, stats='perc', flatten_tnrem=4, pplot=False) # 5.0 mg/kg CNO pwaves.plot_sleep_timecourse([T1,T2,T3], [m1,m2,m3], tstart=0, tbin=18000, stats='perc', plotMode='03', group_colors=['gray', 'orangered', 'brown'], group_labels=['saline','0.25 mg/kg cno', '5.0 mg/kg cno']) # stats df = pwaves.df_from_timecourse_dict([T1,T2,T3], [m1,m2,m3], ['0','0.25', '5']) for s in [2,3,4]: sdf = df.iloc[np.where(df['state']==s)[0],:] res_anova = AnovaRM(data=sdf, depvar='t0', subject='Mouse', within=['dose']).fit() print(f'\n\n ### STATE = {s} ###\n'); print(res_anova) #%% ### Supp. FIGURE 6H - mCherry REM sleep transition probability ### ppath = '/media/fearthekraken/Mandy_HardDrive1/dreadds_processed/' (c, e) = AS.load_recordings(ppath, 'mCherry_all.txt', dose=True, pwave_channel=False); hm3dq=e['0.25']; hm4di=e['5'] m1, T1 = pwaves.sleep_timecourse(ppath, c, istate=[1], tbin=18000, n=1, stats='transition probability', flatten_tnrem=False, pplot=False) # saline m2, T2 = pwaves.sleep_timecourse(ppath, hm3dq, istate=[1], tbin=18000, n=1, stats='transition probability', flatten_tnrem=False, pplot=False) # 0.25 mg/kg CNO m3, T3 = pwaves.sleep_timecourse(ppath, hm4di, istate=[1], tbin=18000, n=1, stats='transition probability', flatten_tnrem=False, pplot=False) # 5.0 mg/kg CNO pwaves.plot_sleep_timecourse([T1,T2,T3], [m1,m2,m3], tstart=0, tbin=18000, stats='transition probability', plotMode='03', group_colors=['gray', 'orangered', 'brown'], group_labels=['saline','0.25 mg/kg cno', '5.0 mg/kg cno']) df = pwaves.df_from_timecourse_dict([T1,T2,T3], [m1,m2,m3], ['0','0.25', '5']) res_anova = AnovaRM(data=df, depvar='t0', subject='Mouse', within=['dose']).fit() print('\n\n ### REM TRANSITION PROBABILITY ###\n'); print(res_anova) #%% ### Supp. FIGURE 6I - mCherry time-normalized P-wave frequency across brain state transitions ### ppath = '/media/fearthekraken/Mandy_HardDrive1/dreadds_processed/' (c, e) = AS.load_recordings(ppath, 'mCherry_all.txt', dose=True, pwave_channel=True); hm3dq=e['0.25']; hm4di=e['5'] c = [i[0] for i in c if i[1] != 'X']; hm3dq = [i[0] for i in hm3dq if i[1] != 'X']; hm4di = [i[0] for i in hm4di if i[1] != 'X'] sequence=[3,4,1,2]; state_thres=[(0,10000)]*len(sequence); nstates=[20,20,20,20] # NREM --> IS --> REM --> WAKE m1,mx1,spe1 = pwaves.stateseq(ppath, c, sequence=sequence, nstates=nstates, state_thres=state_thres, fmax=25, pnorm=1, # saline psmooth=[2,2], mode='pwaves', mouse_avg='mouse', pplot=False, print_stats=False) m2,mx2,spe2 = pwaves.stateseq(ppath, hm3dq, sequence=sequence, nstates=nstates, state_thres=state_thres, fmax=25, pnorm=1, # 0.25 mg/kg CNO psmooth=[2,2], mode='pwaves', mouse_avg='mouse', pplot=False, print_stats=False) m3,mx3,spe3 = pwaves.stateseq(ppath, hm4di, sequence=sequence, nstates=nstates, state_thres=state_thres, fmax=25, pnorm=1, # 5.0 mg/kg CNO psmooth=[2,2], mode='pwaves', mouse_avg='mouse', pplot=False, print_stats=False) mx_list = [mx1,mx2,mx2] # plot timecourses pwaves.plot_activity_transitions(mx_list, [m1,m2,m3], plot_id=['gray', 'orangered', 'brown'], xlim=nstates, group_labels=['mCherry-saline', 'mCherry-0.25mg/kg cno', 'mCherry-5.0mg/kg cno'], xlabel='Time (normalized', ylabel='P-waves/s', title='NREM-->tNREM-->REM-->Wake', sem=True) #%% ### Supp. FIGURE 6J - mCherry average P-wave frequency in each brain state ### ppath = '/media/fearthekraken/Mandy_HardDrive1/dreadds_processed/' (c, e) = AS.load_recordings(ppath, 'mCherry_all.txt', dose=True, pwave_channel=True); hm3dq=e['0.25']; hm4di=e['5'] c = [i[0] for i in c if i[1] != 'X']; hm3dq = [i[0] for i in hm3dq if i[1] != 'X']; hm4di = [i[0] for i in hm4di if i[1] != 'X'] m1, x, f1, w1 = pwaves.state_freq(ppath, c, istate=[1,2,3,4], flatten_tnrem=4, pplot=False, print_stats=False) # saline m2, x, f2, w2 = pwaves.state_freq(ppath, hm3dq, istate=[1,2,3,4], flatten_tnrem=4, pplot=False, print_stats=False) # 0.25 mg/kg CNO m3, x, f3, w3 = pwaves.state_freq(ppath, hm4di, istate=[1,2,3,4], flatten_tnrem=4, pplot=False, print_stats=False) # 5.0 mg/kg CNO f_list = [f1,f2,f3]; w_list = [w1,w2,w3] pwaves.plot_state_freq(x, [m1, m2, m3], f_list, w_list, group_colors=['gray', 'orangered', 'brown'], group_labels=['mCherry-saline', 'mCherry-0.25mg/kg cno', 'mCherry-5.0mg/kg cno']) # stats df = pd.DataFrame(columns=['Mouse', 'State', 'Dose', 'Freq']) for i,s in enumerate([1,2,3,4]): df = df.append(pd.DataFrame({'Mouse' : m1 + m2 + m3, 'State' : [s]*len(m1) + [s]*len(m2) + [s]*len(m3), 'Dose' : ['saline']*len(m1) + ['0.25']*len(m2) + ['5']*len(m3), 'Freq' : np.concatenate((f1[:,i], f2[:,i], f3[:,i])) })) for s in [1,2,3,4]: sdf = df.iloc[np.where(df['State']==s)[0],:] res_anova = AnovaRM(data=sdf, depvar='Freq', subject='Mouse', within=['Dose']).fit() print(f'\n\n ### STATE = {s} ###\n'); print(res_anova) #%% ### Supp. FIGURE 6K - mCherry power spectrums ### ppath = '/media/fearthekraken/Mandy_HardDrive1/dreadds_processed/' (c, e) = AS.load_recordings(ppath, 'mCherry_all.txt', dose=True, pwave_channel=False); hm3dq=e['0.25']; hm4di=e['5'] AS.compare_power_spectrums(ppath, [c, hm3dq, hm4di], ['mCherry-saline', 'mCherry-0.25mg/kg cno', 'mCherry-5.0mg/kg cno'], istate=[1,2,3,4], pmode=0, pnorm=0, fmax=30, flatten_tnrem=4, ma_thr=20, ma_state=3, colors=['gray', 'orangered', 'brown'])
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3b59c10ca9c76cb4989a98f725276e8695a70520
4,719
py
Python
mongosync/progress_logger.py
caosiyang/py-mongo-sync
980a37c6f2b012025d43878a315e2869af397dd5
[ "MIT" ]
98
2016-05-26T07:45:08.000Z
2022-03-15T03:52:22.000Z
mongosync/progress_logger.py
caosiyang/py-mongo-sync
980a37c6f2b012025d43878a315e2869af397dd5
[ "MIT" ]
31
2016-08-27T06:46:20.000Z
2021-07-27T11:52:58.000Z
mongosync/progress_logger.py
caosiyang/py-mongo-sync
980a37c6f2b012025d43878a315e2869af397dd5
[ "MIT" ]
51
2016-05-05T05:47:41.000Z
2021-09-09T10:53:11.000Z
import sys import time import multiprocessing import threading import Queue from mongosync.logger import Logger log = Logger.get() class Message(object): """ Progress change message. """ def __init__(self, ns, cnt, done): self.ns = ns self.cnt = cnt self.done = done class Progress(object): """ Progress attibutes. """ def __init__(self, ns, total): self.ns = ns self.curr = 0 self.total = total self.start_time = time.time() self.done = False class LoggerThread(threading.Thread): """ Logger thread. """ def __init__(self, n_colls, **kwargs): self._n_colls = n_colls self._q = Queue.Queue() self._ns_map = {} super(LoggerThread, self).__init__(**kwargs) def run(self): n_colls_done = 0 while n_colls_done < self._n_colls: m = self._q.get() if m.ns not in self._ns_map: raise Exception('missing namespace: %s' % m.ns) self._ns_map[m.ns].curr += m.cnt prog = self._ns_map[m.ns] s = '\t%s\t%d/%d\t[%.2f%%]' % ( prog.ns, prog.curr, prog.total, float(prog.curr)/prog.total*100 if prog.total > 0 else float(prog.curr+1)/(prog.total+1)*100) if not m.done: log.info(s) else: log.info('[ OK ] ' + s) n_colls_done += 1 time_used = time.time() - prog.start_time sys.stdout.write('\r\33[K') sys.stdout.write('\r[\033[32m OK \033[0m]\t[%d/%d]\t%s\t%d/%d\t%.1fs\n' % (n_colls_done, self._n_colls, m.ns, prog.curr, prog.total, time_used)) sys.stdout.flush() del self._ns_map[m.ns] # s = '' # for ns, prog in self._ns_map.iteritems(): # s += '|| %s %d/%d %.1f%% ' % (ns, prog.curr, prog.total, float(prog.curr)/prog.total*100) # if len(s) > 0: # s += '||' # sys.stdout.write('\r%s' % s) # sys.stdout.flush() log.info('ProgressLogger thread %s exit' % threading.currentThread().name) def register(self, ns, total): """ Register collection. """ if ns in self._ns_map: raise Exception('duplicate collection %s' % ns) self._ns_map[ns] = Progress(ns, total) def add(self, ns, count, done=False): """ Update progress. """ self._q.put(Message(ns, count, done)) class LoggerProcess(multiprocessing.Process): """ Logger progress. """ def __init__(self, n_colls, **kwargs): self._n_colls = n_colls self._q = multiprocessing.Queue() self._ns_map = multiprocessing.Manager().dict() super(LoggerProcess, self).__init__(**kwargs) def run(self): n_colls_done = 0 while n_colls_done < self._n_colls: m = self._q.get() if m.ns not in self._ns_map: raise Exception('missing namespace: %s' % m.ns) self._ns_map[m.ns].curr += m.cnt prog = self._ns_map[m.ns] s = '\t%s\t%d/%d\t[%.2f%%]' % ( prog.ns, prog.curr, prog.total, float(prog.curr)/prog.total*100 if prog.total > 0 else float(prog.curr+1)/(prog.total+1)*100) if not m.done: log.info(s) else: log.info('[ OK ] ' + s) n_colls_done += 1 time_used = time.time() - prog.start_time sys.stdout.write('\r\33[K') sys.stdout.write('\r[\033[32m OK \033[0m]\t[%d/%d]\t%s\t%d/%d\t%.1fs\n' % (n_colls_done, self._n_colls, m.ns, prog.curr, prog.total, time_used)) sys.stdout.flush() del self._ns_map[m.ns] # s = '' # for ns, prog in self._ns_map.iteritems(): # s += '|| %s %d/%d %.1f%% ' % (ns, prog.curr, prog.total, float(prog.curr)/prog.total*100) # if len(s) > 0: # s += '||' # sys.stdout.write('\r%s' % s) # sys.stdout.flush() log.info('ProgressLogger process %s exit' % multiprocessing.current_process().name) def register(self, ns, total): """ Register collection. """ if ns in self._ns_map: raise Exception('duplicate collection %s' % ns) self._ns_map[ns] = Progress(ns, total) def add(self, ns, count, done=False): """ Update progress. """ self._q.put(Message(ns, count, done))
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6
8e6d874c2b16b50924a57fc1144d3932da922efa
4,505
py
Python
2019/Day 5/main.py
edgorman/Advent-of-Code
7c354dfdfd0c072c59b15bcac265c19e6a088440
[ "MIT" ]
null
null
null
2019/Day 5/main.py
edgorman/Advent-of-Code
7c354dfdfd0c072c59b15bcac265c19e6a088440
[ "MIT" ]
null
null
null
2019/Day 5/main.py
edgorman/Advent-of-Code
7c354dfdfd0c072c59b15bcac265c19e6a088440
[ "MIT" ]
null
null
null
import os from copy import deepcopy def part_one_helper(intcode, position, mode): if mode == "1": return intcode[position] else: return intcode[intcode[position]] def part_one(intcode, input_): index = 0 output_ = 0 # Define custom op code functions def add(a, b): return a + b def mult(a, b): return a * b def store(v, p): intcode[p] = v def output(p): return intcode[p] # Iterate until reach the stop code while intcode[index] != 99: opcode = int(str(intcode[index])[-2:]) modes = str(intcode[index])[:-2][::-1] + '000' # Addition if opcode == 1: intcode[intcode[index + 3]] = add( part_one_helper(intcode, index + 1, modes[0]), part_one_helper(intcode, index + 2, modes[1]) ) index += 4 # Multiplication elif opcode == 2: intcode[intcode[index + 3]] = mult( part_one_helper(intcode, index + 1, modes[0]), part_one_helper(intcode, index + 2, modes[1]) ) index += 4 # Storage elif opcode == 3: store(input_, intcode[index + 1]) index += 2 # Output elif opcode == 4: output_ = output(intcode[index + 1]) index += 2 # Unknown else: raise Exception("Unknown op code") return output_ def part_two(intcode, input_): index = 0 output_ = 0 # Define custom op code functions def add(a, b): return a + b def mult(a, b): return a * b def store(v, p): intcode[p] = v def output(p): return intcode[p] def lessthan(a, b): return a < b def equals(a, b): return a == b # Iterate until reach the stop code while intcode[index] != 99: opcode = int(str(intcode[index])[-2:]) modes = str(intcode[index])[:-2][::-1] + '000' # Addition if opcode == 1: intcode[intcode[index + 3]] = add( part_one_helper(intcode, index + 1, modes[0]), part_one_helper(intcode, index + 2, modes[1]) ) index += 4 # Multiplication elif opcode == 2: intcode[intcode[index + 3]] = mult( part_one_helper(intcode, index + 1, modes[0]), part_one_helper(intcode, index + 2, modes[1]) ) index += 4 # Storage elif opcode == 3: store(input_, intcode[index + 1]) index += 2 # Output elif opcode == 4: output_ = output(intcode[index + 1]) index += 2 # Jump if true elif opcode == 5: if part_one_helper(intcode, index + 1, modes[0]) != 0: index = part_one_helper(intcode, index + 2, modes[1]) else: index += 3 # Jump if false elif opcode == 6: if part_one_helper(intcode, index + 1, modes[0]) == 0: index = part_one_helper(intcode, index + 2, modes[1]) else: index += 3 # Less than elif opcode == 7: value = 0 position = intcode[index + 3] if lessthan( part_one_helper(intcode, index + 1, modes[0]), part_one_helper(intcode, index + 2, modes[1]) ): value = 1 store(value, position) index += 4 # Equals elif opcode == 8: value = 0 position = intcode[index + 3] if equals( part_one_helper(intcode, index + 1, modes[0]), part_one_helper(intcode, index + 2, modes[1]) ): value = 1 store(value, position) index += 4 # Unknown else: raise Exception("Unknown op code") return output_ if __name__ == "__main__": # Get input from txt file with open(os.getcwd() + '\\2019\\Day 5\\input.txt', 'r') as file_obj: file_input = file_obj.readlines() # Clean input entries = [] for entry in file_input: for number in entry.rstrip().split(','): entries.append(int(number)) # Part one print(part_one(deepcopy(entries), 1)) # Part two print(part_two(deepcopy(entries), 5))
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8e7328dd71593da7df05ff8beb9a5d391abf90f7
38,520
py
Python
pic/utils.py
ratnania/mhd
89f383695075aa26fc805ffbf6ba458f0cdd6f4e
[ "MIT" ]
5
2018-04-13T15:35:21.000Z
2019-10-29T09:39:13.000Z
pic/utils.py
ratnania/mhd
89f383695075aa26fc805ffbf6ba458f0cdd6f4e
[ "MIT" ]
null
null
null
pic/utils.py
ratnania/mhd
89f383695075aa26fc805ffbf6ba458f0cdd6f4e
[ "MIT" ]
1
2018-10-19T10:53:15.000Z
2018-10-19T10:53:15.000Z
import numpy as np import scipy.special as sp from scipy.interpolate import splev from scipy.sparse import csr_matrix from bsplines import find_span, basis_funs def borisPush(particles, dt, B, E, qe, me, Lz, bcs = 1): '''Pushes particles by a time step dt in the electromagnetic fields E and B by using the Boris method. Parameters: particles : ndarray 2D-arrray (Np x 5) containing the particle information (z,vx,vy,vz,wk). dt : float The size of the time step. B : ndarray 2D-array (Np x 3) with the magnetic field (Bx, By, Bz) at the particle positions. E : ndarray 2D-array (Np x 3) with the electric field (Ex, Ey, Ez) at the particle positions. qe : float The particles' electric charge. me : float The particles' mass. Lz : float The length of the compuational domain (important for boundary treatment). bcs : int The boundary conditions. 1: periodic, 2: reflecting Returns: znew : ndarray 1D-array (Np) with the updated particle positions. vnew : ndarray 2D-array (Np x 3) with the updated particle velocities. ''' if bcs == 1: qprime = dt*qe/(2*me) H = qprime*B S = 2*H/(1 + np.linalg.norm(H, axis = 1)**2)[:, None] u = particles[:, 1:4] + qprime*E uprime = u + np.cross(u + np.cross(u, H), S) vnew = uprime + qprime*E znew = (particles[:, 0] + dt*vnew[:, 2])%Lz return znew, vnew elif bcs == 2: qprime = dt*qe/(2*me) H = qprime*B S = 2*H/(1 + np.linalg.norm(H, axis = 1)**2)[:, None] u = particles[:, 1:4] + qprime*E uprime = u + np.cross(u + np.cross(u, H), S) vnew = uprime + qprime*E znew = particles[:, 0] + dt*vnew[:, 2] indices_right = np.where(znew > Lz)[0] indices_left = np.where(znew < 0)[0] H_right = qprime*B[indices_right] S_right = 2*H_right/(1 + np.linalg.norm(H_right, axis = 1)**2)[:, None] H_left = qprime*B[indices_left] S_left = 2*H_left/(1 + np.linalg.norm(H_left, axis = 1)**2)[:, None] u_right = -particles[indices_right, 1:4] + qprime*E[indices_right] u_left = -particles[indices_left, 1:4] + qprime*E[indices_left] uprime_right = u_right + np.cross(u_right + np.cross(u_right, H_right), S_right) uprime_left = u_left + np.cross(u_left + np.cross(u_left, H_left), S_left) vnew[indices_right] = uprime_right + qprime*E[indices_right] vnew[indices_left] = uprime_left + qprime*E[indices_left] znew[indices_right] = particles[indices_right, 0] + dt*vnew[indices_right, 2] znew[indices_left] = particles[indices_left, 0] + dt*vnew[indices_left, 2] return znew, vnew def borisPushRelativistic(particles, dt, B, E, qe, me, Lz, c, bcs = 1): '''Pushes relativistic particles by a time step dt in the electromagnetic fields E and B using the Boris method. Parameters: particles : ndarray 2D-arrray (Np x 5) containing the particle information (z,ux,uy,uz,wk). dt : float The size of the time step. B : ndarray 2D-array (Np x 3) with the magnetic field (Bx, By, Bz) at the particle positions. E : ndarray 2D-array (Np x 3) with the electric field (Ex, Ey, Ez) at the particle positions. qe : float The particles' electric charge. me : float The particles' mass. Lz : float The length of the compuational domain (important for boundary treatment). c : float The speed of light. bcs : int The boundary conditions. 1: periodic, 2: reflecting Returns: znew : ndarray 1D-array (Np) with the updated particle positions. unew : ndarray 2D-array (Np x 3) with the updated particle momenta. ''' if bcs == 1: qprime = dt*qe/(2*me) u = particles[:, 1:4] + qprime*E H = qprime*B/np.sqrt(1 + np.linalg.norm(u, axis = 1)**2/c**2)[:, None] S = 2*H/(1 + np.linalg.norm(H, axis = 1)**2)[:, None] uprime = u + np.cross(u + np.cross(u, H), S) unew = uprime + qprime*E vnew = unew[:, 2]/np.sqrt(1 + np.linalg.norm(unew, axis = 1)**2/c**2) znew = (particles[:, 0] + dt*vnew)%Lz return znew, unew elif bcs == 2: qprime = dt*qe/(2*me) u = particles[:, 1:4] + qprime*E H = qprime*B/np.sqrt(1 + np.linalg.norm(u, axis = 1)**2/c**2)[:, None] S = 2*H/(1 + np.linalg.norm(H, axis = 1)**2)[:, None] uprime = u + np.cross(u + np.cross(u, H), S) unew = uprime + qprime*E vnew = unew[:, 2]/np.sqrt(1 + np.linalg.norm(unew, axis = 1)**2/c**2) znew = particles[:, 0] + dt*vnew indices_right = np.where(znew > Lz)[0] indices_left = np.where(znew < 0)[0] u_right = particles[indices_right, 1:4] + qprime*E[indices_right] H_right = qprime*B[indices_right]/np.sqrt(1 + np.linalg.norm(u_right, axis = 1)**2/c**2)[:, None] S_right = 2*H_right/(1 + np.linalg.norm(H_right, axis = 1)**2)[:, None] u_left = particles[indices_left, 1:4] + qprime*E[indices_left] H_left = qprime*B[indices_left]/np.sqrt(1 + np.linalg.norm(u_left, axis = 1)**2/c**2)[:, None] S_left = 2*H_left/(1 + np.linalg.norm(H_left, axis = 1)**2)[:, None] uprime_right = u_right + np.cross(u_right + np.cross(u_right, H_right), S_right) uprime_left = u_left + np.cross(u_left + np.cross(u_left, H_left), S_left) unew[indices_right] = uprime_right + qprime*E[indices_right] unew[indices_left] = uprime_left + qprime*E[indices_left] vnew[indices_right] = unew[indices_right, 2]/np.sqrt(1 + np.linalg.norm(unew[indices_right], axis = 1)**2/c**2) vnew[indices_left] = unew[indices_left, 2]/np.sqrt(1 + np.linalg.norm(unew[indices_left], axis = 1)**2/c**2) znew[indices_right] = particles[indices_right, 0] + dt*vnew[indices_right] znew[indices_left] = particles[indices_left, 0] + dt*vnew[indices_left] return znew, unew class Bspline(object): def __init__(self, T, p): """ initialize splines for given knot sequence t and degree p """ self.T = T self.p = p self.N = len(T) - p - 1 self.c = np.zeros(self.N) def __call__(self, x, i = None, n_deriv = 0): """ evaluate b-spline starting at node i at x """ if i is not None: c = np.zeros_like(self.T) if i < 0: c[self.N + i] = 1. else: c[i] = 1. else: c = self.c tck = (self.T, c, self.p) return splev(x, tck, der = n_deriv) def grevilleIga(self): """ Returns the Greville points """ p = self.p T = self.T # TODO implement a pure python function and not use igakit #from igakit import igalib #return igalib.bsp.Greville(p, T) def greville(self): """ Returns the Greville points """ p = self.p T = self.T N = self.N grev = np.zeros(N) for i in range(N): grev[i] = 1/p*sum(T[i+1:p+i+1]) return grev def plot(self, nx = 100): """ Plots all splines constructed from a knot sequence """ T = self.T p = self.p N = self.N x = np.linspace(0.0, 1.0, nx) y = np.zeros((N, nx), dtype = np.double) for i in range(0, N): y[i] = self(x, i = i) plt.plot(x, y[i]) def createBasis(L, Nel, p, bcs = 1): '''Creates a B-spline basis and the corresponding quadrature/weights grid for exact Gauss-Legendre quadrature. Parameters: L : float Length of the domain. Nel : int The number of elements. p : int The degree of the basis. bcs : int The boundary conditions. 1: periodic, 2: Dirichlet. Returns: bsp : B-spline object. The basis functions. They can be called via bsp(x,j,d), where x is the evaluation point, j the j-th B-spline and d the d-th derivative. N : int The number of basis functions. quad_points : ndarray 1D- array with the quadrature points. weights : ndarray 1D- array with the corresponding weights. ''' if bcs == 1: dz = L/Nel zj = np.linspace(0, L, Nel + 1) left = np.linspace(-p*dz, -dz, p) right = np.linspace(L + dz, L + p*dz, p) Tbsp = np.array(list(left) + list(zj) + list(right)) bsp = Bspline(Tbsp, p) N = len(Tbsp) - p - 1 xi, wi = np.polynomial.legendre.leggauss(p + 1) quad_points = np.zeros((p + 1)*Nel) weights = np.zeros((p + 1)*Nel) for i in range(0, Nel): a1 = zj[i] a2 = zj[i + 1] xis = (a2 - a1)/2*xi + (a1 + a2)/2 quad_points[(p + 1)*i:(p + 1)*i + (p + 1)] = xis wis = (a2 - a1)/2*wi weights[(p + 1)*i:(p + 1)*i + (p + 1)] = wis return bsp, N, quad_points, weights elif bcs == 2: dz = L/Nel zj = np.linspace(0, L, Nel + 1) Tbsp = np.array([0]*p + list(zj) + [L]*p) bsp = Bspline(Tbsp, p) N = len(Tbsp) - p - 1 xi,wi = np.polynomial.legendre.leggauss(p + 1) quad_points = np.zeros((p + 1)*Nel) weights = np.zeros((p + 1)*Nel) for i in range(0, Nel): a1 = zj[i] a2 = zj[i + 1] xis = (a2 - a1)/2*xi + (a1 + a2)/2 quad_points[(p + 1)*i:(p + 1)*i + (p + 1)] = xis wis = (a2 - a1)/2*wi weights[(p + 1)*i:(p + 1)*i + (p + 1)] = wis return bsp, N, quad_points, weights def fieldInterpolation(particles_pos, nodes, basis, uj, bcs = 1): '''Computes the electromagnetic fields E and B at the particle positions using the basis functions. Parameters: particles_pos : ndarray 1D-array containing the particles positions. nodes : ndarray 1D-array containing the element boundaries. basis : B-spline object The B-spline basis functions. uj : ndarray 1D-array with the FEM coefficients. bcs : int The boundary conditions. 1: periodic, 2: homogeneous Dirichlet. Returns: Ep : ndarray 2D-array (Np x 2) with the electric fields at the particle positions. Bp : ndarray 2D-array (Np x 2) with the magnetic fields at the particle positions. ''' if bcs == 1: Nel = len(nodes) - 1 p = basis.p Nb = Nel Ep = np.zeros((len(particles_pos), 2)) Bp = np.zeros((len(particles_pos), 2)) Zbin = np.digitize(particles_pos, nodes) - 1 ex = uj[0::6] ey = uj[1::6] bx = uj[2::6] by = uj[3::6] for ie in range(0, Nel): indices = np.where(Zbin == ie)[0] for il in range(0, p + 1): i = il + ie bi = basis(particles_pos[indices], i) Ep[indices, 0] += ex[i%Nb]*bi Ep[indices, 1] += ey[i%Nb]*bi Bp[indices, 0] += bx[i%Nb]*bi Bp[indices, 1] += by[i%Nb]*bi return Ep, Bp elif bcs == 2: Nel = len(nodes) - 1 p = basis.p Ep = np.zeros((len(particles_pos), 2)) Bp = np.zeros((len(particles_pos), 2)) Zbin = np.digitize(particles_pos, nodes) - 1 ex = np.array([0] + list(uj[0::6]) + [0]) ey = np.array([0] + list(uj[1::6]) + [0]) bx = np.array([0] + list(uj[2::6]) + [0]) by = np.array([0] + list(uj[3::6]) + [0]) for ie in range(0, Nel): indices = np.where(Zbin == ie)[0] for il in range(0, p + 1): i = il + ie bi = basis(particles_pos[indices], i) Ep[indices, 0] += ex[i]*bi Ep[indices, 1] += ey[i]*bi Bp[indices, 0] += bx[i]*bi Bp[indices, 1] += by[i]*bi return Ep,Bp def fieldInterpolationFull(particles_pos, nodes, basis, uj, bcs = 1): '''Computes the electromagnetic fields E and B at the particle positions using the basis functions. Parameters: particles_pos : ndarray 1D-array containing the particles positions. nodes : ndarray 1D-array containing the element boundaries. basis : B-spline object The B-spline basis functions. uj : ndarray 1D-array with the FEM coefficients. bcs : int The boundary conditions. 1: periodic, 2: homogeneous Dirichlet. Returns: Ep : ndarray 2D-array (Np x 2) with the electric fields at the particle positions. Bp : ndarray 2D-array (Np x 2) with the magnetic fields at the particle positions. ''' if bcs == 1: Nel = len(nodes) - 1 p = basis.p Nb = Nel Ep = np.zeros((len(particles_pos), 2)) Bp = np.zeros((len(particles_pos), 2)) Zbin = np.digitize(particles_pos, nodes) - 1 ex = uj[0::6] ey = uj[1::6] bx = uj[2::6] by = uj[3::6] for ie in range(0, Nel): indices = np.where(Zbin == ie)[0] for il in range(0, p + 1): i = il + ie bi = basis(particles_pos[indices], i) Ep[indices, 0] += ex[i%Nb]*bi Ep[indices, 1] += ey[i%Nb]*bi Bp[indices, 0] += bx[i%Nb]*bi Bp[indices, 1] += by[i%Nb]*bi return Ep, Bp elif bcs == 2: Nel = len(nodes) - 1 p = basis.p Ep = np.zeros((len(particles_pos), 2)) Bp = np.zeros((len(particles_pos), 2)) Zbin = np.digitize(particles_pos, nodes) - 1 ex = uj[0::6] ey = uj[1::6] bx = uj[2::6] by = uj[3::6] for ie in range(0, Nel): indices = np.where(Zbin == ie)[0] for il in range(0, p + 1): i = il + ie bi = basis(particles_pos[indices], i) Ep[indices, 0] += ex[i]*bi Ep[indices, 1] += ey[i]*bi Bp[indices, 0] += bx[i]*bi Bp[indices, 1] += by[i]*bi return Ep, Bp def hotCurrent(particles_vel, particles_pos, particles_wk, nodes, basis, qe, c, bcs = 1, rel = 1): '''Computes the hot current density in terms of the weak formulation. Parameters: particles_vel : ndarray 2D-array (Np x 2) with the particle velocities (vx, vy). particles_pos : ndarray 1D-array (Np x 1) with the particle positions (z). particles_wk : ndarray 1D-array (Np x 1) with the particle weights. nodes : ndarray 1D-array containing the element boundaries. basis : B-spline object B-spline basis functions. qe : float The particles' charge. c : foat The speed of light bcs : int The boundary conditions. 1: periodic, 2: homogeneous Dirichlet. rel : int Nonrelativistic (1) or relativistic computation (2). Returns: jh : ndarray 1D-array with the hot current densities (jhx, jhy). ''' if bcs == 1: Nel = len(nodes) - 1 p = basis.p Nb = Nel Np = len(particles_pos) jh = np.zeros(2*Nb) if rel == 2: gamma = np.sqrt(1 + np.sqrt(1 + np.linalg.norm(particles_vel, axis = 1)**2/c**2)) particles_vel[:, 0] = particles_vel[:, 0]/gamma particles_vel[:, 1] = particles_vel[:, 1]/gamma Zbin = np.digitize(particles_pos, nodes) - 1 for ie in range(0, Nel): indices = np.where(Zbin == ie)[0] wk = particles_wk[indices] vx = particles_vel[indices, 0] vy = particles_vel[indices, 1] for il in range(0, p + 1): i = il + ie bi = basis(particles_pos[indices], i) jh[2*(i%Nb)] += np.einsum('i,i,i', vx, wk, bi) jh[2*(i%Nb) + 1] += np.einsum('i,i,i', vy, wk, bi) return qe*1/Np*jh elif bcs == 2: Nel = len(nodes) - 1 p = basis.p Nb = Nel + p Np = len(particles_pos) jh = np.zeros(2*Nb) if rel == 2: gamma = np.sqrt(1 + np.sqrt(1 + np.linalg.norm(particles_vel, axis = 1)**2/c**2)) particles_vel[:, 0] = particles_vel[:, 0]/gamma particles_vel[:, 1] = particles_vel[:, 1]/gamma Zbin = np.digitize(particles_pos, nodes) - 1 for ie in range(0, Nel): indices = np.where(Zbin == ie)[0] wk = particles_wk[indices] vx = particles_vel[indices, 0] vy = particles_vel[indices, 1] for il in range(0, p + 1): i = il + ie bi = basis(particles_pos[indices], i) jh[2*i] += np.einsum('i,i,i', vx, wk, bi) jh[2*i + 1] += np.einsum('i,i,i', vy, wk, bi) return qe*1/Np*jh[2:2*(Nb - 1)] def hotCurrentFull(particles_vel, particles_pos, particles_wk, nodes, basis, qe, c, bcs = 1, rel = 1): '''Computes the hot current density in terms of the weak formulation. Parameters: particles_vel : ndarray 2D-array (Np x 2) with the particle velocities (vx, vy). particles_pos : ndarray 1D-array (Np x 1) with the particle positions (z). particles_wk : ndarray 1D-array (Np x 1) with the particle weights. nodes : ndarray 1D-array containing the element boundaries. basis : B-spline object B-spline basis functions. qe : float The particles' charge. c : foat The speed of light bcs : int The boundary conditions. 1: periodic, 2: homogeneous Dirichlet. rel : int Nonrelativistic (1) or relativistic computation (2). Returns: jh : ndarray 1D-array with the hot current densities (jhx, jhy). ''' if bcs == 1: Nel = len(nodes) - 1 p = basis.p Nb = Nel Np = len(particles_pos) jh = np.zeros(2*Nb) if rel == 2: gamma = np.sqrt(1 + np.sqrt(1 + np.linalg.norm(particles_vel, axis = 1)**2/c**2)) particles_vel[:, 0] = particles_vel[:, 0]/gamma particles_vel[:, 1] = particles_vel[:, 1]/gamma Zbin = np.digitize(particles_pos, nodes) - 1 for ie in range(0, Nel): indices = np.where(Zbin == ie)[0] wk = particles_wk[indices] vx = particles_vel[indices, 0] vy = particles_vel[indices, 1] for il in range(0, p + 1): i = il + ie bi = basis(particles_pos[indices], i) jh[2*(i%Nb)] += np.einsum('i,i,i', vx, wk, bi) jh[2*(i%Nb) + 1] += np.einsum('i,i,i', vy, wk, bi) return qe*1/Np*jh elif bcs == 2: Nel = len(nodes) - 1 p = basis.p Nb = Nel + p Np = len(particles_pos) jh = np.zeros(2*Nb) if rel == 2: gamma = np.sqrt(1 + np.sqrt(1 + np.linalg.norm(particles_vel, axis = 1)**2/c**2)) particles_vel[:, 0] = particles_vel[:, 0]/gamma particles_vel[:, 1] = particles_vel[:, 1]/gamma Zbin = np.digitize(particles_pos, nodes) - 1 for ie in range(0, Nel): indices = np.where(Zbin == ie)[0] wk = particles_wk[indices] vx = particles_vel[indices, 0] vy = particles_vel[indices, 1] for il in range(0, p + 1): i = il + ie bi = basis(particles_pos[indices], i) jh[2*i] += np.einsum('i,i,i', vx, wk, bi) jh[2*i + 1] += np.einsum('i,i,i', vy, wk, bi) return qe*1/Np*jh def IC(z,ini,amp,k,omega): '''Defines the initial conditions of the simulation. Parameters: z : ndarray Positions to be evaluated. ini : int Type of inital conditions. amp : float Amplitude of the initial perturbations. k : float Wavenumber of initial perturbations. omega : float Frequency of initial perturbations. Returns: initial : ndarray 2D-array (6 x len(z)) with the initial values. ''' if ini == 1: eps0 = 1.0 wce = -1.0 wpe = 2.0 Ex0 = +amp*np.cos(k*z) Ey0 = -amp*np.sin(k*z) Bx0 = -Ey0*k/omega By0 = +Ex0*k/omega Dj = eps0*wpe**2*(omega - wce)/(wce**2 - omega**2) jx0 = -Ey0*Dj jy0 = +Ex0*Dj return np.array([Ex0, Ey0, Bx0, By0, jx0, jy0]) elif ini == 2: Ex0 = +amp*np.real(np.exp(1j*k*z)) Ey0 = -amp*np.imag(np.exp(1j*k*z)) Bx0 = k*amp*np.imag(1/omega*np.exp(1j*k*z)) By0 = k*amp*np.real(1/omega*np.exp(1j*k*z)) Dj = eps0*wpe**2*(omega - wce)/(wce**2 - omega**2) jx0 = amp*np.imag(Dj*np.exp(1j*k*z)) jy0 = amp*np.real(Dj*np.exp(1j*k*z)) return np.array([Ex0, Ey0, Bx0, By0, Bz0, jx0, jy0]) elif ini == 3: Ex0 = 0*z Ey0 = 0*z Bx0 = amp*np.sin(k*z) By0 = 0*z jx0 = 0*z jy0 = 0*z return np.array([Ex0, Ey0, Bx0, By0, jx0, jy0]) elif ini == 4: Ex0 = 0*z Ey0 = 0*z Bx0 = amp*np.random.randn() By0 = amp*np.random.randn() jx0 = 0*z jy0 = 0*z return np.array([Ex0, Ey0, Bx0, By0, jx0, jy0]) elif ini == 5: Ex0 = amp*np.random.randn() Ey0 = amp*np.random.randn() Bx0 = amp*np.random.randn() By0 = amp*np.random.randn() jx0 = amp*np.random.randn() jy0 = amp*np.random.randn() return np.array([Ex0, Ey0, Bx0, By0, jx0, jy0]) elif ini == 6: Ex0 = 0*z Ey0 = 0*z Bx0 = 0*z By0 = 0*z jx0 = 0*z jy0 = 0*z return np.array([Ex0, Ey0, Bx0, By0, jx0, jy0]) def L2proj(basis, L, quad_points, weights, mass, fun, bcs = 1): '''Computes the coefficients of some given function in the B-spline basis using the L2-projection. Parameters: basis : B-spline object The B-spline basis functions. L : float The length of the computational domain. quad_points : ndarray Gauss-Legendre quadrature points. weights : ndarray The corresponding weights. mass : ndarry The mass matrix of the B-spline basis. fun : function Function to be projected. bcs : int Boundary conditions. 1: periodic, 2: homogeneous Dirichlet. Returns: fj : ndarray The coefficients of the projected function. ''' if bcs == 1: p = basis.p Nel = basis.N - p Nb = Nel f = np.zeros(Nb) for ie in range(0, Nel): for il in range(0, p + 1): i = il + ie value_f = 0.0 for g in range(0, p + 1): gl = ie*(p + 1) + g value_f += weights[gl]*fun(quad_points[gl])*basis(quad_points[gl], i, 0) f[i%Nb] += value_f fj = np.linalg.solve(mass, f) return fj elif bcs == 2: p = basis.p Nel = basis.N - p Nb = basis.N Ua = fun(0) Ub = fun(L) f = np.zeros(Nb) fj = np.zeros(Nb) for ie in range(0, Nel): for il in range(0, p + 1): i = ie + il value_f = 0.0 for g in range(0, p + 1): gl = ie*(p + 1) + g value_f += weights[gl]*(fun(quad_points[gl])*basis(quad_points[gl], i, 0) - Ua*basis(quad_points[gl], 0, 0)*basis(quad_points[gl], i, 0) - Ub*basis(quad_points[gl], Nb - 1, 0)*basis(quad_points[gl], i, 0)) f[i] += value_f fj[1:Nb - 1] = np.linalg.solve(mass[1:Nb - 1, 1:Nb - 1],f[1:Nb - 1]) fj[0] = Ua fj[-1] = Ub return fj def matrixAssembly(basis, weights, quad_points, B0, bcs): '''Assembles the mass, convection and field matrix of a given B-spline Finite Element basis. Parameters: basis : B-spline object The B-spline basis functions. weights: ndarray 1D-array containing the weights of the Gauss-Legendre quadrature. quad_points : ndarray 1D-array containing the evaluation points of the Gauss-Legendre quadrature. B0 : function The background magnetic field. bcs : int Boundary conditions. 1: periodic, 2: homogeneous Dirichlet. Returns: M : ndarray The mass matrix phi_i*phi_j (2D-array). C : ndarray The convection matrix phi_i*phi_j^' (2D-array). D : ndarray The field matrix B0*phi_i*phi_j (2D-array). ''' if bcs == 1: N = basis.N p = basis.p Nb = N - p Nel = Nb M = np.zeros((Nb, Nb)) C = np.zeros((Nb, Nb)) D = np.zeros((Nb, Nb)) for ie in range(0, Nel): for il in range(0, p + 1): for jl in range(0, p + 1): i = il + ie j = jl + ie value_m = 0.0 value_c = 0.0 value_d = 0.0 for g in range(0, p + 1): gl = ie*(p + 1) + g value_m += weights[gl]*basis(quad_points[gl], i, 0)*basis(quad_points[gl], j ,0) value_c += weights[gl]*basis(quad_points[gl], i ,0)*basis(quad_points[gl], j, 1) value_d += weights[gl]*basis(quad_points[gl], i, 0)*basis(quad_points[gl], j, 0)*B0(quad_points[gl]) M[i%Nb, j%Nb] += value_m C[i%Nb, j%Nb] += value_c D[i%Nb, j%Nb] += value_d return M, C, D elif bcs == 2: N = basis.N p = basis.p Nel = N - p M = np.zeros((N, N)) C = np.zeros((N, N)) D = np.zeros((N, N)) for ie in range(0, Nel): for il in range(0, p + 1): for jl in range(0, p + 1): i = il + ie j = jl + ie value_m = 0.0 value_c = 0.0 value_d = 0.0 for g in range(0, p + 1): gl = ie*(p + 1) + g value_m += weights[gl]*basis(quad_points[gl], i, 0)*basis(quad_points[gl], j, 0) value_c += weights[gl]*basis(quad_points[gl], i, 0)*basis(quad_points[gl], j, 1) value_d += weights[gl]*basis(quad_points[gl], i, 0)*basis(quad_points[gl], j, 0)*B0(quad_points[gl]) M[i,j] += value_m C[i,j] += value_c D[i,j] += value_d return M, C, D def matrixAssemblySparse(basis, weights, quad_points, B0, bcs): '''Assembles the mass, convection and field matrix of a given B-spline Finite Element basis. Parameters: basis : B-spline object The B-spline basis functions. weights: ndarray 1D-array containing the weights of the Gauss-Legendre quadrature. quad_points : ndarray 1D-array containing the evaluation points of the Gauss-Legendre quadrature. B0 : function The background magnetic field. bcs : int Boundary conditions. 1: periodic, 2: homogeneous Dirichlet. Returns: M : ndarray The mass matrix phi_i*phi_j (2D-array). C : ndarray The convection matrix phi_i*phi_j^' (2D-array). D : ndarray The field matrix B0*phi_i*phi_j (2D-array). ''' if bcs == 1: N = basis.N p = basis.p Nb = N - p Nel = Nb M = np.zeros((Nb, Nb)) C = np.zeros((Nb, Nb)) D = np.zeros((Nb, Nb)) for ie in range(0, Nel): for il in range(0, p + 1): for jl in range(0, p + 1): i = il + ie j = jl + ie value_m = 0.0 value_c = 0.0 value_d = 0.0 for g in range(0, p + 1): gl = ie*(p + 1) + g value_m += weights[gl]*basis(quad_points[gl], i, 0)*basis(quad_points[gl], j ,0) value_c += weights[gl]*basis(quad_points[gl], i ,0)*basis(quad_points[gl], j, 1) value_d += weights[gl]*basis(quad_points[gl], i, 0)*basis(quad_points[gl], j, 0)*B0(quad_points[gl]) M[i%Nb, j%Nb] += value_m C[i%Nb, j%Nb] += value_c D[i%Nb, j%Nb] += value_d return M, C, D elif bcs == 2: N = basis.N p = basis.p Nel = N - p row = np.array([]) col = np.array([]) dat_M = np.array([]) dat_C = np.array([]) dat_D = np.array([]) for ie in range(0, Nel): for il in range(0, p + 1): for jl in range(0, p + 1): i = il + ie j = jl + ie row = np.append(row, i) col = np.append(col, j) value_m = 0.0 value_c = 0.0 value_d = 0.0 for g in range(0, p + 1): gl = ie*(p + 1) + g value_m += weights[gl]*basis(quad_points[gl], i, 0)*basis(quad_points[gl], j, 0) value_c += weights[gl]*basis(quad_points[gl], i, 0)*basis(quad_points[gl], j, 1) value_d += weights[gl]*basis(quad_points[gl], i, 0)*basis(quad_points[gl], j, 0)*B0(quad_points[gl]) dat_M = np.append(dat_M, value_m) dat_C = np.append(dat_C, value_c) dat_D = np.append(dat_D, value_d) M = csr_matrix((dat_M, (row, col))) C = csr_matrix((dat_C, (row, col))) D = csr_matrix((dat_D, (row, col))) return M, C, D def dampingAssembly(basis, damp, meth): '''Assembles the damping matrix. Parameters: basis : B-spline object The B-spline basis functions. damp : function The masking function. meth : int The used method for the assembly. 1: only evaluation on support. 2: conventional method. Returns: DAMP : ndarray The damping matrix (2D-array). ''' if meth == 1: p = basis.p Nbase = basis.N grev = basis.greville() gi = np.zeros(Nbase) Bij = np.zeros((Nbase,Nbase)) p_boundary_l = p p_boundary_r = p + 3 counter = 2 for ie in range(p+1): for il in range(p_boundary_l): Bij[il,ie] = basis(grev[il],ie) p_boundary_l += 1 for ie in range(p+1,Nbase-p-1): for il in range(p+2): i = il + counter Bij[i,ie] = basis(grev[i],ie) for ie in range(Nbase-p-1,Nbase): for il in range(p_boundary_r): i = Nbase - p_boundary_r + il Bij[i,ie] = basis(grev[i],ie) p_boundary_r -= 1 for i in range(Nbase): gi[i] = damp(grev[i]) G = np.diag(gi[1:Nbase-1]) Bijinv = np.linalg.inv(Bij[1:Nbase-1,1:Nbase-1]) DAMP = np.dot(np.dot(Bijinv,G),Bij[1:Nbase-1,1:Nbase-1]) return DAMP elif meth == 2: p = basis.p Nbase = basis.N grev = basis.greville() gi = np.zeros(Nbase) Bij = np.zeros((Nbase,Nbase)) for i in range(Nbase): for j in range(Nbase): Bij[i,j] = basis(grev[i],j) for i in range(Nbase): gi[i] = damp(grev[i]) G = np.diag(gi[1:Nbase-1]) Bijinv = np.linalg.inv(Bij[1:Nbase-1,1:Nbase-1]) DAMP = np.dot(np.dot(Bijinv,G),Bij[1:Nbase-1,1:Nbase-1]) return DAMP def evaluation(uj, basis , nodes, x, bcs = 1): ''' Given a coefficient vector, this function computes the value at some position in space spanned by a B-spline basis Parameters: uj : ndarray Coefficient vector. basis : B-spline object Object of B-spline basis functions. nodes : ndarray. The element boundaries. x : ndarray Positions to be evaluated. bcs : int Boundary conditions. DEFAULT = 1 (periodic), bcs = 2 (Dirichlet). Returns: u : ndarray Vector with values at positions x. ''' if bcs == 1: p = basis.p Nb = basis.N - p Nel = Nb u = np.zeros(len(x)) Xbin = np.digitize(x, nodes) - 1 for ie in range(Nel): indices = np.where(ie == Xbin)[0] if len(indices) != 0: for il in range(0, p + 1): i = ie + il u[indices] += uj[i%Nb]*basis(x[indices], i) return u elif bcs == 2: p = basis.p N = basis.N Nel = N - p u = np.zeros(len(x)) Xbin = np.digitize(x, nodes) - 1 for ie in range(Nel): indices = np.where(ie == Xbin)[0] if len(indices) != 0: for il in range(0, p + 1): i = ie + il u[indices] += uj[i]*basis(x[indices], i) return u def solveDispersionHybrid(k, pol, c, wce, wpe, wpar, wperp, nuh, initial_guess, tol, max_it = 100): Taniso = 1 - wperp**2/wpar**2 def Z(xi): return np.sqrt(np.pi)*np.exp(-xi**2)*(1j - sp.erfi(xi)) def Zprime(xi): return -2*(1 + xi*Z(xi)) def Dhybrid(k, w, pol): xi = (w + pol*wce)/(k*np.sqrt(2)*wpar) return 1 - k**2*c**2/w**2 - wpe**2/(w*(w + pol*wce)) + nuh*wpe**2/w**2*(w/(k*np.sqrt(2)*wpar)*Z(xi) - Taniso*(1 + xi*Z(xi))) def Dhybridprime(k, w, pol): xi = (w + pol*wce)/(k*np.sqrt(2)*wpar) xip = 1/(k*np.sqrt(2)*wpar) return 2*k**2/w**3 + wpe**2*(2*w + pol*wce)/(w**2*(w + pol*wce)**2) - 2*nuh*wpe**2/w**3*(w/(np.sqrt(2)*k*wpar)*Z(xi) - Taniso*(1 + xi*Z(xi))) + nuh*wpe**2/w**2*(1/(np.sqrt(2)*k*wpar)*Z(xi) + w/(np.sqrt(2)*k*wpar)*Zprime(xi)*xip - Taniso*(xip*Z(xi) + xi*Zprime(xi)*xip)) w = initial_guess counter = 0 while True: wnew = w - Dhybrid(k, w, pol)/Dhybridprime(k, w, pol) if np.abs(wnew - w) < tol or counter == max_it: w = wnew break w = wnew counter += 1 return w, counter def solveDispersionHybridExplicit(k, pol, c, wce, wpe, wpar, wperp, nuh, initial_guess, tol, max_it = 100): def Dcold(k, w, pol): return 1 - k**2*c**2/w**2 - wpe**2/(w*(w + pol*wce)) def Dcoldprime(k, w, pol): return 2*k**2/w**3 + wpe**2*(2*w + pol*wce)/(w**2*(w + pol*wce)**2) wr = initial_guess counter = 0 while True: wnew = wr - Dcold(k, wr, pol)/Dcoldprime(k, wr, pol) if np.abs(wnew - wr) < tol or counter == max_it: wr = wnew break wr = wnew counter += 1 vR = (wr + pol*wce)/k wi = 1/(2*wr - pol*wpe**2*wce/(wr + pol*wce)**2)*np.sqrt(2*np.pi)*wpe**2*nuh*vR/wpar*np.exp(-vR**2/(2*wpar**2))*(wr/(2*(-pol*wce - wr)) + 1/2*(1 - wperp**2/wpar**2)) return wr, wi, counter def solveDispersionCold(k, pol, c, wce, wpe, initial_guess, tol, max_it = 100): def Dcold(k, w, pol): return 1 - k**2*c**2/w**2 - wpe**2/(w*(w + pol*wce)) def Dcoldprime(k, w, pol): return 2*k**2/w**3 + wpe**2*(2*w + pol*wce)/(w**2*(w + pol*wce)**2) wr = initial_guess counter = 0 while True: wnew = wr - Dcold(k, wr, pol)/Dcoldprime(k, wr, pol) if np.abs(wnew - wr) < tol or counter == max_it: wr = wnew break wr = wnew counter += 1 return wr, counter def solveDispersionArtificial(k, pol, c, wce, wpe, c1, c2, mu0, initial_guess, tol, max_it = 100): def Dart(k, w, pol): return 1 - k**2*c**2/w**2 - wpe**2/(w*(w + pol*wce)) + 1/w*(1j*c1 - pol*c2) def Dartprime(k, w, pol): return 2*k**2/w**3 + wpe**2*(2*w + pol*wce)/(w**2*(w + pol*wce)**2) - 1/w**2*(1j*c1 - pol*c2) w = initial_guess counter = 0 while True: wnew = w - Dart(k, w, pol)/Dartprime(k, w, pol) if np.abs(wnew - w) < tol or counter == max_it: w = wnew break w = wnew counter += 1 return w, counter
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py
Python
hrm_api/community/views/__init__.py
unknowncoder05/HRM
2a0ad62373fdaefafe533727b2d586d8f6327e87
[ "MIT" ]
null
null
null
hrm_api/community/views/__init__.py
unknowncoder05/HRM
2a0ad62373fdaefafe533727b2d586d8f6327e87
[ "MIT" ]
null
null
null
hrm_api/community/views/__init__.py
unknowncoder05/HRM
2a0ad62373fdaefafe533727b2d586d8f6327e87
[ "MIT" ]
null
null
null
from .social_media import *
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py
Python
kyokigo/admin.py
seoworks0/docker_test2
9ea4a62a8a669d8b1e4be40979b53c0c26ad052f
[ "Apache-2.0" ]
null
null
null
kyokigo/admin.py
seoworks0/docker_test2
9ea4a62a8a669d8b1e4be40979b53c0c26ad052f
[ "Apache-2.0" ]
null
null
null
kyokigo/admin.py
seoworks0/docker_test2
9ea4a62a8a669d8b1e4be40979b53c0c26ad052f
[ "Apache-2.0" ]
null
null
null
from django.contrib import admin from .models import Kyokigo_input admin.site.register(Kyokigo_input)
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py
Python
gestionPlanificacion_y_Desarrollo_Proyectos_Nuevos/views.py
Juan-Manuel-Diaz/UniNeuroLab
7cc3f7e67f5d4d7d96f75cf3b13d5f32644a280d
[ "Apache-2.0" ]
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2021-01-09T01:20:45.000Z
2021-01-09T01:20:45.000Z
gestionPlanificacion_y_Desarrollo_Proyectos_Nuevos/views.py
Juan-Manuel-Diaz/UniNeuroLab
7cc3f7e67f5d4d7d96f75cf3b13d5f32644a280d
[ "Apache-2.0" ]
1
2021-01-09T00:53:55.000Z
2021-01-09T00:53:55.000Z
gestionPlanificacion_y_Desarrollo_Proyectos_Nuevos/views.py
Juan-Manuel-Diaz/UniNeuroLab
7cc3f7e67f5d4d7d96f75cf3b13d5f32644a280d
[ "Apache-2.0" ]
1
2021-01-07T23:57:28.000Z
2021-01-07T23:57:28.000Z
from django.shortcuts import render # Create your views here. def nuevosProyectos(request): return render(request, "nuevosProyectos.html")
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py
Python
pyslam/thirdparty/disk/disk/geom/__init__.py
dysdsyd/VO_benchmark
a7602edab934419c1ec73618ee655e18026f834f
[ "Apache-2.0" ]
2
2021-09-11T09:13:31.000Z
2021-11-03T01:39:56.000Z
pyslam/thirdparty/disk/disk/geom/__init__.py
dysdsyd/VO_benchmark
a7602edab934419c1ec73618ee655e18026f834f
[ "Apache-2.0" ]
null
null
null
pyslam/thirdparty/disk/disk/geom/__init__.py
dysdsyd/VO_benchmark
a7602edab934419c1ec73618ee655e18026f834f
[ "Apache-2.0" ]
null
null
null
from .distance_matrix import distance_matrix from .pose import Pose, PoseError
26.333333
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true
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d96c2432f040bc29cd1574ca47317b5dcf6150db
19,039
py
Python
Final Project/new_clrs/clrs/_src/algorithms/strings.py
mohammedElfatihSalah/string-experiments
e43bb8db323d2d6da702697d052e8c9dac9782de
[ "Apache-2.0" ]
null
null
null
Final Project/new_clrs/clrs/_src/algorithms/strings.py
mohammedElfatihSalah/string-experiments
e43bb8db323d2d6da702697d052e8c9dac9782de
[ "Apache-2.0" ]
null
null
null
Final Project/new_clrs/clrs/_src/algorithms/strings.py
mohammedElfatihSalah/string-experiments
e43bb8db323d2d6da702697d052e8c9dac9782de
[ "Apache-2.0" ]
null
null
null
# Copyright 2021 DeepMind Technologies Limited. All Rights Reserved. # # Licensed under the Apache License, Version 2.0 (the "License"); # you may not use this file except in compliance with the License. # You may obtain a copy of the License at # # http://www.apache.org/licenses/LICENSE-2.0 # # Unless required by applicable law or agreed to in writing, software # distributed under the License is distributed on an "AS IS" BASIS, # WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied. # See the License for the specific language governing permissions and # limitations under the License. # ============================================================================== """Strings algorithm generators. Currently implements the following: - Naive string matching - Knuth-Morris-Pratt string matching (Knuth et al., 1977) See "Introduction to Algorithms" 3ed (CLRS3) for more information. """ # pylint: disable=invalid-name from typing import Tuple import chex from clrs._src import probing from clrs._src import specs import numpy as np from clrs._src.algorithms.strings_graph_structures import get_seq_mat, get_seq_mat_i_j,get_graph_struct,get_predecessor _Array = np.ndarray _Out = Tuple[int, probing.ProbesDict] _ALPHABET_SIZE = 4 def get_from_i_to_j(T,P,i,j): N = T.shape[0] M = P.shape[0] mat = np.zeros((N+M, N+M), dtype=np.int) mat[i, j+N] = 1 return mat # def naive_string_matcher(T: _Array, P: _Array) -> _Out: # """Naive string matching.""" # chex.assert_rank([T, P], 1) # probes = probing.initialize(specs.SPECS['naive_string_matcher']) # T_pos = np.arange(T.shape[0]) # P_pos = np.arange(P.shape[0]) # predecessor = get_predecessor(T,P) # probing.push( # probes, # specs.Stage.INPUT, # next_probe={ # 'string': # probing.strings_id(T_pos, P_pos), # 'pos': # probing.strings_pos(T_pos, P_pos), # 'key': # probing.array_cat( # np.concatenate([np.copy(T), np.copy(P)]), _ALPHABET_SIZE), # 'pattern_start':probing.mask_one(T.shape[0], T.shape[0] + P.shape[0]), # 'predecessor':predecessor, # }) # s = 0 # while s <= T.shape[0] - P.shape[0]: # i = s # j = 0 # # mat_i_j = get_seq_mat_i_j(np.copy(T), np.copy(P), i, j, s) # # from_i_to_j = get_from_i_to_j(T,P, i, j) # adj = get_graph_struct(T,P,i,j,s) # probing.push( # probes, # specs.Stage.HINT, # next_probe={ # 'pred_h': probing.strings_pred(T_pos, P_pos), # 's': probing.mask_one(s, T.shape[0] + P.shape[0]), # 'i': probing.mask_one(i, T.shape[0] + P.shape[0]), # 'j': probing.mask_one(T.shape[0] + j, T.shape[0] + P.shape[0]), # 'adj': adj, # 'pred_h': probing.strings_pred(T_pos, P_pos), # }) # while True: # if T[i] != P[j]: # break # elif j == P.shape[0] - 1: # probing.push( # probes, # specs.Stage.OUTPUT, # next_probe={'match': probing.mask_one(s, T.shape[0] + P.shape[0]) # }) # probing.finalize(probes) # return s, probes # else: # i += 1 # j += 1 # adj = get_graph_struct(T,P,i,j,s) # # from_i_to_j = get_from_i_to_j(T,P, i, j) # # mat_i_j = get_seq_mat_i_j(np.copy(T), np.copy(P), i, j, s) # probing.push( # probes, # specs.Stage.HINT, # next_probe={ # 'pred_h': probing.strings_pred(T_pos, P_pos), # 's': probing.mask_one(s, T.shape[0] + P.shape[0]), # 'i': probing.mask_one(i, T.shape[0] + P.shape[0]), # 'j': probing.mask_one(T.shape[0] + j, T.shape[0] + P.shape[0]), # 'adj': adj, # 'pred_h': probing.strings_pred(T_pos, P_pos), # }) # s += 1 # # By convention, set probe to head of needle if no match is found # probing.push( # probes, # specs.Stage.OUTPUT, # next_probe={ # 'match': probing.mask_one(T.shape[0], T.shape[0] + P.shape[0]) # }) # return T.shape[0], probes def get_i_j_mat(T,P, i,j): T = np.copy(T) P = np.copy(P) T_len = T.shape[0] P_len = P.shape[0] mat = np.zeros((T_len + P_len, T_len + P_len)) mat[i, j + T_len] = 1 mat[j + T_len, i] = 1 return mat # hope is here # def naive_string_matcher(T: _Array, P: _Array) -> _Out: # """Naive string matching.""" # #print(f"T {T}") # #print(f"P {P}") # chex.assert_rank([T, P], 1) # probes = probing.initialize(specs.SPECS['naive_string_matcher']) # T_pos = np.arange(T.shape[0]) # P_pos = np.arange(P.shape[0]) # adj = np.full((T.shape[0] + P.shape[0] , T.shape[0] + P.shape[0]), 1) # # debug # debug_advance = [] # probing.push( # probes, # specs.Stage.INPUT, # next_probe={ # 'string': # probing.strings_id(T_pos, P_pos), # 'pos': # probing.strings_pos(T_pos, P_pos), # 'key': # probing.array_cat( # np.concatenate([np.copy(T), np.copy(P)]), _ALPHABET_SIZE), # 'adj': adj # }) # s = 0 # while s <= T.shape[0] - P.shape[0]: # i = s # j = 0 # # debug # #print("check: ", T[i], T[j]) # debug_advance.append(int(T[i] != P[j])) # # if s == 0: # # if T[i] == P[j]: # # debug_advance.append(0) # # else: # # debug_advance.append(1) # # else: # # debug_advance.append(1) # i_j_mat = get_i_j_mat(T,P,i,j) # adj2 = np.zeros((T.shape[0] + P.shape[0] , T.shape[0] + P.shape[0])) # adj2[i,T.shape[0]:] = 1 # adj2[T.shape[0]:, i] = 1 # adj2[:T.shape[0], j + T.shape[0]] = 1 # adj2[j + T.shape[0], :T.shape[0]] = 1 # # if s == 0: # # probing.push( # # probes, # # specs.Stage.HINT, # # next_probe={ # # 'pred_h': probing.strings_pred(T_pos, P_pos), # # 's': probing.mask_one(s, T.shape[0] + P.shape[0]), # # 'i': probing.mask_one(i, T.shape[0] + P.shape[0]), # # 'j': probing.mask_one(T.shape[0] + j, T.shape[0] + P.shape[0]), # # 'advance':1, # # 'i_g':0, # # 'j_g':0, # # 's_g':0, # # 'i_j_mat': i_j_mat, # # 'adj2':adj2, # # }) # # else: # # probing.push( # # probes, # # specs.Stage.HINT, # # next_probe={ # # 'pred_h': probing.strings_pred(T_pos, P_pos), # # 's': probing.mask_one(s, T.shape[0] + P.shape[0]), # # 'i': probing.mask_one(i, T.shape[0] + P.shape[0]), # # 'j': probing.mask_one(T.shape[0] + j, T.shape[0] + P.shape[0]), # # 'advance':1, # # 'i_g':0, # # 'j_g':0, # # 's_g':1, # # 'i_j_mat': i_j_mat, # # 'adj2':adj2 # # }) # probing.push( # probes, # specs.Stage.HINT, # next_probe={ # 'pred_h': probing.strings_pred(T_pos, P_pos), # 's': probing.mask_one(s, T.shape[0] + P.shape[0]), # 'i': probing.mask_one(i, T.shape[0] + P.shape[0]), # 'j': probing.mask_one(T.shape[0] + j, T.shape[0] + P.shape[0]), # 'advance': int(T[i] != P[j]), # 'i_g':0, # 'j_g':0, # 's_g':1, # 'i_j_mat': i_j_mat, # 'adj2':adj2 # }) # while True: # if T[i] != P[j]: # break # elif j == P.shape[0] - 1: # probing.push( # probes, # specs.Stage.OUTPUT, # next_probe={'match': 0, # #probing.mask_one(s, T.shape[0] + P.shape[0]) # }) # probing.finalize(probes) # #debug # #print("debug advance >> ", debug_advance) # return s, probes # else: # i += 1 # j += 1 # i_j_mat = get_i_j_mat(T,P,i,j) # adj2 = np.zeros((T.shape[0] + P.shape[0] , T.shape[0] + P.shape[0])) # adj2[i,T.shape[0]:] = 1 # adj2[T.shape[0]:, i] = 1 # adj2[:T.shape[0], j + T.shape[0]] = 1 # adj2[j + T.shape[0], :T.shape[0]] = 1 # #debug # debug_advance.append(int(T[i] != P[j])) # probing.push( # probes, # specs.Stage.HINT, # next_probe={ # 'pred_h': probing.strings_pred(T_pos, P_pos), # 's': probing.mask_one(s, T.shape[0] + P.shape[0]), # 'i': probing.mask_one(i, T.shape[0] + P.shape[0]), # 'j': probing.mask_one(T.shape[0] + j, T.shape[0] + P.shape[0]), # 'advance':int(T[i] != P[j]), # 'i_g':1, # 'j_g':1, # 's_g':0, # 'i_j_mat': i_j_mat, # 'adj2':adj2 # }) # s += 1 # # By convention, set probe to head of needle if no match is found # probing.push( # probes, # specs.Stage.OUTPUT, # next_probe={ # 'match': probing.mask_one(T.shape[0], T.shape[0] + P.shape[0]) # }) # #debug # #print("debug advance >> ", debug_advance) # return T.shape[0], probes def get_predecessor(T, P): nb_text = T.shape[0] nb_pattern = P.shape[0] predecessor = np.eye(nb_pattern + nb_text) for i in range(1,nb_text): predecessor[i-1,i] = 1 #predecessor[i,i-1] = 1 for j in range(1 + nb_text, nb_pattern + nb_text): predecessor[j-1, j] = 1 #predecessor[j, j-1] = 1 return predecessor def naive_string_matcher(T: _Array, P: _Array) -> _Out: """Naive string matching.""" chex.assert_rank([T, P], 1) probes = probing.initialize(specs.SPECS['naive_string_matcher']) T_pos = np.arange(T.shape[0]) P_pos = np.arange(P.shape[0]) adj = np.full((T.shape[0] + P.shape[0] , T.shape[0] + P.shape[0]), 1) predecessor = get_predecessor(T, P) # debug debug_advance = [] probing.push( probes, specs.Stage.INPUT, next_probe={ 'predecessor':predecessor, 'string': probing.strings_id(T_pos, P_pos), 'pos': probing.strings_pos(T_pos, P_pos), 'key': probing.array_cat( np.concatenate([np.copy(T), np.copy(P)]), _ALPHABET_SIZE), 'adj': adj }) s = 0 while s <= T.shape[0] - P.shape[0]: i = s j = 0 # debug #print("check: ", T[i], T[j]) debug_advance.append(int(T[i] != P[j])) # if s == 0: # if T[i] == P[j]: # debug_advance.append(0) # else: # debug_advance.append(1) # else: # debug_advance.append(1) i_j_mat = get_i_j_mat(T,P,i,j) adj2 = np.zeros((T.shape[0] + P.shape[0] , T.shape[0] + P.shape[0])) adj2[i,T.shape[0]:] = 1 adj2[T.shape[0]:, i] = 1 adj2[:T.shape[0], j + T.shape[0]] = 1 adj2[j + T.shape[0], :T.shape[0]] = 1 # if s == 0: # probing.push( # probes, # specs.Stage.HINT, # next_probe={ # 'pred_h': probing.strings_pred(T_pos, P_pos), # 's': probing.mask_one(s, T.shape[0] + P.shape[0]), # 'i': probing.mask_one(i, T.shape[0] + P.shape[0]), # 'j': probing.mask_one(T.shape[0] + j, T.shape[0] + P.shape[0]), # 'advance':1, # 'i_g':0, # 'j_g':0, # 's_g':0, # 'i_j_mat': i_j_mat, # 'adj2':adj2, # }) # else: # probing.push( # probes, # specs.Stage.HINT, # next_probe={ # 'pred_h': probing.strings_pred(T_pos, P_pos), # 's': probing.mask_one(s, T.shape[0] + P.shape[0]), # 'i': probing.mask_one(i, T.shape[0] + P.shape[0]), # 'j': probing.mask_one(T.shape[0] + j, T.shape[0] + P.shape[0]), # 'advance':1, # 'i_g':0, # 'j_g':0, # 's_g':1, # 'i_j_mat': i_j_mat, # 'adj2':adj2 # }) probing.push( probes, specs.Stage.HINT, next_probe={ 'pred_h': probing.strings_pred(T_pos, P_pos), 's': probing.mask_one(s, T.shape[0] + P.shape[0]), 'i': probing.mask_one(i, T.shape[0] + P.shape[0]), 'j': probing.mask_one(T.shape[0] + j, T.shape[0] + P.shape[0]), 'advance': int(T[i] != P[j]), ## equal: one - not equal: 0 'advance_i':int(T[i] == P[j]), # advance i if they are not equal 'advance_j':int(T[i] == P[j]), # advance j if they are not equal 'advance_s':int(T[i] != P[j]), # advacne s if they are not equal 'i_j_mat': i_j_mat, #'adj2':adj2 }) while True: if T[i] != P[j]: break elif j == P.shape[0] - 1: probing.push( probes, specs.Stage.OUTPUT, next_probe={'match': probing.mask_one(s, T.shape[0] + P.shape[0]) }) probing.finalize(probes) #debug #print("debug advance >> ", debug_advance) return s, probes else: i += 1 j += 1 i_j_mat = get_i_j_mat(T,P,i,j) adj2 = np.zeros((T.shape[0] + P.shape[0] , T.shape[0] + P.shape[0])) adj2[i,T.shape[0]:] = 1 adj2[T.shape[0]:, i] = 1 adj2[:T.shape[0], j + T.shape[0]] = 1 adj2[j + T.shape[0], :T.shape[0]] = 1 #debug debug_advance.append(int(T[i] != P[j])) probing.push( probes, specs.Stage.HINT, next_probe={ 'pred_h': probing.strings_pred(T_pos, P_pos), 's': probing.mask_one(s, T.shape[0] + P.shape[0]), 'i': probing.mask_one(i, T.shape[0] + P.shape[0]), 'j': probing.mask_one(T.shape[0] + j, T.shape[0] + P.shape[0]), 'advance':int(T[i] != P[j]), ## equal: one - not equal: 0 'advance_i':int(T[i] == P[j]), # advance i if they are not equal 'advance_j':int(T[i] == P[j]), # advance j if they are not equal 'advance_s':int(T[i] != P[j]), # advacne s if they are not equal 'i_j_mat': i_j_mat, #'adj2':adj2 }) s += 1 # By convention, set probe to head of needle if no match is found probing.push( probes, specs.Stage.OUTPUT, next_probe={ 'match': probing.mask_one(T.shape[0], T.shape[0] + P.shape[0]) }) #debug #print("debug advance >> ", debug_advance) return T.shape[0], probes def kmp_matcher(T: _Array, P: _Array) -> _Out: """Knuth-Morris-Pratt string matching (Knuth et al., 1977).""" chex.assert_rank([T, P], 1) probes = probing.initialize(specs.SPECS['kmp_matcher']) T_pos = np.arange(T.shape[0]) P_pos = np.arange(P.shape[0]) probing.push( probes, specs.Stage.INPUT, next_probe={ 'string': probing.strings_id(T_pos, P_pos), 'pos': probing.strings_pos(T_pos, P_pos), 'key': probing.array_cat( np.concatenate([np.copy(T), np.copy(P)]), _ALPHABET_SIZE), }) pi = np.arange(P.shape[0]) k = 0 # Cover the edge case where |P| = 1, and the first half is not executed. delta = 1 if P.shape[0] > 1 else 0 probing.push( probes, specs.Stage.HINT, next_probe={ 'pred_h': probing.strings_pred(T_pos, P_pos), 'pi': probing.strings_pi(T_pos, P_pos, pi), 'k': probing.mask_one(T.shape[0], T.shape[0] + P.shape[0]), 'q': probing.mask_one(T.shape[0] + delta, T.shape[0] + P.shape[0]), 's': probing.mask_one(0, T.shape[0] + P.shape[0]), 'i': probing.mask_one(0, T.shape[0] + P.shape[0]), 'phase': 0 }) for q in range(1, P.shape[0]): while k != pi[k] and P[k] != P[q]: k = pi[k] probing.push( probes, specs.Stage.HINT, next_probe={ 'pred_h': probing.strings_pred(T_pos, P_pos), 'pi': probing.strings_pi(T_pos, P_pos, pi), 'k': probing.mask_one(T.shape[0] + k, T.shape[0] + P.shape[0]), 'q': probing.mask_one(T.shape[0] + q, T.shape[0] + P.shape[0]), 's': probing.mask_one(0, T.shape[0] + P.shape[0]), 'i': probing.mask_one(0, T.shape[0] + P.shape[0]), 'phase': 0 }) if P[k] == P[q]: k += 1 pi[q] = k probing.push( probes, specs.Stage.HINT, next_probe={ 'pred_h': probing.strings_pred(T_pos, P_pos), 'pi': probing.strings_pi(T_pos, P_pos, pi), 'k': probing.mask_one(T.shape[0] + k, T.shape[0] + P.shape[0]), 'q': probing.mask_one(T.shape[0] + q, T.shape[0] + P.shape[0]), 's': probing.mask_one(0, T.shape[0] + P.shape[0]), 'i': probing.mask_one(0, T.shape[0] + P.shape[0]), 'phase': 0 }) q = 0 s = 0 for i in range(T.shape[0]): if i >= P.shape[0]: s += 1 probing.push( probes, specs.Stage.HINT, next_probe={ 'pred_h': probing.strings_pred(T_pos, P_pos), 'pi': probing.strings_pi(T_pos, P_pos, pi), 'k': probing.mask_one(T.shape[0] + k, T.shape[0] + P.shape[0]), 'q': probing.mask_one(T.shape[0] + q, T.shape[0] + P.shape[0]), 's': probing.mask_one(s, T.shape[0] + P.shape[0]), 'i': probing.mask_one(i, T.shape[0] + P.shape[0]), 'phase': 1 }) while q != pi[q] and P[q] != T[i]: q = pi[q] probing.push( probes, specs.Stage.HINT, next_probe={ 'pred_h': probing.strings_pred(T_pos, P_pos), 'pi': probing.strings_pi(T_pos, P_pos, pi), 'k': probing.mask_one(T.shape[0] + k, T.shape[0] + P.shape[0]), 'q': probing.mask_one(T.shape[0] + q, T.shape[0] + P.shape[0]), 's': probing.mask_one(s, T.shape[0] + P.shape[0]), 'i': probing.mask_one(i, T.shape[0] + P.shape[0]), 'phase': 1 }) if P[q] == T[i]: if q == P.shape[0] - 1: probing.push( probes, specs.Stage.OUTPUT, next_probe={'match': probing.mask_one(s, T.shape[0] + P.shape[0])}) probing.finalize(probes) return s, probes q += 1 # By convention, set probe to head of needle if no match is found probing.push( probes, specs.Stage.OUTPUT, next_probe={ 'match': probing.mask_one(T.shape[0], T.shape[0] + P.shape[0]) }) probing.finalize(probes) return T.shape[0], probes
30.807443
119
0.49241
2,804
19,039
3.197218
0.072397
0.149916
0.10541
0.070496
0.841049
0.826436
0.820078
0.817289
0.815059
0.799777
0
0.0304
0.326173
19,039
617
120
30.857374
0.668408
0.523767
0
0.695279
0
0
0.031509
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0
0.008584
1
0.021459
false
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0.025751
0
0.077253
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0
0
0
0
0
0
6
d96d452c5603ccdf6b8f834c75aa5d955cf1b275
128
py
Python
cart/views.py
thtorun/simple-ecommerce
f93a9161c2e25e872dc1ccb71fa21ef79dc403e1
[ "MIT" ]
null
null
null
cart/views.py
thtorun/simple-ecommerce
f93a9161c2e25e872dc1ccb71fa21ef79dc403e1
[ "MIT" ]
null
null
null
cart/views.py
thtorun/simple-ecommerce
f93a9161c2e25e872dc1ccb71fa21ef79dc403e1
[ "MIT" ]
null
null
null
from django.shortcuts import render # Create your views here. def cart(request): return render(request,'cart.html')
18.285714
39
0.710938
17
128
5.352941
0.823529
0
0
0
0
0
0
0
0
0
0
0
0.195313
128
6
40
21.333333
0.883495
0.179688
0
0
0
0
0.092784
0
0
0
0
0
0
1
0.333333
false
0
0.333333
0.333333
1
0
1
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0
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0
1
1
1
0
0
6
7947882f7992a2e92a5534fbedad35e26f9dd60d
377
py
Python
authz/controller/apiv1/user.py
amnshzd/authz
63a60bd185bd8119b0aac48fa5d0e19754b8d03b
[ "Apache-2.0" ]
null
null
null
authz/controller/apiv1/user.py
amnshzd/authz
63a60bd185bd8119b0aac48fa5d0e19754b8d03b
[ "Apache-2.0" ]
null
null
null
authz/controller/apiv1/user.py
amnshzd/authz
63a60bd185bd8119b0aac48fa5d0e19754b8d03b
[ "Apache-2.0" ]
null
null
null
from authz.util.jsonify import jsonify class UserController: def creat_user(): return jsonify(status=501) def get_user_list(): return jsonify(status=501) def get_user(user_id): return jsonify(status=501) def update_user(user_id): return jsonify(status=501) def delete_user(user_id): return jsonify(status=501)
18.85
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6
7951897dd6c9c5ac7f0c52e19439b1b89eed3b0e
282
py
Python
dtamg_py/build_datapackages.py
transparencia-mg/dtamg-py
6007d33a1f33f01f504f82a52ed298cc9f466f61
[ "MIT" ]
null
null
null
dtamg_py/build_datapackages.py
transparencia-mg/dtamg-py
6007d33a1f33f01f504f82a52ed298cc9f466f61
[ "MIT" ]
15
2021-12-20T15:25:23.000Z
2022-03-07T21:55:57.000Z
dtamg_py/build_datapackages.py
transparencia-mg/dtamg-py
6007d33a1f33f01f504f82a52ed298cc9f466f61
[ "MIT" ]
null
null
null
import click from dtamg_py.utils import build_datapackages @click.command(name='build-datapackages') def build_datapackages_cli(): """ Função responsável pela construção dos conjuntos derivados de todo conjunto AGE7. Constroi pasta build_datasets. """ build_datapackages()
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6
796e90fae2d4fa00e66c39c6bbad04e28be37d95
26
py
Python
app/resources/__init__.py
M4cs/SimplyBlog
0b3b5e7605df269d71a556c70f705f65bed14664
[ "MIT" ]
10
2019-09-17T13:29:42.000Z
2021-08-13T22:40:58.000Z
app/resources/__init__.py
M4cs/SimplyBlog
0b3b5e7605df269d71a556c70f705f65bed14664
[ "MIT" ]
null
null
null
app/resources/__init__.py
M4cs/SimplyBlog
0b3b5e7605df269d71a556c70f705f65bed14664
[ "MIT" ]
1
2020-08-06T02:22:49.000Z
2020-08-06T02:22:49.000Z
from .upload import Upload
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6
7990a15a874abc3db07b46a2752c70ad9d69a961
143
py
Python
two_qubit_simulator/quantum_gates/cnot.py
maggiecorrigan/two-qubit-simulator
b4fbf88dfefcac135ac08303af3e6e57f33a0cf4
[ "MIT" ]
null
null
null
two_qubit_simulator/quantum_gates/cnot.py
maggiecorrigan/two-qubit-simulator
b4fbf88dfefcac135ac08303af3e6e57f33a0cf4
[ "MIT" ]
null
null
null
two_qubit_simulator/quantum_gates/cnot.py
maggiecorrigan/two-qubit-simulator
b4fbf88dfefcac135ac08303af3e6e57f33a0cf4
[ "MIT" ]
22
2019-01-30T02:49:42.000Z
2020-04-04T11:02:47.000Z
""" Contains the CNOT gate """ from .quantum_gate import QuantumGate class CNOT(QuantumGate): """ Implements the CNOT gate """ pass
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6
799f2e0e0ed0672969a496a40d6ace3773065704
1,893
py
Python
B2G/gecko/dom/bindings/parser/tests/test_duplicate_qualifiers.py
wilebeast/FireFox-OS
43067f28711d78c429a1d6d58c77130f6899135f
[ "Apache-2.0" ]
3
2015-08-31T15:24:31.000Z
2020-04-24T20:31:29.000Z
B2G/gecko/dom/bindings/parser/tests/test_duplicate_qualifiers.py
wilebeast/FireFox-OS
43067f28711d78c429a1d6d58c77130f6899135f
[ "Apache-2.0" ]
null
null
null
B2G/gecko/dom/bindings/parser/tests/test_duplicate_qualifiers.py
wilebeast/FireFox-OS
43067f28711d78c429a1d6d58c77130f6899135f
[ "Apache-2.0" ]
3
2015-07-29T07:17:15.000Z
2020-11-04T06:55:37.000Z
def WebIDLTest(parser, harness): threw = False try: parser.parse(""" interface DuplicateQualifiers1 { getter getter byte foo(unsigned long index); }; """) results = parser.finish() except: threw = True harness.ok(threw, "Should have thrown.") threw = False try: parser.parse(""" interface DuplicateQualifiers2 { setter setter byte foo(unsigned long index, byte value); }; """) results = parser.finish() except: threw = True harness.ok(threw, "Should have thrown.") threw = False try: parser.parse(""" interface DuplicateQualifiers3 { creator creator byte foo(unsigned long index, byte value); }; """) results = parser.finish() except: threw = True harness.ok(threw, "Should have thrown.") threw = False try: parser.parse(""" interface DuplicateQualifiers4 { deleter deleter byte foo(unsigned long index); }; """) results = parser.finish() except: threw = True harness.ok(threw, "Should have thrown.") threw = False try: parser.parse(""" interface DuplicateQualifiers5 { getter deleter getter byte foo(unsigned long index); }; """) results = parser.finish() except: threw = True harness.ok(threw, "Should have thrown.") threw = False try: results = parser.parse(""" interface DuplicateQualifiers6 { creator setter creator byte foo(unsigned long index, byte value); }; """) results = parser.finish() except: threw = True harness.ok(threw, "Should have thrown.")
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6
79d3e5c084d27a42e42920b068f4477512405d96
293
py
Python
pyrsa/model/__init__.py
PeerHerholz/pyrsa
994007086c59de93d86b982f1fff73fe6a8ea929
[ "MIT" ]
4
2015-08-10T18:34:21.000Z
2018-05-15T20:43:15.000Z
pyrsa/model/__init__.py
PeerHerholz/pyrsa
994007086c59de93d86b982f1fff73fe6a8ea929
[ "MIT" ]
null
null
null
pyrsa/model/__init__.py
PeerHerholz/pyrsa
994007086c59de93d86b982f1fff73fe6a8ea929
[ "MIT" ]
2
2018-03-26T03:02:07.000Z
2021-11-10T21:09:48.000Z
#!/usr/bin/env python3 # -*- coding: utf-8 -*- """Model definitions and handling """ from .model import Model, ModelFixed, ModelSelect, ModelWeighted from .model import ModelInterpolate from .model import model_from_dict from .fitter import fit_mock, fit_optimize, fit_select, fit_interpolate
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6
8dd3b0a44fa42a28bbec4009bc21896b8359100c
357
py
Python
polyaxon/notifier/events/experiment_group.py
elyase/polyaxon
1c19f059a010a6889e2b7ea340715b2bcfa382a0
[ "MIT" ]
null
null
null
polyaxon/notifier/events/experiment_group.py
elyase/polyaxon
1c19f059a010a6889e2b7ea340715b2bcfa382a0
[ "MIT" ]
null
null
null
polyaxon/notifier/events/experiment_group.py
elyase/polyaxon
1c19f059a010a6889e2b7ea340715b2bcfa382a0
[ "MIT" ]
null
null
null
import notifier from event_manager.events import experiment_group notifier.subscribe_event(experiment_group.ExperimentGroupStoppedEvent) notifier.subscribe_event(experiment_group.ExperimentGroupDoneEvent) # notifier.subscribe_event(experiment_group.ExperimentGroupNewStatusEvent) # notifier.subscribe_event(experiment_group.ExperimentGroupIterationEvent)
39.666667
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0.238854
0.280255
0.407643
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6
8dfcdb36faacf361900cfd774142c91385cf36a5
7,156
py
Python
src/CLI/actioner/sonic-cli-sag.py
project-arlo/sonic-mgmt-framework
562cd84ff3fec9ca705c7df621742f2daa61ce71
[ "Apache-2.0" ]
7
2019-10-17T06:12:02.000Z
2021-09-08T11:16:19.000Z
src/CLI/actioner/sonic-cli-sag.py
noolex/sonic-mgmt-framework
5493889adc47fc584b04dca1a0cc0a2007211df4
[ "Apache-2.0" ]
207
2019-06-24T04:48:11.000Z
2020-05-06T05:51:37.000Z
src/CLI/actioner/sonic-cli-sag.py
noolex/sonic-mgmt-framework
5493889adc47fc584b04dca1a0cc0a2007211df4
[ "Apache-2.0" ]
20
2019-06-27T19:24:45.000Z
2021-07-15T21:12:30.000Z
#!/usr/bin/python ########################################################################### # # Copyright 2019 Dell, Inc. # # Licensed under the Apache License, Version 2.0 (the "License"); # you may not use this file except in compliance with the License. # You may obtain a copy of the License at # # http://www.apache.org/licenses/LICENSE-2.0 # # Unless required by applicable law or agreed to in writing, software # distributed under the License is distributed on an "AS IS" BASIS, # WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied. # See the License for the specific language governing permissions and # limitations under the License. # ########################################################################### import sys import json import collections import re import cli_client as cc from rpipe_utils import pipestr from scripts.render_cli import show_cli_output def invoke(func, args): body = None aa = cc.ApiClient() # SAG delete ipv4 anycast gateway address if func == 'del_llist_openconfig_interfaces_ext_interfaces_interface_subinterfaces_subinterface_ipv4_sag_ipv4_config_static_anycast_gateway' : sag_key = collections.defaultdict(dict) sag_key = { "name": args[0], "index": "0", "static-anycast-gateway": args[1] } keypath = cc.Path('/restconf/data/openconfig-interfaces:interfaces/interface={name}/subinterfaces/subinterface={index}/openconfig-if-ip:ipv4/openconfig-interfaces-ext:sag-ipv4/config/static-anycast-gateway={static-anycast-gateway}', **sag_key) return aa.delete(keypath) # SAG configure ipv4 anycast gateway address if func == 'patch_openconfig_interfaces_ext_interfaces_interface_subinterfaces_subinterface_ipv4_sag_ipv4_config_static_anycast_gateway' : keypath = cc.Path('/restconf/data/openconfig-interfaces:interfaces/interface={name}/subinterfaces/subinterface={index}/openconfig-if-ip:ipv4/openconfig-interfaces-ext:sag-ipv4/config/static-anycast-gateway', name=args[0], index="0") body = collections.defaultdict(dict) body = { "openconfig-interfaces-ext:static-anycast-gateway": [args[1]] } return aa.patch(keypath, body) # SAG delete ipv6 anycast gateway address if func == 'del_llist_openconfig_interfaces_ext_interfaces_interface_subinterfaces_subinterface_ipv6_sag_ipv6_config_static_anycast_gateway' : sag_key = collections.defaultdict(dict) sag_key = { "name": args[0], "index": "0", "static-anycast-gateway": args[1] } keypath = cc.Path('/restconf/data/openconfig-interfaces:interfaces/interface={name}/subinterfaces/subinterface={index}/openconfig-if-ip:ipv6/openconfig-interfaces-ext:sag-ipv6/config/static-anycast-gateway={static-anycast-gateway}', **sag_key) return aa.delete(keypath) # SAG configure ipv6 anycast gateway address if func == 'patch_openconfig_interfaces_ext_interfaces_interface_subinterfaces_subinterface_ipv6_sag_ipv6_config_static_anycast_gateway' : keypath = cc.Path('/restconf/data/openconfig-interfaces:interfaces/interface={name}/subinterfaces/subinterface={index}/openconfig-if-ip:ipv6/openconfig-interfaces-ext:sag-ipv6/config/static-anycast-gateway', name=args[0], index="0") body = collections.defaultdict(dict) body = { "openconfig-interfaces-ext:static-anycast-gateway": [args[1]] } return aa.patch(keypath, body) # SAG delete global mac if func == 'delete_openconfig_network_instance_ext_network_instances_network_instance_global_sag_config_anycast_mac' : keypath = cc.Path('/restconf/data/openconfig-network-instance:network-instances/network-instance={name}/openconfig-network-instance-ext:global-sag/config/anycast-mac', name="default") return aa.delete(keypath) # SAG configure global mac if func == 'patch_openconfig_network_instance_ext_network_instances_network_instance_global_sag_config_anycast_mac' : keypath = cc.Path('/restconf/data/openconfig-network-instance:network-instances/network-instance={name}/openconfig-network-instance-ext:global-sag/config/anycast-mac', name="default") body = collections.defaultdict(dict) body = { "openconfig-network-instance-ext:anycast-mac": args[0] } return aa.patch(keypath, body) # SAG IPv4 enable/disable if func == 'patch_openconfig_network_instance_ext_network_instances_network_instance_global_sag_config_ipv4_enable' : keypath = cc.Path('/restconf/data/openconfig-network-instance:network-instances/network-instance={name}/openconfig-network-instance-ext:global-sag/config/ipv4-enable', name="default") if args[0] == "True": body = { "openconfig-network-instance-ext:ipv4-enable": True } elif args[0] == "False": body = { "openconfig-network-instance-ext:ipv4-enable": False } return aa.patch(keypath, body) # SAG IPv6 enable/disable if func == 'patch_openconfig_network_instance_ext_network_instances_network_instance_global_sag_config_ipv6_enable' : keypath = cc.Path('/restconf/data/openconfig-network-instance:network-instances/network-instance={name}/openconfig-network-instance-ext:global-sag/config/ipv6-enable', name="default") if args[0] == "True": body = { "openconfig-network-instance-ext:ipv6-enable": True } elif args[0] == "False": body = { "openconfig-network-instance-ext:ipv6-enable": False } return aa.patch(keypath, body) def run(func, args): try: api_response = invoke(func, args) if api_response.ok(): response = api_response.content if response is None: pass elif 'openconfig-interfaces:config' in response.keys(): value = response['openconfig-interfaces:config'] if value is None: return show_cli_output(args[2], value) elif 'openconfig-network-instance:config' in response.keys(): value = response['openconfig-interfaces:config'] if value is None: return show_cli_output(args[2], value) else: #error response print(api_response.error_message()) except: # system/network error raise if __name__ == '__main__': pipestr().write(sys.argv) #pdb.set_trace() run(sys.argv[1], sys.argv[2:])
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6
5c0d033d6b901a5c705fb7dc8c7fc3bec8a869fb
17,576
py
Python
lib/JsonDIF.py
joser1945/cmr-metadata-review
df0bb24dd06f981af907569f1a97966753053a99
[ "Apache-2.0" ]
15
2018-06-26T19:58:44.000Z
2022-03-01T21:19:34.000Z
lib/JsonDIF.py
joser1945/cmr-metadata-review
df0bb24dd06f981af907569f1a97966753053a99
[ "Apache-2.0" ]
61
2018-06-27T15:15:41.000Z
2022-03-08T15:39:32.000Z
lib/JsonDIF.py
vbjayanti/cmr-metadata-review
1c7ac12ef26f144289e3004588a2e2b305d4f940
[ "Apache-2.0" ]
9
2019-01-22T15:48:48.000Z
2021-10-01T18:38:30.000Z
'''This file is for get JSON output for Collection DIF data''' class DIFOutputJSON(): def __init__(self,checkerRules,wrap): self.checkerRules = checkerRules self.wrap = wrap def checkAll(self, metadata): result = {} #======================================= str = 'Entry_Title' try: result[str] = self.checkerRules.check_Entry_Title(metadata) except: result[str] = 'np' # ====================================== str = 'Dataset_Citation.Dataset_Release_Date' try: result[str] = self.wrap(metadata,self.checkerRules.check_Dataset_Citation_Dataset_Release_Date,str) except: result[str] = 'np' # ====================================== str = 'Dataset_Citation.Persistent_Identifier.Type' try: result[str] = self.wrap(metadata, self.checkerRules.check_Dataset_Citation_Persistent_Identifier_Type,'Dataset_Citation.Persistent_Identifier.Type') except: result[str] = 'np' # ====================================== str = 'Dataset_Citation.Persistent_Identifier.Identifier' try: result[str] = self.wrap(metadata,self.checkerRules.check_Dataset_Citation_Persistent_Identifier_Identifier,str) except: result[str] = 'np' # ====================================== str = 'Dataset_Citation.Online_Resource' try: result[str] = self.wrap(metadata,self.checkerRules.check_Dataset_Citation_Online_Resource,'Dataset_Citation.Online_Resource') except: result[str] = 'np' # ====================================== str = 'Personnel.Role' try: result[str] = self.wrap(metadata,self.checkerRules.check_Personnel_Role_item,str) except: result[str] = 'np' # ====================================== str = 'Personnel.Contact_Person.Email' try: result[str] = self.wrap(metadata, self.checkerRules.check_Personnel_Contact_Person_Email_item, str) except: result[str] = 'np' # ====================================== str = 'Personnel.Contact_Person.Phone.Number' try: result[str] = self.wrap(metadata, self.checkerRules.check_Personnel_Contact_Person_phone_item, str) except: result[str] = 'np' # ====================================== str = 'Personnel.Contact_Person.Phone.Type' try: result[str] = self.wrap(metadata,self.checkerRules.check_Personnel_Contact_Person_Phone_Type_item,str) except: result[str] = 'np' # ====================================== str = 'Personnel.Contact_Group.Email' try: result[str] = self.wrap(metadata,self.checkerRules.check_Personnel_Contact_Group_Email_item,str) except: result[str] = 'np' # ====================================== str = 'Personnel.Contact_Group.Phone.Number' try: result[str] = self.wrap(metadata,self.checkerRules.check_Personnel_Contact_Group_Phone_item,str) except: result[str] = 'np' # ====================================== str = 'Personnel.Contact_Group.Phone.Type' try: result[str] = self.wrap(metadata,self.checkerRules.check_Personnel_Contact_Group_Phone_Type_item,str) except: result[str] = 'np' # ====================================== str = 'Science_Keywords.Category' try: result[str] = self.wrap(metadata,self.checkerRules.science_Keywords_item_Category,str) except: result[str] = 'np' # ====================================== str = 'Science_Keywords.Topic' try: result[str] = self.wrap(metadata,self.checkerRules.check_science_Keywords_item_topic,str) except: result[str] = 'np' # ====================================== str = 'Science_Keywords.Term' try: result[str] = self.wrap(metadata,self.checkerRules.check_science_Keywords_item_Term,str) except: result[str] = 'np' # ====================================== str = 'Science_Keywords.Variable_Level_1' try: result[str] = self.wrap(metadata,self.checkerRules.check_science_Keywords_item_Variable_1,str) except: result[str] = 'np' # ====================================== str = 'Science_Keywords.Variable_Level_2' try: result[str] = self.wrap(metadata,self.checkerRules.check_science_Keywords_item_Variable_2,str) except: result[str] = 'np' # ====================================== str = 'Science_Keywords.Variable_Level_3' try: result[str] = self.wrap(metadata, self.checkerRules.check_science_Keywords_item_Variable_3,str) except: result[str] = 'np' # ====================================== str = 'ISO_Topic_Category' try: result[str] = self.wrap(metadata,self.checkerRules.check_ISO_Topic_Category,str) except: result[str] = 'np' # ====================================== str = 'Platform.Type' try: result[str] = self.wrap(metadata, self.checkerRules.check_Platform_item_Type,str) except: result[str] = 'np' # ====================================== str = 'Platform.Short_Name' try: result[str] = self.wrap(metadata,self.checkerRules.check_Platform_item_Short_Name,str) except: result[str] = 'np' # ====================================== str = 'Platform.Long_Name' try: result[str] = self.wrap(metadata,self.checkerRules.check_Platform_item_Long_Name,str) except: result[str] = 'np' # ====================================== str = 'Platform.Instrument.Short_Name' try: result[str] = self.wrap(metadata,self.checkerRules.check_Platform_item_Instrument_item_shortname,str) except: result[str] = 'np' # ====================================== str = 'Platform.Instrument.Long_Name' try: result[str] = self.wrap(metadata,self.checkerRules.check_Platform_item_Instrument_item_longname,str) except: result[str] = 'np' # ====================================== str = 'Platform.Instrument' try: result[str] = self.wrap(metadata,self.checkerRules.check_Platform_item_Instrument_sensor_shortname,str) except: result[str] = 'np' # ====================================== str = 'Platform.Instrument' try: result[str] = self.wrap(metadata,self.checkerRules.check_Platform_item_Instrument_sensor_longname,str) except: result[str] = 'np' # ====================================== str = 'Temporal_Coverage.Range_DateTime.Beginning_Date_Time' try: result[str] = self.wrap(metadata,self.checkerRules.check_Temporal_Coverage_item_Begin_Date_Time,str) except: result[str] = 'np' # ====================================== str = 'Temporal_Coverage.Range_DateTime.Ending_Date_Time' try: result[str] = self.wrap(metadata,self.checkerRules.check_Temporal_Coverage_item_end_Date_Time,str) except: result[str] = 'np' # ====================================== str = 'Dataset_Progress' try: result[str] = self.wrap(metadata,self.checkerRules.check_dataset_progress,str) except: result[str] = 'np' # ====================================== str = 'Spatial_Coverage.Granule_Spatial_Representation' try: result[str] = self.wrap(metadata,self.checkerRules.check_Spatial_Coverage_Granule_Spatial_Representation,str) except: result[str] = 'np' # ====================================== str = 'Spatial_Coverage.Geometry.Coordinate_System' try: result[str] = self.wrap(metadata,self.checkerRules.check_Spatial_Coverage_Geometry_Coordinate_System,str) except: result[str] = 'np' # ====================================== str = 'Spatial_Coverage.Geometry.Bounding_Rectangle' try: result[str] = self.wrap(metadata,self.checkerRules.check_Spatial_Coverage_Geometry_Bounding_Rectangle_Southernmost_Latitude,str) except: result[str] = 'np' # ====================================== str = 'Spatial_Coverage.Geometry.Bounding_Rectangle' try: result[str] = self.wrap(metadata,self.checkerRules.check_Spatial_Coverage_Geometry_Bounding_Rectangle_Northernmost_Latitude,str) except: result[str] = 'np' # ====================================== str = 'Spatial_Coverage.Geometry.Bounding_Rectangle' try: result[str] = self.wrap(metadata,self.checkerRules.check_Spatial_Coverage_Geometry_Bounding_Rectangle_Westernmost_Longitude,str) except: result[str] = 'np' # ====================================== str = 'Spatial_Coverage.Geometry.Bounding_Rectangle' try: result[str] = self.wrap(metadata,self.checkerRules.check_Spatial_Coverage_Geometry_Bounding_Rectangle_Easternmost_Longitude,str) except: result[str] = 'np' # ====================================== str = 'Location.Location_Category' try: result[str] = self.wrap(metadata,self.checkerRules.check_Location_Location_Category,str) except: result[str] = 'np' # ====================================== str = 'Location.Location_Type' try: result[str] = self.wrap(metadata,self.checkerRules.check_Location_Location_Type,str) except: result[str] = 'np' # ====================================== str = 'Location.Location_Subregion1' try: result[str] = self.wrap(metadata,self.checkerRules.check_Location_Subregion1,str) except: result[str] = 'np' # ====================================== str = 'Location.Location_Subregion2' try: result[str] = self.wrap(metadata,self.checkerRules.check_Location_Subregion2,str) except: result[str] = 'np' # ====================================== str = 'Location.Location_Subregion3' try: result[str] = self.wrap(metadata, self.checkerRules.check_Location_Subregion3, str) except: result[str] = 'np' # ====================================== str = 'Data_Resolution.Horizontal_Resolution_Range' try: result[str] = self.wrap(metadata,self.checkerRules.check_Horizontal_Resolution_Range,str) except: result[str] = 'np' # ====================================== str = 'Data_Resolution.Vertical_Resolution_Range' try: result[str] = self.wrap(metadata,self.checkerRules.check_Vertical_Resolution_Range,str) except: result[str] = 'np' # ====================================== str = 'Data_Resolution.Temporal_Resolution_Range' try: result[str] = self.wrap(metadata,self.checkerRules.check_Temporal_Resolution_Range,str) except: result[str] = 'np' # ====================================== str = 'Project.Short_Name' try: result[str] = self.wrap(metadata,self.checkerRules.check_Project_Short_Name,str) except: result[str] = 'np' # ====================================== str = 'Project.Long_Name' try: result[str] = self.wrap(metadata,self.checkerRules.check_Project_Long_Name,str) except: result[str] = 'np' # ====================================== str = 'Quality' try: result[str] = self.wrap(metadata,self.checkerRules.check_Quality,str) except: result[str] = 'np' # ====================================== str = 'Dataset_Language' try: result[str] = self.wrap(metadata,self.checkerRules.check_Dataset_Language,str) except: result[str] = 'np' # ====================================== str = 'Organization.Organization_Type' try: result[str] = self.wrap(metadata,self.checkerRules.check_Organization_Organization_Type,str) except: result[str] = 'np' # ====================================== str = 'Organization.Organization_Name.Short_Name' try: result[str] = self.wrap(metadata,self.checkerRules.check_Organization_Name_Short_Name,str) except: result[str] = 'np' # ====================================== str = 'Organization.Organization_Name.Long_Name' try: result[str] = self.wrap(metadata,self.checkerRules.check_Organization_Name_Long_Name,str) except: result[str] = 'np' # ====================================== str = 'Organization.Personnel.Contact_Person.Phone.Type' try: result[str] = self.wrap(metadata,self.checkerRules.check_Organization_Personnel_Contact_Person_Phone_Type,str) except: result[str] = 'np' # ====================================== str = 'Organization.Personnel.Contact_Group.Phone.Type' try: result[str] = self.wrap(metadata, self.checkerRules.check_Organization_Personnel_Contact_Person_Phone_Type,str) except: result[str] = 'np' # ====================================== str = 'Distribution.Distribution_Format' try: result[str] = self.wrap(metadata,self.checkerRules.check_Distribution_Distribution_Format,str) except: result[str] = 'np' # ====================================== str = 'Multimedia_Sample.URL' try: result[str] = self.wrap(metadata,self.checkerRules.check_Multimedia_Sample_URL,str) except: result[str] = 'np' # ====================================== str = 'Summary.Abstract' try: result[str] = self.wrap(metadata,self.checkerRules.check_summary_abstract,str) except: result[str] = 'np' # ====================================== str = 'Related_URL.URL_Content_Type.Type' try: temp = self.wrap(metadata,self.checkerRules.check_Related_URL_item_Content_Type,str) result[str] = self.checkerRules.check_Related_URL_Content_Type(temp) except: result[str] = 'np' # ====================================== str = 'Related_URL.URL_Content_Type.Subtype' try: result[str] = self.wrap(metadata,self.checkerRules.check_Related_URL_Content_Type_SubType,str) except: result[str] = 'np' # ====================================== str = 'Related_URL.Description' try: temp = self.wrap(metadata,self.checkerRules.check_Related_URL_Description_Item,str) result[str] += self.checkerRules.check_Related_URL_Description(temp) except: result[str] = 'np' # ====================================== str = 'Related_URL' try: temp = self.wrap(metadata,self.checkerRules.check_Related_URL_Mime_Type,str) result[str] = self.checkerRules.convertMimeType(temp) except: result[str] = 'np' # ====================================== str = 'Product_Level_Id' try: result[str] = self.wrap(metadata,self.checkerRules.check_Product_Level_ID,str) except: result[str] = 'np' # ====================================== str = 'Collection_Data_Type' try: result[str] = self.wrap(metadata,self.checkerRules.check_Collection_Data_Type,str) except: result[str] = 'np' # ====================================== str = 'Metadata_Dates.Metadata_Creation' try: result[str] = self.wrap(metadata,self.checkerRules.check_Metadata_Dates_Creation,str) except: result[str] = 'np' # ====================================== str = 'Metadata_Dates.Metadata_Last_Revision' try: result[str] = self.wrap(metadata,self.checkerRules.check_Metadata_last_revision,str) except: result[str] = 'np' # ====================================== str = 'Metadata_Dates.Data_Creation' try: result[str] = self.wrap(metadata, self.checkerRules.check_Metadata_data_creation,str) except: result[str] = 'np' # ====================================== str = 'Metadata_Dates.Data_Last_Revision' try: result[str] = self.wrap(metadata,self.checkerRules.check_Metadata_data_latest_revision,str) except: result[str] = 'np' return result
43.184275
160
0.511664
1,555
17,576
5.535691
0.077814
0.136966
0.161013
0.128369
0.904391
0.879182
0.851417
0.823536
0.722584
0.614661
0
0.000926
0.262517
17,576
407
161
43.184275
0.663169
0.147474
0
0.60597
0
0
0.145223
0.118538
0
0
0
0
0
1
0.00597
false
0
0
0
0.01194
0
0
0
0
null
0
0
0
1
1
1
1
1
1
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
null
0
0
0
0
0
0
0
0
0
0
0
0
0
6
5c16bc03fef547b26441dd335b7e7456cabe6074
22
py
Python
code_py/Linear_Optimization_1.py
Moises9/orToolsOptimization
497468a43871607f45b6ac47953cf084ce183943
[ "MIT" ]
null
null
null
code_py/Linear_Optimization_1.py
Moises9/orToolsOptimization
497468a43871607f45b6ac47953cf084ce183943
[ "MIT" ]
null
null
null
code_py/Linear_Optimization_1.py
Moises9/orToolsOptimization
497468a43871607f45b6ac47953cf084ce183943
[ "MIT" ]
null
null
null
import ortools as ot
7.333333
20
0.772727
4
22
4.25
1
0
0
0
0
0
0
0
0
0
0
0
0.227273
22
3
20
7.333333
1
0
0
0
0
0
0
0
0
0
0
0
0
1
0
true
0
1
0
1
0
1
1
0
null
0
0
0
0
0
0
0
0
0
0
0
0
0
1
0
0
0
0
0
0
0
0
0
0
null
0
0
0
0
0
0
1
0
1
0
1
0
0
6
5c4621cb9ed77af336580dd91e9c10df289e9ecc
1,260
py
Python
src/dwiprep/utils/inputs.py
GalBenZvi/dwiprep
b19340533813f7dcbfb8ab471d57a2a3407358af
[ "Apache-2.0" ]
1
2021-10-30T12:55:27.000Z
2021-10-30T12:55:27.000Z
src/dwiprep/utils/inputs.py
GalBenZvi/dwiprep
b19340533813f7dcbfb8ab471d57a2a3407358af
[ "Apache-2.0" ]
18
2021-02-21T10:46:11.000Z
2021-11-29T20:42:04.000Z
src/dwiprep/utils/inputs.py
GalBenZvi/dwiprep
b19340533813f7dcbfb8ab471d57a2a3407358af
[ "Apache-2.0" ]
3
2021-02-21T10:46:20.000Z
2021-10-30T12:55:32.000Z
import nipype.interfaces.utility as niu import nipype.pipeline.engine as pe INPUT_FIELDS = [ "output_dir", # DWI "dwi", "in_bvec", "in_bval", "in_json", # fmap "fmap_ap", "fmap_ap_json", "fmap_pa", "fmap_pa_json", # From anatomical "t1w_preproc", "t1w_mask", "t1w_dseg", "t1w_aseg", "t1w_aparc", "t1w_tpms", "template", "anat2std_xfm", "std2anat_xfm", "subjects_dir", "subject_id", "t1w2fsnative_xfm", "fsnative2t1w_xfm", ] INPUTNODE = pe.Node( niu.IdentityInterface( fields=[ "output_dir", # DWI "dwi", "in_bvec", "in_bval", "in_json", # fmap "fmap_ap", "fmap_ap_json", "fmap_pa", "fmap_pa_json", # From anatomical "t1w_preproc", "t1w_mask", "t1w_dseg", "t1w_aseg", "t1w_aparc", "t1w_tpms", "template", "anat2std_xfm", "std2anat_xfm", "subjects_dir", "subject_id", "t1w2fsnative_xfm", "fsnative2t1w_xfm", ] ), name="inputnode", )
20
39
0.469841
118
1,260
4.635593
0.364407
0.058501
0.054845
0.065814
0.786106
0.786106
0.786106
0.786106
0.786106
0.786106
0
0.031915
0.403175
1,260
62
40
20.322581
0.695479
0.038889
0
0.8
0
0
0.356312
0
0
0
0
0
0
1
0
false
0
0.036364
0
0.036364
0
0
0
0
null
0
0
0
0
1
1
1
1
1
0
0
0
0
0
0
0
0
0
0
1
0
0
0
0
null
0
0
0
0
0
0
0
0
0
0
0
0
0
6
a50dbc6309d1f44efd26e99a8a3b5cb2067866df
173
py
Python
tests/segmentation/pspnet/pspnet_test.py
indiradutta/PyVision
cf74da32a3469ddcce9917ac1f2fcaaeefdeacdf
[ "BSD-3-Clause" ]
31
2020-05-03T07:03:01.000Z
2022-01-29T15:29:22.000Z
tests/segmentation/pspnet/pspnet_test.py
indiradutta/PyVision
cf74da32a3469ddcce9917ac1f2fcaaeefdeacdf
[ "BSD-3-Clause" ]
13
2020-05-25T14:23:46.000Z
2021-08-04T10:38:02.000Z
tests/segmentation/pspnet/pspnet_test.py
indiradutta/PyVision
cf74da32a3469ddcce9917ac1f2fcaaeefdeacdf
[ "BSD-3-Clause" ]
12
2020-05-24T22:26:59.000Z
2021-08-03T18:30:51.000Z
from pyvision.segmentation.pspnet import PSPNet m = PSPNet(model="pspnet-resnet50-ade20k") m.inference("pyvision/segmentation/pspnet/examples/ade20k.jpg", save="ade20k")
28.833333
78
0.791908
22
173
6.227273
0.590909
0.291971
0.379562
0
0
0
0
0
0
0
0
0.049689
0.069364
173
5
79
34.6
0.801242
0
0
0
0
0
0.439306
0.404624
0
0
0
0
0
1
0
false
0
0.333333
0
0.333333
0
1
0
0
null
1
1
0
0
0
0
0
0
0
0
0
0
0
1
0
0
0
0
0
0
0
0
0
1
null
0
0
0
0
0
0
0
0
1
0
0
0
0
6
a519e3434901731bd0935ab21ff108f6a3d4a4d7
42
py
Python
discloud/__init__.py
DiogoMarques2003/python-discloud-status
0f476fab01d397457a05721ed09428b5593bca9f
[ "Apache-2.0" ]
8
2019-11-07T00:28:10.000Z
2022-03-30T00:03:21.000Z
discloud/__init__.py
DiogoMarques2003/python-discloud-status
0f476fab01d397457a05721ed09428b5593bca9f
[ "Apache-2.0" ]
null
null
null
discloud/__init__.py
DiogoMarques2003/python-discloud-status
0f476fab01d397457a05721ed09428b5593bca9f
[ "Apache-2.0" ]
1
2022-01-12T13:20:28.000Z
2022-01-12T13:20:28.000Z
from .ram import ram, total_ram, using_ram
42
42
0.809524
8
42
4
0.625
0
0
0
0
0
0
0
0
0
0
0
0.119048
42
1
42
42
0.864865
0
0
0
0
0
0
0
0
0
0
0
0
1
0
true
0
1
0
1
0
1
1
0
null
0
0
0
0
0
0
0
0
0
0
0
0
0
1
0
0
0
0
0
0
0
0
0
0
null
0
0
0
0
0
0
1
0
1
0
1
0
0
6
eb5eb0de0cfc110299bcbd5804cb3b27859de120
30
py
Python
readthedocs/tastyapi/__init__.py
ludia/readthedocs.org
636c2bd57b417c4d73657d2517efaf4258dd75c1
[ "MIT" ]
1
2021-11-12T23:52:23.000Z
2021-11-12T23:52:23.000Z
readthedocs/tastyapi/__init__.py
titilambert/readthedocs.org
774611db90fea94c3ae4d7de4726f010ab01ddab
[ "MIT" ]
null
null
null
readthedocs/tastyapi/__init__.py
titilambert/readthedocs.org
774611db90fea94c3ae4d7de4726f010ab01ddab
[ "MIT" ]
null
null
null
from .slum import api # noqa
15
29
0.7
5
30
4.2
1
0
0
0
0
0
0
0
0
0
0
0
0.233333
30
1
30
30
0.913043
0.133333
0
0
0
0
0
0
0
0
0
0
0
1
0
true
0
1
0
1
0
1
1
0
null
0
0
0
0
0
0
0
0
0
0
0
0
0
1
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0
0
0
0
0
0
0
0
0
null
0
0
0
0
0
0
1
0
1
0
1
0
0
6
eb87af8042c1df5eaaf859413d6ced9c70a91f26
3,525
py
Python
Python/count-of-range-sum.py
bssrdf/LeetCode-5
746df5cff523361145a74d9d429dc541a7b99910
[ "MIT" ]
68
2018-01-13T07:15:37.000Z
2022-02-20T12:58:24.000Z
Python/count-of-range-sum.py
bssrdf/LeetCode-5
746df5cff523361145a74d9d429dc541a7b99910
[ "MIT" ]
2
2021-12-10T01:43:37.000Z
2021-12-14T21:48:53.000Z
Python/count-of-range-sum.py
bssrdf/LeetCode-5
746df5cff523361145a74d9d429dc541a7b99910
[ "MIT" ]
63
2017-04-10T03:38:25.000Z
2022-03-17T23:24:51.000Z
# Time: O(nlogn) # Space: O(n) # Given an integer array nums, return the number of range # sums that lie in [lower, upper] inclusive. # Range sum S(i, j) is defined as the sum of the elements # in nums between indices i and j (i <= j), inclusive. # # Note: # A naive algorithm of O(n^2) is trivial. You MUST do better than that. # # Example: # Given nums = [-2, 5, -1], lower = -2, upper = 2, # Return 3. # The three ranges are : [0, 0], [2, 2], [0, 2] and # their respective sums are: -2, -1, 2. # Divide and Conquer solution. class Solution(object): def countRangeSum(self, nums, lower, upper): """ :type nums: List[int] :type lower: int :type upper: int :rtype: int """ def countAndMergeSort(sums, start, end, lower, upper): if end - start <= 1: # The size of range [start, end) less than 2 is always with count 0. return 0 mid = start + (end - start) / 2 count = countAndMergeSort(sums, start, mid, lower, upper) + \ countAndMergeSort(sums, mid, end, lower, upper) j, k, r = mid, mid, mid tmp = [] for i in xrange(start, mid): # Count the number of range sums that lie in [lower, upper]. while k < end and sums[k] - sums[i] < lower: k += 1 while j < end and sums[j] - sums[i] <= upper: j += 1 count += j - k # Merge the two sorted arrays into tmp. while r < end and sums[r] < sums[i]: tmp.append(sums[r]) r += 1 tmp.append(sums[i]) # Copy tmp back to sums. sums[start:start+len(tmp)] = tmp return count sums = [0] * (len(nums) + 1) for i in xrange(len(nums)): sums[i + 1] = sums[i] + nums[i] return countAndMergeSort(sums, 0, len(sums), lower, upper) # Divide and Conquer solution. class Solution2(object): def countRangeSum(self, nums, lower, upper): """ :type nums: List[int] :type lower: int :type upper: int :rtype: int """ def countAndMergeSort(sums, start, end, lower, upper): if end - start <= 0: # The size of range [start, end] less than 2 is always with count 0. return 0 mid = start + (end - start) / 2 count = countAndMergeSort(sums, start, mid, lower, upper) + \ countAndMergeSort(sums, mid + 1, end, lower, upper) j, k, r = mid + 1, mid + 1, mid + 1 tmp = [] for i in xrange(start, mid + 1): # Count the number of range sums that lie in [lower, upper]. while k <= end and sums[k] - sums[i] < lower: k += 1 while j <= end and sums[j] - sums[i] <= upper: j += 1 count += j - k # Merge the two sorted arrays into tmp. while r <= end and sums[r] < sums[i]: tmp.append(sums[r]) r += 1 tmp.append(sums[i]) # Copy tmp back to sums sums[start:start+len(tmp)] = tmp return count sums = [0] * (len(nums) + 1) for i in xrange(len(nums)): sums[i + 1] = sums[i] + nums[i] return countAndMergeSort(sums, 0, len(sums) - 1, lower, upper)
35.969388
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6
cce62feff0b13ed7f9f1dec6b2d06c7b53a00237
34
py
Python
nih_mpd_lib/__init__.py
s-kostyuk/sockets_samples
d0c876c8a4ec4a5890f22c6b5a1091ee167d968e
[ "MIT" ]
1
2018-02-20T09:16:46.000Z
2018-02-20T09:16:46.000Z
nih_mpd_lib/__init__.py
s-kostyuk/sockets_samples
d0c876c8a4ec4a5890f22c6b5a1091ee167d968e
[ "MIT" ]
null
null
null
nih_mpd_lib/__init__.py
s-kostyuk/sockets_samples
d0c876c8a4ec4a5890f22c6b5a1091ee167d968e
[ "MIT" ]
null
null
null
from .mpd_client import MPDClient
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5.6
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6
ccf0b58b4f0a0d484efd601b2bd243d4e56de1dc
94
py
Python
Shared_Files/Custom_Exception.py
EricCacciavillani/LyreBird
858657faef39d1adcba19ff0213210ba490b4afa
[ "MIT" ]
1
2019-05-04T02:34:20.000Z
2019-05-04T02:34:20.000Z
Shared_Files/Custom_Exception.py
EricCacciavillani/LyreBird
858657faef39d1adcba19ff0213210ba490b4afa
[ "MIT" ]
null
null
null
Shared_Files/Custom_Exception.py
EricCacciavillani/LyreBird
858657faef39d1adcba19ff0213210ba490b4afa
[ "MIT" ]
1
2019-04-04T19:14:09.000Z
2019-04-04T19:14:09.000Z
class Midi_Reading_Error(Exception): pass class Model_Pathing_Error(Exception): pass
15.666667
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0.666667
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0
6
69032d390087f9288099369d83523d38fd24f7ff
5,031
py
Python
generate_tsp_pomo.py
dschaub95/pyconcorde
8b4a7af120071e939445050efdf613412475cb26
[ "BSD-3-Clause" ]
null
null
null
generate_tsp_pomo.py
dschaub95/pyconcorde
8b4a7af120071e939445050efdf613412475cb26
[ "BSD-3-Clause" ]
null
null
null
generate_tsp_pomo.py
dschaub95/pyconcorde
8b4a7af120071e939445050efdf613412475cb26
[ "BSD-3-Clause" ]
null
null
null
from TSP_utils import TSP_solver, TSP_plotter, TSP_generator, TSP_loader import numpy as np import os import networkx as nx import argparse import json from tqdm import tqdm if __name__ == "__main__": parser = argparse.ArgumentParser() parser.add_argument("--save_folder", type=str, default='./test_sets') parser.add_argument("--num_nodes", type=int, default=100) parser.add_argument("--num_samples", type=int, default=10000) parser.add_argument("--start_index", type=int, default=0) parser.add_argument("--scale_factor", type=int, default=8) opts = parser.parse_known_args()[0] # generate directory and subdirs based on opts save_path = f'{opts.save_folder}/uniform_n_{opts.num_nodes}_{opts.num_samples}' if not os.path.exists(save_path): os.mkdir(save_path) # problem_folder = f'{save_path}/problems' # solution_folder = f'{save_path}/solutions' # heatmap_folder = f'{save_path}/heatmaps' generator = TSP_generator(g_type='tsp_2d', num_min=opts.num_nodes, num_max=opts.num_nodes) solver = TSP_solver() for i in tqdm(range(opts.start_index, opts.num_samples)): # generate instance graph = generator.gen_graph() # solve instance length, sol_time, solution = solver.calc_opt_tour_from_nx(graph, scale=opts.scale_factor) # delete temp files solver.del_tmp_files() # save everything idx_str = f'{i}'.zfill(len(str(opts.num_samples))) # problem_name = f'TSP_Problem_{idx_str}' problem_name = f'tsp_{idx_str}' instance_path = f'{save_path}/{problem_name}' if not os.path.exists(instance_path): os.mkdir(instance_path) # save instance data to folder # once just save the networkx graph # convert numpy arrays to list for i in range(graph.number_of_nodes()): graph.nodes[i].update({'coord': list(graph.nodes[i]['coord'])}) nx.write_gml(graph, path=f'{instance_path}/nx_graph.gml', stringizer=str) # extract and save node_feats node_feats = np.array([graph.nodes[i]['coord'] for i in range(graph.number_of_nodes())]) np.savetxt(f'{instance_path}/node_feats.txt', node_feats) # extract and save edge weights# edge_weights = nx.convert_matrix.to_numpy_array(graph) np.savetxt(f'{instance_path}/edge_weights.txt', edge_weights) # save solution data to folder solution_data = {'problem_name': problem_name, 'opt_tour_length': length, 'opt_tour': solution.tolist()} with open(f"{instance_path}/solution.json", 'w') as f: # indent=2 is not needed but makes the file human-readable json.dump(solution_data, f, indent=2) ################################ OLD VERSION ####################################### # if __name__ == "__main__": # parser = argparse.ArgumentParser() # parser.add_argument("--save_folder", type=str, default='./test_sets') # parser.add_argument("--num_nodes", type=int, default=100) # parser.add_argument("--num_samples", type=int, default=10000) # parser.add_argument("--start_index", type=int, default=0) # parser.add_argument("--scale_factor", type=int, default=8) # opts = parser.parse_known_args()[0] # # generate directory and subdirs based on opts # save_path = f'{opts.save_folder}/uniform_n_{opts.num_nodes}_{opts.num_samples}' # if not os.path.exists(save_path): # os.mkdir(save_path) # # problem_folder = f'{save_path}/problems' # # solution_folder = f'{save_path}/solutions' # # heatmap_folder = f'{save_path}/heatmaps' # generator = TSP_generator(g_type='tsp_2d', num_min=opts.num_nodes, num_max=opts.num_nodes) # solver = TSP_solver() # for i in tqdm(range(opts.start_index, opts.num_samples)): # # generate instance # graph = generator.gen_graph() # # solve instance # length, sol_time, solution = solver.calc_opt_tour_from_nx(graph, scale=8) # # delete temp files # solver.del_tmp_files() # # save everything # idx_str = f'{i}'.zfill(len(str(opts.num_samples))) # # problem_name = f'TSP_Problem_{idx_str}' # problem_name = f'problem_{idx_str}' # instance_path = f'{save_path}/{problem_name}' # if not os.path.exists(instance_path): # os.mkdir(instance_path) # # save instance data to folder # generator.save_nx_as_tsp_single(graph, save_path=instance_path, problem_name=problem_name, scale=8) # # save solution data to folder # solution_data = {'problem_name': problem_name, # 'opt_tour_length': length, # 'opt_tour': solution.tolist()} # with open(f"{instance_path}/solution.txt", 'w') as f: # # indent=2 is not needed but makes the file human-readable # json.dump(solution_data, f, indent=2)
42.277311
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6
6934c3863f99e48f4f17fd1fdf4ad670b7595b9d
77
py
Python
tests/test_app.py
IraaSrivastava/medical_record
0561d62a520b11b6578ba8c26c5c766d74174ec0
[ "MIT" ]
null
null
null
tests/test_app.py
IraaSrivastava/medical_record
0561d62a520b11b6578ba8c26c5c766d74174ec0
[ "MIT" ]
null
null
null
tests/test_app.py
IraaSrivastava/medical_record
0561d62a520b11b6578ba8c26c5c766d74174ec0
[ "MIT" ]
null
null
null
from app import hello def test_hello(): assert hello() == "Hello World!"
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6
d6690c27ba3feb1775fa17c21fa7366a8dee84b3
15,508
py
Python
functions/cursor_functions.py
mtasa-typescript/mtasa-wiki-dump
edea1746850fb6c99d6155d1d7891e2cceb33a5c
[ "MIT" ]
null
null
null
functions/cursor_functions.py
mtasa-typescript/mtasa-wiki-dump
edea1746850fb6c99d6155d1d7891e2cceb33a5c
[ "MIT" ]
1
2021-02-24T21:50:18.000Z
2021-02-24T21:50:18.000Z
functions/cursor_functions.py
mtasa-typescript/mtasa-wiki-dump
edea1746850fb6c99d6155d1d7891e2cceb33a5c
[ "MIT" ]
null
null
null
# Autogenerated file. ANY CHANGES WILL BE OVERWRITTEN from to_python.core.types import FunctionType, \ FunctionArgument, \ FunctionArgumentValues, \ FunctionReturnTypes, \ FunctionSignature, \ FunctionDoc, \ FunctionData, \ CompoundFunctionData DUMP_PARTIAL = [ CompoundFunctionData( server=[ ], client=[ FunctionData( signature=FunctionSignature( name='getCursorAlpha', return_types=FunctionReturnTypes( return_types=[ FunctionType( names=['int'], is_optional=False, ) ], variable_length=False, ), arguments=FunctionArgumentValues( arguments=[ ], variable_length=False, ), generic_types=[ ], ), docs=FunctionDoc( description='This function is used to get alpha (transparency) from the clients cursor.' , arguments={ }, result='returns a int, 0-255, where 255 is fully opaque and 0 is fully transparent.' , ), url='getCursorAlpha', ) ], ), CompoundFunctionData( server=[ ], client=[ FunctionData( signature=FunctionSignature( name='getCursorPosition', return_types=FunctionReturnTypes( return_types=[ FunctionType( names=['float'], is_optional=False, ), FunctionType( names=['float'], is_optional=False, ), FunctionType( names=['float'], is_optional=False, ), FunctionType( names=['float'], is_optional=False, ), FunctionType( names=['float'], is_optional=False, ) ], variable_length=False, ), arguments=FunctionArgumentValues( arguments=[ ], variable_length=False, ), generic_types=[ ], ), docs=FunctionDoc( description='This function gets the current position of the mouse cursor. Note that for performance reasons, the world position returned is always 300 units away. If you want the exact world point (similar to onClientClick), use processLineOfSight between the camera position and the worldX/Y/Z result of this function. (See example below)' , arguments={ }, result='returns 5 values: cursorx, cursory, worldx, worldy, worldz. the first two values are the 2d relative screen coordinates of the cursor: cursorx goes from 0 (left side of the screen) to 1 (right side), cursory goes from 0 (top) to 1 (bottom). the 3 values that follow are the 3d world map coordinates that the cursor points at. if the cursor isnt showing, returns false as the first value.' , ), url='getCursorPosition', ) ], ), CompoundFunctionData( server=[ FunctionData( signature=FunctionSignature( name='isCursorShowing', return_types=FunctionReturnTypes( return_types=[ FunctionType( names=['bool'], is_optional=False, ) ], variable_length=False, ), arguments=FunctionArgumentValues( arguments=[ [ FunctionArgument( name='thePlayer', argument_type=FunctionType( names=['player'], is_optional=False, ), default_value=None, ) ] ], variable_length=False, ), generic_types=[ ], ), docs=FunctionDoc( description='This function is used to determine whether or not a players cursor is showing.' , arguments={ "thePlayer": """The player you want to get cursor state of. """ }, result='returns true if the players cursor is showing, false if it isnt or if invalid parameters were passed.' , ), url='isCursorShowing', ) ], client=[ FunctionData( signature=FunctionSignature( name='isCursorShowing', return_types=FunctionReturnTypes( return_types=[ FunctionType( names=['bool'], is_optional=False, ) ], variable_length=False, ), arguments=FunctionArgumentValues( arguments=[ ], variable_length=False, ), generic_types=[ ], ), docs=FunctionDoc( description='This function is used to determine whether or not a players cursor is showing.' , arguments={ }, result='returns true if the players cursor is showing, false if it isnt.' , ), url='isCursorShowing', ) ], ), CompoundFunctionData( server=[ ], client=[ FunctionData( signature=FunctionSignature( name='setCursorAlpha', return_types=FunctionReturnTypes( return_types=[ FunctionType( names=['bool'], is_optional=False, ) ], variable_length=False, ), arguments=FunctionArgumentValues( arguments=[ [ FunctionArgument( name='alpha', argument_type=FunctionType( names=['int'], is_optional=False, ), default_value=None, ) ] ], variable_length=False, ), generic_types=[ ], ), docs=FunctionDoc( description='This function is used to change alpha (transparency) from the clients cursor.' , arguments={ "alpha": """: The alpha value to set. Value can be 0-255, where 255 is fully opaque and 0 is fully transparent. """ }, result='returns true if the new alpha value was set, or false otherwise.' , ), url='setCursorAlpha', ) ], ), CompoundFunctionData( server=[ ], client=[ FunctionData( signature=FunctionSignature( name='setCursorPosition', return_types=FunctionReturnTypes( return_types=[ FunctionType( names=['bool'], is_optional=False, ) ], variable_length=False, ), arguments=FunctionArgumentValues( arguments=[ [ FunctionArgument( name='cursorX', argument_type=FunctionType( names=['int'], is_optional=False, ), default_value=None, ) ], [ FunctionArgument( name='cursorY', argument_type=FunctionType( names=['int'], is_optional=False, ), default_value=None, ) ] ], variable_length=False, ), generic_types=[ ], ), docs=FunctionDoc( description='This function sets the current position of the mouse cursor.' , arguments={ "cursorX": """Position over the X axis """, "cursorY": """Position over the Y axis """ }, result='returns true if the position has been successfully set, false otherwise.' , ), url='setCursorPosition', ) ], ), CompoundFunctionData( server=[ FunctionData( signature=FunctionSignature( name='showCursor', return_types=FunctionReturnTypes( return_types=[ FunctionType( names=['bool'], is_optional=False, ) ], variable_length=False, ), arguments=FunctionArgumentValues( arguments=[ [ FunctionArgument( name='thePlayer', argument_type=FunctionType( names=['player'], is_optional=False, ), default_value=None, ) ], [ FunctionArgument( name='show', argument_type=FunctionType( names=['bool'], is_optional=False, ), default_value=None, ) ], [ FunctionArgument( name='toggleControls', argument_type=FunctionType( names=['bool'], is_optional=True, ), default_value='true', ) ] ], variable_length=False, ), generic_types=[ ], ), docs=FunctionDoc( description='This function is used to show or hide a players cursor.' , arguments={ "thePlayer": """The player you want to show or hide the cursor of. """, "show": """A boolean value determining whether to show (true) or hide (false) the cursor. """, "toggleControls": """A boolean value determining whether to disable controls whilst the cursor is showing. true implies controls are disabled, false implies controls remain enabled. """ }, result='' , ), url='showCursor', ) ], client=[ FunctionData( signature=FunctionSignature( name='showCursor', return_types=FunctionReturnTypes( return_types=[ FunctionType( names=['bool'], is_optional=False, ) ], variable_length=False, ), arguments=FunctionArgumentValues( arguments=[ [ FunctionArgument( name='show', argument_type=FunctionType( names=['bool'], is_optional=False, ), default_value=None, ) ], [ FunctionArgument( name='toggleControls', argument_type=FunctionType( names=['bool'], is_optional=True, ), default_value='true', ) ] ], variable_length=False, ), generic_types=[ ], ), docs=FunctionDoc( description='This function is used to show or hide a players cursor.' , arguments={ "show": """A boolean value determining whether to show (true) or hide (false) the cursor. """, "toggleControls": """A boolean value determining whether to disable controls whilst the cursor is showing. true implies controls are disabled, false implies controls remain enabled. """ }, result='' , ), url='showCursor', ) ], ) ]
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6
d6ce528c9f4441a8b2c7b3e4f590f8c1cf8c952b
204
py
Python
VKActivityAnalisys/__init__.py
Rig0ur/VKAnalysis
23bfedc490c99d488078039b9aab1c7cd3defce9
[ "Apache-2.0" ]
54
2018-03-04T10:18:59.000Z
2022-03-24T20:47:13.000Z
VKActivityAnalisys/__init__.py
Lukmora/VKAnalysis
23bfedc490c99d488078039b9aab1c7cd3defce9
[ "Apache-2.0" ]
7
2020-09-30T10:17:20.000Z
2021-12-27T01:53:52.000Z
VKActivityAnalisys/__init__.py
Lukmora/VKAnalysis
23bfedc490c99d488078039b9aab1c7cd3defce9
[ "Apache-2.0" ]
12
2019-11-29T15:54:39.000Z
2021-12-13T22:33:20.000Z
# from .TimeActivityAnalysis import TimeActivityAnalysisWidget from .InterestingActivityAnalysis import InterestingActivityAnalysisWidget from .FriendsActivityAnalysis import FriendsActivityAnalysisWidget
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6
d6ded53f1cd4fcb7360d1d590f46faf42994105e
83
py
Python
run_prediction.py
Rhoana/soma_segmentation
82d3e170c7e5b53d3e0fdc507f3430e5a3bc9a2e
[ "MIT" ]
null
null
null
run_prediction.py
Rhoana/soma_segmentation
82d3e170c7e5b53d3e0fdc507f3430e5a3bc9a2e
[ "MIT" ]
null
null
null
run_prediction.py
Rhoana/soma_segmentation
82d3e170c7e5b53d3e0fdc507f3430e5a3bc9a2e
[ "MIT" ]
null
null
null
from main import Predict from parameters import ckpt_restore Predict(ckpt_restore)
20.75
35
0.86747
12
83
5.833333
0.583333
0.314286
0
0
0
0
0
0
0
0
0
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0.108434
83
4
36
20.75
0.945946
0
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0
0
0
0
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1
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true
0
0.666667
0
0.666667
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null
1
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null
0
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1
0
1
0
1
0
0
6
d6ed2db60e823268a6bdcbf69f0400c0a91e459d
7,601
py
Python
tests/test_date_helper.py
yabov/hermes_fix
0a5e89fd15903a7ee0929e82b39879362e2e1008
[ "Apache-2.0" ]
2
2020-02-20T15:00:35.000Z
2020-02-21T19:27:53.000Z
tests/test_date_helper.py
yabov/hermes_fix
0a5e89fd15903a7ee0929e82b39879362e2e1008
[ "Apache-2.0" ]
3
2020-02-21T03:25:35.000Z
2020-02-21T18:37:42.000Z
tests/test_date_helper.py
yabov/hermes_fix
0a5e89fd15903a7ee0929e82b39879362e2e1008
[ "Apache-2.0" ]
null
null
null
import unittest from datetime import datetime, timedelta from dateutil import tz from hermes_fix.utils import date_helper class Test(unittest.TestCase): def setUp(self): pass """Daily: time < start < end""" def test_daily_t_s_e(self): self.tz = tz.gettz("UTC") dt = datetime(2020, 2, 2, 10,0,0, tzinfo=self.tz) start, end, increment = date_helper.get_session_times(dt, self.tz, "11:00:00", "12:00:00") self.assertEqual(dt.date(), start.date()) self.assertEqual(dt.date(), end.date()) self.assertEqual(increment, timedelta(days=1)) """Daily: start < time < end""" def test_daily_s_t_e(self): self.tz = tz.gettz("UTC") dt = datetime(2020, 2, 2, 10, 0, 0, tzinfo=self.tz) start, end, increment = date_helper.get_session_times( dt, self.tz, "09:00:00", "12:00:00") self.assertEqual(dt.date(), start.date()) self.assertEqual(dt.date(), end.date()) self.assertEqual(increment, timedelta(days=1)) """Daily: start < end < time""" def test_daily_s_e_t(self): self.tz = tz.gettz("UTC") dt = datetime(2020, 2, 2, 10, 0, 0, tzinfo=self.tz) start, end, increment = date_helper.get_session_times( dt, self.tz, "08:00:00", "09:00:00") self.assertEqual(dt.date(), start.date()) self.assertEqual(dt.date(), end.date()) self.assertEqual(increment, timedelta(days=1)) """Daily: time < end < start""" def test_daily_t_e_s(self): self.tz = tz.gettz("UTC") dt = datetime(2020, 2, 2, 10, 0, 0, tzinfo=self.tz) start, end, increment = date_helper.get_session_times( dt, self.tz, "12:00:00", "11:00:00") self.assertEqual(start, datetime(2020, 2, 1, 12, 0, 0, tzinfo=self.tz)) self.assertEqual(end, datetime(2020, 2, 2, 11, 0, 0, tzinfo=self.tz)) self.assertEqual(increment, timedelta(days=1)) """Daily: end < time < start""" def test_daily_e_t_s(self): self.tz = tz.gettz("UTC") dt = datetime(2020, 2, 2, 10, 0, 0, tzinfo=self.tz) start, end, increment = date_helper.get_session_times( dt, self.tz, "12:00:00", "09:00:00") self.assertEqual(dt.date(), start.date()) self.assertEqual(dt.date(), end.date() - timedelta(days=1)) self.assertEqual(increment, timedelta(days=1)) """Daily: end < start < time""" def test_daily_e_s_t(self): self.tz = tz.gettz("UTC") dt = datetime(2020, 2, 2, 10, 0, 0, tzinfo=self.tz) start, end, increment = date_helper.get_session_times( dt, self.tz, "09:00:00", "08:00:00") self.assertEqual(dt.date(), start.date()) self.assertEqual(dt.date(), end.date() - timedelta(days=1)) self.assertEqual(increment, timedelta(days=1)) """Weekly: time < start < end""" def test_weekly_t_s_e(self): self.tz = tz.gettz("UTC") dt = datetime(2020, 2, 4, 10, 0, 0, tzinfo=self.tz) start, end, increment = date_helper.get_session_times( dt, self.tz, "Wednesday 11:00:00", "Friday 12:00:00") self.assertEqual(start, datetime(2020, 2, 5, 11, 0, 0, tzinfo=self.tz)) self.assertEqual(end, datetime(2020, 2, 7, 12, 0, 0, tzinfo=self.tz)) self.assertEqual(increment, timedelta(days=7)) """Weekly: start < time < end""" def test_weekly_s_t_e(self): self.tz = tz.gettz("UTC") dt = datetime(2020, 2, 5, 10, 0, 0, tzinfo=self.tz) start, end, increment = date_helper.get_session_times( dt, self.tz, "Monday 11:00:00", "Friday 12:00:00") self.assertEqual(start, datetime(2020, 2, 3, 11, 0, 0, tzinfo=self.tz)) self.assertEqual(end, datetime(2020, 2, 7, 12, 0, 0, tzinfo=self.tz)) self.assertEqual(increment, timedelta(days=7)) """Weekly: start < end < time """ def test_weekly_s_e_t(self): self.tz = tz.gettz("UTC") dt = datetime(2020, 2, 7, 15, 0, 0, tzinfo=self.tz) start, end, increment = date_helper.get_session_times( dt, self.tz, "Monday 11:00:00", "Friday 12:00:00") self.assertEqual(start, datetime(2020, 2, 10, 11, 0, 0, tzinfo=self.tz)) self.assertEqual(end, datetime(2020, 2, 14, 12, 0, 0, tzinfo=self.tz)) self.assertEqual(increment, timedelta(days=7)) """Weekly: time < end < start""" def test_weekly_t_e_s(self): self.tz = tz.gettz("UTC") dt = datetime(2020, 2, 4, 10, 0, 0, tzinfo=self.tz) start, end, increment = date_helper.get_session_times( dt, self.tz, "Friday 11:00:00", "Wednesday 12:00:00") self.assertEqual(start, datetime(2020, 1, 31, 11, 0, 0, tzinfo=self.tz)) self.assertEqual(end, datetime(2020, 2, 5, 12, 0, 0, tzinfo=self.tz)) self.assertEqual(increment, timedelta(days=7)) """Weekly: end < time < start""" def test_weekly_e_t_s(self): self.tz = tz.gettz("UTC") dt = datetime(2020, 2, 4, 10, 0, 0, tzinfo=self.tz) start, end, increment = date_helper.get_session_times( dt, self.tz, "Friday 11:00:00", "Monday 12:00:00") self.assertEqual(start, datetime(2020, 2, 7, 11, 0, 0, tzinfo=self.tz)) self.assertEqual(end, datetime(2020, 2, 10, 12, 0, 0, tzinfo=self.tz)) self.assertEqual(increment, timedelta(days=7)) """Weekly: end < start < time""" def test_weekly_e_s_t(self): self.tz = tz.gettz("UTC") dt = datetime(2020, 2, 7, 10, 0, 0, tzinfo=self.tz) start, end, increment = date_helper.get_session_times( dt, self.tz, "Thursday 11:00:00", "Monday 12:00:00") self.assertEqual(start, datetime(2020, 2, 6, 11, 0, 0, tzinfo=self.tz)) self.assertEqual(end, datetime(2020, 2, 10, 12, 0, 0, tzinfo=self.tz)) self.assertEqual(increment, timedelta(days=7)) """Weekly Same day: time < end < start""" def test_weekly_sd_t_e_s(self): self.tz = tz.gettz("UTC") dt = datetime(2020, 2, 7, 9, 0, 0, tzinfo=self.tz) start, end, increment = date_helper.get_session_times( dt, self.tz, "Friday 12:00:00", "Friday 10:00:00") self.assertEqual(start, datetime( 2020, 1, 31, 12, 0, 0, tzinfo=self.tz)) self.assertEqual(end, datetime(2020, 2, 7, 10, 0, 0, tzinfo=self.tz)) self.assertEqual(increment, timedelta(days=7)) """Weekly Same day: end < time < start""" def test_weekly_sd_e_t_s(self): self.tz = tz.gettz("UTC") dt = datetime(2020, 2, 7, 11, 0, 0, tzinfo=self.tz) start, end, increment = date_helper.get_session_times( dt, self.tz, "Friday 12:00:00", "Friday 10:00:00") self.assertEqual(start, datetime( 2020, 2, 7, 12, 0, 0, tzinfo=self.tz)) self.assertEqual(end, datetime(2020, 2, 14, 10, 0, 0, tzinfo=self.tz)) self.assertEqual(increment, timedelta(days=7)) """Weekly Same day: end < start < time""" def test_weekly_sd_e_s_t(self): self.tz = tz.gettz("UTC") dt = datetime(2020, 2, 7, 14, 0, 0, tzinfo=self.tz) start, end, increment = date_helper.get_session_times( dt, self.tz, "Friday 12:00:00", "Friday 10:00:00") self.assertEqual(start, datetime( 2020, 2, 7, 12, 0, 0, tzinfo=self.tz)) self.assertEqual(end, datetime(2020, 2, 14, 10, 0, 0, tzinfo=self.tz)) self.assertEqual(increment, timedelta(days=7)) def tearDown(self): pass if __name__ == "__main__": unittest.main()
37.628713
98
0.595843
1,138
7,601
3.876098
0.058875
0.088415
0.063478
0.095217
0.933802
0.899569
0.868284
0.868284
0.855135
0.845613
0
0.096147
0.241942
7,601
201
99
37.81592
0.669386
0
0
0.609023
0
0
0.060149
0
0
0
0
0
0.338346
1
0.12782
false
0.015038
0.030075
0
0.165414
0
0
0
0
null
0
0
0
1
1
1
1
1
1
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
null
0
0
0
0
0
0
0
0
0
0
0
0
0
6
ba516b55a3397f92a0f58bd7b84021e2b6f82f2d
122
py
Python
server/__init__.py
mica-framework/cli
a5a851a73d7b9bd0431e9c8bb0c8fca401b32ccf
[ "MIT" ]
5
2019-06-14T12:32:56.000Z
2022-03-17T20:55:48.000Z
server/__init__.py
mica-framework/cli
a5a851a73d7b9bd0431e9c8bb0c8fca401b32ccf
[ "MIT" ]
null
null
null
server/__init__.py
mica-framework/cli
a5a851a73d7b9bd0431e9c8bb0c8fca401b32ccf
[ "MIT" ]
null
null
null
# import the modules from .mica_server import * #FIXME we could make that dynamically editable within the config.yml file!
61
101
0.803279
19
122
5.105263
0.894737
0
0
0
0
0
0
0
0
0
0
0
0.147541
122
2
101
61
0.932692
0.745902
0
0
0
0
0
0
0
0
0
0.5
0
1
0
true
0
1
0
1
0
1
0
0
null
0
0
0
0
0
0
0
0
0
0
0
0
0
1
0
0
0
0
0
0
0
0
0
0
null
0
0
1
0
0
0
1
0
1
0
1
0
0
6
bab1c666630f1b7286568dcc3bf7a5216a8eaae5
23,770
py
Python
hydrogen/Selector.py
belre/EMNumerics
b44fde7685adfc3b1477ec5064cade0ad4accedf
[ "MIT" ]
1
2021-05-16T14:00:07.000Z
2021-05-16T14:00:07.000Z
hydrogen/Selector.py
belre/EMNumerics
b44fde7685adfc3b1477ec5064cade0ad4accedf
[ "MIT" ]
null
null
null
hydrogen/Selector.py
belre/EMNumerics
b44fde7685adfc3b1477ec5064cade0ad4accedf
[ "MIT" ]
null
null
null
import numpy as np import tkinter as tk import tkinter.ttk as ttk from tkinter import font from functools import partial from Function import SphericalSurface, GraphView # https://stackoverflow.com/questions/49888623/tkinter-hovering-over-button-color-change class MarkerButton(tk.Button): def __init__(self, master, **kwargs): tk.Button.__init__(self,master=master,**kwargs) self.turn_off() def turn_on(self): self['highlightbackground'] = "yellow" self['fg'] = "black" def turn_off(self): self['highlightbackground'] = "gray" self['fg'] = "black" class Application(tk.Frame): _before_action_button = None def __init__(self, master=None): super().__init__(master) self.master = master self.pack() self.create_widgets() self._graph_object = None def R_1s(self, r): return 2 * np.exp(-r) def R_2s(self, r): return (1/np.sqrt(2)) * (1-r/2) * np.exp(-r/2) def R_2p(self, r): return (1/(2*np.sqrt(6))) * r * np.exp(-r/2) def R_3s(self, r): return (2/(3*np.sqrt(3))) * (1-2*r/3+2*r*r/27) * np.exp(-r/3) def R_3p(self, r): return (8 / (27 * np.sqrt(6))) * r * (1 - r / 6) * np.exp(-r/3) def R_3d(self, r): return (4 / (81 * np.sqrt(30))) * (r**2) * np.exp(-r/3) def R_4s(self, r): return (1 / 4) * (1 - 3 * r / 4 + r ** 2 / 8 - r ** 3 / 192) * np.exp(-r/4) def R_4p(self, r): return (np.sqrt(5) / (16 * np.sqrt(3))) * r * (1 - r / 4 + r ** 2 / 80) * np.exp(-r/4) def R_4d(self, r): return (1 / (64 * np.sqrt(5))) * (r ** 2) * (1 - r / 12) * np.exp(-r/4) def R_4f(self, r): return (1 / (768 * np.sqrt(35))) * (r ** 3) * np.exp(-r/4) def Y_0_0(self, theta, phi): return 1 / np.sqrt(4 * np.pi) def Y_1_0(self, theta, phi): return np.sqrt(3 / (4*np.pi)) * np.cos(theta) def Y_1_1(self, theta, phi, pm): return - pm * np.sqrt(3 / (8*np.pi)) * np.sin(theta) * np.exp(pm * 1j * phi) def Yc_100(self, theta, phi): return (-self.Y_1_1(theta, phi, 1) + self.Y_1_1(theta, phi, -1)) / np.sqrt(2) def Yc_010(self, theta, phi): return 1j * (self.Y_1_1(theta, phi, 1) + self.Y_1_1(theta, phi, -1)) / np.sqrt(2) def Y_2_0(self, theta, phi): return np.sqrt(5 / (16*np.pi)) * (3 * np.cos(theta) ** 2 - 1) def Y_2_1(self, theta, phi, pm): return - pm * np.sqrt(15 / (8*np.pi)) * (np.sin(theta) * np.cos(theta)) * np.exp(pm * 1j * phi) def Y_2_2(self, theta, phi, pm): return - pm * np.sqrt(15 / (32*np.pi)) * (np.sin(theta) ** 2) * np.exp(pm * 2j * phi) def Y_3_0(self, theta, phi): return np.sqrt(7 / (16 * np.pi)) * (5 * np.cos(theta) ** 3 - 3 * np.cos(theta)) def Y_3_1(self, theta, phi, pm): return - pm * np.sqrt(21 / (64 * np.pi)) * (5 * np.cos(theta) ** 2 - 1) * np.sin(theta) * np.exp(pm * 1j * phi) def Y_3_2(self, theta, phi, pm): return np.sqrt(105 / (32 * np.pi)) * (np.cos(theta) * np.sin(theta) ** 2) * np.exp(pm * 2j * phi) def Y_3_3(self, theta, phi, pm): return - pm * np.sqrt(35 / (64 * np.pi)) * (np.sin(theta) ** 3) * np.exp(pm * 3j * phi) def create_widgets(self): my_font = font.Font(root,family="System",size=16,weight="bold") self.parent_panel = ttk.Frame(root, padding=5) self.parent_panel.pack(anchor=tk.NW, side=tk.LEFT) label = tk.Label(self.parent_panel) label["text"] = "×" label.grid(row=0, column=1) label.configure(font=my_font) label = tk.Label(self.parent_panel) label["text"] = "球面調和関数" label.grid(row=0, column=2) label.configure(font=my_font) cnt = 1 tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "s軌道(l0,m0)" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('3d', lambda theta, phi: np.abs( self.Y_0_0(theta, phi) ))) tk_btn.grid(row=cnt, column=2, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) cnt = cnt + 1 cnt = cnt + 1 tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "p軌道(l1,m0)" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('3d', lambda theta, phi : np.abs(np.real(self.Y_1_0(theta, phi))))) tk_btn.grid(row=cnt, column=2, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) cnt = cnt + 1 tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "p軌道(l1,m1)" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('3d', lambda theta, phi: np.abs(np.real(self.Y_1_1(theta, phi, 1) )))) tk_btn.configure(font=my_font) tk_btn.grid(row=cnt, column=2, sticky=tk.W+tk.E+tk.N+tk.S) cnt = cnt + 1 tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "調和振動子-x合成" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('3d', lambda theta, phi: np.abs( np.real( self.Yc_100(theta, phi))))) tk_btn.grid(row=cnt, column=2, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) cnt = cnt + 1 tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "調和振動子-y合成" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('3d', lambda theta, phi: np.abs( np.real( 1j * (self.Y_1_1(theta, phi, 1) + self.Y_1_1(theta, phi, -1)) / np.sqrt(2) )))) tk_btn.grid(row=cnt, column=2, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) cnt = cnt + 1 tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "調和振動子-z合成" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('3d', lambda theta, phi: np.abs( np.real( self.Y_1_0(theta, phi))))) tk_btn.grid(row=cnt, column=2, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) cnt = cnt + 1 cnt += 3 tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "d軌道(l2,m0)" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('3d', lambda theta, phi: np.abs( np.real( self.Y_2_0(theta, phi))))) tk_btn.grid(row=cnt, column=2, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) cnt = cnt + 1 tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "d軌道(l2,m1)" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('3d', lambda theta, phi: np.abs( np.real( self.Y_2_1(theta, phi, 1))))) tk_btn.grid(row=cnt, column=2, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) cnt = cnt + 1 tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "d軌道(l2,m2)" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('3d', lambda theta, phi: np.abs( np.real( self.Y_2_2(theta, phi, 1))))) tk_btn.grid(row=cnt, column=2, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) cnt = cnt + 1 cnt += 6 tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "f軌道(l3,m0)" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('3d', lambda theta, phi: np.abs( np.real(self.Y_3_0(theta, phi)) ))) tk_btn.grid(row=cnt, column=2, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) cnt = cnt + 1 tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "f軌道(l3,m1)" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('3d', lambda theta, phi: np.abs( np.real(self.Y_3_1(theta, phi, 1) )))) tk_btn.grid(row=cnt, column=2, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) cnt = cnt + 1 tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "f軌道(l3,m2)" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('3d', lambda theta, phi: np.abs( np.real(self.Y_3_2(theta, phi, 1) )))) tk_btn.grid(row=cnt, column=2, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) cnt = cnt + 1 tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "f軌道(l3,m3)" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('3d', lambda theta, phi: np.abs( np.real(self.Y_3_3(theta, phi, 1) )))) tk_btn.grid(row=cnt, column=2, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) cnt = cnt + 1 label = tk.Label(self.parent_panel) label["text"] = "=" label.grid(row=0, column=3) label.configure(font=my_font) label = tk.Label(self.parent_panel) label["text"] = "電子分布\nφnlm" label.grid(row=0, column=4) label.configure(font=my_font) cnt = 1 tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "φ100" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('3d_field', [lambda r, theta, phi: ( self.R_1s(r) * self.Y_0_0(theta, phi) )], lambda axes, fig: axes.view_init(elev=0,azim=90))) tk_btn.grid(row=cnt, column=4, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) cnt = cnt + 1 tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "φ200" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('3d_field', [lambda r, theta, phi: ( self.R_2s(r) * self.Y_0_0(theta, phi) )])) tk_btn.grid(row=cnt, column=4, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) cnt = cnt + 1 tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "φ210" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('3d_field', [lambda r, theta, phi: self.R_2p(r) * self.Y_1_0(theta, phi)])) tk_btn.grid(row=cnt, column=4, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) cnt = cnt + 1 tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "φ211" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('3d_field', [lambda r, theta, phi: self.R_2p(r) * self.Y_1_1(theta, phi, 1)])) tk_btn.grid(row=cnt, column=4, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) cnt = cnt + 1 tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "φx" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('3d_field', [lambda r, theta, phi: self.R_2p(r) * self.Yc_100(theta, phi)])) tk_btn.grid(row=cnt, column=4, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) cnt = cnt + 1 tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "φy" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('3d_field', [lambda r, theta, phi: self.R_2p(r) * self.Yc_010(theta, phi)], lambda axes, fig: axes.view_init(elev=0,azim=0))) tk_btn.grid(row=cnt, column=4, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) cnt = cnt + 1 tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "φz" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('3d_field', [lambda r, theta, phi: self.R_2p(r) * self.Y_1_0(theta, phi)])) tk_btn.grid(row=cnt, column=4, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) cnt = cnt + 1 tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "φ300" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('3d_field', [lambda r, theta, phi: self.R_3s(r) * self.Y_0_0(theta, phi) ], lambda axes, fig: axes.view_init(elev=0,azim=90))) tk_btn.grid(row=cnt, column=4, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) cnt = cnt + 1 tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "φ310" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('3d_field', [lambda r, theta, phi: self.R_3p(r) * self.Y_1_0(theta, phi) ], lambda axes, fig: axes.view_init(elev=0,azim=90))) tk_btn.grid(row=cnt, column=4, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) cnt = cnt + 1 tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "φ311" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('3d_field', [lambda r, theta, phi: self.R_3p(r) * self.Y_1_1(theta, phi, 1) ], lambda axes, fig: axes.view_init(elev=0,azim=90))) tk_btn.grid(row=cnt, column=4, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) cnt = cnt + 1 tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "φ320" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('3d_field', [lambda r, theta, phi: self.R_3d(r) * self.Y_2_0(theta, phi)], lambda axes, fig: axes.view_init(elev=0,azim=90))) tk_btn.grid(row=cnt, column=4, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) cnt = cnt + 1 tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "φ321" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('3d_field', [lambda r, theta, phi: self.R_3d(r) * self.Y_2_1(theta, phi, 1) ], lambda axes, fig: axes.view_init(elev=0,azim=90))) tk_btn.grid(row=cnt, column=4, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) cnt = cnt + 1 tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "φ322" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('3d_field', [lambda r, theta, phi: self.R_3d(r) * self.Y_2_2(theta, phi, 1)], lambda axes, fig: axes.view_init(elev=0,azim=90))) tk_btn.grid(row=cnt, column=4, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) cnt = cnt + 1 tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "φ400" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('3d_field', [lambda r, theta, phi: self.R_4s(r) * self.Y_0_0(theta, phi)], lambda axes, fig: axes.view_init(elev=0,azim=90))) tk_btn.grid(row=cnt, column=4, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) cnt = cnt + 1 tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "φ410" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('3d_field', [lambda r, theta, phi: self.R_4p(r) * self.Y_1_0(theta, phi)], lambda axes, fig: axes.view_init(elev=0,azim=90))) tk_btn.grid(row=cnt, column=4, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) cnt = cnt + 1 tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "φ411" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('3d_field', [lambda r, theta, phi: self.R_4p(r) * self.Y_1_1(theta, phi, 1)], lambda axes, fig: axes.view_init(elev=0,azim=90))) tk_btn.grid(row=cnt, column=4, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) cnt = cnt + 1 tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "φ420" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('3d_field', [lambda r, theta, phi: self.R_4d(r)* self.Y_2_0(theta, phi) ], lambda axes, fig: axes.view_init(elev=0,azim=90))) tk_btn.grid(row=cnt, column=4, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) cnt = cnt + 1 tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "φ421" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('3d_field', [lambda r, theta, phi: self.R_4d(r)* self.Y_2_1(theta, phi, 1) ], lambda axes, fig: axes.view_init(elev=0,azim=90))) tk_btn.grid(row=cnt, column=4, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) cnt = cnt + 1 tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "φ422" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('3d_field', [lambda r, theta, phi: self.R_4d(r)* self.Y_2_2(theta, phi, 1) ], lambda axes, fig: axes.view_init(elev=0,azim=90))) tk_btn.grid(row=cnt, column=4, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) cnt = cnt + 1 tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "φ430" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('3d_field', [lambda r, theta, phi: self.R_4f(r) * self.Y_3_0(theta, phi) ], lambda axes, fig: axes.view_init(elev=0,azim=90))) tk_btn.grid(row=cnt, column=4, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) cnt = cnt + 1 tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "φ431" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('3d_field', [lambda r, theta, phi: self.R_4f(r) * self.Y_3_1(theta, phi, 1) ], lambda axes, fig: axes.view_init(elev=0,azim=90))) tk_btn.grid(row=cnt, column=4, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) cnt = cnt + 1 tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "φ432" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('3d_field', [lambda r, theta, phi: self.R_4f(r) * self.Y_3_2(theta, phi, 1) ], lambda axes, fig: axes.view_init(elev=0,azim=90))) tk_btn.grid(row=cnt, column=4, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) cnt = cnt + 1 tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "φ433" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('3d_field', [lambda r, theta, phi: self.R_4f(r) * self.Y_3_3(theta, phi, 1) ], lambda axes, fig: axes.view_init(elev=0,azim=90))) tk_btn.grid(row=cnt, column=4, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) cnt = cnt + 1 label = tk.Label(self.parent_panel) label["text"] = "動径関数" label.grid(row=0, column=0) tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "1s(n1,l0)" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('2d', lambda r : ((r * self.R_1s(r)) ** 2))) tk_btn.grid(row=1, column=0, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "2s(n2,l0)" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('2d', lambda r: np.abs((r * self.R_2s(r)) ** 2)) ) tk_btn.grid(row=2, column=0, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "2p(n2,l0)" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('2d', lambda r: np.abs((r * self.R_2p(r)) ** 2)) ) tk_btn.grid(row=3, column=0, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "3s(n3,l0)" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('2d', lambda r: np.abs((r * self.R_3s(r)) ** 2)) ) tk_btn.grid(row=8, column=0, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) tk_btn = MarkerButton(self.parent_panel) tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "3p(n3,l1)" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('2d', lambda r: np.abs((r * self.R_3p(r)) ** 2)) ) tk_btn.grid(row=9, column=0, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) tk_btn = MarkerButton(self.parent_panel) tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "3d(n3, l2)" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('2d', lambda r: np.abs((r * self.R_3d(r)) ** 2)) ) tk_btn.grid(row=10, column=0, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) tk_btn = MarkerButton(self.parent_panel) tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "4s(n4, l0)" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('2d', lambda r: np.abs((r * self.R_4s(r)) ** 2)) ) tk_btn.grid(row=14, column=0, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) tk_btn = MarkerButton(self.parent_panel) tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "4p(n4, l1)" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('2d', lambda r: np.abs((r * self.R_4p(r)) ** 2)) ) tk_btn.grid(row=15, column=0, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) tk_btn = MarkerButton(self.parent_panel) tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "4d(n4, l2)" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('2d', lambda r: np.abs((r * self.R_4d(r)) ** 2)) ) tk_btn.grid(row=16, column=0, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) tk_btn = MarkerButton(self.parent_panel) tk_btn = MarkerButton(self.parent_panel) tk_btn["text"] = "4f(n4, l3)" tk_btn["command"] = partial(self.press_for_graph, tk_btn, GraphView('2d', lambda r: np.abs((r * self.R_4f(r)) ** 2)) ) tk_btn.grid(row=17, column=0, sticky=tk.W+tk.E+tk.N+tk.S) tk_btn.configure(font=my_font) tk_btn = MarkerButton(self.parent_panel) def select(self, sender): if self._before_action_button != None: self._before_action_button.turn_off() sender.turn_on() self._before_action_button = sender def press_for_graph(self, sender, graph_func, graph_object=None): self.select(sender) #graph_obj = GraphView('3d', lambda : "") if self._graph_object == None: self._graph_object = SphericalSurface(self.master) self._graph_object.plot(graph_func, graph_object) root = tk.Tk() root.title("Spherical Surface Demonstration") root.attributes('-fullscreen', True) app = Application(master=root) app.mainloop()
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bab47803c81513579eb51a8aafb59a2a5f6f410d
3,086
py
Python
tests/fields/test_render_as_radio.py
jpsca/pforms
77c9da93e5224e79bb147aa873f28951e972bb21
[ "MIT" ]
2
2019-10-11T03:13:10.000Z
2019-11-12T10:31:54.000Z
tests/fields/test_render_as_radio.py
jpsca/hyperform
d5c450ad8684a853fed26f8c2606877151125a9e
[ "MIT" ]
2
2021-11-18T18:01:28.000Z
2021-11-18T18:03:29.000Z
tests/fields/test_render_as_radio.py
jpsca/hyperform
d5c450ad8684a853fed26f8c2606877151125a9e
[ "MIT" ]
null
null
null
import proper_forms.fields as f def test_text_as_radio(): field = f.Text(name="name") assert field.as_radio() == '<input name="name" type="radio">' def test_text_as_radio_with_label(): field = f.Text(name="name") assert ( field.as_radio(label="I have read the TOS") == '<label class="radio"><input name="name" type="radio">' " I have read the TOS</label>" ) def test_text_as_radio_checked(): field = f.Text(name="name") field.input_values = ["hello"] assert field.as_radio() == '<input name="name" type="radio" checked>' def test_boolean_as_radio(): field = f.Boolean(name="name") assert field.as_radio() == '<input name="name" type="radio">' def test_boolean_as_radio_checked(): field = f.Boolean(name="name") field.object_value = True assert field.as_radio() == '<input name="name" type="radio" checked>' def test_boolean_as_radio_force_checked(): field = f.Boolean(name="name") assert field.as_radio(checked=True) == '<input name="name" type="radio" checked>' def test_boolean_as_radio_custom_value(): field = f.Boolean(name="name") assert ( field.as_radio(value="newsletter") == '<input name="name" type="radio" value="newsletter">' ) def test_boolean_as_radio_custom_value_checked(): field = f.Boolean(name="name") field.input_values = ["newsletter"] assert ( field.as_radio(value="newsletter") == '<input name="name" type="radio" value="newsletter" checked>' ) def test_boolean_as_radio_custom_str_value_checked(): field = f.Boolean(name="name") field.input_values = [5] assert ( field.as_radio(value="5") == '<input name="name" type="radio" value="5" checked>' ) def test_boolean_as_radio_custom_str_reverse_value_checked(): field = f.Boolean(name="name") field.input_values = ["5"] assert ( field.as_radio(value=5) == '<input name="name" type="radio" value="5" checked>' ) def test_boolean_as_radio_custom_values_checked(): field = f.Boolean(name="name", multiple=True) field.input_values = ["alerts", "newsletter", "replies"] assert ( field.as_radio(value="newsletter") == '<input name="name" type="radio" value="newsletter" checked>' ) def test_boolean_as_radio_custom_value_unchecked(): field = f.Boolean(name="name") field.input_values = ["newsletter"] assert ( field.as_radio(value="direct") == '<input name="name" type="radio" value="direct">' ) def test_boolean_as_radio_custom_values_unchecked(): field = f.Boolean(name="name", multiple=True) field.input_values = ["alerts", "newsletter", "replies"] assert ( field.as_radio(value="direct") == '<input name="name" type="radio" value="direct">' ) def test_boolean_as_radio_custom_value_object_unchecked(): field = f.Boolean(name="name") field.object_value = True assert ( field.as_radio(value="newsletter") == '<input name="name" type="radio" value="newsletter">' )
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0.821709
0.810173
0.747771
0
0.002405
0.19151
3,086
107
88
28.841122
0.761924
0
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0
0
0
0
0
0
0
0
0
6
baf2cd39103117544e114c833995848cfc9c7b78
44
py
Python
model/__init__.py
xionluhnis/neural_inverse_knitting
da4edc3ccbc470db77f97e7776946ff0369b8c68
[ "MIT" ]
29
2019-06-20T20:38:15.000Z
2021-10-08T06:12:45.000Z
model/__init__.py
xionluhnis/neural_inverse_knitting
da4edc3ccbc470db77f97e7776946ff0369b8c68
[ "MIT" ]
8
2020-01-28T22:12:52.000Z
2022-01-13T01:19:46.000Z
model/__init__.py
xionluhnis/neural_inverse_knitting
da4edc3ccbc470db77f97e7776946ff0369b8c68
[ "MIT" ]
4
2019-08-06T16:45:30.000Z
2021-01-03T01:31:27.000Z
from .m_feedforw import FeedForwardNetworks
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24524014c4c441dcf01ac5c743244dc4b3cca703
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py
Python
common/archive.py
LordKBX/EbookCollection
3e6ba33fb012b1dbb371704094b02cece66a7e80
[ "MIT" ]
1
2021-06-03T01:44:50.000Z
2021-06-03T01:44:50.000Z
common/archive.py
LordKBX/eBookCollection
3e6ba33fb012b1dbb371704094b02cece66a7e80
[ "MIT" ]
null
null
null
common/archive.py
LordKBX/eBookCollection
3e6ba33fb012b1dbb371704094b02cece66a7e80
[ "MIT" ]
null
null
null
import os, sys import subprocess sys.path.insert(0, os.path.dirname(os.path.realpath(__file__))) sys.path.insert(0, os.path.dirname(os.path.dirname(os.path.realpath(__file__)))) import common.vars def inflate(src: str, dest: str): list_args = list() # create list argument for external command execution list_args.append(common.vars.load_path_archiver() + os.sep + common.vars.env_vars['tools']['archiver'][os.name]['exe']) # insert executable path temp_args = common.vars.env_vars['tools']['archiver'][os.name]['params_inflate'].split(' ') # create table of raw command arguments for var in temp_args: # parse table of raw command arguments # insert parsed param list_args.append(var.replace('%input%', src).replace('%output%', dest)) # print(list_args) return subprocess.call(list_args, shell=True) # execute the command def deflate(src: str, dest: str): list_args = list() # create list argument for external command execution list_args.append(common.vars.load_path_archiver() + os.sep + common.vars.env_vars['tools']['archiver'][os.name]['exe']) # insert executable path temp_args = common.vars.env_vars['tools']['archiver'][os.name]['params_deflate'].split(' ') # create table of raw command arguments for var in temp_args: # parse table of raw command arguments # insert parsed param list_args.append(var.replace('%input%', src).replace('%output%', dest)) print(list_args) ret = subprocess.call(list_args, shell=True) # execute the command print(ret) return ret
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6
245ecfc1a9012bc0664a7d439cc591484bca36fc
350
py
Python
textformer/models/__init__.py
gugarosa/textformer
cccc670d48995fa0bfbdf9fc8013d13a90ea5e84
[ "Apache-2.0" ]
3
2020-07-26T03:51:56.000Z
2020-10-04T18:42:18.000Z
textformer/models/__init__.py
gugarosa/textformer
cccc670d48995fa0bfbdf9fc8013d13a90ea5e84
[ "Apache-2.0" ]
null
null
null
textformer/models/__init__.py
gugarosa/textformer
cccc670d48995fa0bfbdf9fc8013d13a90ea5e84
[ "Apache-2.0" ]
null
null
null
"""A package contaning all models (networks) for all common textformer modules. """ from textformer.models.att_seq2seq import AttSeq2Seq from textformer.models.conv_seq2seq import ConvSeq2Seq from textformer.models.joint_seq2seq import JointSeq2Seq from textformer.models.seq2seq import Seq2Seq from textformer.models.transformer import Transformer
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py
Python
11 - Extra-- sonos snips voice app/tests/services/node/test_device_transport_control_service.py
RedaMastouri/marvis
75e90a66d0746f12ba6231a4cab16ab40b42928e
[ "MIT" ]
1
2021-12-29T08:44:34.000Z
2021-12-29T08:44:34.000Z
11 - Extra-- sonos snips voice app/tests/services/node/test_device_transport_control_service.py
RedaMastouri/marvis
75e90a66d0746f12ba6231a4cab16ab40b42928e
[ "MIT" ]
null
null
null
11 - Extra-- sonos snips voice app/tests/services/node/test_device_transport_control_service.py
RedaMastouri/marvis
75e90a66d0746f12ba6231a4cab16ab40b42928e
[ "MIT" ]
null
null
null
import pytest import requests from mock import mock, patch from snipssonos.services.node.device_transport_control import NodeDeviceTransportControlService from snipssonos.exceptions import NoReachableDeviceException from snipssonos.use_cases.volume.up import VolumeUpUseCase from snipssonos.entities.device import Device @pytest.fixture def node_configuration(): return { 'global' : { 'node_device_transport_control_port' : 5005 , 'node_device_transport_control_host' : 'localhost' } } @pytest.fixture def connected_device(): return Device.from_dict( { 'identifier': 'RINCON_XXXX', 'name': 'Antho', 'volume': 10 } ) def test_transport_control_service_initialization(): transport_service = NodeDeviceTransportControlService() assert transport_service.PORT == NodeDeviceTransportControlService.PORT assert transport_service.HOST == NodeDeviceTransportControlService.HOST assert transport_service.PROTOCOL == NodeDeviceTransportControlService.PROTOCOL def test_generate_url_query_for_volume_up(connected_device, node_configuration): PROTOCOL = NodeDeviceTransportControlService.PROTOCOL HOST = NodeDeviceTransportControlService.HOST PORT = NodeDeviceTransportControlService.PORT room_name = connected_device.name volume_level = 10 transport_service = NodeDeviceTransportControlService(node_configuration) assert transport_service._generate_volume_query(room_name, volume_level) == "http://localhost:5005/Antho/volume/10" def test_generate_url_query_for_resume(connected_device, node_configuration): PROTOCOL = NodeDeviceTransportControlService.PROTOCOL HOST = NodeDeviceTransportControlService.HOST PORT = NodeDeviceTransportControlService.PORT room_name = connected_device.name volume_level = 10 transport_service = NodeDeviceTransportControlService(node_configuration) assert transport_service._generate_resume_query(room_name) == "http://localhost:5005/Antho/play" def test_generate_url_query_for_mute(connected_device, node_configuration): PROTOCOL = NodeDeviceTransportControlService.PROTOCOL HOST = NodeDeviceTransportControlService.HOST PORT = NodeDeviceTransportControlService.PORT room_name = connected_device.name volume_level = 10 transport_service = NodeDeviceTransportControlService(node_configuration) assert transport_service._generate_mute_query(room_name) == "http://localhost:5005/Antho/mute" def test_generate_url_query_for_next_track(connected_device, node_configuration): PROTOCOL = NodeDeviceTransportControlService.PROTOCOL HOST = NodeDeviceTransportControlService.HOST PORT = NodeDeviceTransportControlService.PORT room_name = connected_device.name volume_level = 10 transport_service = NodeDeviceTransportControlService(node_configuration) assert transport_service._generate_next_track_query(room_name) == "http://localhost:5005/Antho/next" def test_generate_url_query_for_previous_track(connected_device): protocol = NodeDeviceTransportControlService.PROTOCOL host = NodeDeviceTransportControlService.HOST port = NodeDeviceTransportControlService.PORT room_name = connected_device.name expected_query = "{}{}:{}/{}/previous".format(protocol, host, port, room_name) transport_service = NodeDeviceTransportControlService() assert transport_service._generate_previous_track_query(room_name) == expected_query def test_generate_url_query_for_state(connected_device): protocol = NodeDeviceTransportControlService.PROTOCOL host = NodeDeviceTransportControlService.HOST port = NodeDeviceTransportControlService.PORT room_name = connected_device.name expected_query = "{}{}:{}/{}/trackseek/1".format(protocol, host, port, room_name) transport_service = NodeDeviceTransportControlService() assert transport_service._generate_track_seek_query(room_name, 1) == expected_query def test_generate_url_query_for_track_seek_query(connected_device): protocol = NodeDeviceTransportControlService.PROTOCOL host = NodeDeviceTransportControlService.HOST port = NodeDeviceTransportControlService.PORT room_name = connected_device.name expected_query = "{}{}:{}/{}/state".format(protocol, host, port, room_name) transport_service = NodeDeviceTransportControlService() assert transport_service._generate_state_query(room_name) == expected_query @mock.patch('snipssonos.services.node.device_transport_control.requests.Response') def test_extract_state_track_number(mock_response): mock_response.json.return_value = { 'trackNo': 1 } transport_service = NodeDeviceTransportControlService() assert transport_service._extract_state_track_number(mock_response) == 1 @mock.patch('snipssonos.services.node.device_transport_control.requests') def test_get_track_number(mock_request, connected_device): mocked_response = mock.create_autospec(requests.Response) mocked_response.ok = True mocked_response.json.return_value = { 'trackNo': 1 } mock_request.get.return_value = mocked_response transport_service = NodeDeviceTransportControlService() assert transport_service.get_track_number(connected_device.name) == 1 @mock.patch('snipssonos.services.node.device_transport_control.requests') def test_volume_up_method_performs_correct_api_query(mocked_requests, connected_device): transport_service = NodeDeviceTransportControlService() volume_increment = VolumeUpUseCase.DEFAULT_VOLUME_INCREMENT connected_device.increase_volume(volume_increment) transport_service.volume_up(connected_device) mocked_requests.get.assert_called_with( transport_service._generate_volume_query(connected_device.name, connected_device.volume)) @mock.patch('snipssonos.services.node.device_transport_control.requests') def test_volume_up_method_failure_raises_exception(mocked_requests, connected_device): transport_service = NodeDeviceTransportControlService() volume_increment = VolumeUpUseCase.DEFAULT_VOLUME_INCREMENT connected_device.increase_volume(volume_increment) mocked_response_object = mock.create_autospec(requests.Response) mocked_response_object.ok = False mocked_requests.get.return_value = mocked_response_object with pytest.raises(NoReachableDeviceException): transport_service.volume_up(connected_device) @mock.patch('snipssonos.services.node.device_transport_control.requests') def test_mute_method_performs_correct_api_query(mocked_requests, connected_device): transport_service = NodeDeviceTransportControlService() transport_service.mute(connected_device) mocked_requests.get.assert_called_with( transport_service._generate_mute_query(connected_device.name)) @mock.patch('snipssonos.services.node.device_transport_control.requests') def test_volume_up_method_failure_raises_exception(mocked_requests, connected_device): transport_service = NodeDeviceTransportControlService() mocked_response_object = mock.create_autospec(requests.Response) mocked_response_object.ok = False mocked_requests.get.return_value = mocked_response_object with pytest.raises(NoReachableDeviceException): transport_service.mute(connected_device) @mock.patch('snipssonos.services.node.device_transport_control.requests') @patch.object(NodeDeviceTransportControlService, 'get_track_number') def test_transport_service_previous_track_correct_api_query_for_not_first_track_in_queue(mock_get_track_number, mock_request, connected_device): mocked_response_object = mock.create_autospec(requests.Response) mocked_response_object.ok = True mock_request.get.return_value = mocked_response_object mock_get_track_number.return_value = 3 transport_service = NodeDeviceTransportControlService() transport_service.previous_track(connected_device) mock_request.get.assert_called_with( transport_service._generate_previous_track_query(connected_device.name)) @mock.patch('snipssonos.services.node.device_transport_control.requests') @patch.object(NodeDeviceTransportControlService, 'get_track_number') def test_transport_service_previous_track_correct_api_query_for_first_track_in_queue(mock_get_track_number, mock_request, connected_device): mocked_response_object = mock.create_autospec(requests.Response) mocked_response_object.ok = True mock_request.get.return_value = mocked_response_object mock_get_track_number.return_value = 1 transport_service = NodeDeviceTransportControlService() transport_service.previous_track(connected_device) mock_request.get.assert_called_with( transport_service._generate_track_seek_query(connected_device.name, 1)) @mock.patch('snipssonos.services.node.device_transport_control.requests') def test_transport_service_get_info_does_correct_api_query(mock_request, connected_device): mocked_response_object = mock.create_autospec(requests.Response) mocked_response_object.ok = True mocked_response_object.json.return_value = { 'currentTrack': { 'title': 'Teenage Fantasy', 'artist': 'Jorja Smith' } } mock_request.get.return_value = mocked_response_object transport_service = NodeDeviceTransportControlService() transport_service.get_track_info(connected_device) mock_request.get.assert_called_with( transport_service._generate_state_query(connected_device.name)) @mock.patch('snipssonos.services.node.device_transport_control.requests') def test_transport_service_get_info_return_title_and_artist(mock_request, connected_device): mocked_response_object = mock.create_autospec(requests.Response) mocked_response_object.ok = True mocked_response_object.json.return_value = { 'currentTrack': { 'title': 'Teenage Fantasy', 'artist': 'Jorja Smith' } } mock_request.get.return_value = mocked_response_object transport_service = NodeDeviceTransportControlService() transport_service.get_track_info(connected_device) track, artist = transport_service.get_track_info(connected_device) assert track.name == "Teenage Fantasy" assert artist.name == "Jorja Smith"
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6
3044c87d459ddb26a651b0306d43230727851480
2,297
py
Python
epytope/Data/pssms/smmpmbec/mat/A_24_03_9.py
christopher-mohr/epytope
8ac9fe52c0b263bdb03235a5a6dffcb72012a4fd
[ "BSD-3-Clause" ]
7
2021-02-01T18:11:28.000Z
2022-01-31T19:14:07.000Z
epytope/Data/pssms/smmpmbec/mat/A_24_03_9.py
christopher-mohr/epytope
8ac9fe52c0b263bdb03235a5a6dffcb72012a4fd
[ "BSD-3-Clause" ]
22
2021-01-02T15:25:23.000Z
2022-03-14T11:32:53.000Z
epytope/Data/pssms/smmpmbec/mat/A_24_03_9.py
christopher-mohr/epytope
8ac9fe52c0b263bdb03235a5a6dffcb72012a4fd
[ "BSD-3-Clause" ]
4
2021-05-28T08:50:38.000Z
2022-03-14T11:45:32.000Z
A_24_03_9 = {0: {'A': -0.269, 'C': -0.177, 'E': 0.695, 'D': 1.059, 'G': 0.041, 'F': -0.283, 'I': 0.289, 'H': -0.195, 'K': -0.196, 'M': -0.31, 'L': 0.004, 'N': 0.12, 'Q': -0.014, 'P': 0.716, 'S': -0.19, 'R': -0.498, 'T': 0.053, 'W': -0.2, 'V': 0.026, 'Y': -0.67}, 1: {'A': 0.349, 'C': -0.165, 'E': 0.594, 'D': 0.567, 'G': 0.138, 'F': -1.371, 'I': 0.361, 'H': 0.12, 'K': 0.926, 'M': -0.224, 'L': 0.246, 'N': 0.204, 'Q': 0.25, 'P': 0.606, 'S': 0.301, 'R': 0.672, 'T': -0.053, 'W': -1.483, 'V': 0.095, 'Y': -2.133}, 2: {'A': 0.018, 'C': 0.063, 'E': 0.356, 'D': 0.541, 'G': -0.083, 'F': -0.064, 'I': -0.013, 'H': -0.148, 'K': 0.308, 'M': -0.291, 'L': -0.382, 'N': -0.211, 'Q': -0.237, 'P': -0.446, 'S': 0.047, 'R': 0.184, 'T': 0.151, 'W': 0.041, 'V': 0.153, 'Y': 0.014}, 3: {'A': -0.139, 'C': -0.01, 'E': 0.079, 'D': 0.178, 'G': -0.1, 'F': 0.03, 'I': 0.114, 'H': -0.018, 'K': -0.039, 'M': 0.164, 'L': 0.116, 'N': -0.047, 'Q': -0.12, 'P': -0.213, 'S': -0.101, 'R': -0.064, 'T': -0.025, 'W': 0.061, 'V': 0.025, 'Y': 0.109}, 4: {'A': -0.018, 'C': -0.029, 'E': -0.053, 'D': 0.003, 'G': -0.034, 'F': -0.044, 'I': 0.061, 'H': 0.048, 'K': 0.154, 'M': 0.009, 'L': -0.05, 'N': -0.127, 'Q': -0.037, 'P': 0.0, 'S': -0.004, 'R': 0.212, 'T': -0.015, 'W': -0.024, 'V': -0.053, 'Y': -0.0}, 5: {'A': 0.096, 'C': 0.039, 'E': 0.113, 'D': 0.225, 'G': 0.068, 'F': -0.301, 'I': -0.181, 'H': 0.008, 'K': 0.08, 'M': -0.087, 'L': -0.123, 'N': 0.155, 'Q': 0.13, 'P': 0.22, 'S': 0.085, 'R': 0.043, 'T': -0.065, 'W': -0.093, 'V': -0.089, 'Y': -0.323}, 6: {'A': 0.12, 'C': 0.029, 'E': 0.012, 'D': -0.025, 'G': 0.103, 'F': -0.11, 'I': 0.101, 'H': -0.019, 'K': 0.267, 'M': -0.24, 'L': -0.036, 'N': -0.108, 'Q': -0.049, 'P': 0.003, 'S': 0.082, 'R': 0.119, 'T': 0.144, 'W': -0.206, 'V': -0.02, 'Y': -0.167}, 7: {'A': 0.072, 'C': 0.024, 'E': -0.037, 'D': 0.027, 'G': 0.039, 'F': -0.051, 'I': -0.056, 'H': 0.039, 'K': 0.04, 'M': -0.069, 'L': -0.022, 'N': 0.038, 'Q': -0.017, 'P': 0.029, 'S': 0.057, 'R': 0.085, 'T': -0.013, 'W': -0.048, 'V': -0.04, 'Y': -0.097}, 8: {'A': 0.257, 'C': -0.139, 'E': 0.286, 'D': -0.003, 'G': 0.145, 'F': -1.377, 'I': -0.701, 'H': 0.331, 'K': 0.828, 'M': -0.394, 'L': -0.671, 'N': 0.034, 'Q': 0.656, 'P': 0.434, 'S': 0.249, 'R': 0.99, 'T': -0.079, 'W': -1.001, 'V': -0.027, 'Y': 0.18}, -1: {'con': 4.37328}}
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py
Python
src/sgd.py
ntueclab/SpecTrain-PyTorch
b93355d6b8f74864ce1d6eb6978e24fbbf62fc54
[ "MIT" ]
3
2021-02-10T13:46:31.000Z
2022-01-24T20:46:14.000Z
src/sgd.py
ntueclab/SpecTrain-PyTorch
b93355d6b8f74864ce1d6eb6978e24fbbf62fc54
[ "MIT" ]
null
null
null
src/sgd.py
ntueclab/SpecTrain-PyTorch
b93355d6b8f74864ce1d6eb6978e24fbbf62fc54
[ "MIT" ]
null
null
null
# Copyright (c) Microsoft Corporation. # (c) I-Ching Tseng # Licensed under the MIT license. from torch.optim.optimizer import required from optimizer import OptimizerWithWeightStashing from optimizer import OptimizerWithWeightPrediction class SGDWithWeightStashing(OptimizerWithWeightStashing): """ SGD optimizer with weight stashing. """ def __init__(self, modules, master_parameters, model_parameters, loss_scale, num_versions, lr=required, momentum=0, dampening=0, weight_decay=0, nesterov=False, verbose_freq=0, macrobatch=False): super(SGDWithWeightStashing, self).__init__( optim_name='SGD', modules=modules, master_parameters=master_parameters, model_parameters=model_parameters, loss_scale=loss_scale, num_versions=num_versions, lr=lr, momentum=momentum, dampening=dampening, weight_decay=weight_decay, nesterov=nesterov, verbose_freq=verbose_freq, macrobatch=macrobatch, ) class SGDWithSpectrain(OptimizerWithWeightStashing): """ SGD optimizer with spectrain. """ def __init__(self, modules, master_parameters, model_parameters, loss_scale, num_versions, lr=required, momentum=0, dampening=0, weight_decay=0, nesterov=False, verbose_freq=0, macrobatch=False): super(SGDWithSpectrain, self).__init__( optim_name='Spectrain', modules=modules, master_parameters=master_parameters, model_parameters=model_parameters, loss_scale=loss_scale, num_versions=num_versions, lr=lr, momentum=momentum, dampening=dampening, weight_decay=weight_decay, nesterov=nesterov, verbose_freq=verbose_freq, macrobatch=macrobatch, ) class SGDWithSpectrainCHC(OptimizerWithWeightPrediction): """ SGD optimizer with spectrain. """ def __init__(self, modules, master_parameters, model_parameters, loss_scale, num_versions, lr=required, momentum=0, dampening=0, weight_decay=0, nesterov=False, verbose_freq=0, macrobatch=False): super(SGDWithSpectrainCHC, self).__init__( optim_name='SGD', modules=modules, master_parameters=master_parameters, model_parameters=model_parameters, loss_scale=loss_scale, num_versions=num_versions, lr=lr, momentum=momentum, dampening=dampening, weight_decay=weight_decay, nesterov=nesterov, verbose_freq=verbose_freq, macrobatch=macrobatch, )
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6
069cc0057199e1587ef347e4d3c49e1b322ae72b
124
py
Python
prettyqt/qml/qmlparserstatus.py
phil65/PrettyQt
26327670c46caa039c9bd15cb17a35ef5ad72e6c
[ "MIT" ]
7
2019-05-01T01:34:36.000Z
2022-03-08T02:24:14.000Z
prettyqt/qml/qmlparserstatus.py
phil65/PrettyQt
26327670c46caa039c9bd15cb17a35ef5ad72e6c
[ "MIT" ]
141
2019-04-16T11:22:01.000Z
2021-04-14T15:12:36.000Z
prettyqt/qml/qmlparserstatus.py
phil65/PrettyQt
26327670c46caa039c9bd15cb17a35ef5ad72e6c
[ "MIT" ]
5
2019-04-17T11:48:19.000Z
2021-11-21T10:30:19.000Z
from __future__ import annotations from prettyqt.qt import QtQml class QmlParserStatus(QtQml.QQmlParserStatus): pass
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6
069d6e218d474dd6b46b1c34e5a7122aeea9362f
83
py
Python
YTV/mywidgets/custom_textfield/mytext.py
Eghosa-Osayande/ytv-series-downloader
6b0efa69ca002279226ac6063e1bbc3eae9b2c97
[ "MIT" ]
1
2020-11-22T20:30:28.000Z
2020-11-22T20:30:28.000Z
YTV/mywidgets/custom_textfield/mytext.py
yande-eghosa/ytv-series-downloader
6b0efa69ca002279226ac6063e1bbc3eae9b2c97
[ "MIT" ]
null
null
null
YTV/mywidgets/custom_textfield/mytext.py
yande-eghosa/ytv-series-downloader
6b0efa69ca002279226ac6063e1bbc3eae9b2c97
[ "MIT" ]
null
null
null
from .mytextfield import MDTextField as MYText class MYTextField(MYText): pass
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6
23095c1f34c714fb24ba726ef2025d27cbe5e27a
275
py
Python
docs/doxygen/doxyxml/generated/__init__.py
cbdonohue/gr-equalizers
3b5f86238afff7becfb9988dc6a27a35468d179f
[ "BSD-3-Clause" ]
15
2022-01-26T23:09:23.000Z
2022-02-17T15:50:32.000Z
docs/doxygen/doxyxml/generated/__init__.py
cbdonohue/gr-equalizers
3b5f86238afff7becfb9988dc6a27a35468d179f
[ "BSD-3-Clause" ]
7
2020-02-06T11:18:58.000Z
2021-02-05T13:20:05.000Z
docs/doxygen/doxyxml/generated/__init__.py
cbdonohue/gr-equalizers
3b5f86238afff7becfb9988dc6a27a35468d179f
[ "BSD-3-Clause" ]
4
2020-01-21T14:47:10.000Z
2022-03-09T08:39:06.000Z
""" Contains generated files produced by generateDS.py. These do the real work of parsing the doxygen xml files but the resultant classes are not very friendly to navigate so the rest of the doxyxml module processes them further. """ from __future__ import unicode_literals
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0
1
0
1
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6
235068faad0865f98f09af638b8dc0fa6af41cdd
193
py
Python
pair-up.py
drtnf/cits3403-pair-up
886cb45cb401f1f54706a40cad1986d23f593e68
[ "MIT" ]
9
2019-05-07T06:33:40.000Z
2021-04-20T12:19:52.000Z
pair-up.py
drtnf/cits3403-pair-up
886cb45cb401f1f54706a40cad1986d23f593e68
[ "MIT" ]
2
2020-04-20T04:52:27.000Z
2020-04-20T04:52:27.000Z
pair-up.py
drtnf/cits3403-pair-up
886cb45cb401f1f54706a40cad1986d23f593e68
[ "MIT" ]
31
2019-05-17T10:42:14.000Z
2021-06-02T14:31:52.000Z
from app import app, db from app.models import Student, Project, Lab @app.shell_context_processor def make_shell_context(): return {'db':db, 'Student':Student, "Project":Project, 'Lab':Lab}
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6
237700744d64a116def487cd77c7600c99e00d8e
124
py
Python
AudioChessSite/apps/notifications/views.py
saisree27/audio-chess-site
97c4bd70fd96cd21c76c777aa41c849ccbe1db71
[ "MIT" ]
1
2021-01-27T14:38:57.000Z
2021-01-27T14:38:57.000Z
AudioChessSite/apps/notifications/views.py
saisree27/audio-chess-site
97c4bd70fd96cd21c76c777aa41c849ccbe1db71
[ "MIT" ]
null
null
null
AudioChessSite/apps/notifications/views.py
saisree27/audio-chess-site
97c4bd70fd96cd21c76c777aa41c849ccbe1db71
[ "MIT" ]
null
null
null
from django.shortcuts import render def user_list(request): return render(request, 'templates/example/user_list.html')
24.8
62
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124
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0.764706
0.166667
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1
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1
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0
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6
88b98242dc2f6a0c3820100699d5636210dbcab5
25,794
py
Python
tests/ut/python/dataset/test_datasets_imdb.py
PowerOlive/mindspore
bda20724a94113cedd12c3ed9083141012da1f15
[ "Apache-2.0" ]
1
2022-02-23T09:13:43.000Z
2022-02-23T09:13:43.000Z
tests/ut/python/dataset/test_datasets_imdb.py
PowerOlive/mindspore
bda20724a94113cedd12c3ed9083141012da1f15
[ "Apache-2.0" ]
null
null
null
tests/ut/python/dataset/test_datasets_imdb.py
PowerOlive/mindspore
bda20724a94113cedd12c3ed9083141012da1f15
[ "Apache-2.0" ]
null
null
null
# Copyright 2021 Huawei Technologies Co., Ltd # # Licensed under the Apache License, Version 2.0 (the "License"); # you may not use this file except in compliance with the License. # You may obtain a copy of the License at # # http://www.apache.org/licenses/LICENSE-2.0 # # Unless required by applicable law or agreed to in writing, software # distributed under the License is distributed on an "AS IS" BASIS, # WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied. # See the License for the specific language governing permissions and # limitations under the License. # ============================================================================== import pytest import mindspore.dataset as ds from mindspore import log as logger DATA_DIR = "../data/dataset/testIMDBDataset" def test_imdb_basic(): """ Feature: Test IMDB Dataset. Description: read data from all file. Expectation: the data is processed successfully. """ logger.info("Test Case basic") # define parameters repeat_count = 1 # apply dataset operations data1 = ds.IMDBDataset(DATA_DIR, shuffle=False) data1 = data1.repeat(repeat_count) # Verify dataset size data1_size = data1.get_dataset_size() logger.info("dataset size is: {}".format(data1_size)) assert data1_size == 8 content = ["train_pos_0.txt", "train_pos_1.txt", "train_neg_0.txt", "train_neg_1.txt", "test_pos_0.txt", "test_pos_1.txt", "test_neg_0.txt", "test_neg_1.txt"] label = [1, 1, 0, 0, 1, 1, 0, 0] num_iter = 0 for index, item in enumerate(data1.create_dict_iterator(num_epochs=1, output_numpy=True)): # each data is a dictionary # in this example, each dictionary has keys "text" and "label" strs = item["text"].item().decode("utf8") logger.info("text is {}".format(strs)) logger.info("label is {}".format(item["label"])) assert strs == content[index] assert label[index] == int(item["label"]) num_iter += 1 logger.info("Number of data in data1: {}".format(num_iter)) assert num_iter == 8 def test_imdb_test(): """ Feature: Test IMDB Dataset. Description: read data from test file. Expectation: the data is processed successfully. """ logger.info("Test Case test") # define parameters repeat_count = 1 usage = "test" # apply dataset operations data1 = ds.IMDBDataset(DATA_DIR, usage=usage, shuffle=False) data1 = data1.repeat(repeat_count) # Verify dataset size data1_size = data1.get_dataset_size() logger.info("dataset size is: {}".format(data1_size)) assert data1_size == 4 content = ["test_pos_0.txt", "test_pos_1.txt", "test_neg_0.txt", "test_neg_1.txt"] label = [1, 1, 0, 0] num_iter = 0 for index, item in enumerate(data1.create_dict_iterator(num_epochs=1, output_numpy=True)): # each data is a dictionary # in this example, each dictionary has keys "text" and "label" strs = item["text"].item().decode("utf8") logger.info("text is {}".format(strs)) logger.info("label is {}".format(item["label"])) assert strs == content[index] assert label[index] == int(item["label"]) num_iter += 1 logger.info("Number of data in data1: {}".format(num_iter)) assert num_iter == 4 def test_imdb_train(): """ Feature: Test IMDB Dataset. Description: read data from train file. Expectation: the data is processed successfully. """ logger.info("Test Case train") # define parameters repeat_count = 1 usage = "train" # apply dataset operations data1 = ds.IMDBDataset(DATA_DIR, usage=usage, shuffle=False) data1 = data1.repeat(repeat_count) # Verify dataset size data1_size = data1.get_dataset_size() logger.info("dataset size is: {}".format(data1_size)) assert data1_size == 4 content = ["train_pos_0.txt", "train_pos_1.txt", "train_neg_0.txt", "train_neg_1.txt"] label = [1, 1, 0, 0] num_iter = 0 for index, item in enumerate(data1.create_dict_iterator(num_epochs=1, output_numpy=True)): # each data is a dictionary # in this example, each dictionary has keys "text" and "label" strs = item["text"].item().decode("utf8") logger.info("text is {}".format(strs)) logger.info("label is {}".format(item["label"])) assert strs == content[index] assert label[index] == int(item["label"]) num_iter += 1 logger.info("Number of data in data1: {}".format(num_iter)) assert num_iter == 4 def test_imdb_num_samples(): """ Feature: Test IMDB Dataset. Description: read data from all file with num_samples=10 and num_parallel_workers=2. Expectation: the data is processed successfully. """ logger.info("Test Case numSamples") # define parameters repeat_count = 1 # apply dataset operations data1 = ds.IMDBDataset(DATA_DIR, num_samples=6, num_parallel_workers=2) data1 = data1.repeat(repeat_count) # Verify dataset size data1_size = data1.get_dataset_size() logger.info("dataset size is: {}".format(data1_size)) assert data1_size == 6 num_iter = 0 for item in data1.create_dict_iterator(num_epochs=1, output_numpy=True): # each data is a dictionary # in this example, each dictionary has keys "text" and "label" logger.info("text is {}".format(item["text"].item().decode("utf8"))) logger.info("label is {}".format(item["label"])) num_iter += 1 logger.info("Number of data in data1: {}".format(num_iter)) assert num_iter == 6 random_sampler = ds.RandomSampler(num_samples=3, replacement=True) data1 = ds.IMDBDataset(DATA_DIR, num_parallel_workers=2, sampler=random_sampler) num_iter = 0 for _ in data1.create_dict_iterator(num_epochs=1, output_numpy=True): num_iter += 1 assert num_iter == 3 random_sampler = ds.RandomSampler(num_samples=3, replacement=False) data1 = ds.IMDBDataset(DATA_DIR, num_parallel_workers=2, sampler=random_sampler) num_iter = 0 for _ in data1.create_dict_iterator(num_epochs=1, output_numpy=True): num_iter += 1 assert num_iter == 3 def test_imdb_num_shards(): """ Feature: Test IMDB Dataset. Description: read data from all file with num_shards=2 and shard_id=1. Expectation: the data is processed successfully. """ logger.info("Test Case numShards") # define parameters repeat_count = 1 # apply dataset operations data1 = ds.IMDBDataset(DATA_DIR, num_shards=2, shard_id=1) data1 = data1.repeat(repeat_count) # Verify dataset size data1_size = data1.get_dataset_size() logger.info("dataset size is: {}".format(data1_size)) assert data1_size == 4 num_iter = 0 for item in data1.create_dict_iterator(num_epochs=1, output_numpy=True): # each data is a dictionary # in this example, each dictionary has keys "text" and "label" logger.info("text is {}".format(item["text"].item().decode("utf8"))) logger.info("label is {}".format(item["label"])) num_iter += 1 logger.info("Number of data in data1: {}".format(num_iter)) assert num_iter == 4 def test_imdb_shard_id(): """ Feature: Test IMDB Dataset. Description: read data from all file with num_shards=4 and shard_id=1. Expectation: the data is processed successfully. """ logger.info("Test Case withShardID") # define parameters repeat_count = 1 # apply dataset operations data1 = ds.IMDBDataset(DATA_DIR, num_shards=2, shard_id=0) data1 = data1.repeat(repeat_count) # Verify dataset size data1_size = data1.get_dataset_size() logger.info("dataset size is: {}".format(data1_size)) assert data1_size == 4 num_iter = 0 for item in data1.create_dict_iterator(num_epochs=1, output_numpy=True): # each data is a dictionary # in this example, each dictionary has keys "text" and "label" logger.info("text is {}".format(item["text"].item().decode("utf8"))) logger.info("label is {}".format(item["label"])) num_iter += 1 logger.info("Number of data in data1: {}".format(num_iter)) assert num_iter == 4 def test_imdb_no_shuffle(): """ Feature: Test IMDB Dataset. Description: read data from all file with shuffle=False. Expectation: the data is processed successfully. """ logger.info("Test Case noShuffle") # define parameters repeat_count = 1 # apply dataset operations data1 = ds.IMDBDataset(DATA_DIR, shuffle=False) data1 = data1.repeat(repeat_count) # Verify dataset size data1_size = data1.get_dataset_size() logger.info("dataset size is: {}".format(data1_size)) assert data1_size == 8 num_iter = 0 for item in data1.create_dict_iterator(num_epochs=1, output_numpy=True): # each data is a dictionary # in this example, each dictionary has keys "text" and "label" logger.info("text is {}".format(item["text"].item().decode("utf8"))) logger.info("label is {}".format(item["label"])) num_iter += 1 logger.info("Number of data in data1: {}".format(num_iter)) assert num_iter == 8 def test_imdb_true_shuffle(): """ Feature: Test IMDB Dataset. Description: read data from all file with shuffle=True. Expectation: the data is processed successfully. """ logger.info("Test Case extraShuffle") # define parameters repeat_count = 2 # apply dataset operations data1 = ds.IMDBDataset(DATA_DIR, shuffle=True) data1 = data1.repeat(repeat_count) # Verify dataset size data1_size = data1.get_dataset_size() logger.info("dataset size is: {}".format(data1_size)) assert data1_size == 16 num_iter = 0 for item in data1.create_dict_iterator(num_epochs=1, output_numpy=True): # each data is a dictionary # in this example, each dictionary has keys "text" and "label" logger.info("text is {}".format(item["text"].item().decode("utf8"))) logger.info("label is {}".format(item["label"])) num_iter += 1 logger.info("Number of data in data1: {}".format(num_iter)) assert num_iter == 16 def test_random_sampler(): """ Feature: Test IMDB Dataset. Description: read data from all file with sampler=ds.RandomSampler(). Expectation: the data is processed successfully. """ logger.info("Test Case RandomSampler") # define parameters repeat_count = 1 # apply dataset operations sampler = ds.RandomSampler() data1 = ds.IMDBDataset(DATA_DIR, sampler=sampler) data1 = data1.repeat(repeat_count) # Verify dataset size data1_size = data1.get_dataset_size() logger.info("dataset size is: {}".format(data1_size)) assert data1_size == 8 num_iter = 0 for item in data1.create_dict_iterator(num_epochs=1, output_numpy=True): # each data is a dictionary # in this example, each dictionary has keys "text" and "label" logger.info("text is {}".format(item["text"].item().decode("utf8"))) logger.info("label is {}".format(item["label"])) num_iter += 1 logger.info("Number of data in data1: {}".format(num_iter)) assert num_iter == 8 def test_distributed_sampler(): """ Feature: Test IMDB Dataset. Description: read data from all file with sampler=ds.DistributedSampler(). Expectation: the data is processed successfully. """ logger.info("Test Case DistributedSampler") # define parameters repeat_count = 1 # apply dataset operations sampler = ds.DistributedSampler(4, 1) data1 = ds.IMDBDataset(DATA_DIR, sampler=sampler) data1 = data1.repeat(repeat_count) # Verify dataset size data1_size = data1.get_dataset_size() logger.info("dataset size is: {}".format(data1_size)) assert data1_size == 2 num_iter = 0 for item in data1.create_dict_iterator(num_epochs=1, output_numpy=True): # each data is a dictionary # in this example, each dictionary has keys "text" and "label" logger.info("text is {}".format(item["text"].item().decode("utf8"))) logger.info("label is {}".format(item["label"])) num_iter += 1 logger.info("Number of data in data1: {}".format(num_iter)) assert num_iter == 2 def test_pk_sampler(): """ Feature: Test IMDB Dataset. Description: read data from all file with sampler=ds.PKSampler(). Expectation: the data is processed successfully. """ logger.info("Test Case PKSampler") # define parameters repeat_count = 1 # apply dataset operations sampler = ds.PKSampler(3) data1 = ds.IMDBDataset(DATA_DIR, sampler=sampler) data1 = data1.repeat(repeat_count) # Verify dataset size data1_size = data1.get_dataset_size() logger.info("dataset size is: {}".format(data1_size)) assert data1_size == 6 num_iter = 0 for item in data1.create_dict_iterator(num_epochs=1, output_numpy=True): # each data is a dictionary # in this example, each dictionary has keys "text" and "label" logger.info("text is {}".format(item["text"].item().decode("utf8"))) logger.info("label is {}".format(item["label"])) num_iter += 1 logger.info("Number of data in data1: {}".format(num_iter)) assert num_iter == 6 def test_subset_random_sampler(): """ Feature: Test IMDB Dataset. Description: read data from all file with sampler=ds.SubsetRandomSampler(). Expectation: the data is processed successfully. """ logger.info("Test Case SubsetRandomSampler") # define parameters repeat_count = 1 # apply dataset operations indices = [0, 3, 1, 2, 5, 4] sampler = ds.SubsetRandomSampler(indices) data1 = ds.IMDBDataset(DATA_DIR, sampler=sampler) data1 = data1.repeat(repeat_count) # Verify dataset size data1_size = data1.get_dataset_size() logger.info("dataset size is: {}".format(data1_size)) assert data1_size == 6 num_iter = 0 for item in data1.create_dict_iterator(num_epochs=1, output_numpy=True): # each data is a dictionary # in this example, each dictionary has keys "text" and "label" logger.info("text is {}".format(item["text"].item().decode("utf8"))) logger.info("label is {}".format(item["label"])) num_iter += 1 logger.info("Number of data in data1: {}".format(num_iter)) assert num_iter == 6 def test_weighted_random_sampler(): """ Feature: Test IMDB Dataset. Description: read data from all file with sampler=ds.WeightedRandomSampler(). Expectation: the data is processed successfully. """ logger.info("Test Case WeightedRandomSampler") # define parameters repeat_count = 1 # apply dataset operations weights = [1.0, 0.1, 0.02, 0.3, 0.4, 0.05] sampler = ds.WeightedRandomSampler(weights, 6) data1 = ds.IMDBDataset(DATA_DIR, sampler=sampler) data1 = data1.repeat(repeat_count) # Verify dataset size data1_size = data1.get_dataset_size() logger.info("dataset size is: {}".format(data1_size)) assert data1_size == 6 num_iter = 0 for item in data1.create_dict_iterator(num_epochs=1, output_numpy=True): # each data is a dictionary # in this example, each dictionary has keys "text" and "label" logger.info("text is {}".format(item["text"].item().decode("utf8"))) logger.info("label is {}".format(item["label"])) num_iter += 1 logger.info("Number of data in data1: {}".format(num_iter)) assert num_iter == 6 def test_weighted_random_sampler_exception(): """ Feature: Test IMDB Dataset. Description: read data from all file with random sampler exception. Expectation: the data is processed successfully. """ logger.info("Test error cases for WeightedRandomSampler") error_msg_1 = "type of weights element must be number" with pytest.raises(TypeError, match=error_msg_1): weights = "" ds.WeightedRandomSampler(weights) error_msg_2 = "type of weights element must be number" with pytest.raises(TypeError, match=error_msg_2): weights = (0.9, 0.8, 1.1) ds.WeightedRandomSampler(weights) error_msg_3 = "WeightedRandomSampler: weights vector must not be empty" with pytest.raises(RuntimeError, match=error_msg_3): weights = [] sampler = ds.WeightedRandomSampler(weights) sampler.parse() error_msg_4 = "WeightedRandomSampler: weights vector must not contain negative numbers, got: " with pytest.raises(RuntimeError, match=error_msg_4): weights = [1.0, 0.1, 0.02, 0.3, -0.4] sampler = ds.WeightedRandomSampler(weights) sampler.parse() error_msg_5 = "WeightedRandomSampler: elements of weights vector must not be all zero" with pytest.raises(RuntimeError, match=error_msg_5): weights = [0, 0, 0, 0, 0] sampler = ds.WeightedRandomSampler(weights) sampler.parse() def test_chained_sampler_with_random_sequential_repeat(): """ Feature: Test IMDB Dataset. Description: read data from all file with Random and Sequential, with repeat. Expectation: the data is processed successfully. """ logger.info("Test Case Chained Sampler - Random and Sequential, with repeat") # Create chained sampler, random and sequential sampler = ds.RandomSampler() child_sampler = ds.SequentialSampler() sampler.add_child(child_sampler) # Create IMDBDataset with sampler data1 = ds.IMDBDataset(DATA_DIR, sampler=sampler) data1 = data1.repeat(count=3) # Verify dataset size data1_size = data1.get_dataset_size() logger.info("dataset size is: {}".format(data1_size)) assert data1_size == 24 # Verify number of iterations num_iter = 0 for item in data1.create_dict_iterator(num_epochs=1, output_numpy=True): # each data is a dictionary # in this example, each dictionary has keys "text" and "label" logger.info("text is {}".format(item["text"].item().decode("utf8"))) logger.info("label is {}".format(item["label"])) num_iter += 1 logger.info("Number of data in data1: {}".format(num_iter)) assert num_iter == 24 def test_chained_sampler_with_distribute_random_batch_then_repeat(): """ Feature: Test IMDB Dataset. Description: read data from all file with Distributed and Random, with batch then repeat. Expectation: the data is processed successfully. """ logger.info("Test Case Chained Sampler - Distributed and Random, with batch then repeat") # Create chained sampler, distributed and random sampler = ds.DistributedSampler(num_shards=4, shard_id=3) child_sampler = ds.RandomSampler() sampler.add_child(child_sampler) # Create IMDBDataset with sampler data1 = ds.IMDBDataset(DATA_DIR, sampler=sampler) data1 = data1.batch(batch_size=5, drop_remainder=True) data1 = data1.repeat(count=3) # Verify dataset size data1_size = data1.get_dataset_size() logger.info("dataset size is: {}".format(data1_size)) assert data1_size == 0 # Verify number of iterations num_iter = 0 for item in data1.create_dict_iterator(num_epochs=1, output_numpy=True): # each data is a dictionary # in this example, each dictionary has keys "text" and "label" logger.info("text is {}".format(item["text"].item().decode("utf8"))) logger.info("label is {}".format(item["label"])) num_iter += 1 logger.info("Number of data in data1: {}".format(num_iter)) # Note: Each of the 4 shards has 44/4=11 samples # Note: Number of iterations is (11/5 = 2) * 3 = 6 assert num_iter == 0 def test_chained_sampler_with_weighted_random_pk_sampler(): """ Feature: Test IMDB Dataset. Description: read data from all file with WeightedRandom and PKSampler. Expectation: the data is processed successfully. """ logger.info("Test Case Chained Sampler - WeightedRandom and PKSampler") # Create chained sampler, WeightedRandom and PKSampler weights = [1.0, 0.1, 0.02, 0.3, 0.4, 0.05] sampler = ds.WeightedRandomSampler(weights=weights, num_samples=6) child_sampler = ds.PKSampler(num_val=3) # Number of elements per class is 3 (and there are 4 classes) sampler.add_child(child_sampler) # Create IMDBDataset with sampler data1 = ds.IMDBDataset(DATA_DIR, sampler=sampler) # Verify dataset size data1_size = data1.get_dataset_size() logger.info("dataset size is: {}".format(data1_size)) assert data1_size == 6 # Verify number of iterations num_iter = 0 for item in data1.create_dict_iterator(num_epochs=1, output_numpy=True): # each data is a dictionary # in this example, each dictionary has keys "text" and "label" logger.info("text is {}".format(item["text"].item().decode("utf8"))) logger.info("label is {}".format(item["label"])) num_iter += 1 logger.info("Number of data in data1: {}".format(num_iter)) # Note: WeightedRandomSampler produces 12 samples # Note: Child PKSampler produces 12 samples assert num_iter == 6 def test_imdb_rename(): """ Feature: Test IMDB Dataset. Description: read data from all file with rename. Expectation: the data is processed successfully. """ logger.info("Test Case rename") # define parameters repeat_count = 1 # apply dataset operations data1 = ds.IMDBDataset(DATA_DIR, num_samples=8) data1 = data1.repeat(repeat_count) num_iter = 0 for item in data1.create_dict_iterator(num_epochs=1, output_numpy=True): # each data is a dictionary # in this example, each dictionary has keys "text" and "label" logger.info("text is {}".format(item["text"].item().decode("utf8"))) logger.info("label is {}".format(item["label"])) num_iter += 1 logger.info("Number of data in data1: {}".format(num_iter)) assert num_iter == 8 data1 = data1.rename(input_columns=["text"], output_columns="text2") num_iter = 0 for item in data1.create_dict_iterator(num_epochs=1, output_numpy=True): # each data is a dictionary # in this example, each dictionary has keys "text" and "label" logger.info("text is {}".format(item["text2"])) logger.info("label is {}".format(item["label"])) num_iter += 1 logger.info("Number of data in data1: {}".format(num_iter)) assert num_iter == 8 def test_imdb_zip(): """ Feature: Test IMDB Dataset. Description: read data from all file with zip. Expectation: the data is processed successfully. """ logger.info("Test Case zip") # define parameters repeat_count = 2 # apply dataset operations data1 = ds.IMDBDataset(DATA_DIR, num_samples=4) data2 = ds.IMDBDataset(DATA_DIR, num_samples=4) data1 = data1.repeat(repeat_count) # rename dataset2 for no conflict data2 = data2.rename(input_columns=["text", "label"], output_columns=["text1", "label1"]) data3 = ds.zip((data1, data2)) num_iter = 0 for item in data3.create_dict_iterator(num_epochs=1, output_numpy=True): # each data is a dictionary # in this example, each dictionary has keys "text" and "label" logger.info("text is {}".format(item["text"].item().decode("utf8"))) logger.info("label is {}".format(item["label"])) num_iter += 1 logger.info("Number of data in data1: {}".format(num_iter)) assert num_iter == 4 def test_imdb_exception(): """ Feature: Test IMDB Dataset. Description: read data from all file with exception. Expectation: the data is processed successfully. """ logger.info("Test imdb exception") def exception_func(item): raise Exception("Error occur!") def exception_func2(text, label): raise Exception("Error occur!") try: data = ds.IMDBDataset(DATA_DIR) data = data.map(operations=exception_func, input_columns=["text"], num_parallel_workers=1) for _ in data.__iter__(): pass assert False except RuntimeError as e: assert "map operation: [PyFunc] failed. The corresponding data files" in str(e) try: data = ds.IMDBDataset(DATA_DIR) data = data.map(operations=exception_func2, input_columns=["text", "label"], output_columns=["text", "label", "label1"], column_order=["text", "label", "label1"], num_parallel_workers=1) for _ in data.__iter__(): pass assert False except RuntimeError as e: assert "map operation: [PyFunc] failed. The corresponding data files" in str(e) data_dir_invalid = "../data/dataset/IMDBDATASET" try: data = ds.IMDBDataset(data_dir_invalid) for _ in data.__iter__(): pass assert False except ValueError as e: assert "does not exist or is not a directory or permission denied" in str(e) if __name__ == '__main__': test_imdb_basic() test_imdb_test() test_imdb_train() test_imdb_num_samples() test_random_sampler() test_distributed_sampler() test_pk_sampler() test_subset_random_sampler() test_weighted_random_sampler() test_weighted_random_sampler_exception() test_chained_sampler_with_random_sequential_repeat() test_chained_sampler_with_distribute_random_batch_then_repeat() test_chained_sampler_with_weighted_random_pk_sampler() test_imdb_num_shards() test_imdb_shard_id() test_imdb_no_shuffle() test_imdb_true_shuffle() test_imdb_rename() test_imdb_zip() test_imdb_exception()
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6
001ac898cc6042edbce108d0ccf435e54334a789
106
py
Python
email_config.py
ZhenyueQin/Training-Progress-Email-Notifier
2a108ac50112681af18d31b0ba2ff9d33c461263
[ "CC-BY-4.0" ]
24
2021-07-02T13:08:47.000Z
2021-12-06T17:26:09.000Z
email_config.py
ZhenyueQin/Training-Progress-Email-Notifier
2a108ac50112681af18d31b0ba2ff9d33c461263
[ "CC-BY-4.0" ]
1
2021-07-08T19:18:02.000Z
2021-07-08T22:13:05.000Z
email_config.py
ZhenyueQin/Training-Progress-Email-Notifier
2a108ac50112681af18d31b0ba2ff9d33c461263
[ "CC-BY-4.0" ]
null
null
null
EMAIL_S_ADDRESS = 'zylytech@gmail.com' PASSWORD = 'zylytech123456' EMAIL_R_ADDRESS = 'zylytech@gmail.com'
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6
cc9b9ce3b6ca5e304fc209e6bd148831fa90eecf
8,131
py
Python
tests/dataset/test_sparkdfdataset.py
lcorneliussen/great_expectations
00a94d9dd7397b726e951baf290f4b5d18101b4d
[ "Apache-2.0" ]
1
2020-09-29T18:19:35.000Z
2020-09-29T18:19:35.000Z
tests/dataset/test_sparkdfdataset.py
lcorneliussen/great_expectations
00a94d9dd7397b726e951baf290f4b5d18101b4d
[ "Apache-2.0" ]
21
2020-08-05T07:15:47.000Z
2021-04-29T05:35:52.000Z
tests/dataset/test_sparkdfdataset.py
lcorneliussen/great_expectations
00a94d9dd7397b726e951baf290f4b5d18101b4d
[ "Apache-2.0" ]
null
null
null
import importlib.util from unittest import mock import pandas as pd import pytest from great_expectations.dataset.sparkdf_dataset import SparkDFDataset def test_sparkdfdataset_persist(spark_session): df = pd.DataFrame({"a": [1, 2, 3]}) sdf = spark_session.createDataFrame(df) sdf.persist = mock.MagicMock() _ = SparkDFDataset(sdf, persist=True) sdf.persist.assert_called_once() sdf = spark_session.createDataFrame(df) sdf.persist = mock.MagicMock() _ = SparkDFDataset(sdf, persist=False) sdf.persist.assert_not_called() sdf = spark_session.createDataFrame(df) sdf.persist = mock.MagicMock() _ = SparkDFDataset(sdf) sdf.persist.assert_called_once() @pytest.mark.skipif( importlib.util.find_spec("pyspark") is None, reason="requires the Spark library" ) @pytest.fixture def test_dataframe(spark_session): from pyspark.sql.types import IntegerType, StringType, StructField, StructType schema = StructType( [ StructField("name", StringType(), True), StructField("age", IntegerType(), True), StructField( "address", StructType( [ StructField("street", StringType(), True), StructField("city", StringType(), True), StructField("house_number", IntegerType(), True), ] ), False, ), StructField("name_duplicate", StringType(), True), StructField("non.nested", StringType(), True), ] ) rows = [ ("Alice", 1, ("Street 1", "Alabama", 10), "Alice", "a"), ("Bob", 2, ("Street 2", "Brooklyn", 11), "Bob", "b"), ("Charlie", 3, ("Street 3", "Alabama", 12), "Charlie", "c"), ] rdd = spark_session.sparkContext.parallelize(rows) df = spark_session.createDataFrame(rdd, schema) return SparkDFDataset(df, persist=True) @pytest.mark.skipif( importlib.util.find_spec("pyspark") is None, reason="requires the Spark library" ) def test_expect_column_values_to_be_of_type(spark_session, test_dataframe): """ data asset expectation """ from pyspark.sql.utils import AnalysisException assert test_dataframe.expect_column_values_to_be_of_type( "address.street", "StringType" ).success assert test_dataframe.expect_column_values_to_be_of_type( "`non.nested`", "StringType" ).success assert test_dataframe.expect_column_values_to_be_of_type( "name", "StringType" ).success with pytest.raises(AnalysisException): test_dataframe.expect_column_values_to_be_of_type("non.nested", "StringType") @pytest.mark.skipif( importlib.util.find_spec("pyspark") is None, reason="requires the Spark library" ) def test_expect_column_values_to_be_of_type(spark_session, test_dataframe): """ data asset expectation """ from pyspark.sql.utils import AnalysisException assert test_dataframe.expect_column_values_to_be_of_type( "address.street", "StringType" ).success assert test_dataframe.expect_column_values_to_be_of_type( "`non.nested`", "StringType" ).success assert test_dataframe.expect_column_values_to_be_of_type( "name", "StringType" ).success with pytest.raises(AnalysisException): test_dataframe.expect_column_values_to_be_of_type("non.nested", "StringType") @pytest.mark.skipif( importlib.util.find_spec("pyspark") is None, reason="requires the Spark library" ) def test_expect_column_values_to_be_in_type_list(spark_session, test_dataframe): """ data asset expectation """ from pyspark.sql.utils import AnalysisException assert test_dataframe.expect_column_values_to_be_in_type_list( "address.street", ["StringType", "IntegerType"] ).success assert test_dataframe.expect_column_values_to_be_in_type_list( "`non.nested`", ["StringType", "IntegerType"] ).success assert test_dataframe.expect_column_values_to_be_in_type_list( "name", ["StringType", "IntegerType"] ).success with pytest.raises(AnalysisException): test_dataframe.expect_column_values_to_be_of_type("non.nested", "StringType") @pytest.mark.skipif( importlib.util.find_spec("pyspark") is None, reason="requires the Spark library" ) def test_expect_column_pair_values_to_be_equal(spark_session, test_dataframe): """ column_pair_map_expectation """ from pyspark.sql.utils import AnalysisException assert test_dataframe.expect_column_pair_values_to_be_equal( "name", "name_duplicate" ).success assert not test_dataframe.expect_column_pair_values_to_be_equal( "name", "address.street" ).success assert not test_dataframe.expect_column_pair_values_to_be_equal( "name", "`non.nested`" ).success # Expectation should fail when no `` surround a non-nested column with dot notation with pytest.raises(AnalysisException): test_dataframe.expect_column_pair_values_to_be_equal("name", "non.nested") @pytest.mark.skipif( importlib.util.find_spec("pyspark") is None, reason="requires the Spark library" ) def test_expect_column_pair_values_A_to_be_greater_than_B( spark_session, test_dataframe ): """ column_pair_map_expectation """ assert test_dataframe.expect_column_pair_values_A_to_be_greater_than_B( "address.house_number", "age" ).success assert test_dataframe.expect_column_pair_values_A_to_be_greater_than_B( "age", "age", or_equal=True ).success @pytest.mark.skipif( importlib.util.find_spec("pyspark") is None, reason="requires the Spark library" ) def test_expect_multicolumn_values_to_be_unique(spark_session, test_dataframe): """ multicolumn_map_expectation """ from pyspark.sql.utils import AnalysisException assert test_dataframe.expect_multicolumn_values_to_be_unique( ["name", "age"] ).success assert test_dataframe.expect_multicolumn_values_to_be_unique( ["address.street", "name"] ).success assert test_dataframe.expect_multicolumn_values_to_be_unique( ["address.street", "`non.nested`"] ).success # Expectation should fail when no `` surround a non-nested column with dot notation with pytest.raises(AnalysisException): test_dataframe.expect_multicolumn_values_to_be_unique( ["address.street", "non.nested"] ) @pytest.mark.skipif( importlib.util.find_spec("pyspark") is None, reason="requires the Spark library" ) def test_expect_column_values_to_be_unique(spark_session, test_dataframe): """ column_map_expectation """ from pyspark.sql.utils import AnalysisException assert test_dataframe.expect_column_values_to_be_unique("name").success assert not test_dataframe.expect_column_values_to_be_unique("address.city").success assert test_dataframe.expect_column_values_to_be_unique("`non.nested`").success # Expectation should fail when no `` surround a non-nested column with dot notation with pytest.raises(AnalysisException): test_dataframe.expect_column_values_to_be_unique("non.nested") @pytest.mark.skipif( importlib.util.find_spec("pyspark") is None, reason="requires the Spark library" ) def test_expect_column_value_lengths_to_be_between(spark_session, test_dataframe): """ column_map_expectation """ assert test_dataframe.expect_column_value_lengths_to_be_between( "name", 3, 7 ).success assert test_dataframe.expect_column_value_lengths_to_be_between( "address.street", 1, 10 ).success @pytest.mark.skipif( importlib.util.find_spec("pyspark") is None, reason="requires the Spark library" ) def test_expect_column_value_lengths_to_equal(spark_session, test_dataframe): """ column_map_expectation """ assert test_dataframe.expect_column_value_lengths_to_equal("age", 1).success assert test_dataframe.expect_column_value_lengths_to_equal( "address.street", 8 ).success
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6
ccc448b73f9b0a1cb8ec171f82b55b4e3fd5e415
62
py
Python
rubin_sim/scheduler/schedulers/__init__.py
RileyWClarke/flarubin
eb7b1ee21c828523f8a5374fe4510fe6e5ec2a2a
[ "MIT" ]
null
null
null
rubin_sim/scheduler/schedulers/__init__.py
RileyWClarke/flarubin
eb7b1ee21c828523f8a5374fe4510fe6e5ec2a2a
[ "MIT" ]
null
null
null
rubin_sim/scheduler/schedulers/__init__.py
RileyWClarke/flarubin
eb7b1ee21c828523f8a5374fe4510fe6e5ec2a2a
[ "MIT" ]
null
null
null
from .core_scheduler import * from .filter_scheduler import *
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ccd00bd665d4645552ba2b41962db83e0be38a1e
98
py
Python
src/module.py
k-styles/Python-Template
bb90e33db3093a8e3e6a45a0c0cbb85c01982ff7
[ "MIT" ]
null
null
null
src/module.py
k-styles/Python-Template
bb90e33db3093a8e3e6a45a0c0cbb85c01982ff7
[ "MIT" ]
null
null
null
src/module.py
k-styles/Python-Template
bb90e33db3093a8e3e6a45a0c0cbb85c01982ff7
[ "MIT" ]
null
null
null
class dummy_module(): def __init__(self): pass def dummy_func(self): pass
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6
4e131f2fc0fd4f12b2ce6ea93905b7f248b4ccc7
8,981
py
Python
panda/tests/safety/test_honda.py
nfralick/openpilot
a2f4d6b5ad1471f26dac707a82ef666ac32d77d9
[ "MIT" ]
3
2019-01-18T16:48:15.000Z
2019-03-03T15:43:52.000Z
panda/tests/safety/test_honda.py
nfralick/openpilot
a2f4d6b5ad1471f26dac707a82ef666ac32d77d9
[ "MIT" ]
2
2021-03-25T22:42:16.000Z
2021-10-12T22:57:08.000Z
panda/tests/safety/test_honda.py
nfralick/openpilot
a2f4d6b5ad1471f26dac707a82ef666ac32d77d9
[ "MIT" ]
1
2019-08-14T14:56:15.000Z
2019-08-14T14:56:15.000Z
#!/usr/bin/env python2 import unittest import numpy as np import libpandasafety_py MAX_BRAKE = 255 class TestHondaSafety(unittest.TestCase): @classmethod def setUp(cls): cls.safety = libpandasafety_py.libpandasafety cls.safety.honda_init(0) cls.safety.init_tests_honda() def _speed_msg(self, speed): to_send = libpandasafety_py.ffi.new('CAN_FIFOMailBox_TypeDef *') to_send[0].RIR = 0x158 << 21 to_send[0].RDLR = speed return to_send def _button_msg(self, buttons, msg): to_send = libpandasafety_py.ffi.new('CAN_FIFOMailBox_TypeDef *') to_send[0].RIR = msg << 21 to_send[0].RDLR = buttons << 5 return to_send def _brake_msg(self, brake): to_send = libpandasafety_py.ffi.new('CAN_FIFOMailBox_TypeDef *') to_send[0].RIR = 0x17C << 21 to_send[0].RDHR = 0x200000 if brake else 0 return to_send def _alt_brake_msg(self, brake): to_send = libpandasafety_py.ffi.new('CAN_FIFOMailBox_TypeDef *') to_send[0].RIR = 0x1BE << 21 to_send[0].RDLR = 0x10 if brake else 0 return to_send def _gas_msg(self, gas): to_send = libpandasafety_py.ffi.new('CAN_FIFOMailBox_TypeDef *') to_send[0].RIR = 0x17C << 21 to_send[0].RDLR = 1 if gas else 0 return to_send def _send_brake_msg(self, brake): to_send = libpandasafety_py.ffi.new('CAN_FIFOMailBox_TypeDef *') to_send[0].RIR = 0x1FA << 21 to_send[0].RDLR = ((brake & 0x3) << 8) | ((brake & 0x3FF) >> 2) return to_send def _send_interceptor_msg(self, gas, addr): to_send = libpandasafety_py.ffi.new('CAN_FIFOMailBox_TypeDef *') to_send[0].RIR = addr << 21 to_send[0].RDTR = 6 to_send[0].RDLR = ((gas & 0xff) << 8) | ((gas & 0xff00) >> 8) return to_send def _send_steer_msg(self, steer): to_send = libpandasafety_py.ffi.new('CAN_FIFOMailBox_TypeDef *') to_send[0].RIR = 0xE4 << 21 to_send[0].RDLR = steer return to_send def test_default_controls_not_allowed(self): self.assertFalse(self.safety.get_controls_allowed()) def test_resume_button(self): RESUME_BTN = 4 self.safety.set_controls_allowed(0) self.safety.honda_rx_hook(self._button_msg(RESUME_BTN, 0x1A6)) self.assertTrue(self.safety.get_controls_allowed()) def test_set_button(self): SET_BTN = 3 self.safety.set_controls_allowed(0) self.safety.honda_rx_hook(self._button_msg(SET_BTN, 0x1A6)) self.assertTrue(self.safety.get_controls_allowed()) def test_cancel_button(self): CANCEL_BTN = 2 self.safety.set_controls_allowed(1) self.safety.honda_rx_hook(self._button_msg(CANCEL_BTN, 0x1A6)) self.assertFalse(self.safety.get_controls_allowed()) def test_sample_speed(self): self.assertEqual(0, self.safety.get_honda_ego_speed()) self.safety.honda_rx_hook(self._speed_msg(100)) self.assertEqual(100, self.safety.get_honda_ego_speed()) def test_prev_brake(self): self.assertFalse(self.safety.get_honda_brake_prev()) self.safety.honda_rx_hook(self._brake_msg(True)) self.assertTrue(self.safety.get_honda_brake_prev()) def test_disengage_on_brake(self): self.safety.set_controls_allowed(1) self.safety.honda_rx_hook(self._brake_msg(1)) self.assertFalse(self.safety.get_controls_allowed()) def test_alt_disengage_on_brake(self): self.safety.set_honda_alt_brake_msg(1) self.safety.set_controls_allowed(1) self.safety.honda_rx_hook(self._alt_brake_msg(1)) self.assertFalse(self.safety.get_controls_allowed()) self.safety.set_honda_alt_brake_msg(0) self.safety.set_controls_allowed(1) self.safety.honda_rx_hook(self._alt_brake_msg(1)) self.assertTrue(self.safety.get_controls_allowed()) def test_allow_brake_at_zero_speed(self): # Brake was already pressed self.safety.honda_rx_hook(self._brake_msg(True)) self.safety.set_controls_allowed(1) self.safety.honda_rx_hook(self._brake_msg(True)) self.assertTrue(self.safety.get_controls_allowed()) self.safety.honda_rx_hook(self._brake_msg(False)) # reset no brakes def test_not_allow_brake_when_moving(self): # Brake was already pressed self.safety.honda_rx_hook(self._brake_msg(True)) self.safety.honda_rx_hook(self._speed_msg(100)) self.safety.set_controls_allowed(1) self.safety.honda_rx_hook(self._brake_msg(True)) self.assertFalse(self.safety.get_controls_allowed()) def test_prev_gas(self): self.safety.honda_rx_hook(self._gas_msg(False)) self.assertFalse(self.safety.get_honda_gas_prev()) self.safety.honda_rx_hook(self._gas_msg(True)) self.assertTrue(self.safety.get_honda_gas_prev()) def test_prev_gas_interceptor(self): self.safety.honda_rx_hook(self._send_interceptor_msg(0x0, 0x201)) self.assertFalse(self.safety.get_gas_interceptor_prev()) self.safety.honda_rx_hook(self._send_interceptor_msg(0x1000, 0x201)) self.assertTrue(self.safety.get_gas_interceptor_prev()) self.safety.honda_rx_hook(self._send_interceptor_msg(0x0, 0x201)) self.safety.set_gas_interceptor_detected(False) def test_disengage_on_gas(self): for long_controls_allowed in [0, 1]: self.safety.set_long_controls_allowed(long_controls_allowed) self.safety.honda_rx_hook(self._gas_msg(0)) self.safety.set_controls_allowed(1) self.safety.honda_rx_hook(self._gas_msg(1)) if long_controls_allowed: self.assertFalse(self.safety.get_controls_allowed()) else: self.assertTrue(self.safety.get_controls_allowed()) self.safety.set_long_controls_allowed(True) def test_allow_engage_with_gas_pressed(self): self.safety.honda_rx_hook(self._gas_msg(1)) self.safety.set_controls_allowed(1) self.safety.honda_rx_hook(self._gas_msg(1)) self.assertTrue(self.safety.get_controls_allowed()) def test_disengage_on_gas_interceptor(self): for long_controls_allowed in [0, 1]: self.safety.set_long_controls_allowed(long_controls_allowed) self.safety.honda_rx_hook(self._send_interceptor_msg(0, 0x201)) self.safety.set_controls_allowed(1) self.safety.honda_rx_hook(self._send_interceptor_msg(0x1000, 0x201)) if long_controls_allowed: self.assertFalse(self.safety.get_controls_allowed()) else: self.assertTrue(self.safety.get_controls_allowed()) self.safety.honda_rx_hook(self._send_interceptor_msg(0, 0x201)) self.safety.set_gas_interceptor_detected(False) self.safety.set_long_controls_allowed(True) def test_allow_engage_with_gas_interceptor_pressed(self): self.safety.honda_rx_hook(self._send_interceptor_msg(0x1000, 0x201)) self.safety.set_controls_allowed(1) self.safety.honda_rx_hook(self._send_interceptor_msg(0x1000, 0x201)) self.assertTrue(self.safety.get_controls_allowed()) self.safety.honda_rx_hook(self._send_interceptor_msg(0, 0x201)) self.safety.set_gas_interceptor_detected(False) def test_brake_safety_check(self): for long_controls_allowed in [0, 1]: self.safety.set_long_controls_allowed(long_controls_allowed) for brake in np.arange(0, MAX_BRAKE + 10, 1): for controls_allowed in [True, False]: self.safety.set_controls_allowed(controls_allowed) if controls_allowed and long_controls_allowed: send = MAX_BRAKE >= brake >= 0 else: send = brake == 0 self.assertEqual(send, self.safety.honda_tx_hook(self._send_brake_msg(brake))) self.safety.set_long_controls_allowed(True) def test_gas_interceptor_safety_check(self): for long_controls_allowed in [0, 1]: self.safety.set_long_controls_allowed(long_controls_allowed) for gas in np.arange(0, 4000, 100): for controls_allowed in [True, False]: self.safety.set_controls_allowed(controls_allowed) if controls_allowed and long_controls_allowed: send = True else: send = gas == 0 self.assertEqual(send, self.safety.honda_tx_hook(self._send_interceptor_msg(gas, 0x200))) self.safety.set_long_controls_allowed(True) def test_steer_safety_check(self): self.safety.set_controls_allowed(0) self.assertTrue(self.safety.honda_tx_hook(self._send_steer_msg(0x0000))) self.assertFalse(self.safety.honda_tx_hook(self._send_steer_msg(0x1000))) def test_spam_cancel_safety_check(self): RESUME_BTN = 4 SET_BTN = 3 CANCEL_BTN = 2 BUTTON_MSG = 0x296 self.safety.set_honda_bosch_hardware(1) self.safety.set_controls_allowed(0) self.assertTrue(self.safety.honda_tx_hook(self._button_msg(CANCEL_BTN, BUTTON_MSG))) self.assertFalse(self.safety.honda_tx_hook(self._button_msg(RESUME_BTN, BUTTON_MSG))) self.assertFalse(self.safety.honda_tx_hook(self._button_msg(SET_BTN, BUTTON_MSG))) # do not block resume if we are engaged already self.safety.set_controls_allowed(1) self.assertTrue(self.safety.honda_tx_hook(self._button_msg(RESUME_BTN, BUTTON_MSG))) if __name__ == "__main__": unittest.main()
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6
9dd0462026b9f420ab4b4fc998eea9d0ebf6f3fb
24
py
Python
app/eSignature/examples/eg030_brands_apply_to_template/__init__.py
olegliubimov/code-examples-python
7af8c58138a9dd0f3b0be12eff1768ae23e449d3
[ "MIT" ]
21
2020-05-13T21:08:44.000Z
2022-02-18T01:32:16.000Z
app/eSignature/examples/eg030_brands_apply_to_template/__init__.py
olegliubimov/code-examples-python
7af8c58138a9dd0f3b0be12eff1768ae23e449d3
[ "MIT" ]
8
2020-11-23T09:28:04.000Z
2022-02-02T12:04:08.000Z
app/eSignature/examples/eg030_brands_apply_to_template/__init__.py
olegliubimov/code-examples-python
7af8c58138a9dd0f3b0be12eff1768ae23e449d3
[ "MIT" ]
26
2020-05-12T22:20:01.000Z
2022-03-09T10:57:27.000Z
from .views import eg030
24
24
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6
9df04b83aa89b479d5457f3fa0495941027b3634
327
py
Python
main_project/accounts/views.py
mayc2/MStream
f5ec884a69499ecf90414c36dadb6c17f7fd6b95
[ "MIT" ]
null
null
null
main_project/accounts/views.py
mayc2/MStream
f5ec884a69499ecf90414c36dadb6c17f7fd6b95
[ "MIT" ]
null
null
null
main_project/accounts/views.py
mayc2/MStream
f5ec884a69499ecf90414c36dadb6c17f7fd6b95
[ "MIT" ]
null
null
null
from django.shortcuts import render from django.http import HttpResponse # Create your views here. def index(request): return HttpResponse("Account says hello! <br/> <a href='/accounts/about'>About</a>") def about(request): return HttpResponse("This is the about page <br/> <a href='/accounts/'>Accounts</a>")
36.333333
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0.152905
327
9
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1
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6
d17e2cbd1228112ed16488c5e9afb97f26aa8258
5,184
py
Python
test/printing_test.py
raphaelahrens/doto
e1a8db42a29a9844322ecc58576a18d4782bfa1d
[ "BSD-2-Clause" ]
1
2016-05-03T12:38:30.000Z
2016-05-03T12:38:30.000Z
test/printing_test.py
raphaelahrens/doto
e1a8db42a29a9844322ecc58576a18d4782bfa1d
[ "BSD-2-Clause" ]
null
null
null
test/printing_test.py
raphaelahrens/doto
e1a8db42a29a9844322ecc58576a18d4782bfa1d
[ "BSD-2-Clause" ]
null
null
null
"""Unitests for the cli.printing module""" import unittest import datetime import doto.cli.printing import doto.model class TestStrFromTimeSpan(unittest.TestCase): """Unittest for the Printing Module.""" now = doto.model.now_with_tz() def test_one_sec(self): now_plus_x = TestStrFromTimeSpan.now + datetime.timedelta(0, 1, 0) span = doto.model.TimeSpan(TestStrFromTimeSpan.now, now_plus_x) result = doto.cli.printing.str_from_time_delta(span.time_delta()) self.assertEqual(result, "soon") def test_two_secs(self): now_plus_x = TestStrFromTimeSpan.now + datetime.timedelta(0, 2, 0) span = doto.model.TimeSpan(TestStrFromTimeSpan.now, now_plus_x) result = doto.cli.printing.str_from_time_delta(span.time_delta()) self.assertEqual(result, "soon") def test_one_min(self): now_plus_x = TestStrFromTimeSpan.now + datetime.timedelta(0, 60, 0) span = doto.model.TimeSpan(TestStrFromTimeSpan.now, now_plus_x) result = doto.cli.printing.str_from_time_delta(span.time_delta()) self.assertEqual(result, "1m") def test_two_min(self): now_plus_x = TestStrFromTimeSpan.now + datetime.timedelta(0, 120, 0) span = doto.model.TimeSpan(TestStrFromTimeSpan.now, now_plus_x) result = doto.cli.printing.str_from_time_delta(span.time_delta()) self.assertEqual(result, "2m") def test_one_day(self): now_plus_x = TestStrFromTimeSpan.now + datetime.timedelta(1, 0, 0) span = doto.model.TimeSpan(TestStrFromTimeSpan.now, now_plus_x) result = doto.cli.printing.str_from_time_delta(span.time_delta()) self.assertEqual(result, "1d 0h 0m") def test_two_days(self): now_plus_x = TestStrFromTimeSpan.now + datetime.timedelta(2, 120, 0) span = doto.model.TimeSpan(TestStrFromTimeSpan.now, now_plus_x) result = doto.cli.printing.str_from_time_delta(span.time_delta()) self.assertEqual(result, "2d 0h 2m") class TestUnicodeFromatter(unittest.TestCase): def test_empty(self): formatter = doto.cli.printing.UnicodeFormatter() self.assertEqual('', formatter.format('')) def test_int(self): formatter = doto.cli.printing.UnicodeFormatter() self.assertEqual('11', formatter.format('{}', 11)) def test_float(self): formatter = doto.cli.printing.UnicodeFormatter() self.assertEqual('11.0', formatter.format('{}', 11.0)) def test_simple_inster(self): formatter = doto.cli.printing.UnicodeFormatter() format_spec = '{}' test_str = 'Testa̲' self.assertEqual(test_str, formatter.format(format_spec, test_str)) test_str = 'test' self.assertEqual(format_spec.format(test_str), formatter.format(format_spec, test_str)) def test_left_pad(self): formatter = doto.cli.printing.UnicodeFormatter() format_spec = '{:<10}' test_str = 'test' self.assertEqual(format_spec.format(test_str), formatter.format(format_spec, test_str)) utest_str = 'Testa̲' self.assertEqual(format_spec.format(utest_str) + ' ', formatter.format(format_spec, utest_str)) def test_right_pad(self): formatter = doto.cli.printing.UnicodeFormatter() format_spec = '{:>10}' test_str = "test" self.assertEqual(format_spec.format(test_str), formatter.format(format_spec, test_str)) utest_str = 'Testa̲' self.assertEqual(' ' + format_spec.format(utest_str), formatter.format(format_spec, utest_str)) def test_center_pad(self): formatter = doto.cli.printing.UnicodeFormatter() format_spec = '{:^10}' test_str = "test" self.assertEqual(format_spec.format(test_str), formatter.format(format_spec, test_str)) utest_str = 'Testa̲' self.assertEqual(format_spec.format(utest_str) + ' ', formatter.format(format_spec, utest_str)) def test_center_pad_fill(self): formatter = doto.cli.printing.UnicodeFormatter() format_spec = '{:^10}' test_str = "test" self.assertEqual(format_spec.format(test_str), formatter.format(format_spec, test_str)) utest_str = 'Testa̲' self.assertEqual(format_spec.format(utest_str) + ' ', formatter.format(format_spec, utest_str)) def test_unicode_pad(self): formatter = doto.cli.printing.UnicodeFormatter() utest_str = 'Tet̲a̲r̲st' format_specs = (('{:<10}', utest_str + ' '), ('{:>10}', ' ' + utest_str), ('{:^10}', ' ' + utest_str + ' ') ) for spec, t_str in format_specs: self.assertEqual(t_str, formatter.format(spec, utest_str)) def test_zero_pad(self): formatter = doto.cli.printing.UnicodeFormatter() utest_str = 'Tet̲a̲r̲st' format_specs = (('{:<010}', utest_str + '000'), ('{:>010}', '000' + utest_str), ('{:^010}', '0' + utest_str + '00') ) for spec, t_str in format_specs: self.assertEqual(t_str, formatter.format(spec, utest_str))
41.472
103
0.64892
642
5,184
5.020249
0.127726
0.08067
0.079119
0.062054
0.848278
0.840832
0.829352
0.829352
0.750543
0.680422
0
0.018114
0.222608
5,184
124
104
41.806452
0.778908
0.013503
0
0.494949
0
0
0.03822
0
0
0
0
0
0.212121
1
0.161616
false
0
0.040404
0
0.232323
0.171717
0
0
0
null
0
0
0
1
1
1
1
1
1
0
0
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6
d1aadb325f65ce205d9ff7657485f37c1e69fbaf
83
py
Python
src/RobotFrameworkElasticSearchLibrary/__init__.py
chilispa/robotframework-elasticsearch
fa416cc6314a02cf5299ecbeadc2b4dc966464e6
[ "MIT" ]
3
2020-03-04T14:17:24.000Z
2020-03-04T15:20:48.000Z
src/RobotFrameworkElasticSearchLibrary/__init__.py
chilispa/robotframework-elasticsearch
fa416cc6314a02cf5299ecbeadc2b4dc966464e6
[ "MIT" ]
null
null
null
src/RobotFrameworkElasticSearchLibrary/__init__.py
chilispa/robotframework-elasticsearch
fa416cc6314a02cf5299ecbeadc2b4dc966464e6
[ "MIT" ]
1
2019-12-09T13:55:31.000Z
2019-12-09T13:55:31.000Z
from .RobotFrameworkElasticSearchLibrary import RobotFrameworkElasticSearchLibrary
41.5
82
0.939759
4
83
19.5
0.75
0
0
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6
d1b6afc98e667d171147c397be3b22504cf42650
31
py
Python
nertk/__init__.py
johnsmithm/nertk
d57b10b1de10d10425616b70d1a0cf7df4a9fc8b
[ "MIT" ]
3
2021-04-12T08:48:24.000Z
2021-04-20T09:56:49.000Z
nertk/__init__.py
johnsmithm/nertk
d57b10b1de10d10425616b70d1a0cf7df4a9fc8b
[ "MIT" ]
1
2021-04-19T15:47:14.000Z
2021-04-20T08:38:54.000Z
nertk/__init__.py
johnsmithm/nertk
d57b10b1de10d10425616b70d1a0cf7df4a9fc8b
[ "MIT" ]
2
2021-08-10T17:16:52.000Z
2021-08-20T08:28:40.000Z
from .annotator import Entator
15.5
30
0.83871
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6
ae3cf20da26bd04f1d112b3e36acb2784d93e832
12,419
py
Python
CGATPipelines/pipeline_docs/pipeline_proj007/trackers/macs_replicated_shared_intervals.py
cdrakesmith/CGATPipelines
3c94ae4f9d87d51108255dc405c4b95af7c8b694
[ "MIT" ]
49
2015-04-13T16:49:25.000Z
2022-03-29T10:29:14.000Z
CGATPipelines/pipeline_docs/pipeline_proj007/trackers/macs_replicated_shared_intervals.py
cdrakesmith/CGATPipelines
3c94ae4f9d87d51108255dc405c4b95af7c8b694
[ "MIT" ]
252
2015-04-08T13:23:34.000Z
2019-03-18T21:51:29.000Z
CGATPipelines/pipeline_docs/pipeline_proj007/trackers/macs_replicated_shared_intervals.py
cdrakesmith/CGATPipelines
3c94ae4f9d87d51108255dc405c4b95af7c8b694
[ "MIT" ]
22
2015-05-21T00:37:52.000Z
2019-09-25T05:04:27.000Z
from CGATReport.Tracker import * from cpgReport import * ########################################################################## class replicatedSharedIntervals(cpgTracker): """Summary stats of intervals called by the peak finder. """ mPattern = "_replicated_shared_intervals$" def __call__(self, track, slice=None): data = self.getFirstRow( "SELECT COUNT(*) as number, round(AVG(stop-start),0) as length FROM %(track)s_replicated_shared_intervals" % locals()) return odict(list(zip(("Shared intervals", "mean_interval_length"), data))) ########################################################################## class replicatedsharedIntervalLengths(cpgTracker): """Distribution of interval length. """ mPattern = "_replicated_shared_intervals$" def __call__(self, track, slice=None): data = self.getValues( "SELECT (stop-start) FROM %(track)s_replicated_shared_intervals" % locals()) return {"length": data} ########################################################################## class replicatedSharedIntervalPeakValues(cpgTracker): """Distribution of maximum interval coverage (the number of reads at peak). """ mPattern = "_replicated_shared_intervals$" def __call__(self, track, slice=None): data = self.getValues( '''SELECT i.peakval FROM %(track)s_replicated_shared_intervals u, %(track)s_replicated_intervals i WHERE u.contig=i.contig AND u.start=i.start''' % locals() ) return {"peakval": data} ########################################################################## class replicatedSharedIntervalAverageValues(cpgTracker): """Distribution of average coverage (the average number of reads within the interval) """ mPattern = "_replicated_shared_intervals$" def __call__(self, track, slice=None): data = self.getValues( '''SELECT avgval FROM %(track)s_replicated_shared_intervals u, %(track)s_replicated_intervals i WHERE u.contig=i.contig AND u.start=i.start''' % locals() ) return {"avgval": data} ########################################################################## class replicatedSharedIntervalFoldChange(cpgTracker): """Distribution of fold change """ mPattern = "_replicated_shared_intervals$" def __call__(self, track, slice=None): data = self.getValues( '''SELECT i.fold FROM %(track)s_replicated_shared_intervals u, %(track)s_replicated_intervals i WHERE u.contig=i.contig AND u.start=i.start''' % locals() ) return odict([("Fold Change", data)]) ########################################################################## class replicatedSharedIntervalTSS(cpgTracker): """Distribution of distance to closest TSS """ mPattern = "_replicated_shared_intervals$" def __call__(self, track, slice=None): ANNOTATIONS_NAME = P['annotations_name'] data = self.getValues( '''SELECT closest_dist FROM %(track)s_replicated_shared_intervals u, %(track)s_replicated_intervals i, %(track)s_replicated_%(ANNOTATIONS_NAME)s_transcript_tss_distance t WHERE u.contig=i.contig AND u.start=i.start AND t.gene_id=i.interval_id''' % locals() ) return {"distance": data} ########################################################################## class replicatedSharedIntervalCpGDensity(cpgTracker): mPattern = "_replicated_shared_intervals$" def __call__(self, track, slice=None): data = self.getAll( '''SELECT pCpG FROM %(track)s_replicated_shared_intervals u, %(track)s_replicated_intervals i,%(track)s_replicated_capseq_composition c WHERE u.contig=i.contig AND u.start=i.start AND c.gene_id=i.interval_id''' % locals() ) return data ########################################################################## class replicatedSharedIntervalCpGObsExp(cpgTracker): mPattern = "_replicated_shared_intervals$" def __call__(self, track, slice=None): data = self.getAll( '''SELECT CpG_ObsExp FROM %(track)s_replicated_shared_intervals u, %(track)s_replicated_intervals i,%(track)s_replicated_capseq_composition c WHERE u.contig=i.contig AND u.start=i.start AND c.gene_id=i.interval_id''' % locals() ) return data ########################################################################## class replicatedSharedIntervalCpGNumber(cpgTracker): mPattern = "_replicated_shared_intervals$" def __call__(self, track, slice=None): data = self.getAll( '''SELECT nCpG FROM %(track)s_replicated_shared_intervals u, %(track)s_replicated_intervals i,%(track)s_replicated_capseq_composition c WHERE u.contig=i.contig AND u.start=i.start AND c.gene_id=i.interval_id''' % locals() ) return data ########################################################################## class replicatedSharedIntervalGCContent(cpgTracker): mPattern = "_replicated_shared_intervals$" def __call__(self, track, slice=None): data = self.getAll( '''SELECT pGC FROM %(track)s_replicated_shared_intervals u, %(track)s_replicated_intervals i,%(track)s_replicated_capseq_composition c WHERE u.contig=i.contig AND u.start=i.start AND c.gene_id=i.interval_id''' % locals() ) return data ########################################################################## ########################################################################## ########################################################################## class replicatedSharedIntervalLengthVsAverageValue(cpgTracker): """Length vs average value. """ mPattern = "_replicated_shared_intervals$" def __call__(self, track, slice=None): data = self.get( '''SELECT length, avgval FROM %(track)s_replicated_shared_intervals u, %(track)s_replicated_intervals i WHERE u.contig=i.contig AND u.start=i.start''' % locals() ) return odict(list(zip(("length", "avgval"), list(zip(*data))))) ########################################################################## class replicatedSharedIntervalLengthVsPeakValue(cpgTracker): """Length vs peak value """ mPattern = "_replicated_shared_intervals$" def __call__(self, track, slice=None): data = self.get( '''SELECT length, peakval FROM %(track)s_replicated_shared_intervals u, %(track)s_replicated_intervals i WHERE u.contig=i.contig AND u.start=i.start''' % locals() ) return odict(list(zip(("length", "peakval"), list(zip(*data))))) ########################################################################## class replicatedSharedIntervalLengthVsFoldChange(cpgTracker): """Length vs fold change""" mPattern = "_replicated_shared_intervals$" def __call__(self, track, slice=None): data = self.get( '''SELECT length, fold FROM %(track)s_replicated_shared_intervals u, %(track)s_replicated_intervals i WHERE u.contig=i.contig AND u.start=i.start''' % locals() ) return odict(list(zip(("length", "foldchange"), list(zip(*data))))) ########################################################################## class replicatedSharedIntervalAvgValVsPeakVal(cpgTracker): """average value vs peak value """ mPattern = "_replicated_shared_intervals$" def __call__(self, track, slice=None): data = self.get( '''SELECT avgval, peakval FROM %(track)s_replicated_shared_intervals u, %(track)s_replicated_intervals i WHERE u.contig=i.contig AND u.start=i.start''' % locals() ) return odict(list(zip(("avgval", "peakval"), list(zip(*data))))) ########################################################################## class replicatedSharedIntervalAvgValVsFoldChange(cpgTracker): """average value vs fold change """ mPattern = "_replicated_shared_intervals$" def __call__(self, track, slice=None): data = self.get( '''SELECT avgval, fold FROM %(track)s_replicated_shared_intervals u, %(track)s_replicated_intervals i WHERE u.contig=i.contig AND u.start=i.start''' % locals() ) return odict(list(zip(("avgval", "foldchange"), list(zip(*data))))) ########################################################################## class replicatedSharedIntervalPeakValVsFoldChange(cpgTracker): """Peak value vs fold change """ mPattern = "_replicated_shared_intervals$" def __call__(self, track, slice=None): data = self.get( '''SELECT peakval, fold FROM %(track)s_replicated_shared_intervals u, %(track)s_replicated_intervals i WHERE u.contig=i.contig AND u.start=i.start''' % locals() ) return odict(list(zip(("peakval", "foldchange"), list(zip(*data))))) ########################################################################## class replicatedSharedIntervalTranscriptOverlap(featureOverlap): """return overlap of interval with protein-coding transcripts """ mPattern = "_replicated_shared_intervals$" def __call__(self, track, slice=None): ANNOTATIONS_NAME = P['annotations_name'] data = self.getValues( """ SELECT count(distinct gene_id) as intervals FROM ( SELECT gene_id, CASE WHEN tss_transcript_extended_pover1 > 0 THEN 'TSS' WHEN genes_pover1 > 0 THEN 'Gene' WHEN upstream_flank_pover1 >0 THEN 'Upstream' WHEN downstream_flank_pover1 >0 THEN 'Downstream' ELSE 'Intergenic' END AS feature_class FROM %(track)s_replicated_%(ANNOTATIONS_NAME)s_overlap o, %(track)s_replicated_shared_intervals u WHERE u.interval_id=o.gene_id) group by feature_class order by feature_class asc""" % locals() ) return odict(list(zip(("Downstream", "Gene", "Intergenic", "TSS", "Upstream"), data))) ########################################################################## class replicatedSharedIntervalGeneOverlap(featureOverlap): """return overlap of interval with protein-coding genes """ mPattern = "_replicated_shared_intervals$" def __call__(self, track, slice=None): ANNOTATIONS_NAME = P['annotations_name'] data = self.getValues( """ SELECT count(distinct gene_id) as intervals FROM ( SELECT gene_id, CASE WHEN tss_gene_extended_pover1 > 0 THEN 'TSS' WHEN genes_pover1 > 0 THEN 'Gene' WHEN upstream_flank_pover1 >0 THEN 'Upstream' WHEN downstream_flank_pover1 >0 THEN 'Downstream' ELSE 'Intergenic' END AS feature_class FROM %(track)s_replicated_%(ANNOTATIONS_NAME)s_overlap o, %(track)s_replicated_shared_intervals u WHERE u.interval_id=o.gene_id) group by feature_class order by feature_class asc""" % locals() ) return odict(list(zip(("Downstream", "Gene", "Intergenic", "TSS", "Upstream"), data)))
42.385666
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0.037657
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0.708079
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12,419
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6
ae5c5e80f3aba1cea62df25be98f3d557d11419e
5,776
py
Python
tests/unit_tests/test_component/marketplace/simulator_tcp_server_cyclic_tm_sim/test_cyclic_tm_tcp_mock.py
ismaelJimenez/mamba_server
e6e2343291a0df24f226bde0d13e5bfa74cc3650
[ "MIT" ]
null
null
null
tests/unit_tests/test_component/marketplace/simulator_tcp_server_cyclic_tm_sim/test_cyclic_tm_tcp_mock.py
ismaelJimenez/mamba_server
e6e2343291a0df24f226bde0d13e5bfa74cc3650
[ "MIT" ]
null
null
null
tests/unit_tests/test_component/marketplace/simulator_tcp_server_cyclic_tm_sim/test_cyclic_tm_tcp_mock.py
ismaelJimenez/mamba_server
e6e2343291a0df24f226bde0d13e5bfa74cc3650
[ "MIT" ]
null
null
null
import socket import time from mamba.core.context import Context from mamba.marketplace.components.simulator.tcp_server_cyclic_tm_sim import CyclicTmTcpMock class TestClass: def test_simple_tmtc(self): self.mock = CyclicTmTcpMock( Context(), local_config={'instrument': { 'port': { 'tc': 9200, 'tm': 9201 } }}) self.mock.initialize() # Create a socket (SOCK_STREAM means a TCP socket) with socket.socket(socket.AF_INET, socket.SOCK_STREAM) as sock: # Connect to server and send data sock.connect(("localhost", 9200)) # Create a socket (SOCK_STREAM means a TCP socket) with socket.socket(socket.AF_INET, socket.SOCK_STREAM) as sock_tm: # Connect to server and send data sock_tm.connect(("localhost", 9201)) # Test cyclic telemetry reception time.sleep(.1) # Receive data from the server and shut down received = str(sock_tm.recv(1024), "utf-8") assert received == 'PARAMETER_1 1\nPARAMETER_2 2\nPARAMETER_3 3\n' sock.sendall(bytes('*IDN?\r\n', "utf-8")) time.sleep(.1) # Receive data from the server and shut down received = str(sock.recv(1024), "utf-8") assert received == 'Mamba Framework,Cyclic Telemetry TCP Mock,1.0\n' sock.sendall(bytes('*CLS\r\n', "utf-8")) sock.sendall( bytes( 'PARAMETER_1 4\r\nPARAMETER_2 5\r\nPARAMETER_3 6\r\n', "utf-8")) # Test cyclic telemetry reception time.sleep(5) # Receive data from the server and shut down received = str(sock_tm.recv(1024), "utf-8") assert received == 'PARAMETER_1 4\nPARAMETER_2 5\nPARAMETER_3 6\n' # Create a socket (SOCK_STREAM means a TCP socket) with socket.socket(socket.AF_INET, socket.SOCK_STREAM) as sock_2_tm: # Connect to server and send data sock_2_tm.connect(("localhost", 9201)) # Test cyclic telemetry reception time.sleep(.1) # Receive data from the server and shut down received = str(sock_2_tm.recv(1024), "utf-8") assert received == 'PARAMETER_1 4\nPARAMETER_2 5\nPARAMETER_3 6\n' self.mock._close() def test_error_handling(self): self.mock = CyclicTmTcpMock( Context(), local_config={'instrument': { 'port': { 'tc': 9401, 'tm': 9402 } }}) self.mock.initialize() # Create a socket (SOCK_STREAM means a TCP socket) with socket.socket(socket.AF_INET, socket.SOCK_STREAM) as sock: # Connect to server and send data sock.connect(("localhost", 9401)) # Create a socket (SOCK_STREAM means a TCP socket) with socket.socket(socket.AF_INET, socket.SOCK_STREAM) as sock_tm: # Connect to server and send data sock_tm.connect(("localhost", 9402)) sock.sendall(bytes('SYST:ERR?\r\n', "utf-8")) time.sleep(.1) # Receive data from the server and shut down received = str(sock.recv(1024), "utf-8") assert received == '0,_No_Error\n' # Test cyclic telemetry reception time.sleep(.1) # Receive data from the server and shut down received = str(sock_tm.recv(1024), "utf-8") assert received == 'PARAMETER_1 1\nPARAMETER_2 2\nPARAMETER_3 3\n' # Test wrong message ending sock.sendall(bytes('PARAMETER_1 4\n', "utf-8")) time.sleep(.1) # Test cyclic telemetry reception time.sleep(5) # Receive data from the server and shut down received = str(sock_tm.recv(1024), "utf-8") assert received == 'PARAMETER_1 1\nPARAMETER_2 2\nPARAMETER_3 3\n' # Test wrong number or parameters sock.sendall(bytes('PARAMETER_1\n', "utf-8")) # Test cyclic telemetry reception time.sleep(5) # Receive data from the server and shut down received = str(sock_tm.recv(1024), "utf-8") assert received == 'PARAMETER_1 1\nPARAMETER_2 2\nPARAMETER_3 3\n' # Test wrong number or parameters sock.sendall(bytes('PARAMETER_5 1234\r\n', "utf-8")) # Test cyclic telemetry reception time.sleep(5) # Receive data from the server and shut down received = str(sock_tm.recv(1024), "utf-8") assert received == 'PARAMETER_1 1\nPARAMETER_2 2\nPARAMETER_3 3\n' sock.sendall(bytes('SYST:ERR?\r\n', "utf-8")) time.sleep(.1) # Receive data from the server and shut down received = str(sock.recv(1024), "utf-8") assert received == '1,_Command_Error\n' sock.sendall(bytes('SYST:ERR?\r\n', "utf-8")) time.sleep(.1) # Receive data from the server and shut down received = str(sock.recv(1024), "utf-8") assert received == '0,_No_Error\n' self.mock._close()
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6
ae96deee933ff17ccb2a724334de1cff1e6f83e5
252
py
Python
array/monotonic_array.py
elenaborisova/LeetCode-Solutions
98376aab7fd150a724e316357ae5ea46988d9eac
[ "MIT" ]
null
null
null
array/monotonic_array.py
elenaborisova/LeetCode-Solutions
98376aab7fd150a724e316357ae5ea46988d9eac
[ "MIT" ]
null
null
null
array/monotonic_array.py
elenaborisova/LeetCode-Solutions
98376aab7fd150a724e316357ae5ea46988d9eac
[ "MIT" ]
null
null
null
def is_monotonic(nums): return nums == sorted(nums) or nums == sorted(nums)[::-1] print(is_monotonic([1, 2, 2, 3])) print(is_monotonic([6, 5, 4, 4])) print(is_monotonic([1, 3, 2])) print(is_monotonic([1, 2, 4, 5])) print(is_monotonic([1, 1, 1]))
25.2
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6
889fe8b0ab8c7d14c0b182208802fe3f284a0f65
19
py
Python
__init__.py
dshirle7/euler
ee0ad73a9cc250674aa0cea30e4179aac1effccb
[ "MIT" ]
null
null
null
__init__.py
dshirle7/euler
ee0ad73a9cc250674aa0cea30e4179aac1effccb
[ "MIT" ]
null
null
null
__init__.py
dshirle7/euler
ee0ad73a9cc250674aa0cea30e4179aac1effccb
[ "MIT" ]
null
null
null
from euler import *
19
19
0.789474
3
19
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1
0
1
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0
6
ee46a36fef86f32bbc1b293dc0cfb73292b9aad8
11,645
py
Python
shard/src/ext/log_cog.py
architus/aut-bot
391b98533f0ed9ce235487c27559fe0aad037644
[ "MIT" ]
27
2019-07-06T07:04:26.000Z
2022-02-12T12:10:54.000Z
shard/src/ext/log_cog.py
architus/aut-bot
391b98533f0ed9ce235487c27559fe0aad037644
[ "MIT" ]
65
2019-07-06T07:12:45.000Z
2021-10-31T22:45:07.000Z
shard/src/ext/log_cog.py
architus/aut-bot
391b98533f0ed9ce235487c27559fe0aad037644
[ "MIT" ]
17
2019-07-06T06:59:04.000Z
2021-06-26T13:42:06.000Z
from discord.ext import commands from discord import ChannelType class LogCog(commands.Cog): def __init__(self, bot): self.bot = bot self.hoarfrost = bot.hoarfrost_gen @commands.Cog.listener() async def on_guild_update(self, before, after): await self.bot.emitter.emit( 'gateway.on_guild_update', { 'id': self.hoarfrost.generate(), 'guild_id': before.id, 'discord_object': before.id, 'private': False, 'reversible': False, # should be possible eventually 'action_number': 1, 'agent_id': None, 'subject_id': before.id, 'data': { 'before': { 'name': before.name, # ... }, 'after': { 'name': after.name, # ... }, }, } ) @commands.Cog.listener() async def on_guild_available(self, guild): await self.bot.emitter.emit( 'gateway.on_guild_available', { 'id': self.hoarfrost.generate(), 'guild_id': guild.id, 'discord_object': guild.id, 'private': False, 'reversible': False, 'action_number': -1, 'agent_id': None, 'subject_id': guild.id, 'data': { 'availible': True, }, } ) @commands.Cog.listener() async def on_guild_unavailable(self, guild): await self.bot.emitter.emit( 'gateway.on_guild_unavailable', { 'id': self.hoarfrost.generate(), 'guild_id': guild.id, 'discord_object': guild.id, 'private': False, 'reversible': False, 'action_number': -1, 'agent_id': None, 'subject_id': guild.id, 'data': { 'availible': False, }, } ) @commands.Cog.listener() async def on_guild_role_create(self, role): await self.bot.emitter.emit( 'gateway.on_guild_role_create', { 'id': self.hoarfrost.generate(), 'guild_id': role.guild.id, 'discord_object': role.id, 'private': False, 'reversible': False, # should be possible eventually 'action_number': 30, 'agent_id': None, 'subject_id': role.id, 'data': { 'name': role.name, # ... }, } ) @commands.Cog.listener() async def on_guild_role_delete(self, role): await self.bot.emitter.emit( 'gateway.on_guild_role_delete', { 'id': self.hoarfrost.generate(), 'guild_id': role.guild.id, 'discord_object': role.id, 'private': False, 'reversible': False, # should be possible eventually 'action_number': 32, 'agent_id': None, 'subject_id': role.id, 'data': { 'name': role.name, # ... }, } ) @commands.Cog.listener() async def on_guild_role_update(self, before, after): await self.bot.emitter.emit( 'gateway.on_guild_role_update', { 'id': self.hoarfrost.generate(), 'guild_id': before.guild.id, 'discord_object': before.id, 'private': False, 'reversible': False, # should be possible eventually 'action_number': 31, 'agent_id': None, 'subject_id': before.id, 'data': { 'before': { 'name': before.name, # ... }, 'after': { 'name': after.name, # ... }, }, } ) @commands.Cog.listener() async def on_guild_emojis_update(self, guild, before, after): pass @commands.Cog.listener() async def on_guild_channel_create(self, channel): await self.bot.emitter.emit( 'gateway.on_guild_channel_create', { 'id': self.hoarfrost.generate(), 'guild_id': channel.guild.id, 'discord_object': channel.id, 'private': False, 'reversible': False, # should be possible eventually 'action_number': 10, 'agent_id': None, 'subject_id': channel.id, 'data': { 'name': channel.name, # ... }, } ) @commands.Cog.listener() async def on_guild_channel_delete(self, channel): await self.bot.emitter.emit( 'gateway.on_guild_channel_delete', { 'id': self.hoarfrost.generate(), 'guild_id': channel.guild.id, 'discord_object': channel.id, 'private': False, 'reversible': False, # should be possible eventually 'action_number': 12, 'agent_id': None, 'subject_id': channel.id, 'data': { 'name': channel.name, # ... }, } ) @commands.Cog.listener() async def on_guild_channel_update(self, before, after): await self.bot.emitter.emit( 'gateway.on_guild_channel_update', { 'id': self.hoarfrost.generate(), 'guild_id': before.guild.id, 'discord_object': before.id, 'private': False, 'reversible': False, # should be possible eventually 'action_number': 11, 'agent_id': None, 'subject_id': before.id, 'data': { 'before': { 'name': before.name, # ... }, 'after': { 'name': after.name, # ... }, }, } ) @commands.Cog.listener() async def on_bulk_message_delete(self, messages): pass @commands.Cog.listener() async def on_message_edit(self, before, after): await self.bot.emitter.emit( 'gateway.on_message_edit', { 'id': self.hoarfrost.generate(), 'guild_id': before.guild.id, 'discord_object': before.id, 'private': False, 'reversible': False, 'action_number': 3002, 'agent_id': None, 'subject_id': before.id, 'data': { 'before': { 'content': before.content, # ... }, 'after': { 'content': after.content, # ... }, }, } ) @commands.Cog.listener() async def on_message(self, msg): await self.bot.emitter.emit( 'gateway.on_message', { 'id': self.hoarfrost.generate(), 'guild_id': msg.channel.guild.id, 'discord_object': msg.id, 'private': msg.channel.type == ChannelType.private, 'reversible': True, 'action_number': 3001, 'agent_id': msg.author.id, 'subject_id': msg.channel.id, 'data': { 'content': msg.content, 'created_at': msg.created_at.isoformat(), }, } ) @commands.Cog.listener() async def on_message_delete(self, msg): await self.bot.emitter.emit( 'gateway.on_message_delete', { 'id': self.hoarfrost.generate(), 'guild_id': msg.channel.guild.id, 'discord_object': msg.id, 'private': msg.channel.type == ChannelType.private, 'reversible': True, 'action_number': 3003, 'agent_id': msg.author.id, 'subject_id': msg.id, 'data': None, } ) @commands.Cog.listener() async def on_reaction_add(self, react, user): await self.bot.emitter.emit( 'gateway.on_reation_add', { 'id': self.hoarfrost.generate(), 'guild_id': react.message.channel.guild.id, 'discord_object': None, 'private': react.message.channel.type == ChannelType.private, 'reversible': True, 'action_number': 3100, 'agent_id': user.id, 'subject_id': react.message.id, 'data': { 'emoji': str(react.emoji), }, } ) @commands.Cog.listener() async def on_reaction_remove(self, react, user): await self.bot.emitter.emit( 'gateway.on_reation_remove', { 'id': self.hoarfrost.generate(), 'guild_id': react.message.channel.guild.id, 'discord_object': None, 'private': react.message.channel.type == ChannelType.private, 'reversible': False, 'action_number': 3101, 'agent_id': user.id, 'subject_id': react.message.id, 'data': { 'emoji': str(react.emoji), }, } ) @commands.Cog.listener() async def on_reaction_clear(self, msg, react): pass @commands.Cog.listener() async def on_webhooks_update(self, channel): pass @commands.Cog.listener() async def on_member_join(self, member): await self.bot.emitter.emit( 'gateway.on_member_join', { 'id': self.hoarfrost.generate(), 'guild_id': member.guild.id, 'discord_object': member.id, 'private': False, 'reversible': False, 'action_number': -1, 'agent_id': None, 'subject_id': member.id, 'data': { 'name': member.name, # ... }, } ) @commands.Cog.listener() async def on_member_remove(self, member): pass @commands.Cog.listener() async def on_member_update(self, before, after): pass @commands.Cog.listener() async def on_member_ban(self, guild, user): pass @commands.Cog.listener() async def on_member_unban(self, guild, user): pass @commands.Cog.listener() async def on_voice_state_update(self, member, before, after): pass def setup(bot): pass # bot.add_cog(LogCog(bot))
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ee4ea8af14aa875e203a1d3b7657948f660bd35d
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py
Python
ehr_functions/models/types/_base.py
fdabek1/EHR-Functions
e6bd0b6fa213930358c4a19be31c459ac7430ca9
[ "MIT" ]
null
null
null
ehr_functions/models/types/_base.py
fdabek1/EHR-Functions
e6bd0b6fa213930358c4a19be31c459ac7430ca9
[ "MIT" ]
null
null
null
ehr_functions/models/types/_base.py
fdabek1/EHR-Functions
e6bd0b6fa213930358c4a19be31c459ac7430ca9
[ "MIT" ]
null
null
null
class Model: def __init__(self, multiple_output=False): self.multiple_output = multiple_output def train(self, x, y): raise NotImplementedError def predict(self, x): raise NotImplementedError
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