hexsha
string
size
int64
ext
string
lang
string
max_stars_repo_path
string
max_stars_repo_name
string
max_stars_repo_head_hexsha
string
max_stars_repo_licenses
list
max_stars_count
int64
max_stars_repo_stars_event_min_datetime
string
max_stars_repo_stars_event_max_datetime
string
max_issues_repo_path
string
max_issues_repo_name
string
max_issues_repo_head_hexsha
string
max_issues_repo_licenses
list
max_issues_count
int64
max_issues_repo_issues_event_min_datetime
string
max_issues_repo_issues_event_max_datetime
string
max_forks_repo_path
string
max_forks_repo_name
string
max_forks_repo_head_hexsha
string
max_forks_repo_licenses
list
max_forks_count
int64
max_forks_repo_forks_event_min_datetime
string
max_forks_repo_forks_event_max_datetime
string
content
string
avg_line_length
float64
max_line_length
int64
alphanum_fraction
float64
qsc_code_num_words_quality_signal
int64
qsc_code_num_chars_quality_signal
float64
qsc_code_mean_word_length_quality_signal
float64
qsc_code_frac_words_unique_quality_signal
float64
qsc_code_frac_chars_top_2grams_quality_signal
float64
qsc_code_frac_chars_top_3grams_quality_signal
float64
qsc_code_frac_chars_top_4grams_quality_signal
float64
qsc_code_frac_chars_dupe_5grams_quality_signal
float64
qsc_code_frac_chars_dupe_6grams_quality_signal
float64
qsc_code_frac_chars_dupe_7grams_quality_signal
float64
qsc_code_frac_chars_dupe_8grams_quality_signal
float64
qsc_code_frac_chars_dupe_9grams_quality_signal
float64
qsc_code_frac_chars_dupe_10grams_quality_signal
float64
qsc_code_frac_chars_replacement_symbols_quality_signal
float64
qsc_code_frac_chars_digital_quality_signal
float64
qsc_code_frac_chars_whitespace_quality_signal
float64
qsc_code_size_file_byte_quality_signal
float64
qsc_code_num_lines_quality_signal
float64
qsc_code_num_chars_line_max_quality_signal
float64
qsc_code_num_chars_line_mean_quality_signal
float64
qsc_code_frac_chars_alphabet_quality_signal
float64
qsc_code_frac_chars_comments_quality_signal
float64
qsc_code_cate_xml_start_quality_signal
float64
qsc_code_frac_lines_dupe_lines_quality_signal
float64
qsc_code_cate_autogen_quality_signal
float64
qsc_code_frac_lines_long_string_quality_signal
float64
qsc_code_frac_chars_string_length_quality_signal
float64
qsc_code_frac_chars_long_word_length_quality_signal
float64
qsc_code_frac_lines_string_concat_quality_signal
float64
qsc_code_cate_encoded_data_quality_signal
float64
qsc_code_frac_chars_hex_words_quality_signal
float64
qsc_code_frac_lines_prompt_comments_quality_signal
float64
qsc_code_frac_lines_assert_quality_signal
float64
qsc_codepython_cate_ast_quality_signal
float64
qsc_codepython_frac_lines_func_ratio_quality_signal
float64
qsc_codepython_cate_var_zero_quality_signal
bool
qsc_codepython_frac_lines_pass_quality_signal
float64
qsc_codepython_frac_lines_import_quality_signal
float64
qsc_codepython_frac_lines_simplefunc_quality_signal
float64
qsc_codepython_score_lines_no_logic_quality_signal
float64
qsc_codepython_frac_lines_print_quality_signal
float64
qsc_code_num_words
int64
qsc_code_num_chars
int64
qsc_code_mean_word_length
int64
qsc_code_frac_words_unique
null
qsc_code_frac_chars_top_2grams
int64
qsc_code_frac_chars_top_3grams
int64
qsc_code_frac_chars_top_4grams
int64
qsc_code_frac_chars_dupe_5grams
int64
qsc_code_frac_chars_dupe_6grams
int64
qsc_code_frac_chars_dupe_7grams
int64
qsc_code_frac_chars_dupe_8grams
int64
qsc_code_frac_chars_dupe_9grams
int64
qsc_code_frac_chars_dupe_10grams
int64
qsc_code_frac_chars_replacement_symbols
int64
qsc_code_frac_chars_digital
int64
qsc_code_frac_chars_whitespace
int64
qsc_code_size_file_byte
int64
qsc_code_num_lines
int64
qsc_code_num_chars_line_max
int64
qsc_code_num_chars_line_mean
int64
qsc_code_frac_chars_alphabet
int64
qsc_code_frac_chars_comments
int64
qsc_code_cate_xml_start
int64
qsc_code_frac_lines_dupe_lines
int64
qsc_code_cate_autogen
int64
qsc_code_frac_lines_long_string
int64
qsc_code_frac_chars_string_length
int64
qsc_code_frac_chars_long_word_length
int64
qsc_code_frac_lines_string_concat
null
qsc_code_cate_encoded_data
int64
qsc_code_frac_chars_hex_words
int64
qsc_code_frac_lines_prompt_comments
int64
qsc_code_frac_lines_assert
int64
qsc_codepython_cate_ast
int64
qsc_codepython_frac_lines_func_ratio
int64
qsc_codepython_cate_var_zero
int64
qsc_codepython_frac_lines_pass
int64
qsc_codepython_frac_lines_import
int64
qsc_codepython_frac_lines_simplefunc
int64
qsc_codepython_score_lines_no_logic
int64
qsc_codepython_frac_lines_print
int64
effective
string
hits
int64
e231e1eaa7ce384f59537a65dbeac3fb63856ca5
253
py
Python
python_scripts_experiment/textprocess/line_to_dn.py
erc-dharma/tfd-sanskrit-philology
f4970fddc4583a9b950c6ba7331f4f7e0267b7fb
[ "CC-BY-4.0" ]
1
2022-03-27T15:45:47.000Z
2022-03-27T15:45:47.000Z
python_scripts_experiment/textprocess/line_to_dn.py
erc-dharma/tfd-sanskrit-philology
f4970fddc4583a9b950c6ba7331f4f7e0267b7fb
[ "CC-BY-4.0" ]
null
null
null
python_scripts_experiment/textprocess/line_to_dn.py
erc-dharma/tfd-sanskrit-philology
f4970fddc4583a9b950c6ba7331f4f7e0267b7fb
[ "CC-BY-4.0" ]
null
null
null
from textprocess import simpletxtdn_line def line_to_dn(line): """ Just print out one line of Skt in Unicode converted to Devanagari """ print(simpletxtdn_line.simpletxtdn_line(line)) return simpletxtdn_line.simpletxtdn_line(line)
25.3
69
0.754941
34
253
5.411765
0.558824
0.407609
0.282609
0.326087
0.369565
0
0
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0
0
0
0
0.177866
253
9
70
28.111111
0.884615
0.256917
0
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0.25
false
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0.25
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0.75
0.25
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1
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0
0
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1
0
0
6
e23a039671ae5f2db4d5f3c3aa1c3b08c7d90d41
14,683
py
Python
src/fiesta/apps/base/migrations/0001_initial.py
lerooze/django-fiesta
d521f50bcdd3d40e91f0474ec2fa7e256758e0a5
[ "BSD-3-Clause" ]
null
null
null
src/fiesta/apps/base/migrations/0001_initial.py
lerooze/django-fiesta
d521f50bcdd3d40e91f0474ec2fa7e256758e0a5
[ "BSD-3-Clause" ]
3
2019-10-29T23:31:01.000Z
2020-03-31T03:08:28.000Z
src/fiesta/apps/base/migrations/0001_initial.py
lerooze/django-fiesta
d521f50bcdd3d40e91f0474ec2fa7e256758e0a5
[ "BSD-3-Clause" ]
null
null
null
# Generated by Django 3.0b1 on 2019-10-29 18:12 import django.contrib.auth.models import django.contrib.auth.validators import django.core.validators from django.db import migrations, models import django.db.models.deletion import django.utils.timezone import re import versionfield class Migration(migrations.Migration): initial = True dependencies = [ ] operations = [ migrations.CreateModel( name='User', fields=[ ('id', models.AutoField(auto_created=True, primary_key=True, serialize=False, verbose_name='ID')), ('password', models.CharField(max_length=128, verbose_name='password')), ('last_login', models.DateTimeField(blank=True, null=True, verbose_name='last login')), ('is_superuser', models.BooleanField(default=False, help_text='Designates that this user has all permissions without explicitly assigning them.', verbose_name='superuser status')), ('username', models.CharField(error_messages={'unique': 'A user with that username already exists.'}, help_text='Required. 150 characters or fewer. Letters, digits and @/./+/-/_ only.', max_length=150, unique=True, validators=[django.contrib.auth.validators.UnicodeUsernameValidator()], verbose_name='username')), ('first_name', models.CharField(blank=True, max_length=30, verbose_name='first name')), ('last_name', models.CharField(blank=True, max_length=150, verbose_name='last name')), ('email', models.EmailField(blank=True, max_length=254, verbose_name='email address')), ('is_staff', models.BooleanField(default=False, help_text='Designates whether the user can log into this admin site.', verbose_name='staff status')), ('is_active', models.BooleanField(default=True, help_text='Designates whether this user should be treated as active. Unselect this instead of deleting accounts.', verbose_name='active')), ('date_joined', models.DateTimeField(default=django.utils.timezone.now, verbose_name='date joined')), ], options={ 'verbose_name': 'User', 'verbose_name_plural': 'Users', 'abstract': False, }, managers=[ ('objects', django.contrib.auth.models.UserManager()), ], ), migrations.CreateModel( name='Agency', fields=[ ('id', models.AutoField(auto_created=True, primary_key=True, serialize=False, verbose_name='ID')), ('object_id', models.CharField(blank=True, db_index=True, max_length=31, validators=[django.core.validators.RegexValidator(re.compile('[A-Za-z][A-Za-z0-9_\\-]*(\\.[A-Za-z][A-Za-z0-9_\\-]*)*'), 'Enter a value of type NestedNCNameIDType that has pattern "([A-Za-z][A-Za-z0-9_\\-]*(\\.[A-Za-z][A-Za-z0-9_\\-]*)*)"', 'invalid_pattern')], verbose_name='ID')), ('name', models.CharField(blank=True, max_length=127, verbose_name='Name')), ('name_en', models.CharField(blank=True, max_length=127, null=True, verbose_name='Name')), ('name_el', models.CharField(blank=True, max_length=127, null=True, verbose_name='Name')), ('description', models.CharField(blank=True, max_length=511, verbose_name='Description')), ('description_en', models.CharField(blank=True, max_length=511, null=True, verbose_name='Description')), ('description_el', models.CharField(blank=True, max_length=511, null=True, verbose_name='Description')), ], options={ 'verbose_name': 'Agency', 'verbose_name_plural': 'Agencies', 'abstract': False, }, ), migrations.CreateModel( name='Annotation', fields=[ ('id', models.AutoField(auto_created=True, primary_key=True, serialize=False, verbose_name='ID')), ('object_id', models.CharField(blank=True, max_length=31, verbose_name='ID')), ('annotation_title', models.CharField(blank=True, max_length=127, verbose_name='title')), ('annotation_type', models.CharField(blank=True, max_length=31, verbose_name='type')), ('annotation_url', models.URLField(blank=True, verbose_name='URL')), ('text', models.TextField(blank=True, verbose_name='Text')), ('text_en', models.TextField(blank=True, null=True, verbose_name='Text')), ('text_el', models.TextField(blank=True, null=True, verbose_name='Text')), ], options={ 'abstract': False, }, ), migrations.CreateModel( name='DataConsumer', fields=[ ('id', models.AutoField(auto_created=True, primary_key=True, serialize=False, verbose_name='ID')), ('name', models.CharField(blank=True, max_length=127, verbose_name='Name')), ('name_en', models.CharField(blank=True, max_length=127, null=True, verbose_name='Name')), ('name_el', models.CharField(blank=True, max_length=127, null=True, verbose_name='Name')), ('description', models.CharField(blank=True, max_length=511, verbose_name='Description')), ('description_en', models.CharField(blank=True, max_length=511, null=True, verbose_name='Description')), ('description_el', models.CharField(blank=True, max_length=511, null=True, verbose_name='Description')), ('object_id', models.CharField(db_index=True, max_length=31, validators=[django.core.validators.RegexValidator(re.compile('^[A-Za-z0-9_@$\\-]+$'), 'Enter a value of type IDType that has pattern "(^[A-Za-z0-9_@$\\-]+$)"', 'invalid_pattern')], verbose_name='ID')), ], options={ 'verbose_name': 'Data consumer', 'verbose_name_plural': 'Data consumers', 'ordering': ['container', 'object_id'], 'abstract': False, }, ), migrations.CreateModel( name='DataConsumerScheme', fields=[ ('id', models.AutoField(auto_created=True, primary_key=True, serialize=False, verbose_name='ID')), ('name', models.CharField(blank=True, max_length=127, verbose_name='Name')), ('name_en', models.CharField(blank=True, max_length=127, null=True, verbose_name='Name')), ('name_el', models.CharField(blank=True, max_length=127, null=True, verbose_name='Name')), ('description', models.CharField(blank=True, max_length=511, verbose_name='Description')), ('description_en', models.CharField(blank=True, max_length=511, null=True, verbose_name='Description')), ('description_el', models.CharField(blank=True, max_length=511, null=True, verbose_name='Description')), ('version', versionfield.VersionField(default='1.0')), ('valid_from', models.DateTimeField(blank=True, null=True, verbose_name='Valid from')), ('valid_to', models.DateTimeField(blank=True, null=True, verbose_name='Valid to')), ('object_id', models.CharField(db_index=True, max_length=31, validators=[django.core.validators.RegexValidator(re.compile('^[A-Za-z0-9_@$\\-]+$'), 'Enter a value of type IDType that has pattern "(^[A-Za-z0-9_@$\\-]+$)"', 'invalid_pattern')], verbose_name='ID')), ('is_final', models.BooleanField(default=False, verbose_name='Is final')), ], options={ 'verbose_name': 'Data consumer scheme', 'verbose_name_plural': 'Data consumer schemes', 'ordering': ['agency', 'object_id', '-version'], 'abstract': False, }, ), migrations.CreateModel( name='DataProvider', fields=[ ('id', models.AutoField(auto_created=True, primary_key=True, serialize=False, verbose_name='ID')), ('name', models.CharField(blank=True, max_length=127, verbose_name='Name')), ('name_en', models.CharField(blank=True, max_length=127, null=True, verbose_name='Name')), ('name_el', models.CharField(blank=True, max_length=127, null=True, verbose_name='Name')), ('description', models.CharField(blank=True, max_length=511, verbose_name='Description')), ('description_en', models.CharField(blank=True, max_length=511, null=True, verbose_name='Description')), ('description_el', models.CharField(blank=True, max_length=511, null=True, verbose_name='Description')), ('object_id', models.CharField(db_index=True, max_length=31, validators=[django.core.validators.RegexValidator(re.compile('^[A-Za-z0-9_@$\\-]+$'), 'Enter a value of type IDType that has pattern "(^[A-Za-z0-9_@$\\-]+$)"', 'invalid_pattern')], verbose_name='ID')), ], options={ 'verbose_name': 'Data provider', 'verbose_name_plural': 'Data providers', 'ordering': ['container', 'object_id'], 'abstract': False, }, ), migrations.CreateModel( name='DataProviderScheme', fields=[ ('id', models.AutoField(auto_created=True, primary_key=True, serialize=False, verbose_name='ID')), ('name', models.CharField(blank=True, max_length=127, verbose_name='Name')), ('name_en', models.CharField(blank=True, max_length=127, null=True, verbose_name='Name')), ('name_el', models.CharField(blank=True, max_length=127, null=True, verbose_name='Name')), ('description', models.CharField(blank=True, max_length=511, verbose_name='Description')), ('description_en', models.CharField(blank=True, max_length=511, null=True, verbose_name='Description')), ('description_el', models.CharField(blank=True, max_length=511, null=True, verbose_name='Description')), ('version', versionfield.VersionField(default='1.0')), ('valid_from', models.DateTimeField(blank=True, null=True, verbose_name='Valid from')), ('valid_to', models.DateTimeField(blank=True, null=True, verbose_name='Valid to')), ('object_id', models.CharField(db_index=True, max_length=31, validators=[django.core.validators.RegexValidator(re.compile('^[A-Za-z0-9_@$\\-]+$'), 'Enter a value of type IDType that has pattern "(^[A-Za-z0-9_@$\\-]+$)"', 'invalid_pattern')], verbose_name='ID')), ('is_final', models.BooleanField(default=False, verbose_name='Is final')), ], options={ 'verbose_name': 'Data provider scheme', 'verbose_name_plural': 'Data provider schemes', 'ordering': ['agency', 'object_id', '-version'], 'abstract': False, }, ), migrations.CreateModel( name='OrganisationUnit', fields=[ ('id', models.AutoField(auto_created=True, primary_key=True, serialize=False, verbose_name='ID')), ('path', models.CharField(max_length=255, unique=True)), ('depth', models.PositiveIntegerField()), ('numchild', models.PositiveIntegerField(default=0)), ('name', models.CharField(blank=True, max_length=127, verbose_name='Name')), ('name_en', models.CharField(blank=True, max_length=127, null=True, verbose_name='Name')), ('name_el', models.CharField(blank=True, max_length=127, null=True, verbose_name='Name')), ('description', models.CharField(blank=True, max_length=511, verbose_name='Description')), ('description_en', models.CharField(blank=True, max_length=511, null=True, verbose_name='Description')), ('description_el', models.CharField(blank=True, max_length=511, null=True, verbose_name='Description')), ('object_id', models.CharField(db_index=True, max_length=31, validators=[django.core.validators.RegexValidator(re.compile('^[A-Za-z0-9_@$\\-]+$'), 'Enter a value of type IDType that has pattern "(^[A-Za-z0-9_@$\\-]+$)"', 'invalid_pattern')], verbose_name='ID')), ], options={ 'verbose_name': 'Organisation unit', 'verbose_name_plural': 'Organisation units', 'ordering': ['container', 'object_id'], 'abstract': False, }, ), migrations.CreateModel( name='OrganisationUnitScheme', fields=[ ('id', models.AutoField(auto_created=True, primary_key=True, serialize=False, verbose_name='ID')), ('name', models.CharField(blank=True, max_length=127, verbose_name='Name')), ('name_en', models.CharField(blank=True, max_length=127, null=True, verbose_name='Name')), ('name_el', models.CharField(blank=True, max_length=127, null=True, verbose_name='Name')), ('description', models.CharField(blank=True, max_length=511, verbose_name='Description')), ('description_en', models.CharField(blank=True, max_length=511, null=True, verbose_name='Description')), ('description_el', models.CharField(blank=True, max_length=511, null=True, verbose_name='Description')), ('version', versionfield.VersionField(default='1.0')), ('valid_from', models.DateTimeField(blank=True, null=True, verbose_name='Valid from')), ('valid_to', models.DateTimeField(blank=True, null=True, verbose_name='Valid to')), ('object_id', models.CharField(db_index=True, max_length=31, validators=[django.core.validators.RegexValidator(re.compile('^[A-Za-z0-9_@$\\-]+$'), 'Enter a value of type IDType that has pattern "(^[A-Za-z0-9_@$\\-]+$)"', 'invalid_pattern')], verbose_name='ID')), ('is_final', models.BooleanField(default=False, verbose_name='Is final')), ('agency', models.ForeignKey(on_delete=django.db.models.deletion.PROTECT, to='base.Agency', verbose_name='Agency')), ], options={ 'verbose_name': 'Organisation unit scheme', 'verbose_name_plural': 'Organisation unit schemes', 'ordering': ['agency', 'object_id', '-version'], 'abstract': False, }, ), ]
69.919048
370
0.60696
1,607
14,683
5.368388
0.114499
0.128782
0.082879
0.133534
0.776168
0.746841
0.746841
0.727136
0.716008
0.66628
0
0.019646
0.233876
14,683
209
371
70.253589
0.747266
0.003065
0
0.643564
1
0.009901
0.230459
0.018994
0
0
0
0
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1
0
false
0.004951
0.039604
0
0.059406
0
0
0
0
null
0
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1
1
1
1
1
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null
0
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0
0
0
0
0
0
0
0
6
e245722f9563a56a0e406609674278f6d30f4d1a
39
py
Python
login_register/forms.py
imranparuk/whether-the-weather
347f3fe97975a6980a37cc60f32e65fdb04a89c6
[ "MIT" ]
null
null
null
login_register/forms.py
imranparuk/whether-the-weather
347f3fe97975a6980a37cc60f32e65fdb04a89c6
[ "MIT" ]
1
2020-06-05T18:25:45.000Z
2020-06-05T18:25:45.000Z
login_register/forms.py
imranparuk/whether-the-weather
347f3fe97975a6980a37cc60f32e65fdb04a89c6
[ "MIT" ]
null
null
null
import django from django import forms
13
24
0.846154
6
39
5.5
0.666667
0
0
0
0
0
0
0
0
0
0
0
0.153846
39
2
25
19.5
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
e25bb55cc2f1c6184c56669c6989c8b8fc135b40
32
py
Python
src/Enigma/__init__.py
vtarale/Chat
faa6b2168eb014d399a41b5c86a67edf57476819
[ "MIT" ]
1
2022-03-03T04:13:56.000Z
2022-03-03T04:13:56.000Z
src/Enigma/__init__.py
vtarale/Chat
faa6b2168eb014d399a41b5c86a67edf57476819
[ "MIT" ]
null
null
null
src/Enigma/__init__.py
vtarale/Chat
faa6b2168eb014d399a41b5c86a67edf57476819
[ "MIT" ]
null
null
null
print("Thanks for using Enigma")
32
32
0.78125
5
32
5
1
0
0
0
0
0
0
0
0
0
0
0
0.09375
32
1
32
32
0.862069
0
0
0
0
0
0.69697
0
0
0
0
0
0
1
0
true
0
0
0
0
1
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
1
0
null
0
0
0
0
0
0
1
0
0
0
0
1
0
6
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py
Python
venv/lib/python3.8/site-packages/pip/_vendor/html5lib/treebuilders/__init__.py
GiulianaPola/select_repeats
17a0d053d4f874e42cf654dd142168c2ec8fbd11
[ "MIT" ]
2
2022-03-13T01:58:52.000Z
2022-03-31T06:07:54.000Z
venv/lib/python3.8/site-packages/pip/_vendor/html5lib/treebuilders/__init__.py
DesmoSearch/Desmobot
b70b45df3485351f471080deb5c785c4bc5c4beb
[ "MIT" ]
19
2021-11-20T04:09:18.000Z
2022-03-23T15:05:55.000Z
venv/lib/python3.8/site-packages/pip/_vendor/html5lib/treebuilders/__init__.py
DesmoSearch/Desmobot
b70b45df3485351f471080deb5c785c4bc5c4beb
[ "MIT" ]
null
null
null
/home/runner/.cache/pip/pool/03/2b/12/272bcf7e290230cb1356f6b1c2480389e10b0f975f47c149200baaee16
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e28b779dcc50cf0e44cf7eac42348d0171a1cacc
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py
Python
src/domain/errors/invalid_image_path_failure.py
OzielFilho/ProjetoFinalPdi
c9e6fe415f1a985d6eeac204580d3ab623026665
[ "MIT" ]
null
null
null
src/domain/errors/invalid_image_path_failure.py
OzielFilho/ProjetoFinalPdi
c9e6fe415f1a985d6eeac204580d3ab623026665
[ "MIT" ]
null
null
null
src/domain/errors/invalid_image_path_failure.py
OzielFilho/ProjetoFinalPdi
c9e6fe415f1a985d6eeac204580d3ab623026665
[ "MIT" ]
null
null
null
from domain.errors.image_failure import ImageFailure class InvalidImagePathFailure(ImageFailure): pass
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py
Python
tests/datetime/test_start_end_of.py
Sn3akyP3t3/pendulum
7ce170bdc64199d74e09e347402983f1bb015f63
[ "MIT" ]
2
2021-11-08T02:45:29.000Z
2021-11-08T09:41:03.000Z
tests/datetime/test_start_end_of.py
Sn3akyP3t3/pendulum
7ce170bdc64199d74e09e347402983f1bb015f63
[ "MIT" ]
null
null
null
tests/datetime/test_start_end_of.py
Sn3akyP3t3/pendulum
7ce170bdc64199d74e09e347402983f1bb015f63
[ "MIT" ]
1
2019-01-26T17:42:15.000Z
2019-01-26T17:42:15.000Z
import pendulum import pytest from ..conftest import assert_datetime def test_start_of_second(): d = pendulum.now() new = d.start_of('second') assert isinstance(new, pendulum.DateTime) assert_datetime(new, d.year, d.month, d.day, d.hour, d.minute, d.second, 0) def test_end_of_second(): d = pendulum.now() new = d.end_of('second') assert isinstance(new, pendulum.DateTime) assert_datetime(new, d.year, d.month, d.day, d.hour, d.minute, d.second, 999999) def test_start_of_minute(): d = pendulum.now() new = d.start_of('minute') assert isinstance(new, pendulum.DateTime) assert_datetime(new, d.year, d.month, d.day, d.hour, d.minute, 0, 0) def test_end_of_minute(): d = pendulum.now() new = d.end_of('minute') assert isinstance(new, pendulum.DateTime) assert_datetime(new, d.year, d.month, d.day, d.hour, d.minute, 59, 999999) def test_start_of_hour(): d = pendulum.now() new = d.start_of('hour') assert isinstance(new, pendulum.DateTime) assert_datetime(new, d.year, d.month, d.day, d.hour, 0, 0, 0) def test_end_of_hour(): d = pendulum.now() new = d.end_of('hour') assert isinstance(new, pendulum.DateTime) assert_datetime(new, d.year, d.month, d.day, d.hour, 59, 59, 999999) def test_start_of_day(): d = pendulum.now() new = d.start_of('day') assert isinstance(new, pendulum.DateTime) assert_datetime(new, d.year, d.month, d.day, 0, 0, 0, 0) def test_end_of_day(): d = pendulum.now() new = d.end_of('day') assert isinstance(new, pendulum.DateTime) assert_datetime(new, d.year, d.month, d.day, 23, 59, 59, 999999) def test_start_of_month_is_fluid(): d = pendulum.now() assert isinstance(d.start_of('month'), pendulum.DateTime) def test_start_of_month_from_now(): d = pendulum.now() new = d.start_of('month') assert_datetime(new, d.year, d.month, 1, 0, 0, 0, 0) def test_start_of_month_from_last_day(): d = pendulum.datetime(2000, 1, 31, 2, 3, 4) new = d.start_of('month') assert_datetime(new, 2000, 1, 1, 0, 0, 0, 0) def test_start_of_year_is_fluid(): d = pendulum.now() new = d.start_of('year') assert isinstance(new, pendulum.DateTime) def test_start_of_year_from_now(): d = pendulum.now() new = d.start_of('year') assert_datetime(new, d.year, 1, 1, 0, 0, 0, 0) def test_start_of_year_from_first_day(): d = pendulum.datetime(2000, 1, 1, 1, 1, 1) new = d.start_of('year') assert_datetime(new, 2000, 1, 1, 0, 0, 0, 0) def test_start_of_year_from_last_day(): d = pendulum.datetime(2000, 12, 31, 23, 59, 59) new = d.start_of('year') assert_datetime(new, 2000, 1, 1, 0, 0, 0, 0) def test_end_of_month_is_fluid(): d = pendulum.now() assert isinstance(d.end_of('month'), pendulum.DateTime) def test_end_of_month(): d = pendulum.datetime(2000, 1, 1, 2, 3, 4).end_of('month') new = d.end_of('month') assert_datetime(new, 2000, 1, 31, 23, 59, 59) def test_end_of_month_from_last_day(): d = pendulum.datetime(2000, 1, 31, 2, 3, 4) new = d.end_of('month') assert_datetime(new, 2000, 1, 31, 23, 59, 59) def test_end_of_year_is_fluid(): d = pendulum.now() assert isinstance(d.end_of('year'), pendulum.DateTime) def test_end_of_year_from_now(): d = pendulum.now().end_of('year') new = d.end_of('year') assert_datetime(new, d.year, 12, 31, 23, 59, 59, 999999) def test_end_of_year_from_first_day(): d = pendulum.datetime(2000, 1, 1, 1, 1, 1) new = d.end_of('year') assert_datetime(new, 2000, 12, 31, 23, 59, 59, 999999) def test_end_of_year_from_last_day(): d = pendulum.datetime(2000, 12, 31, 23, 59, 59, 999999) new = d.end_of('year') assert_datetime(new, 2000, 12, 31, 23, 59, 59, 999999) def test_start_of_decade_is_fluid(): d = pendulum.now() assert isinstance(d.start_of('decade'), pendulum.DateTime) def test_start_of_decade_from_now(): d = pendulum.now() new = d.start_of('decade') assert_datetime(new, d.year - d.year % 10, 1, 1, 0, 0, 0, 0) def test_start_of_decade_from_first_day(): d = pendulum.datetime(2000, 1, 1, 1, 1, 1) new = d.start_of('decade') assert_datetime(new, 2000, 1, 1, 0, 0, 0, 0) def test_start_of_decade_from_last_day(): d = pendulum.datetime(2009, 12, 31, 23, 59, 59) new = d.start_of('decade') assert_datetime(new, 2000, 1, 1, 0, 0, 0, 0) def test_end_of_decade_is_fluid(): d = pendulum.now() assert isinstance(d.end_of('decade'), pendulum.DateTime) def test_end_of_decade_from_now(): d = pendulum.now() new = d.end_of('decade') assert_datetime(new, d.year - d.year % 10 + 9, 12, 31, 23, 59, 59, 999999) def test_end_of_decade_from_first_day(): d = pendulum.datetime(2000, 1, 1, 1, 1, 1) new = d.end_of('decade') assert_datetime(new, 2009, 12, 31, 23, 59, 59, 999999) def test_end_of_decade_from_last_day(): d = pendulum.datetime(2009, 12, 31, 23, 59, 59, 999999) new = d.end_of('decade') assert_datetime(new, 2009, 12, 31, 23, 59, 59, 999999) def test_start_of_century_is_fluid(): d = pendulum.now() assert isinstance(d.start_of('century'), pendulum.DateTime) def test_start_of_century_from_now(): d = pendulum.now() new = d.start_of('century') assert_datetime(new, d.year - d.year % 100 + 1, 1, 1, 0, 0, 0, 0) def test_start_of_century_from_first_day(): d = pendulum.datetime(2001, 1, 1, 1, 1, 1) new = d.start_of('century') assert_datetime(new, 2001, 1, 1, 0, 0, 0, 0) def test_start_of_century_from_last_day(): d = pendulum.datetime(2100, 12, 31, 23, 59, 59) new = d.start_of('century') assert_datetime(new, 2001, 1, 1, 0, 0, 0, 0) def test_end_of_century_is_fluid(): d = pendulum.now() assert isinstance(d.end_of('century'), pendulum.DateTime) def test_end_of_century_from_now(): now = pendulum.now() d = now.end_of('century') assert_datetime(d, now.year - now.year % 100 + 100, 12, 31, 23, 59, 59, 999999) def test_end_of_century_from_first_day(): d = pendulum.datetime(2001, 1, 1, 1, 1, 1) new = d.end_of('century') assert_datetime(new, 2100, 12, 31, 23, 59, 59, 999999) def test_end_of_century_from_last_day(): d = pendulum.datetime(2100, 12, 31, 23, 59, 59, 999999) new = d.end_of('century') assert_datetime(new, 2100, 12, 31, 23, 59, 59, 999999) def test_average_is_fluid(): d = pendulum.now().average() assert isinstance(d, pendulum.DateTime) def test_average_from_same(): d1 = pendulum.datetime(2000, 1, 31, 2, 3, 4) d2 = pendulum.datetime(2000, 1, 31, 2, 3, 4).average(d1) assert_datetime(d2, 2000, 1, 31, 2, 3, 4) def test_average_from_greater(): d1 = pendulum.datetime(2000, 1, 1, 1, 1, 1, tz='local') d2 = pendulum.datetime(2009, 12, 31, 23, 59, 59, tz='local').average(d1) assert_datetime(d2, 2004, 12, 31, 12, 30, 30) def test_average_from_lower(): d1 = pendulum.datetime(2009, 12, 31, 23, 59, 59, tz='local') d2 = pendulum.datetime(2000, 1, 1, 1, 1, 1, tz='local').average(d1) assert_datetime(d2, 2004, 12, 31, 12, 30, 30) def start_of_with_invalid_unit(): with pytest.raises(ValueError): pendulum.now().start_of('invalid') def end_of_with_invalid_unit(): with pytest.raises(ValueError): pendulum.now().end_of('invalid') def test_start_of_with_transition(): d = pendulum.datetime(2013, 10, 27, 23, 59, 59, tz='Europe/Paris') assert d.offset == 3600 assert d.start_of('month').offset == 7200 assert d.start_of('day').offset == 7200 assert d.start_of('year').offset == 3600 def test_end_of_with_transition(): d = pendulum.datetime(2013, 3, 31, tz='Europe/Paris') assert d.offset == 3600 assert d.end_of('month').offset == 7200 assert d.end_of('day').offset == 7200 assert d.end_of('year').offset == 3600
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6
2c8ad69e07c20d0ebb68cce253756251749e7edf
31,164
py
Python
hostel.py
RisinPhoenix12/Hostel-Management-Database
9c38323ede65f80a036525e488659256bef2052c
[ "MIT" ]
1
2021-07-24T14:12:45.000Z
2021-07-24T14:12:45.000Z
hostel.py
RisinPhoenix12/Hostel-Management-Database
9c38323ede65f80a036525e488659256bef2052c
[ "MIT" ]
null
null
null
hostel.py
RisinPhoenix12/Hostel-Management-Database
9c38323ede65f80a036525e488659256bef2052c
[ "MIT" ]
null
null
null
import tkinter as tk import mysql.connector from tkinter import * from tkinter import ttk class hostels: def __init__(self,root): self.root=root self.root.geometry('500x500') self.root.title('Hostel Management') b1 = Button(self.root, text="Student",width=20,height=5,bg='#abcfd9', command=self.istud) b2 = Button(self.root, text="Employee",width=20,height=5,bg='#abcfd9', command=self.iemp) b3 = Button(self.root, text="Complaint",width=20,height=5,bg='#abcfd9', command=self.icomp) b4 = Button(self.root, text="Gate Record",width=20,height=5,bg='#abcfd9', command=self.igr) b1.place(anchor=CENTER,relx=0.3,rely=0.3) b2.place(anchor=CENTER,relx=0.7,rely=0.3) b3.place(anchor=CENTER,relx=0.3,rely=0.6) b4.place(anchor=CENTER,relx=0.7,rely=0.6) config = { 'user': 'root', 'password': 'qwerty1234', 'host': 'localhost', 'database': 'hosteldb', 'raise_on_warnings': True, } self.cnx = mysql.connector.connect(**config) self.root.mainloop() #################### STUDENT #################### def istud(self): def add_stud(): name=f1.get() rn=f2.get() dob=f3.get() g=f4.get() add=f5.get() mbno=f6.get() yr=f7.get() br=f8.get() hid=f9.get() ft=f10.get() rm=f11.get() c=self.cnx.cursor() c.execute('INSERT INTO `student` VALUES(%s,%s,%s,%s,%s,%s,%s,%s,%s,%s,%s)', (name,rn,dob,g,add,mbno,yr,br,hid,ft,rm)) c.close() self.cnx.commit() def search_stud(): if (len(f1.get())!=0): nm=f1.get() # print(nm) c=self.cnx.cursor() q="SELECT * FROM STUDENT WHERE name='"+nm+"';" c.execute(q) f=c.fetchall() for i in tree.get_children(): tree.delete(i) for i in range(len(f)): tree.insert(parent='',index='end',iid=i,text='',values=f[i]) nw.mainloop() elif(len(f2.get())!=0): nm=f2.get() # print(nm) c=self.cnx.cursor() q="SELECT * FROM STUDENT WHERE roll_no="+nm+";" c.execute(q) f=c.fetchall() for i in tree.get_children(): tree.delete(i) for i in range(len(f)): tree.insert(parent='',index='end',iid=i,text='',values=f[i]) nw.mainloop() elif(len(f9.get())!=0): nm=f9.get() # print(nm) c=self.cnx.cursor() q="SELECT * FROM STUDENT WHERE hostel_id="+nm+";" c.execute(q) f=c.fetchall() for i in tree.get_children(): tree.delete(i) for i in range(len(f)): tree.insert(parent='',index='end',iid=i,text='',values=f[i]) nw.mainloop() def show_stud(): if (len(f12.get())==0): c=self.cnx.cursor() c.execute("SELECT * FROM student") f=c.fetchall() for i in tree.get_children(): tree.delete(i) for i in range(len(f)): tree.insert(parent='',index='end',iid=i,text='',values=f[i]) nw.mainloop() elif(f12.get()=='Yes'): c=self.cnx.cursor() c.execute("SELECT * FROM failed_student") f=c.fetchall() for i in tree.get_children(): tree.delete(i) for i in range(len(f)): tree.insert(parent='',index='end',iid=i,text='',values=f[i]) nw.mainloop() def update_stud(): if(f12.get()=='Yes'): rn=f2.get() c=self.cnx.cursor() c.callproc("fail",(rn,)) c.close() self.cnx.commit() elif(f12.get()=="No"): c=self.cnx.cursor() c.callproc("forward",(1,)) c.close() self.cnx.commit() def clear_stud(): for i in tree.get_children(): tree.delete(i) l=[f1,f2,f3,f4,f5,f6,f7,f8,f9,f10,f11] for i in l: i.delete(0,END) def delete_stud(): rn=f2.get() c=self.cnx.cursor() q="DELETE FROM STUDENT WHERE roll_no="+rn+";" c.execute(q) c.close() self.cnx.commit() def getvalue(event): l=[f1,f2,f3,f4,f5,f6,f7,f8,f9,f10,f11] for i in l: i.delete(0,END) s=tree.selection() #print(s) # l1=[] a=tree.item(s) #print(a) l1=a['values'] #print(l1) for i in range(len(l)): l[i].insert(0,l1[i]) #New window nw=tk.Tk() nw.geometry('750x750') nw.title("Student") upperframe=Frame(nw,width=500,bd=5,height=80) lowerframe=Frame(nw,width=200,bd=5,height=445) upperframe.pack(side=TOP,fill=BOTH,expand=TRUE) lowerframe.pack(side=TOP,fill=BOTH,expand=TRUE) #Tree tree=ttk.Treeview(lowerframe) tree.pack(side=TOP) tree['columns']=("name","roll_no","dob","gender","address","contact_no","year","branch","hostel_id","flat","room") tree.column("#0",width=0) tree.column("name",anchor=CENTER,width="120") tree.column("roll_no",anchor=CENTER,width="100") tree.column("dob",anchor=CENTER,width="100") tree.column("gender",anchor=CENTER,width="100") tree.column("address",anchor=CENTER,width="120") tree.column("contact_no",anchor=CENTER,width="100") tree.column("year",anchor=CENTER,width="100") tree.column("branch",anchor=CENTER,width="100") tree.column("hostel_id",anchor=CENTER,width="100") tree.column("flat",anchor=CENTER,width="80") tree.column("room",anchor=CENTER,width="120") tree.heading("#0",text='') tree.heading("name",text="Name",anchor=CENTER) tree.heading("roll_no",text="Roll No",anchor=CENTER) tree.heading("dob",text="DOB",anchor=CENTER) tree.heading("gender",text="Gender",anchor=CENTER) tree.heading("address",text="Address",anchor=CENTER) tree.heading("contact_no",text="Contact No",anchor=CENTER) tree.heading("year",text="Year",anchor=CENTER) tree.heading("branch",text="Branch",anchor=CENTER) tree.heading("hostel_id",text="Hostel ID",anchor=CENTER) tree.heading("flat",text="Flat",anchor=CENTER) tree.heading("room",text="Room",anchor=CENTER) #tree.insert(parent='',index='end',iid=0,text='',values=('a',1,'1990-01-01','f','a',1,'1','cse',1,101,'a')) tree.bind('<Double-Button-1>',getvalue) #labels label1 = tk.Label(upperframe, text="Name: ") label2 = tk.Label(upperframe, text="Roll no: ") label3 = tk.Label(upperframe, text="DOB: ") label4 = tk.Label(upperframe,text="Gender:") label5 = tk.Label(upperframe,text="Address:") label6 = tk.Label(upperframe,text="Contact number:") label7 = tk.Label(upperframe,text="Year:") label8 = tk.Label(upperframe, text="Branch:") label9 = tk.Label(upperframe,text="Hostel ID:") label10 = tk.Label(upperframe,text="Flat:") label11 = tk.Label(upperframe,text="Room:") label12 = tk.Label(upperframe,text="Fail*:") #entries f1 = tk.Entry(upperframe) f2 = tk.Entry(upperframe) f3 = tk.Entry(upperframe) f4 = tk.Entry(upperframe) f5 = tk.Entry(upperframe) f6 = tk.Entry(upperframe) f7 = tk.Entry(upperframe) f8 = tk.Entry(upperframe) f9 = tk.Entry(upperframe) f10 = tk.Entry(upperframe) f11 = tk.Entry(upperframe) f12 = tk.Entry(upperframe) #Buttons b1 = Button(upperframe, text="Add",width=6, command=add_stud) b2 = Button(upperframe, text="Search",width=6, command=search_stud) b3 = Button(upperframe, text="Show",width=6, command=show_stud) b4 = Button(upperframe, text="Update",width=6, command=update_stud) b5 = Button(upperframe, text="Clear",width=6, command=clear_stud) b6 = Button(upperframe, text="Delete",width=6, command=delete_stud) #Grid label1.place(anchor=CENTER,relx=0.2,rely=0.125) label2.place(anchor=CENTER,relx=0.6,rely=0.125) label3.place(anchor=CENTER,relx=0.2,rely=0.25) label4.place(anchor=CENTER,relx=0.6,rely=0.25) label5.place(anchor=CENTER,relx=0.2,rely=0.375) label6.place(anchor=CENTER,relx=0.6,rely=0.375) label7.place(anchor=CENTER,relx=0.2,rely=0.5) label8.place(anchor=CENTER,relx=0.6,rely=0.5) label9.place(anchor=CENTER,relx=0.2,rely=0.625) label10.place(anchor=CENTER,relx=0.6,rely=0.625) label11.place(anchor=CENTER,relx=0.2,rely=0.75) label12.place(anchor=CENTER,relx=0.6,rely=0.75) f1.place(anchor=CENTER,relx=0.4,rely=0.125) f2.place(anchor=CENTER,relx=0.8,rely=0.125) f3.place(anchor=CENTER,relx=0.4,rely=0.25) f4.place(anchor=CENTER,relx=0.8,rely=0.25) f5.place(anchor=CENTER,relx=0.4,rely=0.375) f6.place(anchor=CENTER,relx=0.8,rely=0.375) f7.place(anchor=CENTER,relx=0.4,rely=0.5) f8.place(anchor=CENTER,relx=0.8,rely=0.5) f9.place(anchor=CENTER,relx=0.4,rely=0.625) f10.place(anchor=CENTER,relx=0.8,rely=0.625) f11.place(anchor=CENTER,relx=0.4,rely=0.75) f12.place(anchor=CENTER,relx=0.8,rely=0.75) b1.place(anchor=CENTER,relx=0.25,rely=0.875) b2.place(anchor=CENTER,relx=0.5,rely=0.875) b3.place(anchor=CENTER,relx=0.75,rely=0.875) b4.place(anchor=CENTER,relx=0.25,rely=0.97) b5.place(anchor=CENTER,relx=0.5,rely=0.97) b6.place(anchor=CENTER,relx=0.75,rely=0.97) nw.mainloop() #################### EMPLOYEE #################### def iemp(self): def add_emp(): name=f1.get() eid=f2.get() dob=f3.get() g=f4.get() add=f5.get() mbno=f6.get() dsg=f7.get() hid=f8.get() c=self.cnx.cursor() c.execute("""INSERT INTO employee (`name`, `employee_id`, `dob`, `gender`, `address`,`contact_no`, `designation`, `hostel_id`) VALUES (""" + "%s,"*7 +"%s);", (name,eid,dob,g,add,mbno,dsg,hid)) c.close() self.cnx.commit() def search_emp(): if (len(f1.get())!=0): nm=f1.get() # print(nm) c=self.cnx.cursor() q="SELECT * FROM EMPLOYEE WHERE name='"+nm+"';" c.execute(q) f=c.fetchall() for i in tree.get_children(): tree.delete(i) for i in range(len(f)): tree.insert(parent='',index='end',iid=i,text='',values=f[i]) nw.mainloop() elif(len(f2.get())!=0): eid=f2.get() # print(nm) c=self.cnx.cursor() q="SELECT * FROM EMPLOYEE WHERE employee_id="+eid+";" c.execute(q) f=c.fetchall() for i in tree.get_children(): tree.delete(i) for i in range(len(f)): tree.insert(parent='',index='end',iid=i,text='',values=f[i]) nw.mainloop() elif(len(f8.get())!=0): hid=f8.get() # print(nm) c=self.cnx.cursor() q="SELECT * FROM EMPLOYEE WHERE hostel_id="+hid+";" c.execute(q) f=c.fetchall() for i in tree.get_children(): tree.delete(i) for i in range(len(f)): tree.insert(parent='',index='end',iid=i,text='',values=f[i]) nw.mainloop() def show_emp(): c=self.cnx.cursor() c.execute("SELECT * FROM employee") f=c.fetchall() for i in tree.get_children(): tree.delete(i) for i in range(len(f)): tree.insert(parent='',index='end',iid=i,text='',values=f[i]) c.close() nw.mainloop() def update_emp(): if(len(f9.get())!=0): eid=f2.get() dt=f9.get() c=self.cnx.cursor() q="UPDATE EMPLOYEE SET termination_date='"+dt+"' WHERE employee_id="+eid+";" c.execute(q) self.cnx.commit() else: name=f1.get() eid=f2.get() dob=f3.get() g=f4.get() add=f5.get() mbno=f6.get() dsg=f7.get() hid=f8.get() c=self.cnx.cursor() c.execute("UPDATE EMPLOYEE SET name=%s,dob=%s,gender=%s,address=%s,contact_no=%s,designation=%s,hostel_id=%s WHERE employee_id=%s", (name,dob,g,add,mbno,dsg,hid,eid)) self.cnx.commit() def clear_emp(): for i in tree.get_children(): tree.delete(i) l=[f1,f2,f3,f4,f5,f6,f7,f8,f9] for i in l: i.delete(0,END) nw.mainloop() def delete_emp(): eid=f2.get() c=self.cnx.cursor() q="DELETE FROM EMPLOYEE WHERE employee_id="+eid+";" c.execute(q) c.close() self.cnx.commit() def getvalue(event): l=[f1,f2,f3,f4,f5,f6,f7,f8,f9] for i in l: i.delete(0,END) s=tree.selection() #print(s) # l1=[] a=tree.item(s) #print(a) l1=a['values'] #print(l1) l[0].insert(0,l1[0]) l[1].insert(0,l1[1]) l[2].insert(0,l1[2]) l[3].insert(0,l1[3]) l[4].insert(0,l1[4]) l[5].insert(0,l1[5]) l[6].insert(0,l1[8]) l[7].insert(0,l1[9]) l[8].insert(0,l1[7]) #New window nw=tk.Tk() nw.geometry('900x900') nw.title("Employee") upperframe=Frame(nw,width=500,bd=5,height=80) lowerframe=Frame(nw,width=200,bd=5,height=445) upperframe.pack(side=TOP,fill=BOTH,expand=TRUE) lowerframe.pack(side=TOP,fill=BOTH,expand=TRUE) #Tree tree=ttk.Treeview(lowerframe) tree.pack(side=TOP) tree['columns']=("name","eid","dob","gender","address","contact_no","doj","td","designation","hostel_id","salary") tree.column("#0",width=0) tree.column("name",anchor=CENTER,width="120") tree.column("eid",anchor=CENTER,width="100") tree.column("dob",anchor=CENTER,width="100") tree.column("gender",anchor=CENTER,width="100") tree.column("address",anchor=CENTER,width="120") tree.column("contact_no",anchor=CENTER,width="100") tree.column("doj",anchor=CENTER,width="100") tree.column("td",anchor=CENTER,width="100") tree.column("designation",anchor=CENTER,width="100") tree.column("hostel_id",anchor=CENTER,width="100") tree.column("salary",anchor=CENTER,width="100") tree.heading("#0",text='') tree.heading("name",text="Name",anchor=CENTER) tree.heading("eid",text="Employee ID",anchor=CENTER) tree.heading("dob",text="DOB",anchor=CENTER) tree.heading("gender",text="Gender",anchor=CENTER) tree.heading("address",text="Address",anchor=CENTER) tree.heading("contact_no",text="Contact No",anchor=CENTER) tree.heading("doj",text="Date of joining",anchor=CENTER) tree.heading("td",text="Termination date",anchor=CENTER) tree.heading("designation",text="designation",anchor=CENTER) tree.heading("hostel_id",text="Hostel ID",anchor=CENTER) tree.heading("salary",text="Salary",anchor=CENTER) tree.bind('<Double-Button-1>',getvalue) #tree.insert(parent='',index='end',iid=0,text='',values=('a',1,'1990-01-01','f','a',1,'1990-02-03','2020-12-06','warden',1,1500)) #labels label1 = tk.Label(upperframe, text="Name: ") label2 = tk.Label(upperframe, text="Employee ID: ") label3 = tk.Label(upperframe, text="DOB: ") label4 = tk.Label(upperframe,text="Gender:") label5 = tk.Label(upperframe,text="Address:") label6 = tk.Label(upperframe,text="Contact number:") label7 = tk.Label(upperframe,text="Designation:") label8 = tk.Label(upperframe,text="Hostel ID:") label9 = tk.Label(upperframe,text="Termination Date*:") #entries f1 = tk.Entry(upperframe) f2 = tk.Entry(upperframe) f3 = tk.Entry(upperframe) f4 = tk.Entry(upperframe) f5 = tk.Entry(upperframe) f6 = tk.Entry(upperframe) f7 = tk.Entry(upperframe) f8 = tk.Entry(upperframe) f9 = tk.Entry(upperframe) #Buttons b1 = Button(upperframe, text="Add",width=6,command=add_emp) b2 = Button(upperframe, text="Search",width=6,command=search_emp) b3 = Button(upperframe, text="Show",width=6,command=show_emp) b4 = Button(upperframe, text="Update",width=6,command=update_emp) b5 = Button(upperframe, text="Clear",width=6,command=clear_emp) b6 = Button(upperframe, text="Delete",width=6,command=delete_emp) #Grid label1.place(anchor=CENTER,relx=0.2,rely=0.125) label2.place(anchor=CENTER,relx=0.6,rely=0.125) label3.place(anchor=CENTER,relx=0.2,rely=0.25) label4.place(anchor=CENTER,relx=0.6,rely=0.25) label5.place(anchor=CENTER,relx=0.2,rely=0.375) label6.place(anchor=CENTER,relx=0.6,rely=0.375) label7.place(anchor=CENTER,relx=0.2,rely=0.5) label8.place(anchor=CENTER,relx=0.6,rely=0.5) label9.place(anchor=CENTER,relx=0.2,rely=0.625) f1.place(anchor=CENTER,relx=0.4,rely=0.125) f2.place(anchor=CENTER,relx=0.8,rely=0.125) f3.place(anchor=CENTER,relx=0.4,rely=0.25) f4.place(anchor=CENTER,relx=0.8,rely=0.25) f5.place(anchor=CENTER,relx=0.4,rely=0.375) f6.place(anchor=CENTER,relx=0.8,rely=0.375) f7.place(anchor=CENTER,relx=0.4,rely=0.5) f8.place(anchor=CENTER,relx=0.8,rely=0.5) f9.place(anchor=CENTER,relx=0.4,rely=0.625) b1.place(anchor=CENTER,relx=0.25,rely=0.75) b2.place(anchor=CENTER,relx=0.5,rely=0.75) b3.place(anchor=CENTER,relx=0.75,rely=0.75) b4.place(anchor=CENTER,relx=0.25,rely=0.875) b5.place(anchor=CENTER,relx=0.5,rely=0.875) b6.place(anchor=CENTER,relx=0.75,rely=0.875) nw.mainloop() #################### COMPLAINT #################### def icomp(self): def add_comp(): rn=f2.get() dsc=f3.get() c=self.cnx.cursor() c.execute('INSERT INTO complaint(roll_no,description) VALUES(%s,%s)', (rn,dsc)) c.close() self.cnx.commit() #print('Value Inserted') def search_comp(): rn=f2.get() # print(nm) c=self.cnx.cursor() q="SELECT * FROM COMPLAINT WHERE roll_no='"+rn+"';" c.execute(q) f=c.fetchall() for i in tree.get_children(): tree.delete(i) for i in range(len(f)): tree.insert(parent='',index='end',iid=i,text='',values=f[i]) nw.mainloop() def show_comp(): c=self.cnx.cursor() c.execute("SELECT * FROM complaint") f=c.fetchall() for i in tree.get_children(): tree.delete(i) for i in range(len(f)): tree.insert(parent='',index='end',iid=i,text='',values=f[i]) c.close() nw.mainloop() def update_comp(): if(len(f5.get())!=0): cid=f1.get() rn=f2.get() dt=f5.get() c=self.cnx.cursor() q="UPDATE COMPLAINT SET resolved_date='"+dt+"' WHERE complaint_id="+cid+" AND roll_no="+rn+";" c.execute(q) self.cnx.commit() def clear_comp(): for i in tree.get_children(): tree.delete(i) l=[f1,f2,f3,f4,f5] for i in l: i.delete(0,END) nw.mainloop() def delete_comp(): cid=f1.get() rn=f2.get() c=self.cnx.cursor() q="DELETE FROM COMPLAINT WHERE complaint_id="+cid+" AND roll_no="+rn+";" #print(q) c.execute(q) c.close() self.cnx.commit() def getvalue(event): l=[f1,f2,f3,f4,f5] for i in l: i.delete(0,END) s=tree.selection() #print(s) # l1=[] a=tree.item(s) #print(a) l1=a['values'] #print(l1) for i in range(len(l)): l[i].insert(0,l1[i]) #New window nw=tk.Tk() nw.geometry('900x900') nw.title("Complaint") upperframe=Frame(nw,width=500,bd=5,height=80) lowerframe=Frame(nw,width=200,bd=5,height=445) upperframe.pack(side=TOP,fill=BOTH,expand=TRUE) lowerframe.pack(side=TOP,fill=BOTH,expand=TRUE) #Tree tree=ttk.Treeview(lowerframe) tree.pack(side=TOP) tree['columns']=("cid","roll_no","description","registered_date","resolved_date") tree.column("#0",width=0) tree.column("cid",anchor=CENTER,width="120") tree.column("roll_no",anchor=CENTER,width="100") tree.column("description",anchor=CENTER,width="100") tree.column("registered_date",anchor=CENTER,width="100") tree.column("resolved_date",anchor=CENTER,width="120") tree.heading("#0",text='') tree.heading("cid",text="Complaint ID",anchor=CENTER) tree.heading("roll_no",text="Roll No",anchor=CENTER) tree.heading("description",text="Description",anchor=CENTER) tree.heading("registered_date",text="Registered Date",anchor=CENTER) tree.heading("resolved_date",text="Resolved Date",anchor=CENTER) tree.bind('<Double-Button-1>',getvalue) #tree.insert(parent='',index='end',iid=0,text='',values=(1,5,'Housekeeping','2017-11-21',None)) #labels label1 = tk.Label(upperframe, text="Complaint ID*: ") label2 = tk.Label(upperframe, text="Roll No: ") label3 = tk.Label(upperframe, text="Description: ") label4 = tk.Label(upperframe,text="Registered Date*:") label5 = tk.Label(upperframe,text="Resolved Date*:") #entries f1 = tk.Entry(upperframe) f2 = tk.Entry(upperframe) f3 = tk.Entry(upperframe) f4 = tk.Entry(upperframe) f5 = tk.Entry(upperframe) #Buttons b1 = Button(upperframe, text="Add",width=6,command=add_comp) b2 = Button(upperframe, text="Search",width=6,command=search_comp) b3 = Button(upperframe, text="Show",width=6,command=show_comp) b4 = Button(upperframe, text="Update",width=6,command=update_comp) b5 = Button(upperframe, text="Clear",width=6,command=clear_comp) b6 = Button(upperframe, text="Delete",width=6,command=delete_comp) #Grid label1.place(anchor=CENTER,relx=0.2,rely=0.125) label2.place(anchor=CENTER,relx=0.6,rely=0.125) label3.place(anchor=CENTER,relx=0.2,rely=0.25) label4.place(anchor=CENTER,relx=0.6,rely=0.25) label5.place(anchor=CENTER,relx=0.2,rely=0.375) f1.place(anchor=CENTER,relx=0.4,rely=0.125) f2.place(anchor=CENTER,relx=0.8,rely=0.125) f3.place(anchor=CENTER,relx=0.4,rely=0.25) f4.place(anchor=CENTER,relx=0.8,rely=0.25) f5.place(anchor=CENTER,relx=0.4,rely=0.375) b1.place(anchor=CENTER,relx=0.25,rely=0.625) b2.place(anchor=CENTER,relx=0.5,rely=0.625) b3.place(anchor=CENTER,relx=0.75,rely=0.625) b4.place(anchor=CENTER,relx=0.25,rely=0.75) b5.place(anchor=CENTER,relx=0.5,rely=0.75) b6.place(anchor=CENTER,relx=0.75,rely=0.75) nw.mainloop() #################### GATE RECORD #################### def igr(self): def add_gr(): rn=f1.get() prp=f2.get() c=self.cnx.cursor() c.execute('INSERT INTO gate_record(roll_no,purpose) VALUES(%s,%s)', (rn,prp)) c.close() self.cnx.commit() #print('Value Inserted') def search_gr(): rn=f1.get() # print(nm) c=self.cnx.cursor() q="SELECT * FROM GATE_RECORD WHERE roll_no='"+rn+"';" c.execute(q) f=c.fetchall() for i in tree.get_children(): tree.delete(i) for i in range(len(f)): tree.insert(parent='',index='end',iid=i,text='',values=f[i]) nw.mainloop() def show_gr(): c=self.cnx.cursor() c.execute("SELECT * FROM gate_record;") f=c.fetchall() for i in tree.get_children(): tree.delete(i) for i in range(len(f)): tree.insert(parent='',index='end',iid=i,text='',values=f[i]) c.close() nw.mainloop() def update_gr(): rn=f1.get() c=self.cnx.cursor() c.callproc("gate_record_in",(rn,)) self.cnx.commit() def clear_gr(): for i in tree.get_children(): tree.delete(i) l=[f1,f2,f3,f4] for i in l: i.delete(0,END) nw.mainloop() def delete_gr(): rn=f1.get() et=f4.get() c=self.cnx.cursor() q="DELETE FROM GATE_RECORD WHERE roll_no="+rn+" AND exit_time='"+et+"';" #print(q) c.execute(q) c.close() self.cnx.commit() def getvalue(event): l=[f1,f2,f3,f4] for i in l: i.delete(0,END) s=tree.selection() #print(s) # l1=[] a=tree.item(s) #print(a) l1=a['values'] #print(l1) for i in range(len(l)): l[i].insert(0,l1[i]) #New window nw=tk.Tk() nw.geometry('900x900') nw.title("Gate Record") upperframe=Frame(nw,width=500,bd=5,height=80) lowerframe=Frame(nw,width=200,bd=5,height=445) upperframe.pack(side=TOP,fill=BOTH,expand=TRUE) lowerframe.pack(side=TOP,fill=BOTH,expand=TRUE) #Tree tree=ttk.Treeview(lowerframe) tree.pack(side=TOP) tree['columns']=("roll_no","purpose","entry_time","exit_time") tree.column("#0",width=0) tree.column("roll_no",anchor=CENTER,width="100") tree.column("purpose",anchor=CENTER,width="120") tree.column("entry_time",anchor=CENTER,width="200") tree.column("exit_time",anchor=CENTER,width="200") tree.heading("#0",text='') tree.heading("roll_no",text="Roll No",anchor=CENTER) tree.heading("purpose",text="Purpose",anchor=CENTER) tree.heading("entry_time",text="Entry Time",anchor=CENTER) tree.heading("exit_time",text="Leaving Time",anchor=CENTER) tree.bind('<Double-Button-1>',getvalue) #tree.insert(parent='',index='end',iid=0,text='',values=(3,'Fun','2018-11-01 12:45:10','2017-11-21 15:48:10')) #labels label1 = tk.Label(upperframe, text="Roll No: ") label2 = tk.Label(upperframe, text="Purpose: ") label3 = tk.Label(upperframe, text="Entry Time*: ") label4 = tk.Label(upperframe,text="Leaving Time*:") #entries f1 = tk.Entry(upperframe) f2 = tk.Entry(upperframe) f3 = tk.Entry(upperframe) f4 = tk.Entry(upperframe) #Buttons b1 = Button(upperframe, text="Add",width=6,command=add_gr) b2 = Button(upperframe, text="Search",width=6,command=search_gr) b3 = Button(upperframe, text="Show",width=6,command=show_gr) b4 = Button(upperframe, text="Update",width=6,command=update_gr) b5 = Button(upperframe, text="Clear",width=6,command=clear_gr) b6 = Button(upperframe, text="Delete",width=6,command=delete_gr) #Grid label1.place(anchor=CENTER,relx=0.2,rely=0.25) label2.place(anchor=CENTER,relx=0.6,rely=0.25) label3.place(anchor=CENTER,relx=0.2,rely=0.375) label4.place(anchor=CENTER,relx=0.6,rely=0.375) f1.place(anchor=CENTER,relx=0.4,rely=0.25) f2.place(anchor=CENTER,relx=0.8,rely=0.25) f3.place(anchor=CENTER,relx=0.4,rely=0.375) f4.place(anchor=CENTER,relx=0.8,rely=0.375) b1.place(anchor=CENTER,relx=0.25,rely=0.625) b2.place(anchor=CENTER,relx=0.5,rely=0.625) b3.place(anchor=CENTER,relx=0.75,rely=0.625) b4.place(anchor=CENTER,relx=0.25,rely=0.75) b5.place(anchor=CENTER,relx=0.5,rely=0.75) b6.place(anchor=CENTER,relx=0.75,rely=0.75) nw.mainloop()
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31,164
3.913323
0.063893
0.11391
0.094672
0.116947
0.834135
0.804835
0.769903
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0.603658
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31,164
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6
2c9ebdc19c36c3a993f8f2dd3f94ad541c92e0f4
68
py
Python
Image-Editor/src/Functions/readImage.py
TheCodingJungle/Python-Projects
eaec5b363b190fb013bcacbed48410c4b338fcc5
[ "MIT" ]
5
2021-02-08T13:53:16.000Z
2021-09-20T05:14:19.000Z
Image-Editor/src/Functions/readImage.py
TheCodingJungle/Python-Projects
eaec5b363b190fb013bcacbed48410c4b338fcc5
[ "MIT" ]
1
2021-07-29T20:00:34.000Z
2021-07-29T20:00:34.000Z
Image-Editor/src/Functions/readImage.py
TheCodingJungle/Python-Projects
eaec5b363b190fb013bcacbed48410c4b338fcc5
[ "MIT" ]
1
2021-08-31T04:22:17.000Z
2021-08-31T04:22:17.000Z
from cv2 import imread def readImage(path): return imread(path)
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6
2ca25864fb937c6166adcad576c4626aabeb50b3
2,536
py
Python
website_handling/collect_websites.py
Dr3xler/CookieConsentChecker
816cdfb9d9dc741c57dbcd5e9c9ef59837196631
[ "MIT" ]
null
null
null
website_handling/collect_websites.py
Dr3xler/CookieConsentChecker
816cdfb9d9dc741c57dbcd5e9c9ef59837196631
[ "MIT" ]
3
2021-04-29T22:57:09.000Z
2021-05-03T15:32:39.000Z
website_handling/collect_websites.py
Dr3xler/CookieConsentChecker
816cdfb9d9dc741c57dbcd5e9c9ef59837196631
[ "MIT" ]
1
2021-08-29T09:53:09.000Z
2021-08-29T09:53:09.000Z
import os from sys import platform from pathlib import Path def generate_website_list(driver, websites): """This method will load websites from a file and adds them to a new list if user input is y""" cookie_exists_list = [] list_count = 0 for website in websites: name = website.split('www.')[1] try: driver.get(website) except: continue driver.execute_script("return document.readyState") choice = input('save website?') if choice == "y": cookie_exists_list.append(website) list_count += 1 print(list_count) if choice == "n": continue if choice == "stop": break if choice == "exit": break else: continue cookie_websites = open("data/cookie_websites.txt", "w") for line in cookie_exists_list: cookie_websites.write(line + "\n") cookie_websites.close() def generate_success_list(driver, websites): """This method will load websites with addon and adds them to a new list if user input is y""" cookie_exists_list = [] list_count = 0 print(platform) # the extension directory needs to be the one of your local machine #linux if platform == "linux": extension_dir = os.getenv("HOME") + "/.mozilla/firefox/7ppp44j6.default-release/extensions/" driver.install_addon(extension_dir + 'jid1-KKzOGWgsW3Ao4Q@jetpack.xpi', temporary=True) #windows if platform == "win32": extension_dir = str(Path.home()) + "/AppData/Roaming/Mozilla/Firefox/Profiles/shdzeteb.default-release/extensions/" print(extension_dir) driver.install_addon(extension_dir + 'jid1-KKzOGWgsW3Ao4Q@jetpack.xpi', temporary=True) for website in websites: name = website.split('www.')[1] try: driver.get(website) except: continue driver.execute_script("return document.readyState") choice = input('save website?') if choice == "y": cookie_exists_list.append(website) list_count += 1 print(list_count) if choice == "n": continue if choice == "stop": break if choice == "exit": break else: continue cookie_websites = open("data/cookie_addon_success.txt", "w") for line in cookie_exists_list: cookie_websites.write(line + "\n") cookie_websites.close()
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6
e2c8c466d2a40b78436550ed0b32ea3c1fa123af
1,350
py
Python
awwardsapp/migrations/0008_auto_20201025_1829.py
budds300/Awwwards
220d3188adafb688114363daed8ad97aa8f8f948
[ "MIT" ]
null
null
null
awwardsapp/migrations/0008_auto_20201025_1829.py
budds300/Awwwards
220d3188adafb688114363daed8ad97aa8f8f948
[ "MIT" ]
null
null
null
awwardsapp/migrations/0008_auto_20201025_1829.py
budds300/Awwwards
220d3188adafb688114363daed8ad97aa8f8f948
[ "MIT" ]
null
null
null
# Generated by Django 3.1.2 on 2020-10-25 15:29 from django.db import migrations, models class Migration(migrations.Migration): dependencies = [ ('awwardsapp', '0007_rating'), ] operations = [ migrations.AlterField( model_name='rating', name='rate_content', field=models.PositiveSmallIntegerField(choices=[(10, '10-Outstanding'), (9, '9-Exceeds Expectations'), (8, '8-Excellent'), (7, '7-Good'), (6, '6-Barely Above Average'), (5, '5-Average'), (4, '4-Poor'), (3, '3-Awful'), (2, '2-Dreadful'), (1, '1-Troll')]), ), migrations.AlterField( model_name='rating', name='rate_design', field=models.PositiveSmallIntegerField(choices=[(10, '10-Outstanding'), (9, '9-Exceeds Expectations'), (8, '8-Excellent'), (7, '7-Good'), (6, '6-Barely Above Average'), (5, '5-Average'), (4, '4-Poor'), (3, '3-Awful'), (2, '2-Dreadful'), (1, '1-Troll')]), ), migrations.AlterField( model_name='rating', name='rate_usability', field=models.PositiveSmallIntegerField(choices=[(10, '10-Outstanding'), (9, '9-Exceeds Expectations'), (8, '8-Excellent'), (7, '7-Good'), (6, '6-Barely Above Average'), (5, '5-Average'), (4, '4-Poor'), (3, '3-Awful'), (2, '2-Dreadful'), (1, '1-Troll')]), ), ]
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0.079051
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0.114625
0.782609
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0.782609
0.725955
0.725955
0.725955
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0.080264
0.215556
1,350
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267
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0
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0
0
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6
394091a9e3495315385c0d2ab74e3ee861025a44
607
py
Python
link_energy.py
PloFz/Molecular_Formulations
d759270f9675368185d808a42fc808554d65cdee
[ "MIT" ]
1
2020-01-07T17:32:53.000Z
2020-01-07T17:32:53.000Z
link_energy.py
PloFz/Molecular_Formulations
d759270f9675368185d808a42fc808554d65cdee
[ "MIT" ]
null
null
null
link_energy.py
PloFz/Molecular_Formulations
d759270f9675368185d808a42fc808554d65cdee
[ "MIT" ]
null
null
null
import PBL, PBL_stern dens = np.array([ 2. ])#, 4., 8., 16., 32. ]) link_energy = [] for dd in dens: energy_p = PBL.solvation_energy('peptide2', dd, info=True) energy_r = PBL.solvation_energy('rna', dd, info=True) energy_c = PBL.solvation_energy('complex', dd, info=True) link_energy.append(energy_c - (energy_p + energy_r)) exit() for dd in dens: energy_p = PBL_stern.solvation_energy('peptide2', dd, info=True) energy_r = PBL_stern.solvation_energy('rna', dd, info=True) energy_c = PBL_stern.solvation_energy('complex', dd, info=True) link_energy.append(energy_c - (energy_p + energy_r))
25.291667
65
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607
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0.27551
0.221675
0.147783
0.157635
0.842365
0.842365
0.842365
0.738916
0.738916
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0.017143
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607
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0
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0
0
0
0
0
0
6
1a4eab006673f8b7cb2570e8dd76142314019fa5
37
py
Python
odbctools/odbcmanager/__init__.py
N-C-C/odbctools
c1fb4760b6c595537f2fb373469c9922c7bd7af8
[ "MIT" ]
2
2020-08-31T18:28:45.000Z
2022-02-10T23:58:16.000Z
odbctools/odbcmanager/__init__.py
N-C-C/odbctools
c1fb4760b6c595537f2fb373469c9922c7bd7af8
[ "MIT" ]
null
null
null
odbctools/odbcmanager/__init__.py
N-C-C/odbctools
c1fb4760b6c595537f2fb373469c9922c7bd7af8
[ "MIT" ]
null
null
null
from .odbcmanager import OdbcManager
18.5
36
0.864865
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37
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1
0
1
0
0
6
1a65f542894d9a8ecf82ea1438b204215ff5d6c5
87
py
Python
fsdviz/stocking/views/__init__.py
AdamCottrill/fsdivz
98dd1f35a08dba26424e2951a40715e01399478c
[ "MIT" ]
null
null
null
fsdviz/stocking/views/__init__.py
AdamCottrill/fsdivz
98dd1f35a08dba26424e2951a40715e01399478c
[ "MIT" ]
6
2020-02-12T00:03:40.000Z
2020-11-30T01:20:56.000Z
fsdviz/stocking/views/__init__.py
AdamCottrill/fsdviz
98dd1f35a08dba26424e2951a40715e01399478c
[ "MIT" ]
null
null
null
from .CWTEventViews import * from .EventUploadViews import * from .EventViews import *
21.75
31
0.793103
9
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7.666667
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87
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0
1
0
1
0
0
6
1a70921227ea5c429f3eab59b1cdd08e98714637
32
py
Python
shadowrun_prototype/defs/bitm.py
holy-crust/reclaimer
0aa693da3866ce7999c68d5f71f31a9c932cdb2c
[ "MIT" ]
null
null
null
shadowrun_prototype/defs/bitm.py
holy-crust/reclaimer
0aa693da3866ce7999c68d5f71f31a9c932cdb2c
[ "MIT" ]
null
null
null
shadowrun_prototype/defs/bitm.py
holy-crust/reclaimer
0aa693da3866ce7999c68d5f71f31a9c932cdb2c
[ "MIT" ]
null
null
null
from ...hek.defs.bitm import *
16
31
0.65625
5
32
4.2
1
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32
0.777778
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1
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0
6
1a7278089532f2844441d6b70060598f1ab124cf
43
py
Python
src/crazy_joe/__init__.py
dpasse/crazy_joe
bb77b2f8ee2cfb26cd8f2c45e0f0da2c2db3f805
[ "MIT" ]
null
null
null
src/crazy_joe/__init__.py
dpasse/crazy_joe
bb77b2f8ee2cfb26cd8f2c45e0f0da2c2db3f805
[ "MIT" ]
null
null
null
src/crazy_joe/__init__.py
dpasse/crazy_joe
bb77b2f8ee2cfb26cd8f2c45e0f0da2c2db3f805
[ "MIT" ]
null
null
null
from .table_generator import TableGenerator
43
43
0.906977
5
43
7.6
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0
0
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0.069767
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1
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43
0.95
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6
1a8022cff4a05d519194be639cf440990eec9b9e
50,995
py
Python
pybind/slxos/v16r_1_00b/tm_state/tmdevicestataggr/__init__.py
shivharis/pybind
4e1c6d54b9fd722ccec25546ba2413d79ce337e6
[ "Apache-2.0" ]
null
null
null
pybind/slxos/v16r_1_00b/tm_state/tmdevicestataggr/__init__.py
shivharis/pybind
4e1c6d54b9fd722ccec25546ba2413d79ce337e6
[ "Apache-2.0" ]
null
null
null
pybind/slxos/v16r_1_00b/tm_state/tmdevicestataggr/__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 tmdevicestataggr(PybindBase): """ This class was auto-generated by the PythonClass plugin for PYANG from YANG module brocade-sysdiag-operational - based on the path /tm-state/tmdevicestataggr. Each member element of the container is represented as a class variable - with a specific YANG type. YANG Description: Get TM device stats from all towers and all slots """ __slots__ = ('_pybind_generated_by', '_path_helper', '_yang_name', '_rest_name', '_extmethods', '__slot','__tower','__ingress_total_pkt_cnt_aggr','__enque_pkt_cnt_aggr','__deque_pkt_cnt_aggr','__total_discard_pkt_cnt_aggr','__deleted_pkt_cnt_aggr','__invalid_queue_pkt_aggr','__cpu_pkt_cnt_aggr','__uni_pkt_cnt_aggr','__mcast_pkt_cnt_aggr','__uni_discard_pkt_cnt_aggr','__mcast_discard_pkt_cnt_aggr','__fqp_pkt_cnt_aggr','__ehp_discard_cnt_aggr',) _yang_name = 'tmdevicestataggr' _rest_name = 'tmdevicestataggr' _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.__slot = YANGDynClass(base=RestrictedClassType(base_type=int, restriction_dict={'range': ['0..65535']},int_size=16), is_leaf=True, yang_name="slot", rest_name="slot", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, is_keyval=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint16', is_config=False) self.__cpu_pkt_cnt_aggr = YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="cpu-pkt-cnt-aggr", rest_name="cpu-pkt-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False) self.__uni_discard_pkt_cnt_aggr = YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="uni-discard-pkt-cnt-aggr", rest_name="uni-discard-pkt-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False) self.__uni_pkt_cnt_aggr = YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="uni-pkt-cnt-aggr", rest_name="uni-pkt-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False) self.__mcast_discard_pkt_cnt_aggr = YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="mcast-discard-pkt-cnt-aggr", rest_name="mcast-discard-pkt-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False) self.__deleted_pkt_cnt_aggr = YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="deleted-pkt-cnt-aggr", rest_name="deleted-pkt-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False) self.__deque_pkt_cnt_aggr = YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="deque-pkt-cnt-aggr", rest_name="deque-pkt-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False) self.__ehp_discard_cnt_aggr = YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="ehp-discard-cnt-aggr", rest_name="ehp-discard-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False) self.__enque_pkt_cnt_aggr = YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="enque-pkt-cnt-aggr", rest_name="enque-pkt-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False) self.__invalid_queue_pkt_aggr = YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="invalid-queue-pkt-aggr", rest_name="invalid-queue-pkt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False) self.__total_discard_pkt_cnt_aggr = YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="total-discard-pkt-cnt-aggr", rest_name="total-discard-pkt-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False) self.__tower = YANGDynClass(base=RestrictedClassType(base_type=int, restriction_dict={'range': ['0..65535']},int_size=16), is_leaf=True, yang_name="tower", rest_name="tower", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, is_keyval=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint16', is_config=False) self.__fqp_pkt_cnt_aggr = YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="fqp-pkt-cnt-aggr", rest_name="fqp-pkt-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False) self.__ingress_total_pkt_cnt_aggr = YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="ingress-total-pkt-cnt-aggr", rest_name="ingress-total-pkt-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False) self.__mcast_pkt_cnt_aggr = YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="mcast-pkt-cnt-aggr", rest_name="mcast-pkt-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False) 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'tm-state', u'tmdevicestataggr'] 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'tm-state', u'tmdevicestataggr'] def _get_slot(self): """ Getter method for slot, mapped from YANG variable /tm_state/tmdevicestataggr/slot (uint16) YANG Description: slot id to get tm devices stats """ return self.__slot def _set_slot(self, v, load=False): """ Setter method for slot, mapped from YANG variable /tm_state/tmdevicestataggr/slot (uint16) If this variable is read-only (config: false) in the source YANG file, then _set_slot is considered as a private method. Backends looking to populate this variable should do so via calling thisObj._set_slot() directly. YANG Description: slot id to get tm devices stats """ 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=int, restriction_dict={'range': ['0..65535']},int_size=16), is_leaf=True, yang_name="slot", rest_name="slot", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, is_keyval=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint16', is_config=False) except (TypeError, ValueError): raise ValueError({ 'error-string': """slot must be of a type compatible with uint16""", 'defined-type': "uint16", 'generated-type': """YANGDynClass(base=RestrictedClassType(base_type=int, restriction_dict={'range': ['0..65535']},int_size=16), is_leaf=True, yang_name="slot", rest_name="slot", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, is_keyval=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint16', is_config=False)""", }) self.__slot = t if hasattr(self, '_set'): self._set() def _unset_slot(self): self.__slot = YANGDynClass(base=RestrictedClassType(base_type=int, restriction_dict={'range': ['0..65535']},int_size=16), is_leaf=True, yang_name="slot", rest_name="slot", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, is_keyval=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint16', is_config=False) def _get_tower(self): """ Getter method for tower, mapped from YANG variable /tm_state/tmdevicestataggr/tower (uint16) YANG Description: tower id to get tm device stats """ return self.__tower def _set_tower(self, v, load=False): """ Setter method for tower, mapped from YANG variable /tm_state/tmdevicestataggr/tower (uint16) If this variable is read-only (config: false) in the source YANG file, then _set_tower is considered as a private method. Backends looking to populate this variable should do so via calling thisObj._set_tower() directly. YANG Description: tower id to get tm device stats """ 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=int, restriction_dict={'range': ['0..65535']},int_size=16), is_leaf=True, yang_name="tower", rest_name="tower", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, is_keyval=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint16', is_config=False) except (TypeError, ValueError): raise ValueError({ 'error-string': """tower must be of a type compatible with uint16""", 'defined-type': "uint16", 'generated-type': """YANGDynClass(base=RestrictedClassType(base_type=int, restriction_dict={'range': ['0..65535']},int_size=16), is_leaf=True, yang_name="tower", rest_name="tower", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, is_keyval=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint16', is_config=False)""", }) self.__tower = t if hasattr(self, '_set'): self._set() def _unset_tower(self): self.__tower = YANGDynClass(base=RestrictedClassType(base_type=int, restriction_dict={'range': ['0..65535']},int_size=16), is_leaf=True, yang_name="tower", rest_name="tower", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, is_keyval=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint16', is_config=False) def _get_ingress_total_pkt_cnt_aggr(self): """ Getter method for ingress_total_pkt_cnt_aggr, mapped from YANG variable /tm_state/tmdevicestataggr/ingress_total_pkt_cnt_aggr (uint64) YANG Description: ingress_total_pkt_cnt """ return self.__ingress_total_pkt_cnt_aggr def _set_ingress_total_pkt_cnt_aggr(self, v, load=False): """ Setter method for ingress_total_pkt_cnt_aggr, mapped from YANG variable /tm_state/tmdevicestataggr/ingress_total_pkt_cnt_aggr (uint64) If this variable is read-only (config: false) in the source YANG file, then _set_ingress_total_pkt_cnt_aggr is considered as a private method. Backends looking to populate this variable should do so via calling thisObj._set_ingress_total_pkt_cnt_aggr() directly. YANG Description: ingress_total_pkt_cnt """ if hasattr(v, "_utype"): v = v._utype(v) try: t = YANGDynClass(v,base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="ingress-total-pkt-cnt-aggr", rest_name="ingress-total-pkt-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False) except (TypeError, ValueError): raise ValueError({ 'error-string': """ingress_total_pkt_cnt_aggr must be of a type compatible with uint64""", 'defined-type': "uint64", 'generated-type': """YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="ingress-total-pkt-cnt-aggr", rest_name="ingress-total-pkt-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False)""", }) self.__ingress_total_pkt_cnt_aggr = t if hasattr(self, '_set'): self._set() def _unset_ingress_total_pkt_cnt_aggr(self): self.__ingress_total_pkt_cnt_aggr = YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="ingress-total-pkt-cnt-aggr", rest_name="ingress-total-pkt-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False) def _get_enque_pkt_cnt_aggr(self): """ Getter method for enque_pkt_cnt_aggr, mapped from YANG variable /tm_state/tmdevicestataggr/enque_pkt_cnt_aggr (uint64) YANG Description: enque_pkt_cnt """ return self.__enque_pkt_cnt_aggr def _set_enque_pkt_cnt_aggr(self, v, load=False): """ Setter method for enque_pkt_cnt_aggr, mapped from YANG variable /tm_state/tmdevicestataggr/enque_pkt_cnt_aggr (uint64) If this variable is read-only (config: false) in the source YANG file, then _set_enque_pkt_cnt_aggr is considered as a private method. Backends looking to populate this variable should do so via calling thisObj._set_enque_pkt_cnt_aggr() directly. YANG Description: enque_pkt_cnt """ if hasattr(v, "_utype"): v = v._utype(v) try: t = YANGDynClass(v,base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="enque-pkt-cnt-aggr", rest_name="enque-pkt-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False) except (TypeError, ValueError): raise ValueError({ 'error-string': """enque_pkt_cnt_aggr must be of a type compatible with uint64""", 'defined-type': "uint64", 'generated-type': """YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="enque-pkt-cnt-aggr", rest_name="enque-pkt-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False)""", }) self.__enque_pkt_cnt_aggr = t if hasattr(self, '_set'): self._set() def _unset_enque_pkt_cnt_aggr(self): self.__enque_pkt_cnt_aggr = YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="enque-pkt-cnt-aggr", rest_name="enque-pkt-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False) def _get_deque_pkt_cnt_aggr(self): """ Getter method for deque_pkt_cnt_aggr, mapped from YANG variable /tm_state/tmdevicestataggr/deque_pkt_cnt_aggr (uint64) YANG Description: deque_pkt_cnt """ return self.__deque_pkt_cnt_aggr def _set_deque_pkt_cnt_aggr(self, v, load=False): """ Setter method for deque_pkt_cnt_aggr, mapped from YANG variable /tm_state/tmdevicestataggr/deque_pkt_cnt_aggr (uint64) If this variable is read-only (config: false) in the source YANG file, then _set_deque_pkt_cnt_aggr is considered as a private method. Backends looking to populate this variable should do so via calling thisObj._set_deque_pkt_cnt_aggr() directly. YANG Description: deque_pkt_cnt """ if hasattr(v, "_utype"): v = v._utype(v) try: t = YANGDynClass(v,base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="deque-pkt-cnt-aggr", rest_name="deque-pkt-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False) except (TypeError, ValueError): raise ValueError({ 'error-string': """deque_pkt_cnt_aggr must be of a type compatible with uint64""", 'defined-type': "uint64", 'generated-type': """YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="deque-pkt-cnt-aggr", rest_name="deque-pkt-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False)""", }) self.__deque_pkt_cnt_aggr = t if hasattr(self, '_set'): self._set() def _unset_deque_pkt_cnt_aggr(self): self.__deque_pkt_cnt_aggr = YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="deque-pkt-cnt-aggr", rest_name="deque-pkt-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False) def _get_total_discard_pkt_cnt_aggr(self): """ Getter method for total_discard_pkt_cnt_aggr, mapped from YANG variable /tm_state/tmdevicestataggr/total_discard_pkt_cnt_aggr (uint64) YANG Description: total_discard_pkt_cnt """ return self.__total_discard_pkt_cnt_aggr def _set_total_discard_pkt_cnt_aggr(self, v, load=False): """ Setter method for total_discard_pkt_cnt_aggr, mapped from YANG variable /tm_state/tmdevicestataggr/total_discard_pkt_cnt_aggr (uint64) If this variable is read-only (config: false) in the source YANG file, then _set_total_discard_pkt_cnt_aggr is considered as a private method. Backends looking to populate this variable should do so via calling thisObj._set_total_discard_pkt_cnt_aggr() directly. YANG Description: total_discard_pkt_cnt """ if hasattr(v, "_utype"): v = v._utype(v) try: t = YANGDynClass(v,base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="total-discard-pkt-cnt-aggr", rest_name="total-discard-pkt-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False) except (TypeError, ValueError): raise ValueError({ 'error-string': """total_discard_pkt_cnt_aggr must be of a type compatible with uint64""", 'defined-type': "uint64", 'generated-type': """YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="total-discard-pkt-cnt-aggr", rest_name="total-discard-pkt-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False)""", }) self.__total_discard_pkt_cnt_aggr = t if hasattr(self, '_set'): self._set() def _unset_total_discard_pkt_cnt_aggr(self): self.__total_discard_pkt_cnt_aggr = YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="total-discard-pkt-cnt-aggr", rest_name="total-discard-pkt-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False) def _get_deleted_pkt_cnt_aggr(self): """ Getter method for deleted_pkt_cnt_aggr, mapped from YANG variable /tm_state/tmdevicestataggr/deleted_pkt_cnt_aggr (uint64) YANG Description: deleted_pkt_cnt """ return self.__deleted_pkt_cnt_aggr def _set_deleted_pkt_cnt_aggr(self, v, load=False): """ Setter method for deleted_pkt_cnt_aggr, mapped from YANG variable /tm_state/tmdevicestataggr/deleted_pkt_cnt_aggr (uint64) If this variable is read-only (config: false) in the source YANG file, then _set_deleted_pkt_cnt_aggr is considered as a private method. Backends looking to populate this variable should do so via calling thisObj._set_deleted_pkt_cnt_aggr() directly. YANG Description: deleted_pkt_cnt """ if hasattr(v, "_utype"): v = v._utype(v) try: t = YANGDynClass(v,base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="deleted-pkt-cnt-aggr", rest_name="deleted-pkt-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False) except (TypeError, ValueError): raise ValueError({ 'error-string': """deleted_pkt_cnt_aggr must be of a type compatible with uint64""", 'defined-type': "uint64", 'generated-type': """YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="deleted-pkt-cnt-aggr", rest_name="deleted-pkt-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False)""", }) self.__deleted_pkt_cnt_aggr = t if hasattr(self, '_set'): self._set() def _unset_deleted_pkt_cnt_aggr(self): self.__deleted_pkt_cnt_aggr = YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="deleted-pkt-cnt-aggr", rest_name="deleted-pkt-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False) def _get_invalid_queue_pkt_aggr(self): """ Getter method for invalid_queue_pkt_aggr, mapped from YANG variable /tm_state/tmdevicestataggr/invalid_queue_pkt_aggr (uint64) YANG Description: invalid_queue_pkt """ return self.__invalid_queue_pkt_aggr def _set_invalid_queue_pkt_aggr(self, v, load=False): """ Setter method for invalid_queue_pkt_aggr, mapped from YANG variable /tm_state/tmdevicestataggr/invalid_queue_pkt_aggr (uint64) If this variable is read-only (config: false) in the source YANG file, then _set_invalid_queue_pkt_aggr is considered as a private method. Backends looking to populate this variable should do so via calling thisObj._set_invalid_queue_pkt_aggr() directly. YANG Description: invalid_queue_pkt """ if hasattr(v, "_utype"): v = v._utype(v) try: t = YANGDynClass(v,base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="invalid-queue-pkt-aggr", rest_name="invalid-queue-pkt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False) except (TypeError, ValueError): raise ValueError({ 'error-string': """invalid_queue_pkt_aggr must be of a type compatible with uint64""", 'defined-type': "uint64", 'generated-type': """YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="invalid-queue-pkt-aggr", rest_name="invalid-queue-pkt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False)""", }) self.__invalid_queue_pkt_aggr = t if hasattr(self, '_set'): self._set() def _unset_invalid_queue_pkt_aggr(self): self.__invalid_queue_pkt_aggr = YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="invalid-queue-pkt-aggr", rest_name="invalid-queue-pkt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False) def _get_cpu_pkt_cnt_aggr(self): """ Getter method for cpu_pkt_cnt_aggr, mapped from YANG variable /tm_state/tmdevicestataggr/cpu_pkt_cnt_aggr (uint64) YANG Description: cpu_pkt_cnt """ return self.__cpu_pkt_cnt_aggr def _set_cpu_pkt_cnt_aggr(self, v, load=False): """ Setter method for cpu_pkt_cnt_aggr, mapped from YANG variable /tm_state/tmdevicestataggr/cpu_pkt_cnt_aggr (uint64) If this variable is read-only (config: false) in the source YANG file, then _set_cpu_pkt_cnt_aggr is considered as a private method. Backends looking to populate this variable should do so via calling thisObj._set_cpu_pkt_cnt_aggr() directly. YANG Description: cpu_pkt_cnt """ if hasattr(v, "_utype"): v = v._utype(v) try: t = YANGDynClass(v,base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="cpu-pkt-cnt-aggr", rest_name="cpu-pkt-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False) except (TypeError, ValueError): raise ValueError({ 'error-string': """cpu_pkt_cnt_aggr must be of a type compatible with uint64""", 'defined-type': "uint64", 'generated-type': """YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="cpu-pkt-cnt-aggr", rest_name="cpu-pkt-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False)""", }) self.__cpu_pkt_cnt_aggr = t if hasattr(self, '_set'): self._set() def _unset_cpu_pkt_cnt_aggr(self): self.__cpu_pkt_cnt_aggr = YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="cpu-pkt-cnt-aggr", rest_name="cpu-pkt-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False) def _get_uni_pkt_cnt_aggr(self): """ Getter method for uni_pkt_cnt_aggr, mapped from YANG variable /tm_state/tmdevicestataggr/uni_pkt_cnt_aggr (uint64) YANG Description: uni_pkt_cnt """ return self.__uni_pkt_cnt_aggr def _set_uni_pkt_cnt_aggr(self, v, load=False): """ Setter method for uni_pkt_cnt_aggr, mapped from YANG variable /tm_state/tmdevicestataggr/uni_pkt_cnt_aggr (uint64) If this variable is read-only (config: false) in the source YANG file, then _set_uni_pkt_cnt_aggr is considered as a private method. Backends looking to populate this variable should do so via calling thisObj._set_uni_pkt_cnt_aggr() directly. YANG Description: uni_pkt_cnt """ if hasattr(v, "_utype"): v = v._utype(v) try: t = YANGDynClass(v,base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="uni-pkt-cnt-aggr", rest_name="uni-pkt-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False) except (TypeError, ValueError): raise ValueError({ 'error-string': """uni_pkt_cnt_aggr must be of a type compatible with uint64""", 'defined-type': "uint64", 'generated-type': """YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="uni-pkt-cnt-aggr", rest_name="uni-pkt-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False)""", }) self.__uni_pkt_cnt_aggr = t if hasattr(self, '_set'): self._set() def _unset_uni_pkt_cnt_aggr(self): self.__uni_pkt_cnt_aggr = YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="uni-pkt-cnt-aggr", rest_name="uni-pkt-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False) def _get_mcast_pkt_cnt_aggr(self): """ Getter method for mcast_pkt_cnt_aggr, mapped from YANG variable /tm_state/tmdevicestataggr/mcast_pkt_cnt_aggr (uint64) YANG Description: mcast_pkt_cnt """ return self.__mcast_pkt_cnt_aggr def _set_mcast_pkt_cnt_aggr(self, v, load=False): """ Setter method for mcast_pkt_cnt_aggr, mapped from YANG variable /tm_state/tmdevicestataggr/mcast_pkt_cnt_aggr (uint64) If this variable is read-only (config: false) in the source YANG file, then _set_mcast_pkt_cnt_aggr is considered as a private method. Backends looking to populate this variable should do so via calling thisObj._set_mcast_pkt_cnt_aggr() directly. YANG Description: mcast_pkt_cnt """ if hasattr(v, "_utype"): v = v._utype(v) try: t = YANGDynClass(v,base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="mcast-pkt-cnt-aggr", rest_name="mcast-pkt-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False) except (TypeError, ValueError): raise ValueError({ 'error-string': """mcast_pkt_cnt_aggr must be of a type compatible with uint64""", 'defined-type': "uint64", 'generated-type': """YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="mcast-pkt-cnt-aggr", rest_name="mcast-pkt-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False)""", }) self.__mcast_pkt_cnt_aggr = t if hasattr(self, '_set'): self._set() def _unset_mcast_pkt_cnt_aggr(self): self.__mcast_pkt_cnt_aggr = YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="mcast-pkt-cnt-aggr", rest_name="mcast-pkt-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False) def _get_uni_discard_pkt_cnt_aggr(self): """ Getter method for uni_discard_pkt_cnt_aggr, mapped from YANG variable /tm_state/tmdevicestataggr/uni_discard_pkt_cnt_aggr (uint64) YANG Description: uni_discard_pkt_cnt """ return self.__uni_discard_pkt_cnt_aggr def _set_uni_discard_pkt_cnt_aggr(self, v, load=False): """ Setter method for uni_discard_pkt_cnt_aggr, mapped from YANG variable /tm_state/tmdevicestataggr/uni_discard_pkt_cnt_aggr (uint64) If this variable is read-only (config: false) in the source YANG file, then _set_uni_discard_pkt_cnt_aggr is considered as a private method. Backends looking to populate this variable should do so via calling thisObj._set_uni_discard_pkt_cnt_aggr() directly. YANG Description: uni_discard_pkt_cnt """ if hasattr(v, "_utype"): v = v._utype(v) try: t = YANGDynClass(v,base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="uni-discard-pkt-cnt-aggr", rest_name="uni-discard-pkt-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False) except (TypeError, ValueError): raise ValueError({ 'error-string': """uni_discard_pkt_cnt_aggr must be of a type compatible with uint64""", 'defined-type': "uint64", 'generated-type': """YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="uni-discard-pkt-cnt-aggr", rest_name="uni-discard-pkt-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False)""", }) self.__uni_discard_pkt_cnt_aggr = t if hasattr(self, '_set'): self._set() def _unset_uni_discard_pkt_cnt_aggr(self): self.__uni_discard_pkt_cnt_aggr = YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="uni-discard-pkt-cnt-aggr", rest_name="uni-discard-pkt-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False) def _get_mcast_discard_pkt_cnt_aggr(self): """ Getter method for mcast_discard_pkt_cnt_aggr, mapped from YANG variable /tm_state/tmdevicestataggr/mcast_discard_pkt_cnt_aggr (uint64) YANG Description: mcast_discard_pkt_cnt """ return self.__mcast_discard_pkt_cnt_aggr def _set_mcast_discard_pkt_cnt_aggr(self, v, load=False): """ Setter method for mcast_discard_pkt_cnt_aggr, mapped from YANG variable /tm_state/tmdevicestataggr/mcast_discard_pkt_cnt_aggr (uint64) If this variable is read-only (config: false) in the source YANG file, then _set_mcast_discard_pkt_cnt_aggr is considered as a private method. Backends looking to populate this variable should do so via calling thisObj._set_mcast_discard_pkt_cnt_aggr() directly. YANG Description: mcast_discard_pkt_cnt """ if hasattr(v, "_utype"): v = v._utype(v) try: t = YANGDynClass(v,base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="mcast-discard-pkt-cnt-aggr", rest_name="mcast-discard-pkt-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False) except (TypeError, ValueError): raise ValueError({ 'error-string': """mcast_discard_pkt_cnt_aggr must be of a type compatible with uint64""", 'defined-type': "uint64", 'generated-type': """YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="mcast-discard-pkt-cnt-aggr", rest_name="mcast-discard-pkt-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False)""", }) self.__mcast_discard_pkt_cnt_aggr = t if hasattr(self, '_set'): self._set() def _unset_mcast_discard_pkt_cnt_aggr(self): self.__mcast_discard_pkt_cnt_aggr = YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="mcast-discard-pkt-cnt-aggr", rest_name="mcast-discard-pkt-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False) def _get_fqp_pkt_cnt_aggr(self): """ Getter method for fqp_pkt_cnt_aggr, mapped from YANG variable /tm_state/tmdevicestataggr/fqp_pkt_cnt_aggr (uint64) YANG Description: fqp_pkt_cnt """ return self.__fqp_pkt_cnt_aggr def _set_fqp_pkt_cnt_aggr(self, v, load=False): """ Setter method for fqp_pkt_cnt_aggr, mapped from YANG variable /tm_state/tmdevicestataggr/fqp_pkt_cnt_aggr (uint64) If this variable is read-only (config: false) in the source YANG file, then _set_fqp_pkt_cnt_aggr is considered as a private method. Backends looking to populate this variable should do so via calling thisObj._set_fqp_pkt_cnt_aggr() directly. YANG Description: fqp_pkt_cnt """ if hasattr(v, "_utype"): v = v._utype(v) try: t = YANGDynClass(v,base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="fqp-pkt-cnt-aggr", rest_name="fqp-pkt-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False) except (TypeError, ValueError): raise ValueError({ 'error-string': """fqp_pkt_cnt_aggr must be of a type compatible with uint64""", 'defined-type': "uint64", 'generated-type': """YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="fqp-pkt-cnt-aggr", rest_name="fqp-pkt-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False)""", }) self.__fqp_pkt_cnt_aggr = t if hasattr(self, '_set'): self._set() def _unset_fqp_pkt_cnt_aggr(self): self.__fqp_pkt_cnt_aggr = YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="fqp-pkt-cnt-aggr", rest_name="fqp-pkt-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False) def _get_ehp_discard_cnt_aggr(self): """ Getter method for ehp_discard_cnt_aggr, mapped from YANG variable /tm_state/tmdevicestataggr/ehp_discard_cnt_aggr (uint64) YANG Description: ehp_discard_cnt """ return self.__ehp_discard_cnt_aggr def _set_ehp_discard_cnt_aggr(self, v, load=False): """ Setter method for ehp_discard_cnt_aggr, mapped from YANG variable /tm_state/tmdevicestataggr/ehp_discard_cnt_aggr (uint64) If this variable is read-only (config: false) in the source YANG file, then _set_ehp_discard_cnt_aggr is considered as a private method. Backends looking to populate this variable should do so via calling thisObj._set_ehp_discard_cnt_aggr() directly. YANG Description: ehp_discard_cnt """ if hasattr(v, "_utype"): v = v._utype(v) try: t = YANGDynClass(v,base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="ehp-discard-cnt-aggr", rest_name="ehp-discard-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False) except (TypeError, ValueError): raise ValueError({ 'error-string': """ehp_discard_cnt_aggr must be of a type compatible with uint64""", 'defined-type': "uint64", 'generated-type': """YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="ehp-discard-cnt-aggr", rest_name="ehp-discard-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False)""", }) self.__ehp_discard_cnt_aggr = t if hasattr(self, '_set'): self._set() def _unset_ehp_discard_cnt_aggr(self): self.__ehp_discard_cnt_aggr = YANGDynClass(base=RestrictedClassType(base_type=long, restriction_dict={'range': ['0..18446744073709551615']}, int_size=64), is_leaf=True, yang_name="ehp-discard-cnt-aggr", rest_name="ehp-discard-cnt-aggr", parent=self, path_helper=self._path_helper, extmethods=self._extmethods, register_paths=True, namespace='urn:brocade.com:mgmt:brocade-sysdiag-operational', defining_module='brocade-sysdiag-operational', yang_type='uint64', is_config=False) slot = __builtin__.property(_get_slot) tower = __builtin__.property(_get_tower) ingress_total_pkt_cnt_aggr = __builtin__.property(_get_ingress_total_pkt_cnt_aggr) enque_pkt_cnt_aggr = __builtin__.property(_get_enque_pkt_cnt_aggr) deque_pkt_cnt_aggr = __builtin__.property(_get_deque_pkt_cnt_aggr) total_discard_pkt_cnt_aggr = __builtin__.property(_get_total_discard_pkt_cnt_aggr) deleted_pkt_cnt_aggr = __builtin__.property(_get_deleted_pkt_cnt_aggr) invalid_queue_pkt_aggr = __builtin__.property(_get_invalid_queue_pkt_aggr) cpu_pkt_cnt_aggr = __builtin__.property(_get_cpu_pkt_cnt_aggr) uni_pkt_cnt_aggr = __builtin__.property(_get_uni_pkt_cnt_aggr) mcast_pkt_cnt_aggr = __builtin__.property(_get_mcast_pkt_cnt_aggr) uni_discard_pkt_cnt_aggr = __builtin__.property(_get_uni_discard_pkt_cnt_aggr) mcast_discard_pkt_cnt_aggr = __builtin__.property(_get_mcast_discard_pkt_cnt_aggr) fqp_pkt_cnt_aggr = __builtin__.property(_get_fqp_pkt_cnt_aggr) ehp_discard_cnt_aggr = __builtin__.property(_get_ehp_discard_cnt_aggr) _pyangbind_elements = {'slot': slot, 'tower': tower, 'ingress_total_pkt_cnt_aggr': ingress_total_pkt_cnt_aggr, 'enque_pkt_cnt_aggr': enque_pkt_cnt_aggr, 'deque_pkt_cnt_aggr': deque_pkt_cnt_aggr, 'total_discard_pkt_cnt_aggr': total_discard_pkt_cnt_aggr, 'deleted_pkt_cnt_aggr': deleted_pkt_cnt_aggr, 'invalid_queue_pkt_aggr': invalid_queue_pkt_aggr, 'cpu_pkt_cnt_aggr': cpu_pkt_cnt_aggr, 'uni_pkt_cnt_aggr': uni_pkt_cnt_aggr, 'mcast_pkt_cnt_aggr': mcast_pkt_cnt_aggr, 'uni_discard_pkt_cnt_aggr': uni_discard_pkt_cnt_aggr, 'mcast_discard_pkt_cnt_aggr': mcast_discard_pkt_cnt_aggr, 'fqp_pkt_cnt_aggr': fqp_pkt_cnt_aggr, 'ehp_discard_cnt_aggr': ehp_discard_cnt_aggr, }
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67
py
Python
tests/core/test_import.py
gsalgado/asyncio-run-in-process
60ea6da60c8e245587b1d5e375fbf736c5a096fa
[ "MIT" ]
12
2019-11-06T00:46:52.000Z
2021-11-04T14:10:13.000Z
tests/core/test_import.py
gsalgado/asyncio-run-in-process
60ea6da60c8e245587b1d5e375fbf736c5a096fa
[ "MIT" ]
20
2019-11-05T20:19:44.000Z
2020-12-17T15:57:41.000Z
tests/core/test_import.py
gsalgado/asyncio-run-in-process
60ea6da60c8e245587b1d5e375fbf736c5a096fa
[ "MIT" ]
6
2019-11-05T19:36:53.000Z
2021-11-04T14:10:02.000Z
def test_import(): import asyncio_run_in_process # noqa: F401
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1aad9f12ddb6ac8c72660e284119f89039a4aebe
46
py
Python
src/menten_gcn/playground/__init__.py
MentenAI/menten_gcn
bcc7642cb32ab4e60a97687de17c1aa2dc4b5421
[ "MIT" ]
11
2020-12-15T15:36:47.000Z
2022-03-10T19:23:36.000Z
src/menten_gcn/playground/__init__.py
MentenAI/menten_gcn
bcc7642cb32ab4e60a97687de17c1aa2dc4b5421
[ "MIT" ]
2
2021-01-14T15:04:59.000Z
2021-01-14T19:24:00.000Z
src/menten_gcn/playground/__init__.py
MentenAI/menten_gcn
bcc7642cb32ab4e60a97687de17c1aa2dc4b5421
[ "MIT" ]
null
null
null
from .nbody_convs import * # noqa: F401,F403
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46d2b17e273baeb619c402f6a1fb2c6d36a59b05
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py
Python
venv/lib/python3.8/site-packages/pip/_vendor/html5lib/treebuilders/etree_lxml.py
Retraces/UkraineBot
3d5d7f8aaa58fa0cb8b98733b8808e5dfbdb8b71
[ "MIT" ]
2
2022-03-13T01:58:52.000Z
2022-03-31T06:07:54.000Z
venv/lib/python3.8/site-packages/pip/_vendor/html5lib/treebuilders/etree_lxml.py
DesmoSearch/Desmobot
b70b45df3485351f471080deb5c785c4bc5c4beb
[ "MIT" ]
19
2021-11-20T04:09:18.000Z
2022-03-23T15:05:55.000Z
venv/lib/python3.8/site-packages/pip/_vendor/html5lib/treebuilders/etree_lxml.py
DesmoSearch/Desmobot
b70b45df3485351f471080deb5c785c4bc5c4beb
[ "MIT" ]
null
null
null
/home/runner/.cache/pip/pool/f6/0a/83/8ecf88c6c3e10586b9729befd85675299946f371a2baccb69459af2241
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96
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6
46d978486ad6997dea3c2fa68d9377592d3fe89b
101
py
Python
stixcore/tmtc/__init__.py
nicHoch/STIXCore
16822bbb37046f8e6c03be51909cfc91e9822cf7
[ "BSD-3-Clause" ]
1
2022-03-31T13:42:43.000Z
2022-03-31T13:42:43.000Z
stixcore/tmtc/__init__.py
nicHoch/STIXCore
16822bbb37046f8e6c03be51909cfc91e9822cf7
[ "BSD-3-Clause" ]
192
2020-11-03T22:40:19.000Z
2022-03-31T15:17:13.000Z
stixcore/tmtc/__init__.py
nicHoch/STIXCore
16822bbb37046f8e6c03be51909cfc91e9822cf7
[ "BSD-3-Clause" ]
3
2020-11-09T15:05:18.000Z
2022-01-21T07:52:51.000Z
from stixcore.tmtc.packet_factory import Packet from stixcore.tmtc.tm import * __all__ = ['Packet']
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20068fb9f19301820864ea58094f4c61da651883
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py
Python
src/snowflakes/tests/test_fixtures.py
Lattice-Data/snovault
384f4a3bf3afcc4b825f98c80d18a5852d46ef5c
[ "MIT" ]
14
2016-04-21T08:27:41.000Z
2021-06-01T11:35:28.000Z
src/snowflakes/tests/test_fixtures.py
Lattice-Data/snovault
384f4a3bf3afcc4b825f98c80d18a5852d46ef5c
[ "MIT" ]
122
2016-07-01T23:38:41.000Z
2022-03-11T23:11:47.000Z
src/snowflakes/tests/test_fixtures.py
Lattice-Data/snovault
384f4a3bf3afcc4b825f98c80d18a5852d46ef5c
[ "MIT" ]
24
2016-04-21T08:27:46.000Z
2022-01-11T19:00:28.000Z
import pytest @pytest.yield_fixture(scope='session') def minitestdata(app, conn): tx = conn.begin_nested() from webtest import TestApp environ = { 'HTTP_ACCEPT': 'application/json', 'REMOTE_USER': 'TEST', } testapp = TestApp(app, environ) item = { 'name': 'NIS39344', 'title': 'Grant to make snow', 'project': 'ENCODE', 'rfa': 'ENCODE3', } testapp.post_json('/awards', item, status=201) yield tx.rollback() @pytest.yield_fixture(scope='session') def minitestdata2(app, conn): tx = conn.begin_nested() from webtest import TestApp environ = { 'HTTP_ACCEPT': 'application/json', 'REMOTE_USER': 'TEST', } testapp = TestApp(app, environ) item = { 'name': 'NIS39344', 'title': 'Grant to make snow', 'project': 'ENCODE', 'rfa': 'ENCODE3', } testapp.post_json('/awards', item, status=201) yield tx.rollback() @pytest.mark.usefixtures('minitestdata') def test_fixtures1(testapp): """ This test is not really exhaustive. Still need to inspect the sql log to verify fixture correctness. """ res = testapp.get('/awards').maybe_follow() items = res.json['@graph'] assert len(items) == 1 # Trigger an error item = {'foo': 'bar'} res = testapp.post_json('/awards', item, status=422) assert res.json['errors'] res = testapp.get('/awards').maybe_follow() items = res.json['@graph'] assert len(items) == 1 item = { 'name': 'NIS39339', 'title': 'Grant to make snow', 'project': 'ENCODE', 'rfa': 'ENCODE3', } testapp.post_json('/awards', item, status=201) res = testapp.get('/awards').maybe_follow() items = res.json['@graph'] assert len(items) == 2 # Trigger an error item = {'foo': 'bar'} res = testapp.post_json('/awards', item, status=422) assert res.json['errors'] res = testapp.get('/awards').maybe_follow() items = res.json['@graph'] assert len(items) == 2 def test_fixtures2(minitestdata2, testapp): # http://stackoverflow.com/questions/15775601/mutually-exclusive-fixtures res = testapp.get('/awards/') items = res.json['@graph'] assert len(items) == 1
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py
Python
kwat/grid/__init__.py
KwatME/ccal
d96dfa811482eee067f346386a2181ec514625f4
[ "MIT" ]
5
2017-05-05T17:50:28.000Z
2019-01-30T19:23:02.000Z
kwat/grid/__init__.py
KwatME/ccal
d96dfa811482eee067f346386a2181ec514625f4
[ "MIT" ]
5
2017-05-05T01:52:31.000Z
2019-04-20T21:06:05.000Z
kwat/grid/__init__.py
KwatME/ccal
d96dfa811482eee067f346386a2181ec514625f4
[ "MIT" ]
5
2017-07-17T18:55:54.000Z
2019-02-02T04:46:19.000Z
from .get_1d_grid import get_1d_grid from .get_1d_grid_resolution import get_1d_grid_resolution from .make_1d_grid import make_1d_grid from .make_nd_grid import make_nd_grid from .plot import plot from .reflect import reflect
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py
Python
bigsimr/__init__.py
SchisslerGroup/python-bigsimr
5133356938a1a4e197b92618c034876e0c937760
[ "MIT" ]
10
2019-02-13T16:53:24.000Z
2021-11-13T08:34:19.000Z
bigsimr/__init__.py
SchisslerGroup/python-bigsimr
5133356938a1a4e197b92618c034876e0c937760
[ "MIT" ]
2
2019-08-31T04:37:46.000Z
2019-11-11T03:02:37.000Z
bigsimr/__init__.py
SchisslerGroup/python-bigsimr
5133356938a1a4e197b92618c034876e0c937760
[ "MIT" ]
2
2019-08-18T09:48:03.000Z
2021-11-13T08:34:38.000Z
from .setup import setup
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py
Python
env/lib/python3.6/site-packages/sqlDataframe/__init__.py
sehan10/SQL_Pandas
bb14b25445e659701488e9c5bb3ce6896b4e3862
[ "MIT" ]
null
null
null
env/lib/python3.6/site-packages/sqlDataframe/__init__.py
sehan10/SQL_Pandas
bb14b25445e659701488e9c5bb3ce6896b4e3862
[ "MIT" ]
null
null
null
env/lib/python3.6/site-packages/sqlDataframe/__init__.py
sehan10/SQL_Pandas
bb14b25445e659701488e9c5bb3ce6896b4e3862
[ "MIT" ]
1
2020-11-04T06:37:19.000Z
2020-11-04T06:37:19.000Z
from .main import sqlCred, read_sql, to_sql
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py
Python
generate_yarnmodels/generate_inplane.py
kamleshbhalui/MADYPG
b91c7af0b7a1382fed0a5fb3147f13594ddec71e
[ "MIT" ]
null
null
null
generate_yarnmodels/generate_inplane.py
kamleshbhalui/MADYPG
b91c7af0b7a1382fed0a5fb3147f13594ddec71e
[ "MIT" ]
null
null
null
generate_yarnmodels/generate_inplane.py
kamleshbhalui/MADYPG
b91c7af0b7a1382fed0a5fb3147f13594ddec71e
[ "MIT" ]
null
null
null
import generate import numpy as np import time rge5xy = [-0.2,0.0,0.33,0.67,1.0] rge5a = [-0.5,-0.25,0.0,0.25,0.5] rge9xy = np.concatenate([np.linspace(-0.2,0.0,9 - 9*4//6), np.linspace(0.0,1.0,9*4//6 + 1)[1:]]) rge9a = np.linspace(-0.7,0.7,9) rge15xy = np.concatenate([np.linspace(-0.2,0.0,15 - 15*4//6), np.linspace(0.0,1.0,15*4//6 + 1)[1:]]) rge15a = np.linspace(-0.7,0.7,15) rge31xy = np.concatenate([np.linspace(-0.2,0.0,31 - 31*4//6), np.linspace(0.0,1.0,31*4//6 + 1)[1:]]) rge31a = np.linspace(-0.7,0.7,31) timings = [] timingsfile = 'timings_%s.txt' % time.strftime("%Y%m%d-%H%M%S") for name, pypfile in [ # ['stocktiniest', "pyp/stocktiniest.pyp"], ['stock', "pyp/hylc2020/stockinette.pyp"], ['rib', "pyp/hylc2020/cartridge_belt_rib.pyp"], ['honey', "pyp/hylc2020/slip_stitch_honeycomb.pyp"], ['basket', "pyp/hylc2020/basket.pyp"], ['satin', "pyp/hylc2020/satin.pyp"], ]: for tstname,rgesxsy,rgesa in [ # ['15',rge15xy,rge15a], ['9',rge9xy,rge9a], ]: print("Pattern:",name) print("Samples: %d x %d x %d (Total: %d)" % (len(rgesxsy),len(rgesa),len(rgesxsy), len(rgesxsy)*len(rgesxsy)*len(rgesa))) t0 = time.perf_counter() generate.generate_data("model_%s_%s" % (name,tstname), pypfile, rgesxsy, rgesa, rgesxsy) dt = time.perf_counter() - t0 timings.append(["model_%s_%s" % (name,tstname), dt]) with open(timingsfile, 'a') as f1: f1.write("%s %s\n" % ("model_%s_%s" % (name,tstname), dt)) # generate tiny stock 9x9x9 for comparison against 15x15x15 if it matters at extreme scales. # for name, pypfile in [ # ['stocktiniest', "pyp/stocktiniest.pyp"], # # ['stock', "pyp/hylc2020/stockinette.pyp"], # # ['rib', "pyp/hylc2020/cartridge_belt_rib.pyp"], # # ['honey', "pyp/hylc2020/slip_stitch_honeycomb.pyp"], # # ['basket', "pyp/hylc2020/basket.pyp"], # # ['satin', "pyp/hylc2020/satin.pyp"], # ]: # for tstname,rgesxsy,rgesa in [ # ['9',rge9xy,rge9a], # ]: # print("Pattern:",name) # print("Samples: %d x %d x %d (Total: %d)" % (len(rgesxsy),len(rgesa),len(rgesxsy), len(rgesxsy)*len(rgesxsy)*len(rgesa))) # t0 = time.perf_counter() # generate.generate_data("model_%s_%s" % (name,tstname), pypfile, rgesxsy, # rgesa, rgesxsy) # dt = time.perf_counter() - t0 # timings.append(["model_%s_%s" % (name,tstname), dt]) # with open(timingsfile, 'a') as f1: # f1.write("%s %s\n" % ("model_%s_%s" % (name,tstname), dt)) # with open(timingsfile, 'a') as f1: # for name, dt in timings: # f1.write("%s %s\n" % (name, dt))
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Python
tests/asyncio/test_result_proxy.py
grignards/sqlalchemy_aio
cbcc9e4503cd0183fa6d12db9ea812544867e1c3
[ "MIT" ]
321
2016-10-04T12:58:42.000Z
2022-01-19T13:47:53.000Z
tests/asyncio/test_result_proxy.py
grignards/sqlalchemy_aio
cbcc9e4503cd0183fa6d12db9ea812544867e1c3
[ "MIT" ]
42
2017-07-10T17:41:51.000Z
2022-03-16T08:59:56.000Z
tests/asyncio/test_result_proxy.py
grignards/sqlalchemy_aio
cbcc9e4503cd0183fa6d12db9ea812544867e1c3
[ "MIT" ]
25
2016-10-10T08:45:31.000Z
2021-08-04T05:44:37.000Z
import pytest from sqlalchemy import func, select from sqlalchemy.schema import CreateTable from sqlalchemy_aio.base import AsyncResultProxy pytestmark = pytest.mark.noextras @pytest.mark.asyncio async def test_result_proxy(asyncio_engine): result = await asyncio_engine.execute(select([1])) assert isinstance(result, AsyncResultProxy) await result.close() @pytest.mark.asyncio async def test_fetchone(asyncio_engine): result = await asyncio_engine.execute(select([1])) assert await result.fetchone() == (1,) await result.close() @pytest.mark.asyncio async def test_fetchmany_value(asyncio_engine): result = await asyncio_engine.execute(select([1])) assert await result.fetchmany() == [(1,)] await result.close() @pytest.mark.asyncio async def test_fetchmany_quantity(asyncio_engine, mytable): await asyncio_engine.execute(CreateTable(mytable)) await asyncio_engine.execute(mytable.insert()) await asyncio_engine.execute(mytable.insert()) result = await asyncio_engine.execute(select([mytable])) rows = await result.fetchmany(1) assert len(rows) == 1 await result.close() await asyncio_engine.execute(mytable.delete()) @pytest.mark.asyncio async def test_fetchmany_all(asyncio_engine, mytable): await asyncio_engine.execute(CreateTable(mytable)) await asyncio_engine.execute(mytable.insert()) await asyncio_engine.execute(mytable.insert()) await asyncio_engine.execute(mytable.insert()) result = await asyncio_engine.execute(select([mytable])) rows = await result.fetchmany(100) assert len(rows) == 3 await result.close() await asyncio_engine.execute(mytable.delete()) @pytest.mark.asyncio async def test_fetchall(asyncio_engine): result = await asyncio_engine.execute(select([1])) assert await result.fetchall() == [(1,)] @pytest.mark.asyncio async def test_scalar(asyncio_engine): result = await asyncio_engine.execute(select([1])) assert await result.scalar() == 1 @pytest.mark.asyncio async def test_first(asyncio_engine): result = await asyncio_engine.execute(select([1])) assert await result.first() == (1,) await result.close() @pytest.mark.asyncio async def test_keys(asyncio_engine): result = await asyncio_engine.execute(select([func.now().label('time')])) assert await result.keys() == ['time'] await result.close() @pytest.mark.asyncio async def test_returns_rows(asyncio_engine, mytable): result = await asyncio_engine.execute(select([1])) assert result.returns_rows await result.close() result = await asyncio_engine.execute(CreateTable(mytable)) assert not result.returns_rows await result.close() @pytest.mark.asyncio async def test_rowcount(asyncio_engine, mytable): await asyncio_engine.execute(CreateTable(mytable)) await asyncio_engine.execute(mytable.insert()) await asyncio_engine.execute(mytable.insert()) result = await asyncio_engine.execute(mytable.delete()) assert result.rowcount == 2 @pytest.mark.asyncio async def test_inserted_primary_key(asyncio_engine, mytable): await asyncio_engine.execute(CreateTable(mytable)) result = await asyncio_engine.execute(mytable.insert()) assert result.inserted_primary_key == [1] @pytest.mark.asyncio async def test_aiter(asyncio_engine, mytable): await asyncio_engine.execute(CreateTable(mytable)) await asyncio_engine.execute(mytable.insert()) await asyncio_engine.execute(mytable.insert()) result = await asyncio_engine.execute(select([mytable])) fetched = [] async for row in result: fetched.append(row) await asyncio_engine.execute(mytable.delete()) assert len(fetched) == 2
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py
Python
client/__init__.py
ShizuApp/TwitchBot
9df8de08ae77604ad24d4a4b5664ef27838e9dab
[ "MIT" ]
20
2017-06-16T22:39:22.000Z
2022-03-13T16:52:20.000Z
bodhion/__init__.py
webclinic017/bodhion
f6d388abc5305afcec279d2e7c9ee1635c5c7031
[ "MIT" ]
4
2017-09-06T12:42:32.000Z
2021-06-01T09:29:34.000Z
bodhion/__init__.py
webclinic017/bodhion
f6d388abc5305afcec279d2e7c9ee1635c5c7031
[ "MIT" ]
3
2017-09-12T19:33:33.000Z
2020-08-01T22:01:56.000Z
from .bot import Bot
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py
Python
venv/lib/python3.8/site-packages/poetry/json/__init__.py
GiulianaPola/select_repeats
17a0d053d4f874e42cf654dd142168c2ec8fbd11
[ "MIT" ]
2
2022-03-13T01:58:52.000Z
2022-03-31T06:07:54.000Z
venv/lib/python3.8/site-packages/poetry/json/__init__.py
DesmoSearch/Desmobot
b70b45df3485351f471080deb5c785c4bc5c4beb
[ "MIT" ]
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2021-11-20T04:09:18.000Z
2022-03-23T15:05:55.000Z
venv/lib/python3.8/site-packages/poetry/json/__init__.py
DesmoSearch/Desmobot
b70b45df3485351f471080deb5c785c4bc5c4beb
[ "MIT" ]
null
null
null
/home/runner/.cache/pip/pool/31/1c/d2/198df0e598f0017770f50ace3e2f7f2452d048ede3449bdf1b3b9256ac
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py
Python
video_records/__init__.py
selva604/DA_TBN
240b3561eb5957e2827a5b8ef8fbd991d51489f4
[ "MIT" ]
1
2021-06-17T12:32:21.000Z
2021-06-17T12:32:21.000Z
video_records/__init__.py
selva604/DA_TBN
240b3561eb5957e2827a5b8ef8fbd991d51489f4
[ "MIT" ]
null
null
null
video_records/__init__.py
selva604/DA_TBN
240b3561eb5957e2827a5b8ef8fbd991d51489f4
[ "MIT" ]
null
null
null
from .epickitchens55_record import EpicKitchens55_VideoRecord from .epickitchens100_record import EpicKitchens100_VideoRecord
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src/Scripts/generate-queries-for-threads.py
jasonfeihe/BitFunnel
859f3038e1978d066426ebaef17354c8ec408402
[ "MIT" ]
364
2016-08-08T21:45:24.000Z
2022-03-27T13:46:51.000Z
src/Scripts/generate-queries-for-threads.py
jasonfeihe/BitFunnel
859f3038e1978d066426ebaef17354c8ec408402
[ "MIT" ]
321
2016-08-08T22:00:28.000Z
2020-11-30T23:03:16.000Z
src/Scripts/generate-queries-for-threads.py
jasonfeihe/BitFunnel
859f3038e1978d066426ebaef17354c8ec408402
[ "MIT" ]
44
2016-08-14T16:20:29.000Z
2021-10-03T07:46:26.000Z
for i in range(1, 17): print("cd /tmp/threads/{}".format(i)) print("threads {}".format(i)) print("query log /home/danluu/dev/wikipedia.100.150/config/QueryLog.txt")
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Python
peleffybenchmarktools/solvent/__init__.py
martimunicoy/offpele-benchmarks
20af939ce60252c05e0c1e44b85cf89a4f8a2245
[ "MIT" ]
null
null
null
peleffybenchmarktools/solvent/__init__.py
martimunicoy/offpele-benchmarks
20af939ce60252c05e0c1e44b85cf89a4f8a2245
[ "MIT" ]
7
2020-08-07T14:51:02.000Z
2020-10-30T20:18:38.000Z
peleffybenchmarktools/solvent/__init__.py
martimunicoy/offpele-benchmarks
20af939ce60252c05e0c1e44b85cf89a4f8a2245
[ "MIT" ]
null
null
null
from .solventhandler import SolventBenchmark
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6
8061b1b6f91f83316cba16d1e3acdfb407b74722
1,401
py
Python
temboo/core/Library/NYTimes/CampaignFinance/Committees/__init__.py
jordanemedlock/psychtruths
52e09033ade9608bd5143129f8a1bfac22d634dd
[ "Apache-2.0" ]
7
2016-03-07T02:07:21.000Z
2022-01-21T02:22:41.000Z
temboo/core/Library/NYTimes/CampaignFinance/Committees/__init__.py
jordanemedlock/psychtruths
52e09033ade9608bd5143129f8a1bfac22d634dd
[ "Apache-2.0" ]
null
null
null
temboo/core/Library/NYTimes/CampaignFinance/Committees/__init__.py
jordanemedlock/psychtruths
52e09033ade9608bd5143129f8a1bfac22d634dd
[ "Apache-2.0" ]
8
2016-06-14T06:01:11.000Z
2020-04-22T09:21:44.000Z
from temboo.Library.NYTimes.CampaignFinance.Committees.CommitteeContributions import CommitteeContributions, CommitteeContributionsInputSet, CommitteeContributionsResultSet, CommitteeContributionsChoreographyExecution from temboo.Library.NYTimes.CampaignFinance.Committees.CommitteeContributionsToCandidate import CommitteeContributionsToCandidate, CommitteeContributionsToCandidateInputSet, CommitteeContributionsToCandidateResultSet, CommitteeContributionsToCandidateChoreographyExecution from temboo.Library.NYTimes.CampaignFinance.Committees.CommitteeDetails import CommitteeDetails, CommitteeDetailsInputSet, CommitteeDetailsResultSet, CommitteeDetailsChoreographyExecution from temboo.Library.NYTimes.CampaignFinance.Committees.CommitteeFilings import CommitteeFilings, CommitteeFilingsInputSet, CommitteeFilingsResultSet, CommitteeFilingsChoreographyExecution from temboo.Library.NYTimes.CampaignFinance.Committees.CommitteeSearch import CommitteeSearch, CommitteeSearchInputSet, CommitteeSearchResultSet, CommitteeSearchChoreographyExecution from temboo.Library.NYTimes.CampaignFinance.Committees.LeadershipPACs import LeadershipPACs, LeadershipPACsInputSet, LeadershipPACsResultSet, LeadershipPACsChoreographyExecution from temboo.Library.NYTimes.CampaignFinance.Committees.NewCommittees import NewCommittees, NewCommitteesInputSet, NewCommitteesResultSet, NewCommitteesChoreographyExecution
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6
80a8468fdb4ed59a8cf27a3f1eaada4a853a42bf
44
py
Python
practice/cToF.py
tntptntp/CMPTGCS-20
f9fbb32199c2b415614e914a84560a2080949965
[ "MIT" ]
null
null
null
practice/cToF.py
tntptntp/CMPTGCS-20
f9fbb32199c2b415614e914a84560a2080949965
[ "MIT" ]
null
null
null
practice/cToF.py
tntptntp/CMPTGCS-20
f9fbb32199c2b415614e914a84560a2080949965
[ "MIT" ]
null
null
null
def cToF(cTemp): return (cTemp*9./5)+32
14.666667
26
0.613636
8
44
3.375
0.875
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6
03b7ae7c3e0d90df745c2ef701ec7315711a0c51
5,379
py
Python
xview/models/vgg16.py
ethz-asl/modular_semantic_segmentation
7c950f24df11540a7ddae4ff806d5b31934a3210
[ "BSD-3-Clause" ]
20
2018-08-01T15:02:59.000Z
2021-04-19T07:22:17.000Z
xview/models/vgg16.py
davesean/modular_semantic_segmentation
5f9e34243915b862e8fef5e6195f1e29f4cebf50
[ "BSD-3-Clause" ]
null
null
null
xview/models/vgg16.py
davesean/modular_semantic_segmentation
5f9e34243915b862e8fef5e6195f1e29f4cebf50
[ "BSD-3-Clause" ]
9
2018-08-01T15:03:03.000Z
2019-12-17T05:12:48.000Z
from tensorflow.python.layers.layers import max_pooling2d from .custom_layers import conv2d, adap_conv from copy import deepcopy def vgg16(inputs, prefix, params): """VGG16 image encoder. Args: inputs: input tensor, of dimensions [batchsize, width, height, #channels] prefix: name prefix for produced weights params: extra parameters for convolutional layers Returns: dict of all layer names and their (intermediate) output """ conv1_1 = conv2d(inputs, 64, [3, 3], name='{}_conv1_1'.format(prefix), **params) conv1_2 = conv2d(conv1_1, 64, [3, 3], name='{}_conv1_2'.format(prefix), **params) pool1 = max_pooling2d(conv1_2, [2, 2], [2, 2], name='{}_pool1'.format(prefix)) conv2_1 = conv2d(pool1, 128, [3, 3], name='{}_conv2_1'.format(prefix), **params) conv2_2 = conv2d(conv2_1, 128, [3, 3], name='{}_conv2_2'.format(prefix), **params) pool2 = max_pooling2d(conv2_2, [2, 2], [2, 2], name='{}_pool2'.format(prefix)) conv3_1 = conv2d(pool2, 256, [3, 3], name='{}_conv3_1'.format(prefix), **params) conv3_2 = conv2d(conv3_1, 256, [3, 3], name='{}_conv3_2'.format(prefix), **params) conv3_3 = conv2d(conv3_2, 256, [3, 3], name='{}_conv3_3'.format(prefix), **params) pool3 = max_pooling2d(conv3_3, [2, 2], [2, 2], name='{}_pool3'.format(prefix)) conv4_1 = conv2d(pool3, 512, [3, 3], name='{}_conv4_1'.format(prefix), **params) conv4_2 = conv2d(conv4_1, 512, [3, 3], name='{}_conv4_2'.format(prefix), **params) conv4_3 = conv2d(conv4_2, 512, [3, 3], name='{}_conv4_3'.format(prefix), **params) pool4 = max_pooling2d(conv4_3, [2, 2], [2, 2], name='{}_pool4'.format(prefix)) conv5_1 = conv2d(pool4, 512, [3, 3], name='{}_conv5_1'.format(prefix), **params) conv5_2 = conv2d(conv5_1, 512, [3, 3], name='{}_conv5_2'.format(prefix), **params) conv5_3 = conv2d(conv5_2, 512, [3, 3], name='{}_conv5_3'.format(prefix), **params) return { 'conv1_1': conv1_1, 'conv1_2': conv1_2, 'pool1': pool1, 'conv2_1': conv2_1, 'conv2_2': conv2_2, 'pool2': pool2, 'conv3_1': conv3_1, 'conv3_2': conv3_2, 'conv3_3': conv3_3, 'pool3': pool3, 'conv4_1': conv4_1, 'conv4_2': conv4_2, 'conv4_3': conv4_3, 'pool4': pool4, 'conv5_1': conv5_1, 'conv5_2': conv5_2, 'conv5_3': conv5_3} def progressive_vgg16(inputs, columns, prefix, params, adapter_params): """VGG16 image encoder, defined as progressive network. Args: inputs: input tensor, of dimensions [batchsize, width, height, #channels] columns: previously trained vgg16 encoders, given as dict: {<layer name>: <list of outputs from columns>} prefix: name prefix for produced weights params: extra parameters for convolutional layers adapter_params: parameters for adapter-blocks additional to params Returns: dict of all layer names and their (intermediate) output """ all_adapter_params = deepcopy(params) all_adapter_params.update(adapter_params) # The first layer is always independent conv1_1 = conv2d(inputs, 64, [3, 3], name='{}_conv1_1'.format(prefix), **params) conv1_2 = adap_conv(conv1_1, columns['conv1_1'], 64, [3, 3], name='{}_conv1_2'.format(prefix), **all_adapter_params) pool1 = max_pooling2d(conv1_2, [2, 2], [2, 2], name='{}_pool1'.format(prefix)) conv2_1 = conv2d(pool1, 128, [3, 3], name='{}_conv2_1'.format(prefix), **params) conv2_2 = adap_conv(conv2_1, columns['conv2_1'], 128, [3, 3], name='{}_conv2_2'.format(prefix), **all_adapter_params) pool2 = max_pooling2d(conv2_2, [2, 2], [2, 2], name='{}_pool2'.format(prefix)) conv3_1 = conv2d(pool2, 256, [3, 3], name='{}_conv3_1'.format(prefix), **params) conv3_2 = conv2d(conv3_1, 256, [3, 3], name='{}_conv3_2'.format(prefix), **params) conv3_3 = adap_conv(conv3_2, columns['conv3_2'], 256, [3, 3], name='{}_conv3_3'.format(prefix), **all_adapter_params) pool3 = max_pooling2d(conv3_3, [2, 2], [2, 2], name='{}_pool3'.format(prefix)) conv4_1 = conv2d(pool3, 512, [3, 3], name='{}_conv4_1'.format(prefix), **params) conv4_2 = conv2d(conv4_1, 512, [3, 3], name='{}_conv4_2'.format(prefix), **params) conv4_3 = adap_conv(conv4_2, columns['conv4_2'], 512, [3, 3], name='{}_conv4_3'.format(prefix), **all_adapter_params) pool4 = max_pooling2d(conv4_3, [2, 2], [2, 2], name='{}_pool4'.format(prefix)) conv5_1 = conv2d(pool4, 512, [3, 3], name='{}_conv5_1'.format(prefix), **params) conv5_2 = conv2d(conv5_1, 512, [3, 3], name='{}_conv5_2'.format(prefix), **params) conv5_3 = adap_conv(conv5_2, columns['conv5_2'], 512, [3, 3], name='{}_conv5_3'.format(prefix), **all_adapter_params) return { 'conv1_1': conv1_1, 'conv1_2': conv1_2, 'pool1': pool1, 'conv2_1': conv2_1, 'conv2_2': conv2_2, 'pool2': pool2, 'conv3_1': conv3_1, 'conv3_2': conv3_2, 'conv3_3': conv3_3, 'pool3': pool3, 'conv4_1': conv4_1, 'conv4_2': conv4_2, 'conv4_3': conv4_3, 'pool4': pool4, 'conv5_1': conv5_1, 'conv5_2': conv5_2, 'conv5_3': conv5_3}
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03ca95cd71df67d4999f01ee7d57df2852640be5
5,619
py
Python
tests/unit/models/geometry/ConduitLengthsTest.py
halotudio/openPNM-copy2
d400ec65e9421256a531f6d22a38255b002d5dcb
[ "MIT" ]
1
2021-05-01T11:10:43.000Z
2021-05-01T11:10:43.000Z
tests/unit/models/geometry/ConduitLengthsTest.py
halotudio/openPNM-copy2
d400ec65e9421256a531f6d22a38255b002d5dcb
[ "MIT" ]
2
2020-06-26T19:58:23.000Z
2021-12-14T07:16:41.000Z
tests/unit/models/geometry/ConduitLengthsTest.py
halotudio/openPNM-copy2
d400ec65e9421256a531f6d22a38255b002d5dcb
[ "MIT" ]
null
null
null
import pytest import numpy as np from numpy.testing import assert_allclose import openpnm as op import openpnm.models.geometry.conduit_lengths as mods class ConduitLengthsTest: def setup_class(self): self.net = op.network.Cubic(shape=[3, 1, 1], spacing=1.0) self.geo = op.geometry.GenericGeometry( network=self.net, pores=self.net.Ps, throats=self.net.Ts ) self.air = op.phases.Air(network=self.net) self.phys = op.physics.GenericPhysics( network=self.net, phase=self.air, geometry=self.geo ) self.geo["throat.diameter"] = 0.4 self.geo["pore.diameter"] = [0.5, 0.9, 0.7] def test_spheres_and_cylinders(self): L_actual = mods.spheres_and_cylinders(self.geo) L_desired = np.array([[0.15 , 0.44688711, 0.40311289], [0.40311289, 0.30965898, 0.28722813]]) assert_allclose(L_actual, L_desired) # Incompatible data with model assumptions self.geo["pore.diameter"][1] = 0.3 with pytest.raises(Exception): L_actual = mods.spheres_and_cylinders(self.geo) self.geo["pore.diameter"][1] = 0.9 # Overlapping pores self.geo["pore.diameter"][0] = 1.2 L_actual = mods.spheres_and_cylinders(self.geo) L_desired = np.array([[5.78750000e-01, 1.00000000e-15, 4.21250000e-01], [4.03112887e-01, 3.09658980e-01, 2.87228132e-01]]) assert_allclose(L_actual, L_desired) self.geo["pore.diameter"][0] = 0.5 def test_circles_and_rectangles(self): L_actual = mods.circles_and_rectangles(self.geo) L_desired = np.array([[0.15 , 0.44688711, 0.40311289], [0.40311289, 0.30965898, 0.28722813]]) assert_allclose(L_actual, L_desired) # Incompatible data with model assumptions self.geo["pore.diameter"][1] = 0.3 with pytest.raises(Exception): L_actual = mods.circles_and_squares(self.geo) self.geo["pore.diameter"][1] = 0.9 # Overlapping pores self.geo["pore.diameter"][0] = 1.2 L_actual = mods.circles_and_rectangles(self.geo) L_desired = np.array([[5.78750000e-01, 1.00000000e-15, 4.21250000e-01], [4.03112887e-01, 3.09658980e-01, 2.87228132e-01]]) assert_allclose(L_actual, L_desired) self.geo["pore.diameter"][0] = 0.5 def test_cones_and_cylinders(self): L_actual = mods.cones_and_cylinders(self.geo) L_desired = np.array([[0.25, 0.3, 0.45], [0.45, 0.2, 0.35]]) assert_allclose(L_actual, L_desired) # Overlapping pores self.geo["pore.diameter"][0] = 1.2 L_actual = mods.cones_and_cylinders(self.geo) L_desired = np.array([[5.7875e-01, 1.0000e-15, 4.2125e-01], [4.5000e-01, 2.0000e-01, 3.5000e-01]]) assert_allclose(L_actual, L_desired) self.geo["pore.diameter"][0] = 0.5 def test_trapezoids_and_rectangles(self): L_actual = mods.trapezoids_and_rectangles(self.geo) L_desired = np.array([[0.25, 0.3, 0.45], [0.45, 0.2, 0.35]]) assert_allclose(L_actual, L_desired) # Overlapping pores self.geo["pore.diameter"][0] = 1.2 L_actual = mods.trapezoids_and_rectangles(self.geo) L_desired = np.array([[5.7875e-01, 1.0000e-15, 4.2125e-01], [4.5000e-01, 2.0000e-01, 3.5000e-01]]) assert_allclose(L_actual, L_desired) self.geo["pore.diameter"][0] = 0.5 def test_pyramids_and_cuboids(self): L_actual = mods.pyramids_and_cuboids(self.geo) L_desired = np.array([[0.25, 0.3, 0.45], [0.45, 0.2, 0.35]]) assert_allclose(L_actual, L_desired) # Overlapping pores self.geo["pore.diameter"][0] = 1.2 L_actual = mods.pyramids_and_cuboids(self.geo) L_desired = np.array([[5.7875e-01, 1.0000e-15, 4.2125e-01], [4.5000e-01, 2.0000e-01, 3.5000e-01]]) assert_allclose(L_actual, L_desired) self.geo["pore.diameter"][0] = 0.5 def test_cubes_and_cuboids(self): L_actual = mods.cubes_and_cuboids(self.geo) L_desired = np.array([[0.25, 0.3, 0.45], [0.45, 0.2, 0.35]]) assert_allclose(L_actual, L_desired) # Overlapping pores self.geo["pore.diameter"][0] = 1.2 L_actual = mods.cubes_and_cuboids(self.geo) L_desired = np.array([[6.0e-01, 1.0e-15, 4.0e-01], [4.5e-01, 2.0e-01, 3.5e-01]]) assert_allclose(L_actual, L_desired) self.geo["pore.diameter"][0] = 0.5 def test_squares_and_rectangles(self): L_actual = mods.squares_and_rectangles(self.geo) L_desired = np.array([[0.25, 0.3, 0.45], [0.45, 0.2, 0.35]]) assert_allclose(L_actual, L_desired) # Overlapping pores self.geo["pore.diameter"][0] = 1.2 L_actual = mods.cubes_and_cuboids(self.geo) L_desired = np.array([[6.0e-01, 1.0e-15, 4.0e-01], [4.5e-01, 2.0e-01, 3.5e-01]]) assert_allclose(L_actual, L_desired) self.geo["pore.diameter"][0] = 0.5 if __name__ == '__main__': t = ConduitLengthsTest() self = t t.setup_class() for item in t.__dir__(): if item.startswith('test'): print(f'Running test: {item}') t.__getattribute__(item)()
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6
45aadb4bfe2d39cde5839f163e88fdf99e04b050
37,794
py
Python
settlement/settle_stock.py
jiafeiyan/xops
fba70cc5282a040ae5f2f1266b86e12dd54edd65
[ "Apache-2.0" ]
1
2018-01-22T06:38:06.000Z
2018-01-22T06:38:06.000Z
settlement/settle_stock.py
jiafeiyan/my_python_util
fba70cc5282a040ae5f2f1266b86e12dd54edd65
[ "Apache-2.0" ]
null
null
null
settlement/settle_stock.py
jiafeiyan/my_python_util
fba70cc5282a040ae5f2f1266b86e12dd54edd65
[ "Apache-2.0" ]
null
null
null
# -*- coding: UTF-8 -*- import json from utils import Configuration, mysql, log, parse_conf_args, process_assert def settle_stock(context, conf): result_code = 0 logger = log.get_logger(category="SettleStock") settlement_group_id = conf.get("settlementGroupId") settlement_id = conf.get("settlementId") logger.info("[settle stock %s] begin" % (json.dumps(conf, encoding="UTF-8", ensure_ascii=False))) mysql_pool = mysql(configs=context.get("mysql").get(conf.get("mysqlId"))) mysql_conn = mysql_pool.get_cnx() mysql_conn.set_charset_collation('utf8') try: mysql_conn.start_transaction() cursor = mysql_conn.cursor() logger.info("[get current trading day]......") sql = """SELECT t1.tradingday FROM siminfo.t_tradesystemtradingday t1, siminfo.t_tradesystemsettlementgroup t2 WHERE t1.tradesystemid = t2.tradesystemid and t2.settlementgroupid = %s""" cursor.execute(sql, (settlement_group_id,)) row = cursor.fetchone() current_trading_day = str(row[0]) logger.info("[get current trading day] current_trading_day = %s" % (current_trading_day)) logger.info("[get next trading day]......") # 判断是否跳过节假日 holiday = conf.get("holiday") if holiday is True or holiday is None: sql = """SELECT DAY FROM siminfo.t_TradingCalendar t WHERE t.day > %s AND t.tra = '1' ORDER BY DAY LIMIT 1""" else: sql = """SELECT DAY FROM siminfo.t_TradingCalendar t WHERE t.day > %s ORDER BY DAY LIMIT 1""" cursor.execute(sql, (current_trading_day,)) row = cursor.fetchone() next_trading_day = str(row[0]) logger.info("[get next trading day] next_trading_day = %s" % (next_trading_day)) # 检查结算状态 logger.info("[check settlement status]......") sql = """SELECT t1.tradingday, t1.settlementgroupid, t1.settlementid, t1.settlementstatus FROM dbclear.t_settlement t1 WHERE t1.tradingday = %s AND t1.settlementgroupid = %s AND t1.settlementid = %s for update""" cursor.execute(sql, (current_trading_day, settlement_group_id, settlement_id)) row = cursor.fetchone() if row is None: logger.error("[settle stock] Error: There is no data for %s-%s." % (settlement_group_id, settlement_id)) result_code = -1 elif row[3] != '0': logger.error("[settle stock] Error: Settlement for %s-%s has done." % (settlement_group_id, settlement_id)) result_code = -1 else: #计算结算价 股票中结算价设置为收盘价,如有除权除息,设置为除权价 logger.info("[calculate settlement price]......") sql = """UPDATE dbclear.t_marketdata t, (SELECT t.tradingday, t.settlementgroupid, t.settlementid, t.instrumentid, ROUND(((CASE WHEN t.closeprice = 0 and t.lastprice = 0 THEN t.precloseprice when t.closeprice = 0 and t.lastprice != 0 THEN t.lastprice ELSE t.closeprice END) - IFNULL(t1.beforerate, 0) + IFNULL(t3.beforerate, 0) * IFNULL(t3.price, 0))/(1 + IFNULL(t2.beforerate, 0) + IFNULL(t3.beforerate, 0)), CASE WHEN t.InstrumentID like '51%' or t.InstrumentID like '15%' or t.InstrumentID like '50%' or t.InstrumentID like '16%' or t.InstrumentID like '18%' THEN 3 ELSE 2 END ) AS settlementprice FROM dbclear.t_marketdata t LEFT JOIN (SELECT settlementgroupid, securityid, beforerate, afterrate, price FROM siminfo.t_securityprofit WHERE securitytype = 'GP' AND profittype = 'HL' AND cqdate = %s) t1 ON (t.settlementgroupid = t1.settlementgroupid AND t.instrumentid = t1.securityid) LEFT JOIN (SELECT settlementgroupid, securityid, beforerate, afterrate, price FROM siminfo.t_securityprofit WHERE securitytype = 'GP' AND profittype = 'S' AND cqdate = %s) t2 ON (t.settlementgroupid = t2.settlementgroupid AND t.instrumentid = t2.securityid) LEFT JOIN (SELECT settlementgroupid, securityid, beforerate, afterrate, price FROM siminfo.t_securityprofit WHERE securitytype = 'GP' AND profittype = 'P' AND cqdate = %s) t3 ON (t.settlementgroupid = t3.settlementgroupid AND t.instrumentid = t3.securityid) WHERE t.tradingday = %s AND t.settlementgroupid = %s AND t.settlementid = %s) t1 SET t.settlementprice = t1.settlementprice, t.closeprice = t1.settlementprice WHERE t .tradingday = %s AND t.settlementgroupid = %s AND t.settlementid = %s and t.tradingday = t1.tradingday AND t.settlementgroupid = t1.settlementgroupid AND t.settlementid = t1.settlementid AND t.instrumentid = t1.instrumentid""" cursor.execute(sql, (next_trading_day, next_trading_day, next_trading_day, current_trading_day, settlement_group_id, settlement_id, current_trading_day, settlement_group_id, settlement_id)) #计算交易手续费 logger.info("[calculate trade trans fee]......") sql = """DELETE FROM dbclear.t_clienttransfee WHERE tradingday = %s AND settlementgroupid = %s AND settlementid = %s""" cursor.execute(sql, (current_trading_day, settlement_group_id, settlement_id)) sql = """INSERT INTO dbclear.t_clienttransfee(TradingDay, SettlementGroupID, SettlementID, ParticipantID, ClientID, AccountID, ProductGroupID, ProductID, UnderlyingInstrID, InstrumentID, TradeID, OrderSysID, Direction, TradingRole, HedgeFlag, OffsetFlag, Volume, Price, TransFeeRatio, ValueMode, MinFee, MaxFee, TransFee, Tax) SELECT t1.tradingday, t1.settlementgroupid, t1.settlementid, t1.participantid, t1.clientid, t1.accountid, t3.productgroupid, t3.productid, t3.underlyinginstrid, t1.instrumentid, t1.tradeid, t1.ordersysid, t1.direction, t1.tradingrole, t1.hedgeflag, t1.offsetflag, t1.volume, t1.price, CASE WHEN t1.direction = '0' THEN t2.openfeeratio WHEN t1.direction = '1' THEN t2.closeyesterdayfeeratio END AS transfeeratio, t2.valuemode, CASE WHEN t1.direction = '0' THEN t2.minopenfee WHEN t1.direction = '1' THEN t2.minclosefee END AS minfee, CASE WHEN t1.direction = '0' THEN t2.maxopenfee WHEN t1.direction = '1' THEN t2.maxclosefee END AS maxfee, IF(t2.valuemode='2', ROUND((CASE WHEN t1.direction = '0' THEN t2.openfeeratio WHEN t1.direction = '1' THEN t2.closeyesterdayfeeratio END) * t1.volume * t3.volumemultiple, 2), ROUND((CASE WHEN t1.direction = '0' THEN t2.openfeeratio WHEN t1.direction = '1' THEN t2.closeyesterdayfeeratio END) * t1.price * t1.volume * t3.volumemultiple, 2)) AS transfee, (CASE WHEN t1.direction = '0' THEN 0 WHEN t1.direction = '1' THEN ROUND(t1.price * t1.volume * 0.001, 2) END) + (CASE WHEN SUBSTR(t1.instrumentid, 1, 1) = '6' THEN ROUND(t1.price * t1.volume * 0.00002, 2) ELSE 0 END) AS tax FROM dbclear.t_trade t1, dbclear.t_clienttransfeeratio t2, siminfo.t_instrument t3 WHERE t1.tradingday = t2.tradingday AND t1.settlementgroupid = t2.settlementgroupid AND t1.settlementid = t2.settlementid AND t2.participantid = '00000000' AND t2.clientid = '00000000' AND t1.instrumentid = t2.instrumentid AND t1.tradingrole = t2.tradingrole AND t1.hedgeflag = t2.hedgeflag AND t1.settlementgroupid = t3.settlementgroupid AND t1.instrumentid = t3.instrumentid AND t1.tradingday = %s AND t1.settlementgroupid = %s AND t1.settlementid = %s""" cursor.execute(sql, (current_trading_day, settlement_group_id, settlement_id)) sql = """INSERT INTO dbclear.t_clienttransfee(TradingDay, SettlementGroupID, SettlementID, ParticipantID, ClientID, AccountID, ProductGroupID, ProductID, UnderlyingInstrID, InstrumentID, TradeID, OrderSysID, Direction, TradingRole, HedgeFlag, OffsetFlag, Volume, Price, TransFeeRatio, ValueMode, MinFee, MaxFee, TransFee) SELECT t1.tradingday, t1.settlementgroupid, t1.settlementid, t1.participantid, t1.clientid, t1.accountid, t3.productgroupid, t3.productid, t3.underlyinginstrid, t1.instrumentid, t1.tradeid, t1.ordersysid, t1.direction, t1.tradingrole, t1.hedgeflag, t1.offsetflag, t1.volume, t1.price, CASE WHEN t1.direction = '0' THEN t2.openfeeratio WHEN t1.direction = '1' THEN t2.closeyesterdayfeeratio END AS transfeeratio, t2.valuemode, CASE WHEN t1.direction = '0' THEN t2.minopenfee WHEN t1.direction = '1' THEN t2.minclosefee END AS minfee, CASE WHEN t1.direction = '0' THEN t2.maxopenfee WHEN t1.direction = '1' THEN t2.maxclosefee END AS maxfee, IF(t2.valuemode='2', ROUND((CASE WHEN t1.direction = '0' THEN t2.openfeeratio WHEN t1.direction = '1' THEN t2.closeyesterdayfeeratio END) * t1.volume * t3.volumemultiple, 2), ROUND((CASE WHEN t1.direction = '0' THEN t2.openfeeratio WHEN t1.direction = '1' THEN t2.closeyesterdayfeeratio END) * t1.price * t1.volume * t3.volumemultiple, 2)) AS transfee FROM dbclear.t_trade t1, dbclear.t_clienttransfeeratio t2, siminfo.t_instrument t3 WHERE t1.tradingday = t2.tradingday AND t1.settlementgroupid = t2.settlementgroupid AND t1.settlementid = t2.settlementid AND t2.participantid = t1.participantid AND t2.clientid = '00000000' AND t1.instrumentid = t2.instrumentid AND t1.tradingrole = t2.tradingrole AND t1.hedgeflag = t2.hedgeflag AND t1.settlementgroupid = t3.settlementgroupid AND t1.instrumentid = t3.instrumentid AND t1.tradingday = %s AND t1.settlementgroupid = %s AND t1.settlementid = %s ON DUPLICATE KEY UPDATE transfeeratio = VALUES(transfeeratio), valuemode = VALUES(valuemode), minfee = VALUES(minfee), maxfee = VALUES(maxfee), transfee = VALUES(transfee)""" cursor.execute(sql, (current_trading_day, settlement_group_id, settlement_id)) sql = """INSERT INTO dbclear.t_clienttransfee(TradingDay, SettlementGroupID, SettlementID, ParticipantID, ClientID, AccountID, ProductGroupID, ProductID, UnderlyingInstrID, InstrumentID, TradeID, OrderSysID, Direction, TradingRole, HedgeFlag, OffsetFlag, Volume, Price, TransFeeRatio, ValueMode, MinFee, MaxFee, TransFee) SELECT t1.tradingday, t1.settlementgroupid, t1.settlementid, t1.participantid, t1.clientid, t1.accountid, t3.productgroupid, t3.productid, t3.underlyinginstrid, t1.instrumentid, t1.tradeid, t1.ordersysid, t1.direction, t1.tradingrole, t1.hedgeflag, t1.offsetflag, t1.volume, t1.price, CASE WHEN t1.direction = '0' THEN t2.openfeeratio WHEN t1.direction = '1' THEN t2.closeyesterdayfeeratio END AS transfeeratio, t2.valuemode, CASE WHEN t1.direction = '0' THEN t2.minopenfee WHEN t1.direction = '1' THEN t2.minclosefee END AS minfee, CASE WHEN t1.direction = '0' THEN t2.maxopenfee WHEN t1.direction = '1' THEN t2.maxclosefee END AS maxfee, IF(t2.valuemode='2', ROUND((CASE WHEN t1.direction = '0' THEN t2.openfeeratio WHEN t1.direction = '1' THEN t2.closeyesterdayfeeratio END) * t1.volume * t3.volumemultiple, 2), ROUND((CASE WHEN t1.direction = '0' THEN t2.openfeeratio WHEN t1.direction = '1' THEN t2.closeyesterdayfeeratio END) * t1.price * t1.volume * t3.volumemultiple, 2)) AS transfee FROM dbclear.t_trade t1, dbclear.t_clienttransfeeratio t2, siminfo.t_instrument t3 WHERE t1.tradingday = t2.tradingday AND t1.settlementgroupid = t2.settlementgroupid AND t1.settlementid = t2.settlementid AND t2.participantid = t1.participantid AND t2.clientid = t1.clientid AND t1.instrumentid = t2.instrumentid AND t1.tradingrole = t2.tradingrole AND t1.hedgeflag = t2.hedgeflag AND t1.settlementgroupid = t3.settlementgroupid AND t1.instrumentid = t3.instrumentid AND t1.tradingday = %s AND t1.settlementgroupid = %s AND t1.settlementid = %s ON DUPLICATE KEY UPDATE transfeeratio = VALUES(transfeeratio), valuemode = VALUES(valuemode), minfee = VALUES(minfee), maxfee = VALUES(maxfee), transfee = VALUES(transfee)""" cursor.execute(sql, (current_trading_day, settlement_group_id, settlement_id)) # 合并客户手续费 logger.info("[calculate client trans fee]......") sql = """INSERT INTO dbclear.t_clientfund(tradingday, settlementgroupid, settlementid, participantid, clientid, accountid, available, transfee, delivfee, positionmargin, profit, stockvalue) SELECT t.tradingday, t.settlementgroupid, t.settlementid, t.participantid, t.clientid, t.accountid, 0, ROUND(SUM(CASE WHEN t.calctransfee < t.minfee THEN t.minfee WHEN t.calctransfee > t.maxfee THEN t.minfee ELSE t.calctransfee END), 2) + ROUND(SUM(t.tax), 2) AS transfee, 0, 0, 0, 0 FROM(SELECT tt.tradingday, tt.settlementgroupid, tt.settlementid, tt.participantid, tt.clientid, tt.accountid, tt.ordersysid, tt.minfee, tt.maxfee, SUM(tt.transfee) AS calctransfee, SUM(tt.tax) AS tax FROM dbclear.t_clienttransfee tt WHERE tt.tradingday = %s AND tt.settlementgroupid = %s AND tt.settlementid = %s GROUP BY tt.tradingday, tt.settlementgroupid,tt.settlementid, tt.participantid, tt.clientid, tt.accountid, tt.ordersysid, tt.minfee, tt.maxfee ) t GROUP BY t.tradingday, t.settlementgroupid, t.settlementid, t.participantid, t.clientid, t.accountid ON DUPLICATE KEY UPDATE dbclear.t_clientfund.transfee = VALUES(transfee)""" cursor.execute(sql, (current_trading_day, settlement_group_id, settlement_id)) # 更新客户可用资金变化 logger.info("[calculate client available change]......") sql = """INSERT INTO dbclear.t_clientfund(tradingday, settlementgroupid, settlementid, participantid, clientid, accountid, available, transfee, delivfee, positionmargin, profit, stockvalue) SELECT t1.tradingday, t1.settlementgroupid, t1.settlementid, t1.participantid, t1.clientid, t1.accountid, SUM(IF(t1.direction = '0', -1 * t1.volume * t1.price, t1.volume * t1.price) * t2.volumemultiple) AS available, 0, 0, 0, 0, 0 FROM dbclear.t_trade t1, siminfo.t_instrument t2 WHERE t1.settlementgroupid = t2.settlementgroupid AND t1.instrumentid = t2.instrumentid AND t1.tradingday = %s AND t1.settlementgroupid = %s AND t1.settlementid = %s GROUP BY t1.tradingday, t1.settlementgroupid, t1.settlementid, t1.participantid, t1.clientid, t1.accountid ON DUPLICATE KEY UPDATE dbclear.t_clientfund.available = VALUES(available)""" cursor.execute(sql, (current_trading_day, settlement_group_id, settlement_id)) # 更新客户股票盈利 logger.info("[calculate client stock profit]......") sql = """INSERT INTO dbclear.t_clientfund(tradingday, settlementgroupid, settlementid, participantid, clientid, accountid, available, transfee, delivfee, positionmargin, profit, stockvalue) SELECT %s AS tradingday, t1.settlementgroupid, t1.settlementid, t1.participantid, t1.clientid, t3.accountid, 0, 0, 0, 0, SUM(t1.position * t2.afterrate) AS profit, 0 FROM dbclear.t_ClientPositionForSecurityProfit t1, (SELECT settlementgroupid, securityid, djdate, afterrate FROM siminfo.t_securityprofit WHERE securitytype = 'GP' AND profittype = 'HL' AND dzdate = %s) t2, siminfo.t_account t3 WHERE t1.djdate = t2.djdate AND t1.settlementgroupid = t2.settlementgroupid AND t1.instrumentid = t2.securityid AND t1.settlementgroupid = t3.settlementgroupid AND t1.participantid = t3.participantid AND t1.settlementgroupid = %s AND t1.settlementid = %s GROUP BY t1.settlementgroupid, t1.settlementid, t1.participantid, t1.clientid, t3.accountid ON DUPLICATE KEY UPDATE dbclear.t_clientfund.profit = VALUES(profit)""" cursor.execute(sql, (current_trading_day, next_trading_day, settlement_group_id, settlement_id)) # 更新客户股票配股占用资金 logger.info("[calculate client stock profit]......") sql = """INSERT INTO dbclear.t_clientfund(tradingday, settlementgroupid, settlementid, participantid, clientid, accountid, available, transfee, delivfee, positionmargin, profit, stockvalue) SELECT %s, t1.settlementgroupid, t1.settlementid, t1.participantid, t1.clientid, t3.accountid, 0, 0, 0, SUM(t1.position * t2.beforerate * t2.price) AS positionmargin, 0, 0 FROM dbclear.t_ClientPositionForSecurityProfit t1, (SELECT settlementgroupid, securityid, djdate, beforerate, price FROM siminfo.t_securityprofit WHERE securitytype = 'GP' AND profittype = 'P' AND enddate = %s) t2, siminfo.t_account t3 WHERE t1.djdate = t2.djdate AND t1.settlementgroupid = t2.settlementgroupid AND t1.instrumentid = t2.securityid AND t1.settlementgroupid = t3.settlementgroupid AND t1.participantid = t3.participantid AND t1.settlementgroupid = %s AND t1.settlementid = %s GROUP BY t1.settlementgroupid, t1.settlementid, t1.participantid, t1.clientid, t3.accountid ON DUPLICATE KEY UPDATE dbclear.t_clientfund.positionmargin = VALUES(positionmargin)""" cursor.execute(sql, (current_trading_day, current_trading_day, settlement_group_id, settlement_id)) # 更新客户持仓 logger.info("[update client position]......") sql = """INSERT INTO dbclear.t_clientposition(TradingDay,SettlementGroupID,SettlementID,HedgeFlag,PosiDirection,YdPosition,Position,LongFrozen,ShortFrozen,YdLongFrozen,YdShortFrozen,BuyTradeVolume,SellTradeVolume,PositionCost,YdPositionCost,UseMargin,FrozenMargin,LongFrozenMargin,ShortFrozenMargin,FrozenPremium,InstrumentID,ParticipantID,ClientID) SELECT tradingday,SettlementGroupID,SettlementID,HedgeFlag,'9',0,SUM(Position),SUM(LongFrozen),SUM(ShortFrozen),0,0,SUM(BuyTradeVolume),SUM(SellTradeVolume),SUM(PositionCost),0,SUM(UseMargin),0,0,0,0,InstrumentID,ParticipantID,ClientID FROM dbclear.t_clientposition t WHERE t .tradingday = %s AND t.settlementgroupid = %s AND t.settlementid = %s GROUP BY t.tradingday, t.settlementgroupid, t.settlementid, t.hedgeflag, t.InstrumentID, t.ParticipantID, t.ClientID""" cursor.execute(sql, (current_trading_day, settlement_group_id, settlement_id)) sql = """DELETE FROM dbclear.t_ClientPosition WHERE tradingday = %s AND SettlementGroupID = %s AND SettlementID = %s AND PosiDirection != '9'""" cursor.execute(sql, (current_trading_day, settlement_group_id, settlement_id)) sql = """DELETE FROM dbclear.t_ClientPosition WHERE tradingday = %s AND SettlementGroupID = %s AND SettlementID = %s AND Position = 0""" cursor.execute(sql, (current_trading_day, settlement_group_id, settlement_id)) sql = """UPDATE dbclear.t_clientposition t,(SELECT t.tradingday, t.settlementgroupid, t.settlementid, t.participantid, t.clientid, t.instrumentid, ROUND(SUM(CASE WHEN t.calctransfee < t.minfee THEN t.minfee WHEN t.calctransfee > t.maxfee THEN t.minfee ELSE t.calctransfee END), 2) AS transfee, ROUND(SUM(t.tax), 2) as tax FROM(SELECT tt.tradingday, tt.settlementgroupid, tt.settlementid, tt.participantid, tt.clientid, tt.instrumentid, tt.ordersysid, tt.minfee, tt.maxfee, ROUND(SUM(tt.transfee), 2) AS calctransfee, ROUND(sum(tt.tax), 2) AS tax FROM dbclear.t_clienttransfee tt WHERE tt.tradingday = %s AND tt.settlementgroupid = %s AND tt.settlementid = %s GROUP BY tt.tradingday, tt.settlementgroupid,tt.settlementid, tt.participantid, tt.clientid, tt.instrumentid, tt.ordersysid, tt.minfee, tt.maxfee ) t GROUP BY t.tradingday, t.settlementgroupid, t.settlementid, t.participantid, t.clientid, t.instrumentid) t1 SET t.usemargin = t.usemargin + t1.transfee + t1.tax WHERE t.tradingday = %s AND t.settlementgroupid = %s AND t.settlementid = %s AND t.tradingday = t1.tradingday AND t.settlementgroupid = t1.settlementgroupid AND t.settlementid = t1.settlementid AND t.participantid = t1.participantid AND t.clientid = t1.clientid AND t.instrumentid = t1.instrumentid""" cursor.execute(sql, (current_trading_day, settlement_group_id, settlement_id, current_trading_day, settlement_group_id, settlement_id)) sql = """UPDATE dbclear.t_clientposition t,( SELECT t.settlementgroupid, t.securityid, SUM(t.addposrate) AS addposrate, SUM(t.profit) AS profit, SUM(t.peirate) AS peirate, SUM(t.peiprice) AS peiprice, SUM(t.songrate) AS songrate FROM( SELECT settlementgroupid, securityid, SUM(IFNULL(beforerate, 0)) AS addposrate, 0 AS profit, 0 AS peirate, 0 AS peiprice, 0 AS songrate FROM siminfo.t_securityprofit WHERE securitytype = 'GP' AND (profittype = 'S' OR profittype = 'P') AND cqdate = %s GROUP BY settlementgroupid, securityid UNION SELECT settlementgroupid, securityid, 0 AS addposrate, afterrate AS profit, 0 AS peirate, 0 AS peiprice, 0 AS songrate FROM siminfo.t_securityprofit WHERE securitytype = 'GP' AND profittype = 'HL' AND dzdate = %s UNION SELECT settlementgroupid, securityid, 0 AS addposrate, 0 AS profit, beforerate AS peirate, price AS peiprice, 0 AS songrate FROM siminfo.t_securityprofit WHERE securitytype = 'GP' AND profittype = 'P' AND cqdate = %s UNION SELECT settlementgroupid, securityid, 0 AS addposrate, 0 AS profit, 0 AS peirate, 0 AS peiprice, beforerate AS songrate FROM siminfo.t_securityprofit WHERE securitytype = 'GP' AND profittype = 'S' AND cqdate = %s) t GROUP BY t.settlementgroupid, t.securityid) t1 SET t.position = t.position * (1 + t1.addposrate), t.usemargin = t.usemargin + t.position * t1.peirate * t1.peiprice - t.position * t1.profit WHERE t.tradingday = %s AND t.settlementgroupid = %s AND t.settlementid = %s AND t.settlementgroupid = t1.settlementgroupid AND t.instrumentid = t1.securityid""" cursor.execute(sql, (next_trading_day, next_trading_day, next_trading_day, next_trading_day, current_trading_day, settlement_group_id, settlement_id)) sql = """UPDATE dbclear.t_clientposition t SET t.positioncost = t.usemargin WHERE t.tradingday = %s AND t.settlementgroupid = %s AND t.settlementid = %s""" cursor.execute(sql, (current_trading_day, settlement_group_id, settlement_id)) # 更新会员持仓 # 更新客户股票市值 logger.info("[calculate client stock value]......") sql = """INSERT INTO dbclear.t_clientfund(tradingday, settlementgroupid, settlementid, participantid, clientid, accountid, available, transfee, delivfee, positionmargin, profit, stockvalue) SELECT t1.tradingday, t1.settlementgroupid, t1.settlementid, t1.participantid, t1.clientid, t3.accountid, 0, 0, 0, 0, 0, SUM(t1.position * t2.settlementprice) AS stockvalue FROM dbclear.t_clientposition t1, dbclear.t_marketdata t2, siminfo.t_account t3 WHERE t1.tradingday = t2.tradingday AND t1.settlementgroupid = t2.settlementgroupid AND t1.settlementid = t2.settlementid AND t1.instrumentid = t2.instrumentid AND t1.settlementgroupid = t3.settlementgroupid AND t1.participantid = t3.participantid AND t1.tradingday = %s AND t1.settlementgroupid = %s AND t1.settlementid = %s GROUP BY t1.tradingday, t1.settlementgroupid, t1.settlementid, t1.participantid, t1.clientid, t3.accountid ON DUPLICATE KEY UPDATE dbclear.t_clientfund.stockvalue = VALUES(stockvalue)""" cursor.execute(sql, (current_trading_day, settlement_group_id, settlement_id)) # 更新客户分红持仓表数据 logger.info("[update ClientPositionForSecurityProfit]......") sql = """DELETE FROM dbclear.t_clientpositionforsecurityprofit WHERE NOT EXISTS (SELECT settlementgroupid, securityid, djdate FROM (SELECT settlementgroupid, securityid, djdate FROM siminfo.t_securityprofit WHERE cqdate > %s AND securitytype = 'GP' AND (profittype = 'S' OR profittype = 'P') UNION SELECT settlementgroupid, securityid, djdate FROM siminfo.t_securityprofit WHERE dzdate > %s AND securitytype = 'GP' AND profittype = 'HL') t WHERE dbclear.t_clientpositionforsecurityprofit.settlementgroupid = %s AND dbclear.t_clientpositionforsecurityprofit.settlementid = %s AND dbclear.t_clientpositionforsecurityprofit.settlementgroupid = t.settlementgroupid AND dbclear.t_clientpositionforsecurityprofit.instrumentid = t.securityid AND dbclear.t_clientpositionforsecurityprofit.djdate = t.djdate)""" cursor.execute(sql, (next_trading_day, next_trading_day, settlement_group_id, settlement_id)) # 更新结算状态 logger.info("[update settlement status]......") sql = """UPDATE dbclear.t_settlement SET settlementstatus = '1' WHERE tradingday = %s AND settlementgroupid = %s AND settlementid = %s AND settlementstatus = '0'""" cursor.execute(sql, (current_trading_day, settlement_group_id, settlement_id)) mysql_conn.commit() except Exception as e: logger.error("[settle stock] Error: %s" % (e)) result_code = -1 finally: mysql_conn.close() logger.info("[settle stock] end") return result_code def main(): base_dir, config_names, config_files, add_ons = parse_conf_args(__file__, config_names=["mysql"]) context, conf = Configuration.load(base_dir=base_dir, config_names=config_names, config_files=config_files) process_assert(settle_stock(context, conf)) if __name__ == "__main__": main()
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6
45e5454ef4fe532d78294527c1253e4739f762c9
511
py
Python
pygalgen/generator/common/source_file_parsing/parsing_exceptions.py
Kulivox/PyGalGen
816004bce50703737384e2fbdcfe43b61ce2f4dd
[ "MIT" ]
null
null
null
pygalgen/generator/common/source_file_parsing/parsing_exceptions.py
Kulivox/PyGalGen
816004bce50703737384e2fbdcfe43b61ce2f4dd
[ "MIT" ]
null
null
null
pygalgen/generator/common/source_file_parsing/parsing_exceptions.py
Kulivox/PyGalGen
816004bce50703737384e2fbdcfe43b61ce2f4dd
[ "MIT" ]
null
null
null
""" Module containing Exceptions that can be raised during param discovery """ class ArgumentParsingDiscoveryError(Exception): """ Exception for general error encountered during param extraction """ pass class ArgParseImportNotFound(ArgumentParsingDiscoveryError): """ Exception raised in case ArgParser was not imported """ pass class ArgParserNotUsed(ArgumentParsingDiscoveryError): """ Exception raised in case no uses of argument parser were found """ pass
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6
b3061ddff013db444dae6c0a0d9d3b6ed10bb351
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py
Python
gdcdatamodel/models/qcreport.py
NCI-GDC/gdcdatamodel
924fc8ab695b1cbb0131636ffcb6d3881db2e200
[ "Apache-2.0" ]
27
2016-06-24T20:32:44.000Z
2022-01-17T07:53:48.000Z
gdcdatamodel/models/qcreport.py
NCI-GDC/gdcdatamodel
924fc8ab695b1cbb0131636ffcb6d3881db2e200
[ "Apache-2.0" ]
63
2016-07-20T21:40:11.000Z
2021-08-12T18:39:21.000Z
gdcdatamodel/models/qcreport.py
NCI-GDC/gdcdatamodel
924fc8ab695b1cbb0131636ffcb6d3881db2e200
[ "Apache-2.0" ]
5
2016-10-20T20:00:09.000Z
2020-08-14T08:55:40.000Z
from gdc_ng_models.models.qcreport import *
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6
b34368aa16bd80010a6d853496223d21462b2e40
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py
Python
Back/ecoreleve_server/modules/users/__init__.py
NaturalSolutions/ecoReleve-Data
535a6165984544902563eca7cb10d07f1686c963
[ "MIT" ]
15
2015-02-15T18:02:54.000Z
2021-10-31T00:08:41.000Z
Back/ecoreleve_server/modules/users/__init__.py
NaturalSolutions/ecoReleve-Data
535a6165984544902563eca7cb10d07f1686c963
[ "MIT" ]
505
2015-03-24T15:16:55.000Z
2022-03-21T22:17:11.000Z
Back/ecoreleve_server/modules/users/__init__.py
NaturalSolutions/ecoReleve-Data
535a6165984544902563eca7cb10d07f1686c963
[ "MIT" ]
31
2015-04-09T10:48:31.000Z
2020-12-08T16:32:30.000Z
from .user_model import *
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6
b36d24b74a4da71352bae5fc3b759891a0187b93
147
py
Python
pwngef/functions/__init__.py
int-0x03/pwngef
3d362ac56b3149ffa90a511935d5f68559dc1d8f
[ "MIT" ]
null
null
null
pwngef/functions/__init__.py
int-0x03/pwngef
3d362ac56b3149ffa90a511935d5f68559dc1d8f
[ "MIT" ]
null
null
null
pwngef/functions/__init__.py
int-0x03/pwngef
3d362ac56b3149ffa90a511935d5f68559dc1d8f
[ "MIT" ]
null
null
null
#!/usr/bin/python from __future__ import absolute_import from __future__ import division from __future__ import print_function __functions__ = []
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6
ff28244de2968a4dc68e88b7d44ae0253b5a0b09
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py
Python
database/__init__.py
airlovelq/flask-frame
86a97522a6eff4e34f0cd5c131ebf68f7c78390a
[ "Apache-2.0" ]
null
null
null
database/__init__.py
airlovelq/flask-frame
86a97522a6eff4e34f0cd5c131ebf68f7c78390a
[ "Apache-2.0" ]
null
null
null
database/__init__.py
airlovelq/flask-frame
86a97522a6eff4e34f0cd5c131ebf68f7c78390a
[ "Apache-2.0" ]
null
null
null
from .db_store import DbStore
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ff487ba408728041a390854e5f9680a26f002e5f
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py
Python
__init__.py
mgsosna/py-utils
311639de53c50022b0ea001e999719139b1166b3
[ "MIT" ]
3
2021-04-23T20:41:42.000Z
2022-03-30T11:06:26.000Z
__init__.py
mgsosna/py-utils
311639de53c50022b0ea001e999719139b1166b3
[ "MIT" ]
null
null
null
__init__.py
mgsosna/py-utils
311639de53c50022b0ea001e999719139b1166b3
[ "MIT" ]
null
null
null
from .jewelry import *
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6
ffa846f7628c112910e00c6ef4f8c43fc5337017
3,398
py
Python
source/figures/paraglider/demonstration/plot_polars.py
pfheatwole/thesis
b8686e6bf1e32ef579ffa45068b430ddc42a3b06
[ "CC-BY-4.0" ]
null
null
null
source/figures/paraglider/demonstration/plot_polars.py
pfheatwole/thesis
b8686e6bf1e32ef579ffa45068b430ddc42a3b06
[ "CC-BY-4.0" ]
null
null
null
source/figures/paraglider/demonstration/plot_polars.py
pfheatwole/thesis
b8686e6bf1e32ef579ffa45068b430ddc42a3b06
[ "CC-BY-4.0" ]
null
null
null
"""Plot polar curves for Niviuk Hook 3 and annotate them with flight data.""" import matplotlib.pyplot as plt import numpy as np import pfh.glidersim as gsim import util gliders = util.build_paragliders() savefig = False # savefig = True ############################################################################### # Wing test: Parapente Mag (French), size=25 with a pod harness # (`Hook 3 Parapente Mag 148.pdf`) accelerating, braking = gsim.extras.compute_polars.compute_polar_data(gliders["6a_25"]) deltas_a = accelerating["delta"] deltas_b = braking["delta"] thetas_a = accelerating["theta_b"] thetas_b = braking["theta_b"] v_RM2e_a = accelerating["v_RM2e"] v_RM2e_b = braking["v_RM2e"] # Calculate the best glide ratio, assuming that happens at zero brakes BG = braking["v_RM2e"][0] BGR = BG[0] / BG[2] print(f"Size 25, best glide (zero brakes): {BG} (ratio: {BGR})") # Polar curve: vertical versus horizontal airspeed fig, ax = plt.subplots(figsize=(10, 5)) # Theoretical data ax.plot(v_RM2e_a.T[0], v_RM2e_a.T[2], "g") ax.plot(v_RM2e_b.T[0], v_RM2e_b.T[2], "r") ax.plot([0, 17.5], [0, 17.5 / BGR], "b--", linewidth=0.75) # Theoretical best glide # Experimental data speeds = np.array([24, 38, 52]) # min, trim, max [km/h] ax.vlines(speeds / 3.6, 0.5, 3, colors="k", linestyles="dashed", linewidth=0.75) ax.plot([9.22], [1.05], "k.") # Min sink ax.plot([37.5 / 3.6], [(37.5 / 3.6) / 9.3], "k.") # Best glide # ax.plot([0, 17.5], [0, 17.5 / 9.3], "k-", linewidth=1.00) # Experimental best glide ax.set_aspect("equal") ax.set_xlim(0, 20) ax.set_ylim(-0.05, 3.5) ax.invert_yaxis() ax.set_xlabel("Horizontal airspeed [m/s]") ax.set_ylabel("Sink rate [m/s]") ax.set_title("Niviuk Hook 3, size 25") ax.grid(which="both") # ax.minorticks_on() if savefig: fig.savefig("equilibrium_airspeed.svg") ############################################################################### # Wing test: Parapente (Spanish), size=27 with a pod harness # (`Hook 3 perfils.pdf`) print() accelerating, braking = gsim.extras.compute_polars.compute_polar_data(gliders["6a_27"]) deltas_a = accelerating["delta"] deltas_b = braking["delta"] thetas_a = accelerating["theta_b"] thetas_b = braking["theta_b"] v_RM2e_a = accelerating["v_RM2e"] v_RM2e_b = braking["v_RM2e"] # Calculate the best glide ratio, assuming that happens at zero brakes BG = braking["v_RM2e"][0] BGR = BG[0] / BG[2] print(f"Size 27, best glide (zero brakes): {BG} (ratio: {BGR})") # Polar curve: vertical versus horizontal airspeed fig, ax = plt.subplots(figsize=(10, 5)) # Theoretical data ax.plot(v_RM2e_a.T[0], v_RM2e_a.T[2], "g") ax.plot(v_RM2e_b.T[0], v_RM2e_b.T[2], "r") ax.plot([0, 17.5], [0, 17.5 / BGR], "b--", linewidth=0.75) # Theoretical best glide # Experimental data speeds = np.array([24, 40, 54]) # min, trim, max [km/h] ax.vlines(speeds / 3.6, 0.5, 3, colors="k", linestyles="dashed", linewidth=0.75) ax.plot([9.72], [1.15], "k.") # Min sink ax.plot([40 / 3.6], [(40 / 3.6) / 9.5], "k.") # Best glide # ax.plot([0, 17.5], [0, 17.5 / 9.5], "k-", linewidth=1.00) # Experimental best glide ax.set_aspect("equal") ax.set_xlim(0, 20) ax.set_ylim(-0.05, 3.5) ax.invert_yaxis() ax.set_xlabel("Horizontal airspeed [m/s]") ax.set_ylabel("Sink rate [m/s]") ax.set_title("Niviuk Hook 3, size 27") ax.grid(which="both") # ax.minorticks_on() if savefig: fig.savefig("equilibrium_airspeed_27.svg") plt.show()
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6
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4,546
py
Python
architecture_flexible.py
Frank-W-B/kaggle-carvana
af09a9b324af8a6e246b0469f4ae1b95c9c5b77d
[ "MIT" ]
null
null
null
architecture_flexible.py
Frank-W-B/kaggle-carvana
af09a9b324af8a6e246b0469f4ae1b95c9c5b77d
[ "MIT" ]
null
null
null
architecture_flexible.py
Frank-W-B/kaggle-carvana
af09a9b324af8a6e246b0469f4ae1b95c9c5b77d
[ "MIT" ]
null
null
null
from keras.models import Model, Sequential from keras.layers import Input from keras.layers.convolutional import Conv2D, MaxPooling2D, ZeroPadding2D, UpSampling2D from keras.layers.normalization import BatchNormalization from keras.layers.core import Layer, Activation, Reshape, Permute def set_architecture(n_classes, img_shape, conv_layers_in_block=1): model = Sequential() conv_kernel = (3, 3) # changing will affect padding and stride init = 'he_normal' # Encoding # Block 1 model.add(Conv2D(64, conv_kernel, padding='same', input_shape=img_shape, kernel_initializer=init, data_format='channels_first')) model.add(BatchNormalization(axis=1)) model.add(Activation('relu')) for l in range(conv_layers_in_block-1): model.add(Conv2D(64, conv_kernel, padding='same', kernel_initializer=init, data_format='channels_first')) model.add(BatchNormalization(axis=1)) model.add(Activation('relu')) model.add(MaxPooling2D((2, 2), strides=(2, 2), data_format='channels_first')) # Block 2 for l in range(conv_layers_in_block): model.add(Conv2D(128, conv_kernel, padding='same', kernel_initializer=init, data_format='channels_first')) model.add(BatchNormalization(axis=1)) model.add(Activation('relu')) model.add(MaxPooling2D((2, 2), strides=(2, 2), data_format='channels_first')) # Block 3 for l in range(conv_layers_in_block): model.add(Conv2D(256, conv_kernel, padding='same', kernel_initializer=init, data_format='channels_first')) model.add(BatchNormalization(axis=1)) model.add(Activation('relu')) model.add(MaxPooling2D((2, 2), strides=(2, 2), data_format='channels_first')) # Block 4 for l in range(conv_layers_in_block): model.add(Conv2D(512, conv_kernel, padding='same', kernel_initializer=init, data_format='channels_first')) model.add(BatchNormalization(axis=1)) model.add(Activation('relu')) # Decoding # Block 4 model.add(ZeroPadding2D((1,1), data_format='channels_first' )) model.add(Conv2D(512, conv_kernel, padding='valid', kernel_initializer=init, data_format='channels_first')) model.add(BatchNormalization(axis=1)) for l in range(conv_layers_in_block-1): model.add(Conv2D(512, conv_kernel, padding='same', kernel_initializer=init, data_format='channels_first')) model.add(BatchNormalization(axis=1)) # Block 3 model.add(UpSampling2D((2,2), data_format='channels_first')) model.add(ZeroPadding2D((1,1), data_format='channels_first')) model.add(Conv2D(256, conv_kernel, padding='valid', kernel_initializer=init, data_format='channels_first')) model.add(BatchNormalization(axis=1)) for l in range(conv_layers_in_block-1): model.add(Conv2D(256, conv_kernel, padding='same', kernel_initializer=init, data_format='channels_first')) model.add(BatchNormalization(axis=1)) # Block 2 model.add(UpSampling2D((2,2), data_format='channels_first')) model.add(ZeroPadding2D((1,1), data_format='channels_first')) model.add(Conv2D(128, conv_kernel, padding='valid', kernel_initializer=init, data_format='channels_first')) model.add(BatchNormalization(axis=1)) for l in range(conv_layers_in_block-1): model.add(Conv2D(128, conv_kernel, padding='same', kernel_initializer=init, data_format='channels_first')) model.add(BatchNormalization(axis=1)) # Block 1 model.add(UpSampling2D((2,2), data_format='channels_first')) model.add(ZeroPadding2D((1,1), data_format='channels_first')) model.add(Conv2D(64, conv_kernel, padding='valid', data_format='channels_first')) model.add(BatchNormalization(axis=1)) for l in range(conv_layers_in_block-1): model.add(Conv2D(64, conv_kernel, padding='same', kernel_initializer=init, data_format='channels_first')) model.add(BatchNormalization(axis=1)) model.add(Conv2D(n_classes, conv_kernel, padding='same', data_format='channels_first' )) output_shape = model.output_shape outputHeight = output_shape[2] outputWidth = output_shape[3] model.add(Reshape((-1, outputHeight*outputWidth))) model.add(Permute((2, 1))) model.add(Activation('softmax')) return model if __name__ == '__main__': n_classes = 2 img_channels = 3 img_h = 256 img_w = 256 conv_layers_in_block = 1 input_shape = (img_channels, img_h, img_w) model = set_architecture(n_classes, input_shape, conv_layers_in_block)
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448ccc9101b47ec237706b0b90fe8acc003dfb39
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py
Python
tkmvc2/controllers/__init__.py
unodan/tkmvc2
3bfe31a7c7b47c16032a46ad7e2e423ce4577922
[ "MIT" ]
null
null
null
tkmvc2/controllers/__init__.py
unodan/tkmvc2
3bfe31a7c7b47c16032a46ad7e2e423ce4577922
[ "MIT" ]
1
2021-11-15T17:49:24.000Z
2021-11-15T17:49:24.000Z
tkmvc2/controllers/__init__.py
unodan/tkmvc2
3bfe31a7c7b47c16032a46ad7e2e423ce4577922
[ "MIT" ]
1
2021-01-11T09:04:41.000Z
2021-01-11T09:04:41.000Z
######################################################################################################################## # File: __init__.py # Author: Dan Huckson, https://github.com/unodan # Date: 2018-09-20 ######################################################################################################################## from tkmvc.controllers.controller import Controller
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39
py
Python
widgets/htmltemplate/__init__.py
cheak1974/remi-app-template
6c724dda0294b41b906134b9062eadce0f6c0617
[ "Apache-2.0" ]
12
2020-02-24T08:44:29.000Z
2022-02-21T07:18:31.000Z
widgets/htmltemplate/__init__.py
cheak1974/remi-app-template
6c724dda0294b41b906134b9062eadce0f6c0617
[ "Apache-2.0" ]
null
null
null
widgets/htmltemplate/__init__.py
cheak1974/remi-app-template
6c724dda0294b41b906134b9062eadce0f6c0617
[ "Apache-2.0" ]
3
2020-05-02T15:47:09.000Z
2021-06-12T23:56:52.000Z
from .htmltemplate import Htmltemplate
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92688ee227e3098a08e1cd32d4b2480dccc95637
1,389
py
Python
crafters/audio/SlidingWindowAudioSlicer/tests/test_audiosegmenter.py
YueLiu-jina/jina-hub
e0a7dc95dbd69a55468acbf4194ddaf11fd5aa6c
[ "Apache-2.0" ]
null
null
null
crafters/audio/SlidingWindowAudioSlicer/tests/test_audiosegmenter.py
YueLiu-jina/jina-hub
e0a7dc95dbd69a55468acbf4194ddaf11fd5aa6c
[ "Apache-2.0" ]
null
null
null
crafters/audio/SlidingWindowAudioSlicer/tests/test_audiosegmenter.py
YueLiu-jina/jina-hub
e0a7dc95dbd69a55468acbf4194ddaf11fd5aa6c
[ "Apache-2.0" ]
null
null
null
import numpy as np from .. import AudioSlicer, SlidingWindowAudioSlicer class TestClass: def test_segment_mono(self): n_frames = 100 frame_length = 2048 signal_orig = np.random.randn(frame_length * n_frames) crafter = AudioSlicer(frame_length) crafted_chunks = crafter.craft(signal_orig, 0) assert len(crafted_chunks) == n_frames def test_segment_stereo(self): n_frames = 100 frame_length = 2048 signal_orig = np.random.randn(2, frame_length * n_frames) crafter = AudioSlicer(frame_length) crafted_chunks = crafter.craft(signal_orig, 0) assert len(crafted_chunks) == n_frames * 2 def test_sliding_window_mono(self): n_frames = 100 frame_length = 2048 signal_orig = np.random.randn(frame_length * n_frames) crafter = SlidingWindowAudioSlicer(frame_length, frame_length // 2) crafted_chunks = crafter.craft(signal_orig, 0) assert len(crafted_chunks) == n_frames * 2 - 1 def test_sliding_window_stereo(self): n_frames = 100 frame_length = 2048 signal_orig = np.random.randn(2, frame_length * n_frames) crafter = SlidingWindowAudioSlicer(frame_length, frame_length // 2) crafted_chunks = crafter.craft(signal_orig, 0) assert len(crafted_chunks) == (n_frames * 2 - 1) * 2
30.195652
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6
92b4a7270d9100fed4ce1b5ab8433753c44208c7
23
py
Python
src/pywmapi/experimental/__init__.py
leonardodalinky/pywmapi
b9e2650761895eb9a88170497c4d209b5dd6870c
[ "MIT" ]
4
2022-01-27T14:31:38.000Z
2022-03-25T08:52:01.000Z
src/pywmapi/experimental/__init__.py
leonardodalinky/pywmapi
b9e2650761895eb9a88170497c4d209b5dd6870c
[ "MIT" ]
null
null
null
src/pywmapi/experimental/__init__.py
leonardodalinky/pywmapi
b9e2650761895eb9a88170497c4d209b5dd6870c
[ "MIT" ]
null
null
null
from . import auctions
11.5
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6
92b8b9b3ab8eb01553859ea46fccdd7aaf8811a0
98
py
Python
openprocurement/auctions/core/plugins/contracting/v3/interfaces.py
EBRD-ProzorroSale/openprocurement.auctions.core
52bd59f193f25e4997612fca0f87291decf06966
[ "Apache-2.0" ]
2
2016-09-15T20:17:43.000Z
2017-01-08T03:32:43.000Z
openprocurement/auctions/core/plugins/contracting/v3/interfaces.py
EBRD-ProzorroSale/openprocurement.auctions.core
52bd59f193f25e4997612fca0f87291decf06966
[ "Apache-2.0" ]
183
2017-12-21T11:04:37.000Z
2019-03-27T08:14:34.000Z
openprocurement/auctions/core/plugins/contracting/v3/interfaces.py
EBRD-ProzorroSale/openprocurement.auctions.core
52bd59f193f25e4997612fca0f87291decf06966
[ "Apache-2.0" ]
12
2016-09-05T12:07:48.000Z
2019-02-26T09:24:17.000Z
# -*- coding: utf-8 from zope.interface import Interface class IContractV3(Interface): pass
14
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1
1
0
1
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0
6
2b803c133f79f2e54eee2f91d39791aba1d6b6ea
7,311
py
Python
tests/test_apply.py
Madoshakalaka/hfstol
e37318f4d46c5552722f7639e87181aabeb49788
[ "MIT" ]
2
2019-07-24T02:28:54.000Z
2019-08-21T15:54:09.000Z
tests/test_apply.py
Madoshakalaka/hfstol
e37318f4d46c5552722f7639e87181aabeb49788
[ "MIT" ]
9
2019-07-23T22:10:35.000Z
2021-06-02T01:28:14.000Z
tests/test_apply.py
Madoshakalaka/hfstol
e37318f4d46c5552722f7639e87181aabeb49788
[ "MIT" ]
null
null
null
import os import subprocess import sys import unittest from os import path import pytest from hfstol import main @pytest.mark.parametrize( "surface_form,result", [ ("nîskâw", (("nîskâw", "+V", "+II", "+Ind", "+Prs", "+3Sg"),)), ("nipâw", (("nipâw", "+V", "+AI", "+Ind", "+Prs", "+3Sg"),)), ], ) def test_single_analysis_single_deep_form(cree_analyzer, surface_form, result): assert cree_analyzer.feed(surface_form) == result @pytest.mark.parametrize( "surface_form,result", [ ( "nîskâw", (("n", "î", "s", "k", "â", "w", "+V", "+II", "+Ind", "+Prs", "+3Sg"),), ), ("nipâw", (("n", "i", "p", "â", "w", "+V", "+AI", "+Ind", "+Prs", "+3Sg"),)), ], ) def test_single_analysis_single_deep_form_split(cree_analyzer, surface_form, result): assert cree_analyzer.feed(surface_form, concat=False) == result @pytest.mark.parametrize( "surface_form,result", [("niska", (("niska", "+N", "+A", "+Sg"), ("niska", "+N", "+A", "+Obv")))], ) def test_singled_analysis_multiple_deep_form(cree_analyzer, surface_form, result): assert cree_analyzer.feed(surface_form) == result @pytest.mark.parametrize( "surface_form,result", [ ( "niska", ( ("n", "i", "s", "k", "a", "+N", "+A", "+Sg"), ("n", "i", "s", "k", "a", "+N", "+A", "+Obv"), ), ) ], ) def test_singled_analysis_multiple_deep_form_split(cree_analyzer, surface_form, result): assert cree_analyzer.feed(surface_form, concat=False) == result @pytest.mark.parametrize("surface_form,result", [("abcdefg", ()), ("", ())]) def test_singled_analysis_out_side_alphabet(cree_analyzer, surface_form, result): assert cree_analyzer.feed(surface_form) == result assert cree_analyzer.feed(surface_form, concat=False) == result @pytest.mark.parametrize( "surface_forms,result", [ ( ("niskak", "nîskâw", "nipâw", "abcdefg"), { "niskak": { ("niska", "+N", "+A", "+Pl"), ("nîskâw", "+V", "+II", "+Cnj", "+Prs", "+3Sg"), }, "nîskâw": {("nîskâw", "+V", "+II", "+Ind", "+Prs", "+3Sg")}, "nipâw": {("nipâw", "+V", "+AI", "+Ind", "+Prs", "+3Sg")}, "abcdefg": set(), }, ) ], ) def test_multiple_analyses(cree_analyzer, surface_forms, result): assert cree_analyzer.feed_in_bulk(surface_forms) == result @pytest.mark.parametrize( "surface_forms,result", [ ( ("niskak", "nîskâw", "nipâw", "abcdefg"), { "niskak": { ("n", "i", "s", "k", "a", "+N", "+A", "+Pl"), ("n", "î", "s", "k", "â", "w", "+V", "+II", "+Cnj", "+Prs", "+3Sg"), }, "nîskâw": { ("n", "î", "s", "k", "â", "w", "+V", "+II", "+Ind", "+Prs", "+3Sg") }, "nipâw": { ("n", "i", "p", "â", "w", "+V", "+AI", "+Ind", "+Prs", "+3Sg") }, "abcdefg": set(), }, ) ], ) def test_multiple_analyses_split(cree_analyzer, surface_forms, result): assert cree_analyzer.feed_in_bulk(surface_forms, concat=False) == result @pytest.mark.parametrize( "surface_forms,result", [ ( ("niskak", "nîskâw", "nipâw", "abcdefg"), { "niskak": {"niska+N+A+Pl", "nîskâw+V+II+Cnj+Prs+3Sg"}, "nîskâw": {"nîskâw+V+II+Ind+Prs+3Sg"}, "nipâw": {"nipâw+V+AI+Ind+Prs+3Sg"}, "abcdefg": set(), }, ) ], ) def test_multiple_analyses_fast(cree_analyzer, surface_forms, result): assert cree_analyzer.feed_in_bulk_fast(surface_forms) == result assert cree_analyzer.feed_in_bulk_fast(surface_forms, multi_process=2) == result @pytest.mark.parametrize("surface_form,result", [("niska+N+A+Pl", (("niskak",),))]) def test_single_generation_single_deep_form(cree_generator, surface_form, result): assert cree_generator.feed(surface_form) == result @pytest.mark.parametrize( "surface_form,result", [("niska+N+A+Pl", (("n", "i", "s", "k", "a", "k"),))] ) def test_single_generation_single_deep_form_split(cree_generator, surface_form, result): assert cree_generator.feed(surface_form, concat=False) == result @pytest.mark.parametrize( "surface_form,result", [("nipâw+V+AI+Ind+Prs+12Pl", (("kinipânaw",), ("kinipânânaw",)))], ) def test_single_generation_multiple_deep_form(cree_generator, surface_form, result): assert cree_generator.feed(surface_form) == result @pytest.mark.parametrize( "surface_form,result", [ ( "nipâw+V+AI+Ind+Prs+12Pl", ( ("k", "i", "n", "i", "p", "â", "n", "a", "w"), ("k", "i", "n", "i", "p", "â", "n", "â", "n", "a", "w"), ), ) ], ) def test_single_generation_multiple_deep_form_split( cree_generator, surface_form, result ): assert cree_generator.feed(surface_form, concat=False) == result @pytest.mark.parametrize("surface_form,result", [("abcdefg", ()), ("", ())]) def test_single_generation_outside_of_alphabet(cree_generator, surface_form, result): # fixme: 'I+lov` hangs, 'i+lov' doesn't assert cree_generator.feed(surface_form) == result assert cree_generator.feed(surface_form, concat=False) == result @pytest.mark.parametrize( "surface_forms,result", [ ( ["niska+N+A+Pl", "nipâw+V+AI+Ind+Prs+12Pl", "abcdefg", ""], { "niska+N+A+Pl": {("niskak",)}, "nipâw+V+AI+Ind+Prs+12Pl": {("kinipânaw",), ("kinipânânaw",)}, "abcdefg": set(), "": set(), }, ) ], ) def test_multiple_generation(cree_generator, surface_forms, result): assert cree_generator.feed_in_bulk(surface_forms) == result @pytest.mark.parametrize( "surface_forms,result", [ ( ["niska+N+A+Pl", "nipâw+V+AI+Ind+Prs+12Pl", "abcdefg", ""], { "niska+N+A+Pl": {("n", "i", "s", "k", "a", "k")}, "nipâw+V+AI+Ind+Prs+12Pl": { ("k", "i", "n", "i", "p", "â", "n", "a", "w"), ("k", "i", "n", "i", "p", "â", "n", "â", "n", "a", "w"), }, "abcdefg": set(), "": set(), }, ) ], ) def test_multiple_generation_split(cree_generator, surface_forms, result): assert cree_generator.feed_in_bulk(surface_forms, concat=False) == result @pytest.mark.parametrize( "surface_forms,result", [ ( ["niska+N+A+Pl", "nipâw+V+AI+Ind+Prs+12Pl", "abcdefg", ""], { "niska+N+A+Pl": {"niskak"}, "nipâw+V+AI+Ind+Prs+12Pl": {"kinipânaw", "kinipânânaw"}, "abcdefg": set(), "": set(), }, ) ], ) def test_multiple_generation_fast(cree_generator, surface_forms, result): assert cree_generator.feed_in_bulk_fast(surface_forms) == result assert cree_generator.feed_in_bulk_fast(surface_forms, multi_process=2) == result
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0
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0
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6
2ba1ffad78a439072434a2b6569f6901a2c24801
35
py
Python
hyper/__init__.py
sehoonha/pydart_green_stair
a644355c6ef8068aea5cd0c807b74454f2f9ce4d
[ "MIT" ]
null
null
null
hyper/__init__.py
sehoonha/pydart_green_stair
a644355c6ef8068aea5cd0c807b74454f2f9ce4d
[ "MIT" ]
null
null
null
hyper/__init__.py
sehoonha/pydart_green_stair
a644355c6ef8068aea5cd0c807b74454f2f9ce4d
[ "MIT" ]
null
null
null
from stair_latch import StairLatch
17.5
34
0.885714
5
35
6
1
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35
0.967742
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true
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1
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0
6
2bdad824eb7c5c886053f64eb1394f4eeb1fba5b
128
py
Python
gadget/__init__.py
martincss/iccpy
d3b5f71136835502b04ba26f9656252b735895f4
[ "MIT" ]
null
null
null
gadget/__init__.py
martincss/iccpy
d3b5f71136835502b04ba26f9656252b735895f4
[ "MIT" ]
null
null
null
gadget/__init__.py
martincss/iccpy
d3b5f71136835502b04ba26f9656252b735895f4
[ "MIT" ]
null
null
null
from .snapshot import save_snapshot, load_snapshot_files, load_snapshot, load_ICsnapshot from .subfind import SubfindCatalogue
32
88
0.867188
16
128
6.625
0.5625
0.226415
0
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0.09375
128
3
89
42.666667
0.913793
0
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true
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null
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null
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0
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1
0
1
0
1
0
0
6
9214ee602078b3694add41bd9eb6c58bf2949fbe
34
py
Python
quicklock3/__init__.py
untixx/quicklock
3e7ad13619e7bf98a5ce5ec135feba58eef19cb5
[ "MIT" ]
null
null
null
quicklock3/__init__.py
untixx/quicklock
3e7ad13619e7bf98a5ce5ec135feba58eef19cb5
[ "MIT" ]
null
null
null
quicklock3/__init__.py
untixx/quicklock
3e7ad13619e7bf98a5ce5ec135feba58eef19cb5
[ "MIT" ]
null
null
null
from .quicklock3 import singleton
17
33
0.852941
4
34
7.25
1
0
0
0
0
0
0
0
0
0
0
0.033333
0.117647
34
1
34
34
0.933333
0
0
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0
1
0
true
0
1
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1
0
1
1
0
null
0
0
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0
0
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0
0
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0
1
0
0
0
0
0
0
0
0
0
0
null
0
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0
0
0
0
1
0
1
0
1
0
0
6
ecf579517fd9ce9389d7534c4d943828cfaf70dc
163
py
Python
crypto/babyrsa/babyrsa.py
vidner/codepwnda-ctf
7e086044b753fe555b44395b79827d2f5b89da1d
[ "Unlicense" ]
6
2021-02-18T15:07:55.000Z
2022-02-04T01:38:10.000Z
crypto/babyrsa/release/babyrsa.py
vidner/codepwnda-ctf
7e086044b753fe555b44395b79827d2f5b89da1d
[ "Unlicense" ]
null
null
null
crypto/babyrsa/release/babyrsa.py
vidner/codepwnda-ctf
7e086044b753fe555b44395b79827d2f5b89da1d
[ "Unlicense" ]
null
null
null
flag = open("flag").read() m = int(flag.encode("hex"), 0x16) e = 0x10001 n = 0x54012066b18843995165c3c0d783aa9e31e796f6928ea4bfe0728b1d1bad6271 print pow(m, e, n)
27.166667
70
0.754601
19
163
6.473684
0.736842
0
0
0
0
0
0
0
0
0
0
0.376712
0.104294
163
5
71
32.6
0.465753
0
0
0
0
0
0.042945
0
0
0
0.472393
0
0
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null
null
0
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null
null
0.2
1
0
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null
0
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0
1
0
0
0
0
0
0
0
0
6
a63bea7a639509d764cec91bb33bc6cd5db9959c
152
py
Python
trello/main/controller.py
maong0927/trello-clone-server
efaeb90057769b45dd73cc91463431da341dc798
[ "MIT" ]
2
2021-08-17T01:08:35.000Z
2021-08-25T14:51:11.000Z
trello/main/controller.py
maong0927/trello-clone-server
efaeb90057769b45dd73cc91463431da341dc798
[ "MIT" ]
null
null
null
trello/main/controller.py
maong0927/trello-clone-server
efaeb90057769b45dd73cc91463431da341dc798
[ "MIT" ]
null
null
null
from flask_restful import Resource class MainController(Resource): def __init__(self): pass def get(self): return "hi trello"
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0.833333
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1
0
0
6
a64ab3d01136c7628b41493592aad2cef451c36d
38
py
Python
contact_book/src/contact_book/service/__init__.py
marianne-manaog/ContactBookPythonApplication
7adcdeb1f7664c1867e8b9939792ed0325ca20c8
[ "MIT" ]
null
null
null
contact_book/src/contact_book/service/__init__.py
marianne-manaog/ContactBookPythonApplication
7adcdeb1f7664c1867e8b9939792ed0325ca20c8
[ "MIT" ]
null
null
null
contact_book/src/contact_book/service/__init__.py
marianne-manaog/ContactBookPythonApplication
7adcdeb1f7664c1867e8b9939792ed0325ca20c8
[ "MIT" ]
null
null
null
from . import contacts_service, utils
19
37
0.815789
5
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0.909091
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1
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1
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6
a67966bf73c287aa4dad3a4d322e51f5b2ec11e3
351
py
Python
packageinstaller.py
HariCane193/Brilliant-Pro
5149a8205b24a7c488340869bc927fb1912a8f4d
[ "MIT" ]
1
2020-07-27T06:44:53.000Z
2020-07-27T06:44:53.000Z
packageinstaller.py
HariCane193/Brilliant-Pro
5149a8205b24a7c488340869bc927fb1912a8f4d
[ "MIT" ]
null
null
null
packageinstaller.py
HariCane193/Brilliant-Pro
5149a8205b24a7c488340869bc927fb1912a8f4d
[ "MIT" ]
null
null
null
import sys import subprocess #pip as subprocess subprocess.check_call([sys.executable,'-m','pip','install','instabot']) subprocess.check_call([sys.executable,'-m','pip','install','mysql-connector-python']) subprocess.check_call([sys.executable,'-m','pip','install','Pillow']) subprocess.check_call([sys.executable,'-m','pip','install','matplotlib'])
39
85
0.740741
45
351
5.688889
0.355556
0.234375
0.296875
0.34375
0.671875
0.671875
0.671875
0.671875
0
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0.034188
351
8
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43.875
0.755162
0.048433
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0.282282
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1
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0
0
0
6
a6a1175306e37e24be16b44f39ad874b5edc1137
109
py
Python
base/src/shallowflow/base/help/__init__.py
waikato-datamining/shallow-flow
3f1d99921e5138598eb164edeb1d23e6f199501c
[ "MIT" ]
null
null
null
base/src/shallowflow/base/help/__init__.py
waikato-datamining/shallow-flow
3f1d99921e5138598eb164edeb1d23e6f199501c
[ "MIT" ]
2
2021-08-18T22:00:08.000Z
2021-08-18T22:00:47.000Z
base/src/shallowflow/base/help/__init__.py
waikato-datamining/shallowflow
3f1d99921e5138598eb164edeb1d23e6f199501c
[ "MIT" ]
null
null
null
from ._Markdown import Markdown from ._PlainText import PlainText from ._class_doc import markdown_class_doc
27.25
42
0.862385
15
109
5.866667
0.4
0.318182
0
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0.110092
109
3
43
36.333333
0.907216
0
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true
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0
1
0
1
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0
6
a6b389bfc3a191363e3ea420e6dcc476687d7de1
15,884
py
Python
src/userservice/db.py
Budget-Web-App/budget-web-app
6cd1f70bea2e5c7bd674cd383177cca3c8e8ff11
[ "MIT" ]
null
null
null
src/userservice/db.py
Budget-Web-App/budget-web-app
6cd1f70bea2e5c7bd674cd383177cca3c8e8ff11
[ "MIT" ]
null
null
null
src/userservice/db.py
Budget-Web-App/budget-web-app
6cd1f70bea2e5c7bd674cd383177cca3c8e8ff11
[ "MIT" ]
null
null
null
import logging from sqlalchemy import create_engine, MetaData, Table, Column, String, Date, LargeBinary, and_ import random from opentelemetry.instrumentation.sqlalchemy import SQLAlchemyInstrumentor class UserDb: """ UserDb provides a set of helper functions over SQLAlchemy to handle db operations for userservice """ def __init__(self, uri, logger=logging): self.engine = create_engine(uri) self.logger = logger self.users_table = Table( 'users', MetaData(self.engine), Column('userid', String, primary_key=True), Column('email', String, unique=True, nullable=False), Column('passhash', LargeBinary, nullable=False), Column('timezone', String, nullable=False), Column('registereddate', Date, nullable=True), ) # Set up tracing autoinstrumentation for sqlalchemy SQLAlchemyInstrumentor().instrument( engine=self.engine, service='users', ) def add_user(self, user): """Add a user to the database. Params: user - a key/value dict of attributes describing a new user {'email': email, 'password': password, ...} Raises: SQLAlchemyError if there was an issue with the database """ statement = self.users_table.insert().values(user) self.logger.debug('QUERY: %s', str(statement)) with self.engine.connect() as conn: conn.execute(statement) def generate_userid(self): """Generates a globally unique alphanumerical userid.""" self.logger.debug('Generating an account ID') userid = None with self.engine.connect() as conn: while userid is None: userid = str(random.randint(1e9, (1e10 - 1))) statement = self.users_table.select().where( self.users_table.c.userid == userid ) self.logger.debug('QUERY: %s', str(statement)) result = conn.execute(statement).first() # If there already exists an account, try again. if result is not None: userid = None self.logger.debug( 'RESULT: account ID already exists. Trying again') self.logger.debug('RESULT: account ID generated.') return userid def get_user(self, email): """Get user data for the specified email. Params: email - the email of the user Return: a key/value dict of user attributes, {'email': email, 'userid': userid, ...} or None if that user does not exist Raises: SQLAlchemyError if there was an issue with the database """ statement = self.users_table.select().where( self.users_table.c.email == email) self.logger.debug('QUERY: %s', str(statement)) with self.engine.connect() as conn: result = conn.execute(statement).first() self.logger.debug('RESULT: fetched user data for %s', email) return dict(result) if result is not None else None class BudgetDb: """ BudgetDb provides a set of helper functions over SQLAlchemy to handle db operations for userservice """ def __init__(self, uri, logger=logging): self.engine = create_engine(uri) self.logger = logger self.budgets_table = Table( 'budgets', MetaData(self.engine), Column('budgetid', String, primary_key=True), Column('displayname', String, nullable=False), Column('budgetnotes', String, nullable=True), Column('accessdate', Date, nullable=False), Column('userid', String, nullable=False), ) # Set up tracing autoinstrumentation for sqlalchemy SQLAlchemyInstrumentor().instrument( engine=self.engine, service='budgets', ) def add_budget(self, budget): """Add a budget to the database. Params: budget - a key/value dict of attributes describing a new budget {'email': email, 'password': password, ...} Raises: SQLAlchemyError if there was an issue with the database """ statement = self.budgets_table.insert().values(budget) self.logger.debug('QUERY: %s', str(statement)) with self.engine.connect() as conn: conn.execute(statement) def generate_budgetid(self): """Generates a globally unique alphanumerical budgetid.""" self.logger.debug('Generating an account ID') budgetid = None with self.engine.connect() as conn: while budgetid is None: budgetid = str(random.randint(1e9, (1e10 - 1))) statement = self.budgets_table.select().where( self.budgets_table.c.budgetid == budgetid ) self.logger.debug('QUERY: %s', str(statement)) result = conn.execute(statement).first() # If there already exists an account, try again. if result is not None: budgetid = None self.logger.debug( 'RESULT: account ID already exists. Trying again') self.logger.debug('RESULT: account ID generated.') return budgetid def get_budget(self, budgetid): """Get user data for the specified email. Params: email - the email of the user Return: a key/value dict of user attributes, {'email': email, 'userid': userid, ...} or None if that user does not exist Raises: SQLAlchemyError if there was an issue with the database """ statement = self.budgets_table.select().where( self.budgets_table.c.budgetid == budgetid) self.logger.debug('QUERY: %s', str(statement)) with self.engine.connect() as conn: result = conn.execute(statement).first() self.logger.debug('RESULT: fetched budget data for %s', budgetid) return dict(result) if result is not None else None def get_budgets(self, userid): statement = self.budgets_table.select().where( self.budgets_table.c.userid == userid) self.logger.debug('QUERY: %s', str(statement)) with self.engine.connect() as conn: results = conn.execute(statement) self.logger.debug('RESULT: fetched budgets data for %s', userid) return [dict(result) for result in results] if results is not None else None def delete_budget(self, budgetid): """_summary_ Args: budgetid (_type_): _description_ """ statement = self.budgets_table.delete().where( self.budgets_table.c.budgetid == budgetid) with self.engine.connect() as conn: results = conn.execute(statement) self.logger.debug('QUERY: %s', str(statement)) return {} def update_budget(self, budget: dict): statement = self.budgets_table.update().values(budget).where( self.budgets_table.c.budgetid == budget["budgetid"]) with self.engine.connect() as conn: results = conn.execute(statement) class CategoryDb: """ CategoryDb provides a set of helper functions over SQLAlchemy to handle db operations for userservice """ def __init__(self, uri, logger=logging): self.engine = create_engine(uri) self.logger = logger self.categories_table = Table( 'categories', MetaData(self.engine), Column('categoryid', String, primary_key=True), Column('displayname', String, nullable=False), Column('parentid', String, nullable=True), Column('budgetid', String, nullable=False), ) # Set up tracing autoinstrumentation for sqlalchemy SQLAlchemyInstrumentor().instrument( engine=self.engine, service='categories', ) def add_category(self, category): """Add a budget to the database. Params: budget - a key/value dict of attributes describing a new budget {'email': email, 'password': password, ...} Raises: SQLAlchemyError if there was an issue with the database """ statement = self.categories_table.insert().values(category) self.logger.debug('QUERY: %s', str(statement)) with self.engine.connect() as conn: conn.execute(statement) def generate_categoryid(self): """Generates a globally unique alphanumerical budgetid.""" self.logger.debug('Generating an account ID') categoryid = None with self.engine.connect() as conn: while categoryid is None: categoryid = str(random.randint(1e9, (1e10 - 1))) statement = self.categories_table.select().where( self.categories_table.c.categoryid == categoryid ) self.logger.debug('QUERY: %s', str(statement)) result = conn.execute(statement).first() # If there already exists an account, try again. if result is not None: categoryid = None self.logger.debug( 'RESULT: account ID already exists. Trying again') self.logger.debug('RESULT: account ID generated.') return categoryid def get_category(self, categoryid): """Get user data for the specified email. Params: email - the email of the user Return: a key/value dict of user attributes, {'email': email, 'userid': userid, ...} or None if that user does not exist Raises: SQLAlchemyError if there was an issue with the database """ statement = self.categories_table.select().where( self.categories_table.c.categoryid == categoryid) self.logger.debug('QUERY: %s', str(statement)) with self.engine.connect() as conn: result = conn.execute(statement).first() self.logger.debug('RESULT: fetched budget data for %s', categoryid) return dict(result) if result is not None else None def get_categories(self, budgetid): statement = self.categories_table.select().where(and_(self.categories_table.c.budgetid == budgetid,self.categories_table.c.parentid == None)) self.logger.debug('QUERY: %s', str(statement)) with self.engine.connect() as conn: results = conn.execute(statement) self.logger.debug('RESULT: fetched categories for budgetid %s', budgetid) return [dict(result) for result in results] if results is not None else None def delete_category(self, categoryid): """_summary_ Args: budgetid (_type_): _description_ """ statement = self.budgets_table.delete().where( self.categories_table.c.categoryid == categoryid) with self.engine.connect() as conn: results = conn.execute(statement) self.logger.debug('QUERY: %s', str(statement)) return {} def update_category(self, category: dict): statement = self.budgets_table.update().values(category).where( self.categories_table.c.budgetid == category["budgetid"]) with self.engine.connect() as conn: results = conn.execute(statement) class MonthDb: """ MonthDb provides a set of helper functions over SQLAlchemy to handle db operations for userservice """ def __init__(self, uri, logger=logging): self.engine = create_engine(uri) self.logger = logger self.months_table = Table( 'months', MetaData(self.engine), Column('monthid', String, primary_key=True), Column('budgetid', String, nullable=False), Column('month', String, nullable=False), Column('note', String, nullable=True), Column('income', String, nullable=True), Column('budgeted', String, nullable=True), Column('activity', String, nullable=True), Column('to_be_budgeted', String, nullable=True), Column('age_of_money', String, nullable=True), ) # Set up tracing autoinstrumentation for sqlalchemy SQLAlchemyInstrumentor().instrument( engine=self.engine, service='months', ) def add_month(self, month): """Add a month to the database. Params: budget - a key/value dict of attributes describing a new month Raises: SQLAlchemyError if there was an issue with the database """ statement = self.months_table.insert().values(month) self.logger.debug('QUERY: %s', str(statement)) with self.engine.connect() as conn: conn.execute(statement) def generate_monthid(self): """Generates a globally unique alphanumerical budgetid.""" self.logger.debug('Generating an account ID') monthid = None with self.engine.connect() as conn: while monthid is None: monthid = str(random.randint(1e9, (1e10 - 1))) statement = self.months_table.select().where( self.months_table.c.monthid == monthid ) self.logger.debug('QUERY: %s', str(statement)) result = conn.execute(statement).first() # If there already exists an account, try again. if result is not None: monthid = None self.logger.debug( 'RESULT: account ID already exists. Trying again') self.logger.debug('RESULT: account ID generated.') return monthid def get_month(self, monthid): """Get month data for the specified email. Params: email - the email of the user Return: a key/value dict of user attributes, {'email': email, 'userid': userid, ...} or None if that user does not exist Raises: SQLAlchemyError if there was an issue with the database """ statement = self.months_table.select().where( self.months_table.c.monthid == monthid) self.logger.debug('QUERY: %s', str(statement)) with self.engine.connect() as conn: result = conn.execute(statement).first() self.logger.debug('RESULT: fetched budget data for %s', monthid) return dict(result) if result is not None else None def get_months(self, budgetid): statement = self.months_table.select().where(and_(self.months_table.c.budgetid == budgetid,self.months_table.c.parentid == None)) self.logger.debug('QUERY: %s', str(statement)) with self.engine.connect() as conn: results = conn.execute(statement) self.logger.debug('RESULT: fetched budgets data for %s', budgetid) return [dict(result) for result in results] if results is not None else None def delete_month(self, monthid): """_summary_ Args: budgetid (_type_): _description_ """ statement = self.budgets_table.delete().where( self.months_table.c.monthid == monthid) with self.engine.connect() as conn: results = conn.execute(statement) self.logger.debug('QUERY: %s', str(statement)) return {} def update_month(self, month: dict): statement = self.budgets_table.update().values(month).where( self.months_table.c.budgetid == month["budgetid"]) with self.engine.connect() as conn: results = conn.execute(statement)
40.938144
149
0.599156
1,764
15,884
5.329932
0.085601
0.043608
0.05903
0.046905
0.821846
0.795256
0.773878
0.747288
0.721761
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0
0.002152
0.297784
15,884
388
150
40.938144
0.840775
0.194913
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0.098814
false
0.003953
0.01581
0
0.185771
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null
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0
0
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0
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6
a6d0dcff744a59e3cc48d1bb338feaeb5cc111ac
107
py
Python
CursoIntensivoPython/curso-intensivo-python-master/capitulo_02/exercicios/citando_einstein.py
SweydAbdul/estudos-python
b052708d0566a0afb9a1c04d035467d45f820879
[ "MIT" ]
null
null
null
CursoIntensivoPython/curso-intensivo-python-master/capitulo_02/exercicios/citando_einstein.py
SweydAbdul/estudos-python
b052708d0566a0afb9a1c04d035467d45f820879
[ "MIT" ]
null
null
null
CursoIntensivoPython/curso-intensivo-python-master/capitulo_02/exercicios/citando_einstein.py
SweydAbdul/estudos-python
b052708d0566a0afb9a1c04d035467d45f820879
[ "MIT" ]
null
null
null
print(f'Albert Einstein certa vez disse: "Uma pessoa que nunca cometeu um erro jamais tentou nada novo."')
53.5
106
0.775701
18
107
4.611111
1
0
0
0
0
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0.149533
107
1
107
107
0.912088
0
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0.897196
0
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true
0
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null
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1
0
0
0
0
1
0
6
470dd30df9e9059c8f3cb7fcbd10e4c5b4172e2d
41,082
py
Python
utils/fileFilter.py
badri/django-profile
ab5d60a4f2a78181de24f4b4a5abbcdd977f8ed9
[ "BSD-2-Clause" ]
1
2016-05-08T21:14:07.000Z
2016-05-08T21:14:07.000Z
utils/fileFilter.py
badri/django-profile
ab5d60a4f2a78181de24f4b4a5abbcdd977f8ed9
[ "BSD-2-Clause" ]
null
null
null
utils/fileFilter.py
badri/django-profile
ab5d60a4f2a78181de24f4b4a5abbcdd977f8ed9
[ "BSD-2-Clause" ]
null
null
null
import os from pyPdf import PdfFileReader ''' If something screws up, we return empty string. TODO: # add more doc formats like html, rtf, openoffice etc # handle all exceptions # make sure we have doc or pdf headers to prevent storing of malformed input # warning: all file handlers are django file objects, not python file objects. badri.dilbert@gmail.com ''' class InvalidFileExtension(Exception): def __init__(self, fileName, extension): self.fileName = fileName self.extension = extension def extractText(f): 'generic function which will call appropriate extractor depending on file ext.' fileName, ext = os.path.splitext(f.name) if ext == '.pdf': return extractTextFromPdf(f) elif ext == '.doc': return extractTextFromDoc(f) elif ext == '.txt': return extractTextFromTxt(f) else: raise InvalidFileExtension(f.name, ext) def extractTextFromPdf(f): 'uses pyPdf and extracts text from pdf file.' # must handle exceptions inp = PdfFileReader(file(f.name,'rb')) str = '' for each_page in range(inp.getNumPages()): str += inp.getPage(each_page).extractText() return str def extractTextFromDoc(f): ''' MS word files are converted to txt by using antiword program. works for most cases. ''' str = os.popen("antiword "+ f).read() # process p return str def extractTextFromTxt(f): 'plain txt files.' #inputf = open(f) #str = inputf.read() #inputf.close() #return str from tempfile import NamedTemporaryFile destination = NamedTemporaryFile() destination.write(f.read()) import codecs str = codecs.open(destination.name, 'r', 'utf-8', 'ignore') return str.read() tests = r""" >>> from utils.fileFilter import * >>> from django.core.files import File >>> f=File(open('foo.pdf', 'rb')) >>> f <File: foo.pdf> >>> extractTextFromPdf(f) u'DSC2001Proceedingsofthe2ndInternationalWorkshoponDistributedStatisticalComputingMarch15-17,Vienna,Austriahttp://www.ci.tuwien.ac.at/Conferences/DSC-2001K.Hornik&F.Leisch(eds.)ISSN1609-395XOctave:Past,Present,andFutureJohnW.EatonDepartmentofChemicalEngineeringUniversityofWisconsin-MadisonMadison,WIUSA53706AbstractThispaperoutlinesthehistoryanddevelopmentofGNUOctave,aninter-preterforahigh-levelmatrix-basedlanguagefornumericalcomputations.Anumberofundesirablefeaturesofthecurrentimplementationareexamined,andproposalsforfuturedevelopmentarepresented.1IntroductionGNUOctaveisahigh-levelmatrix-basedlanguage,primarilyintendedfornumericalcomputations.Itprovidesaconvenientcommandlineinterfaceforsolvinglinearandnonlinearproblemsnumerically,andforperformingothernumericalexperimentsusingalanguagethatismostlycompatiblewithMatlab.1Itmayalsobeusedasabatch-orientedlanguage.Octaveincludesacollectionoftoolsforsolvingcommonnumericallinearalgebraproblems,therootsofnonlinearequations,integratingordinaryfunctions,manipulatingpolynomials,andintegratingordinarytialandtial-algebraicequations.Itiseasilyextensibleandcustomizableviafunc-tionswritteninOctave\'sownlanguage,orusingdynamically-loadedmoduleswrit-teninC++,C,Fortran,orotherlanguages.OctaveisfreesoftwaredistributedunderthetermsoftheGNUGeneralPub-licLicense(GPL)aspublishedbytheFreeSoftwareFoundation(FSF).Sources,jwe@bevo.che.wisc.edu1MatlabisaregisteredtrademarkoftheMathWorks,Inc.ProceedingsofDSC20012mailinglistarchives,andotherinformationareavailableonthewebathttp://www.octave.org.JohnW.EatonistheprimaryauthorofOctave,thoughmanyothershavecon-tributedtamountsofcode,documentation,ideas,and(ofcourse)bugreports.AmongthelargercontributionsarethestatisticsfunctionswrittenbyKurtHornikandhisstudentsatTechnischeUnivatWienandthelinearcon-trolsystemsfunctionswrittenbyScottedwardHodelandhisstudentsatAuburnUniversity.Muchofthebasicnumericalcapabilitiesarebasedonwell-knownFor-tranlibrariessuchasODEPACK[6],DASSL[11],MINPACK[9],LAPACK[1],andtheBLAS[7,3,2].OctavealsoreliesonBisonandFlex(theGNUparsergeneratortools),theGNUReadlinelibrary(forcommand-lineeditingandhistory),andtheKpathsearchlibrary(forquicklyinlargedirectorytrees).Octavewasoriginallyconceived(inabout1988)tobecompanionsoftwareforanundergraduate-leveltextbookonchemicalreactordesignbeingwrittenbyJamesB.RawlingsoftheUniversityofWisconsin-MadisonandJohnG.EkerdtoftheUni-versityofTexas.Weoriginallyenvisionedsomespecializedtoolsforthesolutionofchemicalreactordesignproblems,probablyintheformofasubroutinelibraryinFortran.However,wehadoftenseenstudentsstrugglewithFortranprogrammingassignmentsandspendfartoomuchtimetryingtounderstandwhytheirFortrancodefailedandnotenoughtimelearningaboutchemicalengineering.Theseexpe-riencesmotivatedustoattempttobuildamuchmoretool.WebelievedthatwithaninteractiveenvironmentlikeOctave,moststudentswouldbeabletopickupthebasicsquickly,andbeginusingittlyinjustafewhours.WeweresomewhatfamiliarwithMatlab,havingseentheoriginalFortranversionaroundthesametimethatwewerebeginningtothinkaboutsoftwaretoolsforchemicalreactordesign.Additionally,agrowingnumberofourcolleagueswerebeginningtousethenewcommercialversionofMatlabastheirprimarycomputationaltool.WeeventuallydecidedtoimplementsomethingthatwouldbemostlyMatlab-compatiblesothatourcolleaguescouldswitchtousingOctavewithouthavingtolearnacompletelynewlanguage.AlthoughwechosetoimplementanearlyMatlab-compatiblelanguage,wedidnotwanttolimitourselvesstrictlytothatlanguage.Fromthebeginningoftheproject,weplannedtoaddvariousadditionalfeaturestothelanguageandhopedtobeabletothosethingsthatwebelievedweremisfeaturesofthelanguageorjustsimplybugs.Nowitseemsthatthegoalof\\compatibilityatareasonablecost"hascausedmanyproblemsfortheproject,aswewillseeindetailinSection4.Full-timedevelopmentbeganintheSpringof1992.ThealphareleasewasJanuary4,1993,andversion1.0wasreleasedFebruary17,1994.Sincethen,Octavehasbeenthroughseveralmajorrevisions,isincludedwithDebian,SuSE,andRedHatLinuxdistributions.IthasalsobeenreviewedintheLinuxJournal[10]andtheJournalofAppliedEconometrics[4].ThenextsectionincludesamorecompletehistoryofOctave\'sdevelopment.Clearly,Octaveisnowmuchmorethanjustanother\\courseware"packagewithlimitedutilitybeyondtheclassroom.Althoughourinitialgoalsweresomewhatvague,weknewthatwewantedtocreatesomethingthatwouldenablestudentstosolverealisticproblems,andthattheycoulduseformanythingsotherthanProceedingsofDSC20013chemicalreactordesignproblems.Today,thousandsofpeopleworldwideareusingOctaveinteaching,research,andcommercialapplications.BecauseOctavemaybefreelydistributed,itistoestimatethetotalnumberofpeoplewhouseit.ThereareatleastfourmirrorsoftheOctaveFTPsite,andtheOctavesourcesarealsoavailablefromtheGNUFTPsiteandallofitsmirrors(morethan75advertisedsitesatlastcount).TheFTPlogsfromoursystemaloneshowedmorethan19,000transfersoftheOctavesourceinthe950daysthatOctave2.0.xwasavailable.ManyLinuxusersreceiveOctaveinbinaryformaswell.NoonereallyknowshowmanypeopleusingLinuxarealsousingOctave,butsomerecentestimatesplacethenumberofLinuxusersatmorethan20million.JustabouteveryonethinksthatthenameOctavehassomethingtodowithmusic,butitisactuallythenameofoneoftheauthor\'sformerprofessorswhowroteafamoustextbook[8]onchemicalreactionengineering,andwhowasalsowellknownforhisabilitytodoquick\\backoftheenvelope"calculations.2DevelopmentHistoryIbeganworkingontheinterpreterforOctaveonFebruary20,1992whileIwasstillmyPh.D.thesisattheUniversityofTexas.IhadbeenexperimentingwithsomeC++classesfornumericalproblemsforaboutayearbeforethat,butOctavewouldbemyrealprojectinC++.TheearlyentriesintheChangeLogshowthatprogresswasrapid,andbyearlyJuly,Octavewasabletosolvesomesimpletialequations.BySeptember,severalothermembersofmyresearchgroupbegantryingtouseit(andlotsofbugs).OnJanuary4,1993,ImadeOctaveavailableforanonymousFTPandpostedanannouncementtoseveralUsenetgroups.Bythistime,Octaveincludedabout100built-infunctionsand30functionandcouldhandlemostoftheoperatorsavailableinthethencurrentversionofMatlab.Duringthisyear,Iwastheonlypersonwhohaddoneanyprogrammingontheproject.Today,itishardtoimagineafreesoftwareprojectintendedforwidespreadusethatwouldbedevelopedinsuchisolation.Aftertherelease,Ibegantoreceivefeedbackalmostimmediately,andIwasencouragedbythelevelofinterest.IcontinuedtoputnewtestreleasesontheFTPsiteforaboutanotheryear,butmadenomoreannouncementsoutsideoftheOctavemailinglistsuntilversion1.0wasreleasedonFebruary17,1994.Duringthenextyear,manypeoplereportedbugsandrequestedfeatures,andsomesentpatchesornewfunctions.Iperiodicallymadesnapshotsavailable,butthenextpublicrelease(version1.1.0)wasnotmadeuntilJanuary12,1995.Developmentwasinterruptedinmid-1995asourresearchgroupmovedfromTexastoWisconsin.MuchofmyworkonOctaveoverthenextyearfocusedoncleaninguptheinternals(pluggingmemoryleaks,tryingtouseC++moreely,etc.),addingnewfunctions,andmakingOctavereadyforanewrelease.Octavehadgainedtcapabilitybythetimeversion2.0wasreleasedonDecember10,1996.ProceedingsofDSC20014Forthenextseveralmonths,Iworkedmostlytobugs,releasingversions2.0.1through2.0.5infairlyquicksuccession.Ihadhopedtoquicklyreachamostlybug-freestatesothatIcouldbeginconcentratingonversion2.1andaddingtnewfeatures,butthatneverseemedtohappen.Eventually,IdecidedtofollowtheleadoftheLinuxkerneldeveloperswhohadoptedforstableandunstabledevelopmentbranches,andIsplitthe2.1.xsourcessometimeinmid-1997andbeganmakingperiodicreleasesfromboththedevelopmentandstablebranches.Theideawastospeeduptheincorporationofnewideasintheunstablebranchwhilemaintainingtheotherbranchforbugonly,butIfoundittodenyusefulnewfeaturestotheusersofthestableversion,soIoftenspentextratimepatchingthestablesourcestoincludenewfeatures.Toavoidwastingtimelikethisinthefuture,Iwouldonlyattempttohavetwoactivelymaintaineddevelopmenttreesifanotherindividual(orgroup)wereavailabletomaintainthestablebranchwhileIworkwiththedevelopmentsources(I\'vetriedtovolunteersforthistask,butsofar,noonehassteppedforward).InMayof1997,RichardStallmanandIagreedtomakeOctaveanpartoftheGNUproject(theonlyrealchangewasthatIbegancallingit\\GNUOctave"ratherthanjust\\Octave").Byearly1999,manyfreesoftwareprojectsbegantobeavailablebyanonymousCVS,andinresponsetosomediscussionontheOctavemailinglists,Imadearead-onlycopyoftheOctaveCVSarchiveavailable.TheideawasthatthiswouldhelptospeedupOctavedevelopmentbyallowingpeopletoseetheirchangesinthesourcetreequickly,withouthavingtowaitforanewsnapshot.IbelievethatEricRaymond\'spaper,TheCathedralandtheBazaar[12]convincedmanypeoplethatanopendevelopmentmodelwasthekeytorapiddevelopment,butIdon\'tbelieveitisthatsimple.Wide-openavailabilityofsourcecodedoesn\'tmeanmuchwithoutadedicatedgroupofhackerswhoaregenerallyalignedtowardacommongoal.Atthetimeofthiswriting,Octaveisausefulandwidelyusedtoolfornumericalcomputing.Aswithanysizeablepieceofsoftware,however,therearemanyareasforimprovement.Ibelievethereareproblemswiththelanguagethatshouldbe(anumberoftheseareexaminedinthenextsection).Octavealsolacksafewimportantdatatypessuchassparsematricesandmultidimensionalmatrices.SomeuserswouldbfromaversionofOctavethatcouldeasilysupportparallelprocessing.Otherswouldliketoseemoreadvancedgraphicsandgraphicaluserinterface(GUI)features.And,ofcourse,manyusersrequestimprovedcompatibilitywithMatlab(wewillexaminethistopicinmoredetailinSection4).OnDecember7,2000,IannouncedtotheOctavemailinglistthatIamplanningtotakeabreakfromOctave,reviewtheprogresswehavemade,anddecidewhatisthebestcourseforthefuture.ThatmayinvolvesomederivativeofOctave,oritmaybesomethingthatisonlylooselyrelated.IfitisasystembasedonOctave,thenIwouldlikeforittoavoidmanyoftheproblemsdescribedinthenextsection.ProceedingsofDSC200153DesignandImplementationInthefollowingsections,variousfeaturesofOctaveareexamined.SomeareworthnotingbecausetheyarevaluablefeaturesthatshouldprobablybekeptinanyfutureOctavederivatives,andothersarementionedbecausetheyarethetroublespotsthatshouldberemoved.Insomecases,thetroublesomefeaturesarequitepopularwithformerMatlabusers,soIhavetriedtopresentclearargumentsforwhythesefeaturesarereallynotsogoodafterall.AlthoughIwouldliketobeabletosaythatallofthebadfeaturesofOctavewereinheritedfromMatlab,Imustadmitthatquiteafewofthemaremyowninvention.3.1FreesoftwareOneofOctave\'smostimportantfeaturesisthatitisfreesoftware.Allofthesourcecodeisavailable,sousersareabletoexamineexactlyhoweachcomputationisperformed.Thereareno\\black-boxes"thatcannotbeopened.UsersarealsofreetomodifyanypartofOctaveanddistributetheirchanges(providedthattheyfollowthetermsoftheGPL).Ibelievethatitisimportantforeveryone,especiallyresearchersandacademics,tohaveaccesstothedetailsofallcomputationstheyperform,sothatitispossiblefortheresultstobereviewedandreproduced.3.2C++asimplementationlanguageOctaveiswritteninamixtureofC++,C,Fortran,andOctave\'sownextensionlanguage.OnlyafewnewfunctionshavebeenimplementedinCorFortran.MostoftheinterpreteriswritteninC++,andIamstillnotsurethatthiswasthebestchoice.WhenIbeganworkonOctaveinearly1992,adraftANSI/ISOstandardforC++wasintheworks(theAnnotatedC++ReferenceManual[5]hadbeenpublishedin1990),butthelanguagewasstillevolving.BecausevendorC++compilersvariedwidelyintheircapabilities,Idecidedthatitwouldbetootowritecodethatcouldbecompiledbyverymanyofthem.Instead,IchosetotrytomakeOctaveworkonlyonthosesystemsthathadworkingportsoftheGNUC++compiler.Thischoicemadeportabilitysomewhateasier,butatamountofwasstillrequiredtokeepuptodateasnewlanguagefeatureswereaddedandsomeoldonesremoved,invalidatingpreviouslyworkingcode.EachnewreleaseoftheGNUC++compilerseemedbothablessingandacurse.IbelievethatusingCinsteadwouldnothavebeenmuchbetter,however,asImuchpreferthefeaturesofC++classesoverwhatisavailableinC,andtheyhavemadememorymanagementeasier.Thestringclassofthestandardlibraryhasbeenquitehelpful,andtemplateshavealsobeenusefulinOctave\'slow-levelarrayclasses.3.3ApplicationlayersOctavehasafairlycleanseparationbetweentheinterpreterandthelibrariesthatimplementthebasicnumericalfunctions.Therearethreemainlayers:ProceedingsofDSC20016Parserandinterpreter,mostlywritteninC++.Thisisbuiltintheformofalibrary(liboctinterp)plusonesmall(about500lines)containingthemainOctaveprogram.Theliboctavelibrary,aC++interfacetonumericalcodeandtoUnixlibraryfunctionsandsystemcalls.ThislibraryprovidesthematrixandarrayclassesforOctaveandpresentsaniceinterfacethathidesdetailssuchasworkar-raysandmanyothermemorymanagementandportabilityproblemsfromtheinterpreter.Thelibcruftlibrary,whichisacollectionofmostlyFortrancodewrittenbyothersthatprovidesmostofthebasenumericalcapability.Ibelievethatthisdivisionisreasonable,butsometwouldnothurt.Forexample,theliboctavelibraryshouldprobablybedividedintoatleasttwoparts,onefornumericaltasksandonefortheoperatingsysteminterface,sothatuserswhoonlywantthenumericalcapabilitieswouldnotalsohavetolinkcodeforcommandlineediting,searching,andPosixfunctionality.Theliboctavelibraryshouldalsobeexaminedandrevisedwhereneededtopresentaconsis-tentinterfaceforprogrammerswishingtoaccessOctave\'sfunctionalityatthislevel.Itmightalsobeusefultoapublicinterfacetotheinterpreterlibraryliboctinterp,sothattheOctaveinterpretercouldmoreeasilybeembeddedinotherapplications.3.4InterpreterimplementationThedesignoftheinterpreterwasoriginallypatternedaftertheGNUshellBash,primarilybecauseIhadthesourcecodeforBashandfounditreasonablyeasytoun-derstand.Theparserconvertssourcecodetoaninternaltreestructure.Functionsarestoredaslistsofstatementsalongwithinformationaboutinputandoutputparametersandlocalsymbols.Theinterpreterevaluatescodebyloopingovertheelementsinalistofstatements,andbyrecursivelyevaluatingnodesinexpressiontrees.ThelexerandparserarewrittenusingFlexandBison,whichmakethemrela-tivelyeasytomodifyandextend.ThereisalsoaC++classinterfacetotheparsetreethatprovidesacleaninterfaceforwalkingthetree.Thisiscurrentlyusedforpretty-printingfunctionsandforsettingbreakpointsforOctave\'sinteractivedebugger.2Usingasimpletree-basedinterpreterseemedeasytoimplementandagoodwayformetomakeitreliable,thoughIsuspectthatitisonereasonthatOctave\'sinterpreterisslow.PaulKienzle,aOctaveuserandcontributor,recentlycomparedOctave\'sper-formanceonaloopoftheformx=[1:100000];total=0;2Thisfeatureiscurrentlyunderdevelopment.ProceedingsofDSC20017SystemCPUTimeMethod(seconds)Octave24.scriptOctave6.9C++usingoperationsonoctave_valueOctave0.032C++usingoperationsonMatrixGuile1.3scriptclisp3.3scriptclisp0.70byte-compiledonloadPython0.73scriptOCAML0.17scriptOCAML0.034compiledscriptGCC0.20unoptimizedGCC0.0060optimizedTable1:PerformanceofOctavecomparedtootherinterpretersandcompilers.fori=1:100000total=total+x(i);endandobtainedtheresultsshowninTable1.Clearly,thereisalotofroomforimprovementintheimplementationofloopsandarrayindexinginOctave.Atthispoint,IbelievethatitmaymakemoresensetomodifyOctave\'sparsertoemitSchemeorsomeothergeneral-purposelanguageforwhichafastinterpreterexists,andthenexecutethecodewithinthatcontextinsteadoftryingtoimprovetheperformanceofOctave\'sinterpreter.ThemotivationwouldbetoimprovethespeedandreliabilityofOctave\'sinterpreterwhileatthesametimereducingtherequiredtomaintainit.Presumably,themaintainersofthegeneral-purposescriptinglanguagewouldbeexpertsininterpreterdesign,whichwouldleaveusmoretimetocontributenumericalfunctionalityinstead.3.5Dynamically-linkedfunctionsAlthoughOctaveisextensibleusingtheOctavelanguage,italsoallowsextensionstobewritteninC++(orothercompiledlanguagesthatcanbecalledfromC++).Usersaregenerallydiscouragedfromwritingextensionsasdynamically-linkedfunctionsunlessacceptableperformancecannotbeachievedusingOctave\'sownextensionlanguage,orthereisaneedtolinktoexistingcompiledcode.Nevertheless,thisisanimportantfeatureforcaseswhenperformanceiscritical,orwhencodealreadyexistsinsomeotherlanguage.3.6ExtensibledatatypesOctavealsoallowsuserstonewdatatypesandloadthematruntimeusingadynamically-linkedfunction.Currently,thenewdatatypemustbebyaC++class,butitwouldbeusefultoprovideawayofdoingthiswithinOctave\'sProceedingsofDSC20018language.TheMatlablanguagenowallowsthecreationofnewdatatypes,butthemethodfordoingsodoesnotseemtobeparticularlywelldesigned,andprobablyshouldnotbecopied.3.7Mixed-typeoperationsBinaryoperationsinOctaveincludemixed-typeoperationsformanydatatypes.Forexample,therearespecialfunctionsforoperationsoncomplexandrealmatrices.Savingmemoryandavoidingunnecessarycopyingoflargeamountsofdataarethemotivationsforprovidingtheseextrafunctionsratherthansimplypromotingtheoperandstoacommontype.Inascalar-basedlanguage,onecantooperationsonsimilartypesonly,becausethecostofconvertinganoperandtothewidertypeissmall.Butwhenworkingwithlargearraysthecostofconvertinganoperandcanbequitelarge.Oneproblemwiththisapproachisthatasnewdatatypesareadded,thereisanexplosioninthenumberofnewfunctionsformixed-typeoperationsthatneedtobeItmaybepossibletogetaroundthisbysomecleveruseoftemplates,butIstillseethisproblemasunsolved.3.8DatatypeconversionOctavecanautomaticallyconvertobjectsofonedatatypetoanotherwhenitseemsreasonabletodoso.OneexampleofthetypeofconversionthatOctavecanperformisanarrowingconversionthatmayhappenatobjectcreation.Forexample,giventhecomplexnumbersx=1+iandy=1-i,thetypeoftheresultoftheexpressionx+ywillbereal,notcomplex.Theconversionhappenswhenthenewobjectthatholdstheresultiscreated.Theresultisoriginallycomplex,buttheconstructorforthecomplexscalarobjectcheckstoseeiftheimaginarypartiszero,andifso,convertstheresulttoarealvalue.Similarconversionscanhappenforcomplexmatrices.Thereissomeoverheadforthesenarrowingconversions,butthereisalsoapotentialbifsubsequentoperationscanbeperformedusinglessexpensiveoperationsonthenarrowertype.Octavealsoperformsallarithmeticindoubleprecision(therearenointegervalueswiththeintegerarithmeticrulesusedinlanguageslikeCorFortran)sointegervaluesareconvertedtodoubleprecisionvalueswhentheyareparsed.Asaconsequence,theexpression1/2producesthevalue0.5,not0.Thistypeofconversionmakessomesense,becausethevalueof1/2isonehalf,notzero.Itwouldbeequallyvalidforthetypeoftheresulttoberationalratherthanadoubleprecision.Itisnotclearwhetherthelackofintegerarithmeticisaseriouslimitation.ItdoesnotseemtobemuchofapracticalproblemforthetypesofprogramsthataretypicallywrittenusingOctave.CurrentlytherearenointegermatricesinOctave,butiftheyareadded,somedesigndecisionsmustbecarefullyconsidered.Forexample,shouldresultsforallbinaryoperationsbeconvertedtodoubles?Iftheresultsareallintegervaluesandnoovwoccurs,itwouldbemorememoryttoreturnanotherintegermatrix.ProceedingsofDSC20019Ifresultoftheoperationsonsomeoftheelementscouldproducenon-integervaluesorovw,thenshouldtheresultsfollowtherulesofintegerarithmeticusedbyotherlanguages(thiswouldbeinconsistentwiththebehaviorforscalars,unlessthoserulesarealsochanged)orshouldtheresultsbedoubleprecisionvalues?Perhapsthesimplestapproachwouldbetodisableallautomaticconversions,andimplementintegerarithmetic.Unfortunately,thismaynotbethemostusefuldesignforthetypicaluserofasystemlikeOctave.3.9ParserproblemsThereareanumberofinparsingtheMatlablanguage.BecauseOc-tavetriestobecompatibleinmanyways,Octave\'sparseristlymorecomplexthatitreallyoughttobe.Bydroppingsomeofthemoreinconsistentlanguagefeatures,Octave\'sparsercouldbemuchsimplerandeasiertounderstandandmaintain.Transposeoperatorandcharacterstrings.Thesinglequotecharacter(\')isusedasthetransposeoperatorandtodelimitstrings,sotheparsermustdoalotofextraworktokeeptrackofwhenthesinglequoteshouldberecognizedasatransposeoperatororwhenitshouldberecognizedasastringdelimiter.Thelanguagewouldbemoreconsistentifthesinglequotecharacterwereusedasatransposeoperatoronly.ThiswouldallowOctave\'sparsertobetlysimplerandalsomakeparsingeasierforhumans.Whitespaceinmatrixlists.Anotherexampleofunnecessaryparsercomplexityisthefeaturethatallowsmatricestobewritten[123]whichisinterpretedasavectorofthreeelements.Forsimplecasesliketheoneabove,thisseemsbutformorecomplexcases,itisambiguous.Forexample,itisnotimmediatelyclearwhether[f(x)-3]shouldbeequivalentto[f,(x),-3](threedistinctelements)or[f(x),-3](twoelements|afunctioncallorindexedarrayfollowedbyascalar)or[f,(x)-3](twoelements|avariable(orfunctioncall,sinceMatlabdoesnotrequirefunctioncallswithnoargumentstobewrittenasf())followedbyabinaryexpression)orProceedingsofDSC200110[f(x)-3](oneelement,theresultofsubtractingascalarfromtheresultofthefunctioncallorindexedarray).Ialsoseenoreasonforthemeaningoftheexpressionf(x)-3tochangewhenitissurroundedbysquarebrackets.Foranyfutureproject,Iwouldhavetheparserignorespacesinsidematrixlistsandrequireseparatorsbetweenelements.Command-stylefunctioncallsyntax.Matlaballowsfunctionstobecalledusingacommand-stylesyntax.Forexample,thefunctionsavecanbecalledusingthesyntaxsave-asciivarorsave("-ascii","var")Bothformsareequivalent.UsersmayalsofunctionsintheMatlablanguagethatmaybecalledthisway.Nospecialfunctiondeclarationisneeded,theonlyrequirementisthatthefunctionbeabletoacceptallargumentspassedasstrings.Althoughthisseemslikeanicefeature,itleadstoaninconsistencythatwouldbebetteravoided.Theproblemisthat,givenafunctioncalledfcn,Matlabwillparsebothofthefollowingstatementsfcn-1fcn-1asasubtractionof1fromthevaluereturnedfromthefunctionfcn,butwillparsefcn-1asacalltothefunctionfcnwiththestringargument"-1",anditwillparsefcn-1asacalltothefunctionfcnwiththestringarguments"-"and"1".Evenworse,Matlabwon\'tallowyoutobypasstheconfusionbywritingf()-1becauseitdoesn\'tallowthisnotationforcallingafunctionwithnoarguments(theMatlabparseremitsanerrorfortheemptypairofparentheses).Ibelievethatthiskindofinconsistencyisunacceptableinaprogramminglan-guage.Forthisreason,Octavedoesnotcurrentlyallowuserstocalltheirownfunctionsusingacommand-stylesyntax,thoughitdoeshavesomespecialbuilt-infunctionsthatmaybecalledthisway(e.g.,load,save,ls,etc.).Thecommand-stylesyntaxisuseful,however,andmanyusersitawkwardtohavetotypethingslikeProceedingsofDSC200111ls("-l""/foo/bar")whentheyareusedtotypingjustls-l/foo/baratashellprompt.Becausethelanguagehassomecommandsthatcanbecalledwithacommand-stylesyntax,itseemsinconsistenttoforbidusersfromtheirownfunctionsthatcanbecalledusingasimilarsyntax.ForanyfutureOctave-likeproject,Iproposerequiringthatfunctioncallsyntax(i.e.,foo("-arg"))beusedinscriptsorfunctionandthenrequiringaofsomesortthatcanbeusedonthecommandlinetointroducecommand-likesyntax.Forexample,somethinglikeoctave:13>M-xls-l/foo/barsimilartothewayEmacsusestheM-x(orESCx)forcallingfunctionsinter-actively.Thissolutionwouldcompletelyavoidtheandwouldnotbemuchhardertotype.Idon\'tbelievethatforcingtheuseoffunctioncallsyntax(i.e.,ls("-l","/foo/bar"))inscriptsandfunctionwouldposemuchofaproblem(itdoesnotseemtobeaproblemforusersofEmacsandEmacsLisp).3.10Built-invariablestocontrolsemanticsTheOctavelanguagehasanumberofbuilt-invariablesthatmaybeusedtocontrolvariousfeaturesoftheinterpreterandeventhelanguage.Insomecasesthesevariablesarerelativelyharmless,butinothers,theycancausettrouble.Amongtheleastharmfulvariablesarethoselikehistory_size,whichspthenumberofcommandlinestosaveinthecommand-linehistoryorPAGER,whichsptheprogramtouseasaforoutputthatisgoingtothescreenininteractivesessions.Variablessuchastheseonlyuserinteractionandcanbesafelyignoredwhenwritingnewfunctionsorscripts.Anothersetofvariablesthebehavioroftheparser.Forexample,thevariablewhitespace_in_literal_matrix,isusedtocontrolthewaythatOctaveparsesmatrixlists.Continuingtheexamplefromtheprevioussection,considerthematrixlist[f(x)-3]Ifthevalueofwhitespace_in_literal_matrixis"ignore",thencommasorsemi-colonsarerequiredtoseparateelementsinthelist,andallwhitespaceisignored.Ifthevalueis"traditional",thenOctaveparsesthecommandasMatlabwould,whichwouldproduce[f,(x),-3](threedistinctelements).Otherwise,Octavewillnottreatspacesbetweenaniden-andanopenparenthesischaracterasanelementseparator(thisisthewayOctaveoriginallybehaved,beforesomeonenoticedthatitwasnotcompatiblewithMatlab).ProceedingsofDSC200112Thevariablewhitespace_in_literal_matrixwasaddedsothatuserscouldchoosewhethertheywantedOctavetoworkasitalwayshad,ortobehaveinaMatlab-compatibleway,ortorequireuserstoexplicitlyseparateelementsinmatrixlists.Unfortunately,thismeansthattowritescriptsthatcanbeinterpretedcorrectlyregardlessofthevalueofthisvariable,onemustavoidspacesbetweenidenandopenparenthesischaracters(orsurroundtheexpressioninanothersetofparenthesis,likethis:(f(x)))andusecommasandsemicolonstoexplicitlyseparateelements.Themostproblematicsetofvariablesrun-timebehavior.MostofthesewereintroducedtoallowcompatibilitywithwhatIbelievedtobemisfeaturesofMatlabwhilealsoallowingOctavetobehaveinamoreconsistentway.Herearetwoexamplesofthistypeofvariable.Thefunctionzerosmaybeusedtocreateamatrixwithzeros.Itcanbecalledinseveraltways.Thesimplestiszeros(n)whichwillcreateasquarematrixwithdimensionnthatiswithzeros.Iftheargumentisarealnumberbutnotaninteger,bothMatlabandOctavesilentlyroundtothenearestinteger.Ifthevalueoftheargumentiscomplex,Matlabsilentlyignorestheimaginarypart,andifitisnegative,Matlabtreatsitaszero.AfterIhadalreadyimplementedthezerosfunctioninOctavewithratherstrictrequirementsfortheargumenttobeaninteger,Inoticedtheseotheroddbehaviorsanddecidedtoallowthem.Inthecaseofnon-integervalues,Iassumed(incor-rectly?)thatitmightbefairlycommonforthedimensionstobecomputedbysomemethodthatwouldproduceanon-integervalue,soIsimplyallowedOc-tavetobehaveasMatlabdoes.Butforthecasesofcomplexandnegativeargu-mentvalues,Idecidedtomakecompatiblebehavioroptionalthroughthevariables.ok_to_lose_imaginary_partandtreat_neg_dim_as_zero.Inowbelievethatthisisanexampleofcompatibilitygonetoofar.Itseemstomethatsimplyrejectinganynon-integerargumentisreasonable.Anyonethatneedstopassacomplex(oranynon-integer)valuetozeros(orsimilarfunctions)coulddosobyexplicitlyconvertingtheargumenttoaninteger.Myguessisthatthiswouldnotcausetroubleformuchexistingcode.3.11Overloadingof()InMatlabandOctave,parenthesesareusedtodelimitargumentlistsforfunctioncallsandindexlistsforarrayindexing.Intheexpressionx(y,z)itisnotimmediatelyclearwhetherthesymbolxisafunctionthatiscalledwithtwoarguments,oranarraythatisindexedbytwovalues.AlthoughthisisvirtuallyimpossibletochangewithoutbreakingnearlyallthecodewrittenforOctaveupuntilnow,itwouldbenicetobeabletodistinguishfunctioncallsfromarrayindexingbysyntaxalone.ProceedingsofDSC2001133.12SyntaxproblemsformatrixlistsThesquarebracketsusedtointroducematrixlistsarelimitedtotwodimensionalmatrices.Originally,Matlabonlyhadtwo-dimensionalmatrices,andarraysofthreeormoredimensionswerenotallowed.EveninthecurrentversionofMatlabthereisapparentlynolist-likesyntaxforintroducingamatrixofmorethantwodimensions.SimilarlimitationsappeartoexistforMatlab\'s\\Cell"datatypeaswell.BecausethematrixlistnotationoccursinmuchofthecodewrittenforOctave,itwouldbequitetoremovethisrestrictionwithoutbreakingmanyexistingprograms.3.13FlatnamespaceOctavehasnogoodwaytocontrolnamespaces.Allfunctionssharethesamenamespace,andarelikely.Matlabdoesallowprivatefunctionswhichareonlyvisibleassubfunctionsinasinglefunctionbutthatseemstoolimited.Ibelievethatpropersupportofnamespaceswouldbeuseful,particularlyasthenumberoffunctionsincreases,thoughitmaynotbeabsolutelynecessaryifsomecareisexercisedbypeoplewritingfunctionsforotherstouse.Emacs,whichhasmanythousandsoffunctionswrittenforitthataresharedbymanypeople,hasnoprovisionfornamespacesotherthansomesuggestednamingconventionsforfunctionsandglobalvariables.3.14GnuplotplotcommandsyntaxOctavehasatightlycoupledinterfacetognuplotthatisimplementedbyduplicatingmuchofthegnuplotcommandsyntaxdirectlyinOctave\'sparser.AtIwasnotsureitwouldevenbepossibletoimplementthisfeatureatallbecauseitseemedtocreatetoomanyintheparser,butIwaseventuallyabletomakeitwork.IbelievethatOctavewouldbebettertodayifIhadfailedandgivenup,butaftersomediscussionswithothers,Iwasconvincedthattheproblemscouldbesolvedwithenoughcode.Unfortunately,Ilackedtheexperiencetoseehowmuchtroubleitwouldreallycause.Obviously,thegnuplot-stylecommandsthatOctaveunderstandsarefairlysim-pletoconvertintocommandsthatcanbepassedtognuplot.Itwouldbemuchmoretoconvertthemintocommandsorsubroutinecallstoanotherplottingpackage,however,soreplacinggnuplotbyanotherplottingpackingisproblematic,becauseitimpliesalargeorbreakingbackwardcompatibility.Probablyitwouldbebesttodropthisfunctionalityinanyfutureproject.4MATLABCompatibilityIssuesIoriginallybelievedthatcompatibilitywithMatlabwasanimportantandrea-sonablegoal(butcertainlynotthemostimportantone).IbelievedthatitwouldhelppeoplebeginusingOctavebymakingiteasiertolearnandbymakingitpos-sibleforthemtousecodetheyhaddevelopedforMatlabwithouthavingtomakeProceedingsofDSC200114substantialchanges.Unfortunately,attemptingtoprovidegoodMatlabcompati-bilityhasalsocausedmanyproblemsanddivertedresourcesawayfromimprovingthecapabilitiesofOctaveinothermoreimportantareas.BecauseofitsclosecompatibilitywithMatlab,OctaveattractedmanyMat-labusers.Somefoundfeaturesthatwerenotsupported,orbehaviorsthatwereinconsistent,andreportedthemasbugs.Theseproblemreportswereoftengivenarelativelyhighpriority,particularlywhentheproblemswereeitherminororseemedgratuitous.AlthoughIdidnotintendto,IbelievethatbytheseproblemsandmakingOctaveevenmorecompatiblewithMatlab,IencouragedpeopletothinkthataprimarygoalwastocreateanexactreplicaofMatlab.Inolongerbelievethatcompatibilityisareasonablegoal.Itinnovationandplacestheprojectinthepositionofneverbeingaleader,alwaysbeingafollower,andquitefarbehindalmostallthetime.Ifcompatibilityisagoal,almostnoinnovationisallowed,becausethereisthepotentialforanynewfeaturetobeincompatiblewithfutureversionsofMatlab.(Thisisnotjustanimaginedproblem|ithashappenedinthepast,andIexpectitwillhappenagain.)Whenincompatibilitieslikethisarise,thereareseveralchoices.OneistoaddthenewMatlab-compatiblefeatureandstillsupporttheoldwaytoo.Evenifthisispossible(itmaybethatthefeaturessimplycannotcoexist),itaddsadditionalmaintenancecostsbecauseonemustnowsupporttwotwaysofdoingessen-tiallythesamething.Anotherchoiceistoadoptthenewwayanddroptheold,butbreakingbackwardcompatibilityisusuallyseenasundesirable.Ignoringthenewfeatureisalsopossible,buttendstoresultinbugreportsaskingwhythereisanincompatibility(typicallytheassumptionseemstobethatwhoeverimplementedtheOctavefeaturesomehowgotitwrong).Decidingthatitwouldbebesttoavoidinnovationandfocusoncompletecom-patibilityisalsoapathtochoose.Becausethereisnostandardforit,theoftheMatlablanguageiswhateverbehaviorthecurrentversionofMatlabhappenstoexhibit.Attemptingcompatibilityrequiresfollowingamovingtarget,andbecauseTheMathWorksalmostneveropenlydiscusstheirdevelopmentplansinadvanceofnewreleases,thecompatibilitywillbeyearsbehindateachnewreleaseofthetargetsystem.Therearealsosomenon-technicalproblemsassociatedwithstrivingforcompat-ibilitywithasystemlikeMatlab.IbelievethatmanypeoplehavestartedusingOctavebecausetheyseeitasa\\Matlabclone"availablefreeofchargeratherthanafreelyavailablesystemfordoingusefulwork.Often,theseusershaveassumedtheroleof\\customers"whowouldaskforhelp,abugoranewfeature,thenwaitforasolutioninsteadofcontributing.Idon\'tbelievethatthistypeofbehavioristhenormamongsuccessfulfreesoftwareprojects.Indeed,Ibelievethatforafreesoftwareprojecttobesuccessful,itmusthavemanycompetentuserswhoalsofunctionintheroleofdevelopers.Althoughtherehavebeensometcon-tributions,Octavehasneverdevelopedastrongcoreofdedicatedandcompetentdevelopers.ProceedingsofDSC2001155FutureImmediateplansforOctaveincludethereleaseofanew\\stable"versionthatIwillmaintaintoseriousbugsonly.IfpeopleareinterestedinhavingsomeformofOctavecontinuealongitspreviousdevelopmentpath,theywillneedtoorganizethatyfocusisnowonfuturedirections.AlthoughIwillnotbeworkingmuchwithOctaveasitiscurrentlyimplemented,thefuturemayinvolveaderivativeofOctave.IftheproblemsdescribedinSection3areinthewaysthatIhaveproposed,IbelieveOctavewillprovideamuch-improvedlanguage.ItwillremainsimilartoMatlab,butincompatible.Itwillbeeasyforusersofonelanguagetounderstandtheother,but,inmostcases,tosharecodebetweenthetwosystems.Ifthesechangesaremade,Icanseetadvantagesanddisadvantages.Onthepositiveside,wewillhaveamoreconsistentlanguageandaninterpreterthatiseasiertomaintain,andtherewillbelesswastedontheimplementationofpoorlydesignedfeaturesjusttohavecompatibility.Somepossibledisadvantagesarethatpeoplewillgenerallyhavetochooseonesystemortheother,welosesomeuserswhoseecompatibilityasanabsolutemust,andweinventyetanotherscriptinglanguage.AnotherpossibilityforthefutureistoleavetheOctavelanguagealoneandfocusingonadditionalfeatures(sparsematrices,parallelism,etc.)whilefendingtherequestsforadditionalMatlabcompatibility.ButaslongasOctaveisgenerallycompatible,usersarelikelytocontinuetowantmore,andIwouldpreferacleanbreakfromthisproblem.Ifitisundesirabletoinventyetanotherscriptinglanguage,thenperhapsitwouldbebesttosimplychooseanothergeneralpurposescriptinglanguagethatalreadyexistsandaddthenumericalfeaturesfromOctavetoit.IwasaskedaboutamergerofthistypeforOctaveandPython,butasIexaminedPythonmoreclosely,Idecidedthatitdidnotseemtobewell-suitedfornumericalcomputing(thoughmanyseemtobeusingitforthatpurposeanyway).Otherpopularscriptinglanguageshavesimilarproblems.Atthispoint,I\'mleaningmoretowardastreamlinedOctavebuiltontopofsomefastergeneral-purposescriptinglanguagesuchasGuile,theGNUproject\'sembeddableSchemeinterpreter.ThiswouldpreservethesyntaxofOctave(whichseemstobereasonablygoodforexpressingnumericalalgorithms)andallowaccesstothecapabilitiesofthemoregeneralpurposelanguage.ReasonsforchoosingGuilearethatitisintendedtobeusedasanembeddedinterpreter,anditshouldnotbetoototranslateOctavetoScheme.6FinalCommentsSomecommentsinthispaper(particularlythoserelatedtotheproblemswithMat-labcompatibility)mayseemquitepessimistic,butIdon\'tthinkthatthesituationishopeless.ThoseofuswhocareaboutfreesoftwaretoolslikeOctaveshouldseektoavoidtheseproblemsbynotmakingcompatibilitywithproprietarysoftwareaprimarygoal,particularlyifdoingsocomesataverylargecost.Wemustbe-ProceedingsofDSC200116comeleadersratherthanfollowersanddevelopavisionbeyondreimplementationofexistingproprietarytools.Tobesuccessful,aprojectlikeOctaveneedstohavemanycontributorsalignedwithacommongoal.Iwouldliketoseethatgoalbeafreelyavailable,highqualitysystemfornumerical(andpossiblysymbolic)computationsthatinspirespeopletocontributeinnovativeideasandcode.References[1]E.Anderson,Z.Bai,C.Bischof,J.Demmel,J.Dongarra,J.DuCroz,A.Green-baum,S.Hammarling,A.McKenny,S.Ostrouchov,andD.Sorensen.LAPACKUsers\'Guide.SIAM,Philidelphia,1992.[2]JackJ.Dongarra,JeremeyDuCroz,SvenHammarling,andIainAsetoflevel3basiclinearalgebrasubprograms.ACMTransactionsonMathematicalSoftware,16(1):1{17,1990.[3]JackJ.Dongarra,JeremyDuCroz,SvenHammarling,andRichardJ.Han-son.AnextendedsetofFORTRANbasiclinearalgebrasubprograms.ACMTransactionsonMathematicalSoftware,14(1):1{17,March1988.[4]DirkEddelbuettel.EconometricswithOctave.JournalofAppliedEconomet-rics,15:531{542,2000.[5]MargaretA.EllisandBjarneStroustrup.TheAnnotatedC++ReferenceMan-ual.Addison-Wesley,Reading,MA,1990.[6]AlanC.Hindmarsh.ODEPACK,asystematizedcollectionofODEsolvers.InR.S.Stepleman,editor,Computing,pages55{64,Amsterdam,1983.North-Holland.[7]C.L.Lawson,R.J.Hanson,D.R.Kincaid,andF.T.Krogh.BasiclinearalgebrasubprogramsforFortranusage.ACMTransactionsonMathematicalSoftware,5(3):308{323,September1979.[8]OctaveLevenspiel.ChemicalReactionEngineering.JohnWileyandSons,NewYork,2ndedition,1972.[9]JorgeJ.More,BurtonS.Garbow,andKennethE.Hillstrom.Userguideforminpack-1.TechnicalReportANL{80{74,ArgonneNationalLaboratory,March1980.[10]MalcolmMurphy.Octave:Afree,high-levellangaugeformathematics.LinuxJournal,July1997.[11]L.R.Petzold.AdescriptionofDASSL:Atial-algebraicsystemsolver.InR.S.Stepleman,editor,Computing,pages65{68,Amsterdam,1983.North-Holland.ProceedingsofDSC200117[12]EricS.Raymond.Thecathedralandthebazaar.Webdocument,availablefromhttp://www.tuxedo.org/~esr/writings/cathedral-bazaar,1997.' >>> f=File(open('foo.txt')) >>> extractText(f) ' P Lakshmi Narasimhan\n\n\nCareer Profile\n\n\n Seeking a challenging position that leverages my experience and also provides opportunities for professional and personal growth.\n\n\nAreas of interest\n\n\n *\n\n usability focus of various programming languages\n *\n\n C++ standardization\n *\n\n Software engineering practices and dynamics of open source projects\n\n\nTechnical skills\n\n\n *\n\n I feel at home in a linux environment.working experience in UNIX variants like AIX, HP-UX and Windows based systems. Strong exposure to the GNU toolchain, UNIX-ish tools like awk, sed and shell scripts.\n *\n\n good knowledge of C and C++. This involves:\n o finding out a bug and patching it in considerable time for a medium to large sized software system.\n o knowledge of STL.\n\n\n * proficiency in python. This involves:\n o scripting all odd tasks which cannot be done using C/C++ or which do not have any performance constraints\n o quick prototyping\n o experience in the Django web framework\n\n\n * TTCN-3\n * javascript, jquery\n\n * sparing knowledge of verilog and lisp.\n * software tools : subversion, Rational Clearcase, Microsoft VSS, GNU Make, Trac.\n\n\nEducational Qualification\n\n\n *\n\n B.Tech in Electronics and Communication engineering, SASTRA, Tanjavur, India, year of passing June 2006. GPA - 7.5/10.0.\n\n\nProfessional Experience Summary\n\n\nEmployer: Huawei\n\nDesignation: software engineer\n\nPeriod: July 2006 till date\n\nwe are designing a distributed platform which provides system level services for telecom applications. We mostly work on C++ and implement storage facility, high availability, adapters, CORBA based request brokers and telecom service life cycle management.\nOccasionally shell and python are used for odd scripting jobs.\nTechnologies used: Sqlite, distributed programming APIs in C++ similar to ACE, python, CORBA like proprietary system.\n\n\n 1. I work as a developer and tester of a telecom product dubbed ENIP.\n 2. It is a layer on top of the operating system which serves as a playground for various telecom services to run.\n 3. I work on the development of core services of ENIP. It involves various concepts of distributed programming like data persistence and synchronization(using sqlite), multi-threading etc.\n 4. I got a product consciousness award in 2007 for automating the build system(using python) and writing a program which automatically inserts debug logs in a C++ file(using C++).\n\n\nOrganization: SASTRA Linux User Group\n\nDesignation: Coordinator\n\nPeriod: June 2003 to May 2006\n\n 1. I was the Linux User Group coordinator of my college and my main activity was to advocate the use of Linux in the campus.\n 2. It involved giving a series of presentations and lectures during weekends on various technical and non technical aspects of Linux and open source.\n\n\n contribution to various open source projects like django(www.djangoproject.com) and openc++ MOP(opencxx.sf.net).\n\n\nPersonal information\n\n\n *\n\n Email: badri DOT dilbert AT gmail DOT com\n *\n\n Snail mail: 82/1, Annayappa Garden, New Tippsandra, Bangalore-75.\n *\n\n Phone : 9986040652.\n\n' >>> a=File(open('get_profile_alt.py')) >>> extractText(a) Traceback (most recent call last): File "<stdin>", line 1, in <module> File "/opt/git-repos/django-profile/utils/fileFilter.py", line 29, in extractText raise InvalidFileExtension(f.name, ext) utils.fileFilter.InvalidFileExtension """
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5
2019-09-17T14:46:35.000Z
2020-06-06T08:17:02.000Z
tests/utils/__init__.py
LucaCappelletti94/setup_python_package
61b5f3cff1ed3181f932293c63c4fcb71cbe0062
[ "MIT" ]
2
2020-12-18T01:47:55.000Z
2020-12-25T10:08:30.000Z
tests/utils/__init__.py
LucaCappelletti94/setup_python_package
61b5f3cff1ed3181f932293c63c4fcb71cbe0062
[ "MIT" ]
null
null
null
from .clone_repo import clone_test_repo, delete_test_repo __all__ = [ "clone_test_repo", "delete_test_repo" ]
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6
5b59b0f55510abc6bf70ad4a786d1682a19dc213
2,476
py
Python
efficient_rl/environment/oo_mdp/TaxiRelationClass.py
rlagywjd802/efficient_rl
6a82bfc10d814f5d36a7c211d645aa35ea380acf
[ "MIT" ]
8
2020-06-25T10:16:48.000Z
2022-02-15T09:12:04.000Z
efficient_rl/environment/oo_mdp/TaxiRelationClass.py
rlagywjd802/efficient_rl
6a82bfc10d814f5d36a7c211d645aa35ea380acf
[ "MIT" ]
null
null
null
efficient_rl/environment/oo_mdp/TaxiRelationClass.py
rlagywjd802/efficient_rl
6a82bfc10d814f5d36a7c211d645aa35ea380acf
[ "MIT" ]
2
2020-12-30T07:39:38.000Z
2021-04-12T14:57:13.000Z
import numpy as np class TaxiRelations: @staticmethod def touch_south(o1, o2): # north wall indices that hold the same x position as object 1 north_walls_idx = np.logical_and(o2['position'] == 'above', o2['x'] == o1['x']) # check for collision on north wall collide_n = np.any(o2['y'][north_walls_idx] == o1['y']) # south wall indices that hold the same x position as object 1 south_walls_idx = np.logical_and(o2['position'] == 'below', o2['x'] == o1['x']) # check for collision on south wall collide_s = np.any(o2['y'][south_walls_idx] == o1['y'] - 1) return collide_s or collide_n @staticmethod def touch_north(o1, o2): # north wall indices that hold the same x position as object 1 north_walls_idx = np.logical_and(o2['position'] == 'above', o2['x'] == o1['x']) # check for collision on north wall collide_n = np.any(o2['y'][north_walls_idx] == o1['y'] + 1) # south wall indices that hold the same x position as object 1 south_walls_idx = np.logical_and(o2['position'] == 'below', o2['x'] == o1['x']) collide_s = np.any(o2['y'][south_walls_idx] == o1['y']) return collide_s or collide_n @staticmethod def touch_east(o1, o2): # east wall indices that hold the same y position as object 1 east_wall_idx = np.logical_and(o2['position'] == 'right', o2['y'] == o1['y']) # check for collision on east wall collide_e = np.any(o2['x'][east_wall_idx] == o1['x']) # west wall indices that hold the same y position as object 1 west_wall_idx = np.logical_and(o2['position'] == 'left', o2['y'] == o1['y']) collide_w = np.any(o2['x'][west_wall_idx] == o1['x'] + 1) return collide_e or collide_w @staticmethod def touch_west(o1, o2): # east wall indices that hold the same y position as object 1 east_wall_idx = np.logical_and(o2['position'] == 'right', o2['y'] == o1['y']) # check for collision on east wall collide_e = np.any(o2['x'][east_wall_idx] == o1['x'] - 1) # west wall indices that hold the same y position as object 1 west_wall_idx = np.logical_and(o2['position'] == 'left', o2['y'] == o1['y']) collide_w = np.any(o2['x'][west_wall_idx] == o1['x']) return collide_e or collide_w @staticmethod def on(o1, o2): return o1['x'] == o2['x'] and o1['y'] == o2['y']
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0.918367
0.850106
0.788177
0
0.03556
0.250404
2,476
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0.030303
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6
5b655c8d4bfc48c86a5a580f5c97c6e2d654b3dc
68
py
Python
scripts/evidence/sdk/__init__.py
Oneledger/protocol
1008fd12d384c9821be2a2ea34b3061cf24ae6bf
[ "Apache-2.0" ]
38
2018-06-30T15:22:06.000Z
2022-03-20T22:23:07.000Z
scripts/evidence/sdk/__init__.py
Oneledger/protocol
1008fd12d384c9821be2a2ea34b3061cf24ae6bf
[ "Apache-2.0" ]
27
2018-09-02T09:57:19.000Z
2021-09-17T18:06:35.000Z
scripts/evidence/sdk/__init__.py
Oneledger/protocol
1008fd12d384c9821be2a2ea34b3061cf24ae6bf
[ "Apache-2.0" ]
13
2018-06-30T15:22:08.000Z
2020-07-28T15:00:40.000Z
from actions import * from cmd_call import * from rpc_call import *
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22.666667
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6
5b77149d421545dfae58f3c11c83eb36980262f1
349,781
py
Python
test/faceMatch.py
ngd-b/python-demo
0341c1620bcde1c1d886cb9e75dc6db3722273c8
[ "MIT" ]
1
2019-10-09T13:40:13.000Z
2019-10-09T13:40:13.000Z
test/faceMatch.py
ngd-b/python-demo
0341c1620bcde1c1d886cb9e75dc6db3722273c8
[ "MIT" ]
null
null
null
test/faceMatch.py
ngd-b/python-demo
0341c1620bcde1c1d886cb9e75dc6db3722273c8
[ "MIT" ]
null
null
null
# encoding:utf-8 import requests import json ''' 百度人脸识别 ''' # 获取access_token CLIENT_ID = '0s0zCsqh2MKwlSwh48PSeNZY' CLIENT_SECRET = 'AZIUzKsRUY5kEXUl9glBYmuipW8lTKmj' # 图片比对数据 match_url = 'https://aip.baidubce.com/rest/2.0/face/v3/match' def matchFace(token): # img1 = "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" 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"image_type":"BASE64", "face_type":"LIVE", "quality_control":"LOW" }, { "image":img1, "image_type":"BASE64", "face_type":"LIVE", "quality_control":"LOW" } ] # 请求头设置 headers = { 'content-type':'application/json' } response = requests.post(match_url+"?access_token="+token,data=json.dumps(data),headers=headers) if response: print(response.json()); # 获取Access_token AuthUrl = 'https://aip.baidubce.com/oauth/2.0/token?grant_type=client_credentials&client_id='+CLIENT_ID+'&client_secret='+CLIENT_SECRET response = requests.get(AuthUrl) if response: res = response.json() AccessToken = res['access_token'] # 调用测试人脸比对 matchFace(AccessToken);
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5b8994b5cff3a215d3cd68c9a257d065a212bca0
13,772
py
Python
ondewo/nlu/context_pb2_grpc.py
foldvaridominic/ondewo-nlu-client-python
a4e766252fc2fdd2372860755082480b4234609a
[ "Apache-2.0" ]
null
null
null
ondewo/nlu/context_pb2_grpc.py
foldvaridominic/ondewo-nlu-client-python
a4e766252fc2fdd2372860755082480b4234609a
[ "Apache-2.0" ]
5
2021-11-23T09:43:28.000Z
2021-12-17T15:09:06.000Z
ondewo/nlu/context_pb2_grpc.py
ondewo/ondewo-vtsi-client-python
8339dbe355d42ef7d02d441c6604200bbaae491a
[ "Apache-2.0" ]
1
2022-02-22T08:54:57.000Z
2022-02-22T08:54:57.000Z
# Generated by the gRPC Python protocol compiler plugin. DO NOT EDIT! """Client and server classes corresponding to protobuf-defined services.""" import grpc from google.protobuf import empty_pb2 as google_dot_protobuf_dot_empty__pb2 from ondewo.nlu import context_pb2 as ondewo_dot_nlu_dot_context__pb2 class ContextsStub(object): """A context represents additional information included with user input or with an intent returned by the Dialogflow API. Contexts are helpful for differentiating user input which may be vague or have a different meaning depending on additional details from your application such as user setting and preferences, previous user input, where the user is in your application, geographic location, and so on. You can include contexts as input parameters of a [DetectIntent][google.cloud.dialogflow.v2.Sessions.DetectIntent] (or [StreamingDetectIntent][google.cloud.dialogflow.v2.Sessions.StreamingDetectIntent]) request, or as output contexts included in the returned intent. Contexts expire when an intent is matched, after the number of `DetectIntent` requests specified by the `lifespan_count` parameter, or after 10 minutes if no intents are matched for a `DetectIntent` request. For more information about contexts, see the [Dialogflow documentation](https://dialogflow.com/docs/contexts). """ def __init__(self, channel): """Constructor. Args: channel: A grpc.Channel. """ self.ListContexts = channel.unary_unary( '/ondewo.nlu.Contexts/ListContexts', request_serializer=ondewo_dot_nlu_dot_context__pb2.ListContextsRequest.SerializeToString, response_deserializer=ondewo_dot_nlu_dot_context__pb2.ListContextsResponse.FromString, ) self.GetContext = channel.unary_unary( '/ondewo.nlu.Contexts/GetContext', request_serializer=ondewo_dot_nlu_dot_context__pb2.GetContextRequest.SerializeToString, response_deserializer=ondewo_dot_nlu_dot_context__pb2.Context.FromString, ) self.CreateContext = channel.unary_unary( '/ondewo.nlu.Contexts/CreateContext', request_serializer=ondewo_dot_nlu_dot_context__pb2.CreateContextRequest.SerializeToString, response_deserializer=ondewo_dot_nlu_dot_context__pb2.Context.FromString, ) self.UpdateContext = channel.unary_unary( '/ondewo.nlu.Contexts/UpdateContext', request_serializer=ondewo_dot_nlu_dot_context__pb2.UpdateContextRequest.SerializeToString, response_deserializer=ondewo_dot_nlu_dot_context__pb2.Context.FromString, ) self.DeleteContext = channel.unary_unary( '/ondewo.nlu.Contexts/DeleteContext', request_serializer=ondewo_dot_nlu_dot_context__pb2.DeleteContextRequest.SerializeToString, response_deserializer=google_dot_protobuf_dot_empty__pb2.Empty.FromString, ) self.DeleteAllContexts = channel.unary_unary( '/ondewo.nlu.Contexts/DeleteAllContexts', request_serializer=ondewo_dot_nlu_dot_context__pb2.DeleteAllContextsRequest.SerializeToString, response_deserializer=google_dot_protobuf_dot_empty__pb2.Empty.FromString, ) class ContextsServicer(object): """A context represents additional information included with user input or with an intent returned by the Dialogflow API. Contexts are helpful for differentiating user input which may be vague or have a different meaning depending on additional details from your application such as user setting and preferences, previous user input, where the user is in your application, geographic location, and so on. You can include contexts as input parameters of a [DetectIntent][google.cloud.dialogflow.v2.Sessions.DetectIntent] (or [StreamingDetectIntent][google.cloud.dialogflow.v2.Sessions.StreamingDetectIntent]) request, or as output contexts included in the returned intent. Contexts expire when an intent is matched, after the number of `DetectIntent` requests specified by the `lifespan_count` parameter, or after 10 minutes if no intents are matched for a `DetectIntent` request. For more information about contexts, see the [Dialogflow documentation](https://dialogflow.com/docs/contexts). """ def ListContexts(self, request, context): """Returns the list of all contexts in the specified session. """ context.set_code(grpc.StatusCode.UNIMPLEMENTED) context.set_details('Method not implemented!') raise NotImplementedError('Method not implemented!') def GetContext(self, request, context): """Retrieves the specified context. """ context.set_code(grpc.StatusCode.UNIMPLEMENTED) context.set_details('Method not implemented!') raise NotImplementedError('Method not implemented!') def CreateContext(self, request, context): """Creates a context. """ context.set_code(grpc.StatusCode.UNIMPLEMENTED) context.set_details('Method not implemented!') raise NotImplementedError('Method not implemented!') def UpdateContext(self, request, context): """Updates the specified context. """ context.set_code(grpc.StatusCode.UNIMPLEMENTED) context.set_details('Method not implemented!') raise NotImplementedError('Method not implemented!') def DeleteContext(self, request, context): """Deletes the specified context. """ context.set_code(grpc.StatusCode.UNIMPLEMENTED) context.set_details('Method not implemented!') raise NotImplementedError('Method not implemented!') def DeleteAllContexts(self, request, context): """Deletes all active contexts in the specified session. """ context.set_code(grpc.StatusCode.UNIMPLEMENTED) context.set_details('Method not implemented!') raise NotImplementedError('Method not implemented!') def add_ContextsServicer_to_server(servicer, server): rpc_method_handlers = { 'ListContexts': grpc.unary_unary_rpc_method_handler( servicer.ListContexts, request_deserializer=ondewo_dot_nlu_dot_context__pb2.ListContextsRequest.FromString, response_serializer=ondewo_dot_nlu_dot_context__pb2.ListContextsResponse.SerializeToString, ), 'GetContext': grpc.unary_unary_rpc_method_handler( servicer.GetContext, request_deserializer=ondewo_dot_nlu_dot_context__pb2.GetContextRequest.FromString, response_serializer=ondewo_dot_nlu_dot_context__pb2.Context.SerializeToString, ), 'CreateContext': grpc.unary_unary_rpc_method_handler( servicer.CreateContext, request_deserializer=ondewo_dot_nlu_dot_context__pb2.CreateContextRequest.FromString, response_serializer=ondewo_dot_nlu_dot_context__pb2.Context.SerializeToString, ), 'UpdateContext': grpc.unary_unary_rpc_method_handler( servicer.UpdateContext, request_deserializer=ondewo_dot_nlu_dot_context__pb2.UpdateContextRequest.FromString, response_serializer=ondewo_dot_nlu_dot_context__pb2.Context.SerializeToString, ), 'DeleteContext': grpc.unary_unary_rpc_method_handler( servicer.DeleteContext, request_deserializer=ondewo_dot_nlu_dot_context__pb2.DeleteContextRequest.FromString, response_serializer=google_dot_protobuf_dot_empty__pb2.Empty.SerializeToString, ), 'DeleteAllContexts': grpc.unary_unary_rpc_method_handler( servicer.DeleteAllContexts, request_deserializer=ondewo_dot_nlu_dot_context__pb2.DeleteAllContextsRequest.FromString, response_serializer=google_dot_protobuf_dot_empty__pb2.Empty.SerializeToString, ), } generic_handler = grpc.method_handlers_generic_handler( 'ondewo.nlu.Contexts', rpc_method_handlers) server.add_generic_rpc_handlers((generic_handler,)) # This class is part of an EXPERIMENTAL API. class Contexts(object): """A context represents additional information included with user input or with an intent returned by the Dialogflow API. Contexts are helpful for differentiating user input which may be vague or have a different meaning depending on additional details from your application such as user setting and preferences, previous user input, where the user is in your application, geographic location, and so on. You can include contexts as input parameters of a [DetectIntent][google.cloud.dialogflow.v2.Sessions.DetectIntent] (or [StreamingDetectIntent][google.cloud.dialogflow.v2.Sessions.StreamingDetectIntent]) request, or as output contexts included in the returned intent. Contexts expire when an intent is matched, after the number of `DetectIntent` requests specified by the `lifespan_count` parameter, or after 10 minutes if no intents are matched for a `DetectIntent` request. For more information about contexts, see the [Dialogflow documentation](https://dialogflow.com/docs/contexts). """ @staticmethod def ListContexts(request, target, options=(), channel_credentials=None, call_credentials=None, insecure=False, compression=None, wait_for_ready=None, timeout=None, metadata=None): return grpc.experimental.unary_unary(request, target, '/ondewo.nlu.Contexts/ListContexts', ondewo_dot_nlu_dot_context__pb2.ListContextsRequest.SerializeToString, ondewo_dot_nlu_dot_context__pb2.ListContextsResponse.FromString, options, channel_credentials, insecure, call_credentials, compression, wait_for_ready, timeout, metadata) @staticmethod def GetContext(request, target, options=(), channel_credentials=None, call_credentials=None, insecure=False, compression=None, wait_for_ready=None, timeout=None, metadata=None): return grpc.experimental.unary_unary(request, target, '/ondewo.nlu.Contexts/GetContext', ondewo_dot_nlu_dot_context__pb2.GetContextRequest.SerializeToString, ondewo_dot_nlu_dot_context__pb2.Context.FromString, options, channel_credentials, insecure, call_credentials, compression, wait_for_ready, timeout, metadata) @staticmethod def CreateContext(request, target, options=(), channel_credentials=None, call_credentials=None, insecure=False, compression=None, wait_for_ready=None, timeout=None, metadata=None): return grpc.experimental.unary_unary(request, target, '/ondewo.nlu.Contexts/CreateContext', ondewo_dot_nlu_dot_context__pb2.CreateContextRequest.SerializeToString, ondewo_dot_nlu_dot_context__pb2.Context.FromString, options, channel_credentials, insecure, call_credentials, compression, wait_for_ready, timeout, metadata) @staticmethod def UpdateContext(request, target, options=(), channel_credentials=None, call_credentials=None, insecure=False, compression=None, wait_for_ready=None, timeout=None, metadata=None): return grpc.experimental.unary_unary(request, target, '/ondewo.nlu.Contexts/UpdateContext', ondewo_dot_nlu_dot_context__pb2.UpdateContextRequest.SerializeToString, ondewo_dot_nlu_dot_context__pb2.Context.FromString, options, channel_credentials, insecure, call_credentials, compression, wait_for_ready, timeout, metadata) @staticmethod def DeleteContext(request, target, options=(), channel_credentials=None, call_credentials=None, insecure=False, compression=None, wait_for_ready=None, timeout=None, metadata=None): return grpc.experimental.unary_unary(request, target, '/ondewo.nlu.Contexts/DeleteContext', ondewo_dot_nlu_dot_context__pb2.DeleteContextRequest.SerializeToString, google_dot_protobuf_dot_empty__pb2.Empty.FromString, options, channel_credentials, insecure, call_credentials, compression, wait_for_ready, timeout, metadata) @staticmethod def DeleteAllContexts(request, target, options=(), channel_credentials=None, call_credentials=None, insecure=False, compression=None, wait_for_ready=None, timeout=None, metadata=None): return grpc.experimental.unary_unary(request, target, '/ondewo.nlu.Contexts/DeleteAllContexts', ondewo_dot_nlu_dot_context__pb2.DeleteAllContextsRequest.SerializeToString, google_dot_protobuf_dot_empty__pb2.Empty.FromString, options, channel_credentials, insecure, call_credentials, compression, wait_for_ready, timeout, metadata)
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0
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0
0
6
5b9acab96167646b28b3f42d085260cad956982d
209
py
Python
hs_app_netCDF/admin.py
ResearchSoftwareInstitute/MyHPOM
2d48fe5ac8d21173b1685eb33059bb391fe24414
[ "BSD-3-Clause" ]
1
2018-09-17T13:07:29.000Z
2018-09-17T13:07:29.000Z
hs_app_netCDF/admin.py
ResearchSoftwareInstitute/MyHPOM
2d48fe5ac8d21173b1685eb33059bb391fe24414
[ "BSD-3-Clause" ]
100
2017-08-01T23:48:04.000Z
2018-04-03T13:17:27.000Z
hs_app_netCDF/admin.py
ResearchSoftwareInstitute/MyHPOM
2d48fe5ac8d21173b1685eb33059bb391fe24414
[ "BSD-3-Clause" ]
2
2017-07-27T20:41:33.000Z
2017-07-27T22:40:57.000Z
from mezzanine.pages.admin import PageAdmin from django.contrib.gis import admin from .models import NetcdfResource # admin.site.register(MyResource, PageAdmin) admin.site.register(NetcdfResource, PageAdmin)
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6
5bad650851f7b0cbf50d0e6ebffea0953ad01118
74
py
Python
Imaobong Tom/Phase 1/Python Basic 1/Day 6/No. 7.py
CodedLadiesInnovateTech/-python-challenge-solutions
430cd3eb84a2905a286819eef384ee484d8eb9e7
[ "MIT" ]
6
2020-05-23T19:53:25.000Z
2021-05-08T20:21:30.000Z
Imaobong Tom/Phase 1/Python Basic 1/Day 6/No. 7.py
CodedLadiesInnovateTech/-python-challenge-solutions
430cd3eb84a2905a286819eef384ee484d8eb9e7
[ "MIT" ]
8
2020-05-14T18:53:12.000Z
2020-07-03T00:06:20.000Z
Imaobong Tom/Phase 1/Python Basic 1/Day 6/No. 7.py
CodedLadiesInnovateTech/-python-challenge-solutions
430cd3eb84a2905a286819eef384ee484d8eb9e7
[ "MIT" ]
39
2020-05-10T20:55:02.000Z
2020-09-12T17:40:59.000Z
import multiprocessing print("cpu count is", multiprocessing.cpu_count())
24.666667
50
0.810811
9
74
6.555556
0.666667
0.271186
0
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0.081081
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2
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1
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0
1
0
6
751849753aeed99eb4d654a97adcbfce7de16778
43
py
Python
common/filters/__init__.py
Jenks18/mfl_api
ecbb8954053be06bbcac7e1132811d73534c78d9
[ "MIT" ]
19
2015-04-16T09:37:08.000Z
2022-02-10T11:50:30.000Z
common/filters/__init__.py
Jenks18/mfl_api
ecbb8954053be06bbcac7e1132811d73534c78d9
[ "MIT" ]
125
2015-03-26T14:05:49.000Z
2020-05-14T08:16:50.000Z
common/filters/__init__.py
Jenks18/mfl_api
ecbb8954053be06bbcac7e1132811d73534c78d9
[ "MIT" ]
39
2015-04-15T09:17:33.000Z
2022-03-28T18:08:16.000Z
from .filter_declarations import * # NOQA
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6
7520070a9b3093fa64f91561981fec22386223f1
185
py
Python
pkgs/werkzeug-0.11.4-py27_0/info/recipe/run_test.py
wangyum/anaconda
6e5a0dbead3327661d73a61e85414cf92aa52be6
[ "Apache-2.0", "BSD-3-Clause" ]
null
null
null
pkgs/werkzeug-0.11.4-py27_0/info/recipe/run_test.py
wangyum/anaconda
6e5a0dbead3327661d73a61e85414cf92aa52be6
[ "Apache-2.0", "BSD-3-Clause" ]
null
null
null
pkgs/werkzeug-0.11.4-py27_0/info/recipe/run_test.py
wangyum/anaconda
6e5a0dbead3327661d73a61e85414cf92aa52be6
[ "Apache-2.0", "BSD-3-Clause" ]
null
null
null
from werkzeug.security import safe_str_cmp assert safe_str_cmp('bar', 'bar') assert safe_str_cmp(u'baz', u'baz') assert safe_str_cmp(u'zas', 'zas') assert safe_str_cmp('asd', u'asd')
23.125
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0
0
0
0
0
6
75541295f95f2a350bf059ae7df29cef8fe22848
5,312
py
Python
notebooks/source/kernels.py
jafluri/cosmo_estimators
1b676f14e58ad67fa2644591cf14ea9fd1077272
[ "MIT" ]
3
2021-07-26T10:17:00.000Z
2021-12-14T11:09:47.000Z
notebooks/source/kernels.py
jafluri/cosmo_estimators
1b676f14e58ad67fa2644591cf14ea9fd1077272
[ "MIT" ]
null
null
null
notebooks/source/kernels.py
jafluri/cosmo_estimators
1b676f14e58ad67fa2644591cf14ea9fd1077272
[ "MIT" ]
null
null
null
import mpmath as mp import numpy as np """ This file contains function with the mpmath library featuring arbitrary precise floats """ # Note: for float32 this is pretty close to the min logable val min_val = 1e-42 @mp.workdps(100) def gaussian_kernel(d, scale=0.05, use_mp=False, return_mp=False): """ Gaussian kernel with scale :param d: the input of the kernel, might be numpy array but not mp matrix :param scale: the scale :param use_mp: if True use mpmath :param return_mp: if True return mpf object :return: the kernel evaluated at d and scale """ if not use_mp: if return_mp: print("To return an mpf object, set use_mp=True, returning numpy object...") norm = np.sqrt(2 * np.pi) * scale chi = -0.5 * (d / scale) ** 2 return np.maximum(np.exp(chi) / (norm), min_val) else: if isinstance(d, np.ndarray): is_array = True shape = d.shape d = d.ravel().astype(np.float64) else: is_array = False d = np.array([d]).astype(np.float64) res = [] for dd in d: norm = mp.sqrt(2 * mp.pi) * scale chi = -0.5 * (mp.mpf(dd) / scale) ** 2 res.append(mp.exp(chi) / norm) if is_array: if return_mp: return np.array(res).reshape(shape) else: return np.array(res, dtype=np.float64).reshape(shape) else: if return_mp: return res[0] else: return np.float64(res[0]) @mp.workdps(100) def logistic_kernel(d, scale=0.05, use_mp=False, return_mp=False): """ logistic kernel with scale :param d: the input of the kernel, might be numpy array but not mp matrix :param scale: the scale :param use_mp: if True use mpmath :param return_mp: if True return mpf object :return: the kernel evaluated at d and scale """ if not use_mp: if return_mp: print("To return an mpf object, set use_mp=True, returning numpy object...") pos_exp = np.exp(d / scale) neg_exp = np.exp(-d / scale) return np.maximum(1.0 / (scale * (pos_exp + neg_exp + 2)), min_val) else: if isinstance(d, np.ndarray): is_array = True shape = d.shape d = d.ravel().astype(np.float64) else: is_array = False d = np.array([d]).astype(np.float64) res = [] for dd in d: pos_exp = mp.exp(mp.mpf(dd) / scale) neg_exp = mp.exp(-mp.mpf(dd) / scale) res.append(1.0 / (scale * (pos_exp + neg_exp + 2.0))) if is_array: if return_mp: return np.array(res).reshape(shape) else: return np.array(res, dtype=np.float64).reshape(shape) else: if return_mp: return res[0] else: return np.float64(res[0]) @mp.workdps(100) def sigmoid_kernel(d, scale=0.05, use_mp=False, return_mp=False): """ Sigmoid kernel with scale :param d: the input of the kernel, might be numpy array but not mp matrix :param scale: the scale :param use_mp: if True use mpmath :param return_mp: if True return mpf object :return: the kernel evaluated at d and scale """ if not use_mp: if return_mp: print("To return an mpf object, set use_mp=True, returning numpy object...") pos_exp = np.exp(d/scale) neg_exp = np.exp(-d/scale) return np.maximum(2.0/(np.pi*scale*(pos_exp + neg_exp)), min_val) else: if isinstance(d, np.ndarray): is_array = True shape = d.shape d = d.ravel().astype(np.float64) else: is_array = False d = np.array([d]).astype(np.float64) res = [] for dd in d: pos_exp = mp.exp(mp.mpf(dd) / scale) neg_exp = mp.exp(-mp.mpf(dd) / scale) res.append(2.0 / (mp.pi * scale * (pos_exp + neg_exp))) if is_array: if return_mp: return np.array(res).reshape(shape) else: return np.array(res, dtype=np.float64).reshape(shape) else: if return_mp: return res[0] else: return np.float64(res[0]) # mpmath functions @mp.workdps(100) def mp_mean(arr): """ Calculates the mean of the array of mpf values :param arr: array of mp.mpf floats :return: the mean as mpf """ arr = arr.ravel() N = arr.size res = mp.mpf(0.0) for a in arr: res = res + a return res/N @mp.workdps(100) def mp_std(arr, ddof=0): """ Calculates the standard deviation of the array of mpf values :param arr: array of mp.mpf floats :param ddof: Means Delta Degrees of Freedom. The divisor used in calculations is N - ddof, where N represents the number of elements. By default ddof is zero. (np.std convention) :return: the mean as mpf """ arr = arr.ravel() N = arr.size # get the mean mean = mp_mean(arr) res = mp.mpf(0.0) for a in arr: res = res + (a - mean)**2 return mp.sqrt(res / (N - ddof))
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0.033195
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0.757261
0.74343
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0
0.023789
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0
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0
0
0
6
7556d8101d8d4a46efe5ab806dea3b6faffe3185
159
py
Python
melody/admin.py
juancopi81/komposair
ee5d86573ebbc3520f92dd6f7f5ae1c27038599b
[ "MIT" ]
18
2020-12-23T18:37:24.000Z
2021-11-20T15:50:11.000Z
melody/admin.py
juancopi81/komposair
ee5d86573ebbc3520f92dd6f7f5ae1c27038599b
[ "MIT" ]
null
null
null
melody/admin.py
juancopi81/komposair
ee5d86573ebbc3520f92dd6f7f5ae1c27038599b
[ "MIT" ]
3
2021-01-02T15:26:45.000Z
2021-04-02T20:42:45.000Z
from django.contrib import admin from .models import Melody, Vote, Comment admin.site.register(Melody) admin.site.register(Vote) admin.site.register(Comment)
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0
0
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0
6
f3308b7a14101e753630d39c7b8d2f2da93fa343
35
py
Python
datastock/tests/__init__.py
ToFuProject/datastock
a1179b169485042d3c14c668fa7781eb162e38aa
[ "MIT" ]
4
2022-02-24T14:36:25.000Z
2022-03-08T11:49:35.000Z
datastock/tests/__init__.py
ToFuProject/datastock
a1179b169485042d3c14c668fa7781eb162e38aa
[ "MIT" ]
12
2022-02-24T15:08:14.000Z
2022-03-23T16:51:54.000Z
datastock/tests/__init__.py
ToFuProject/datastock
a1179b169485042d3c14c668fa7781eb162e38aa
[ "MIT" ]
null
null
null
from . import test_01_DataStock
7
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6
f337b67ce098a0e7329bd11fed25eca1384e5c77
187
py
Python
Python/Ejercicios resueltos/Herencia/3.2. Usuario/Persona.py
judrodriguezgo/DesarrolloWeb
a020b1eb734e243114982cde9edfc3c25d60047a
[ "MIT" ]
1
2021-10-30T16:54:25.000Z
2021-10-30T16:54:25.000Z
Python/Ejercicios resueltos/Herencia/3.2. Usuario/Persona.py
judrodriguezgo/DesarrolloWeb
a020b1eb734e243114982cde9edfc3c25d60047a
[ "MIT" ]
null
null
null
Python/Ejercicios resueltos/Herencia/3.2. Usuario/Persona.py
judrodriguezgo/DesarrolloWeb
a020b1eb734e243114982cde9edfc3c25d60047a
[ "MIT" ]
3
2021-11-23T22:24:15.000Z
2021-12-31T23:51:47.000Z
class Persona: def __init__(self, nombre, edad): self.nombre = nombre self.edad = edad def descripcion(self): return self.nombre + " tiene " + str(self.edad) + " años."
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6
f374262b5dbffce38b230d30d194c81a15a140de
47
py
Python
test.py
redwankarimsony/Kaggle-Cassava-Leaf-Disease-Classification
e3aefc21f39fc4ad3a8dcb64ca8d0e4b444c76b9
[ "MIT" ]
null
null
null
test.py
redwankarimsony/Kaggle-Cassava-Leaf-Disease-Classification
e3aefc21f39fc4ad3a8dcb64ca8d0e4b444c76b9
[ "MIT" ]
null
null
null
test.py
redwankarimsony/Kaggle-Cassava-Leaf-Disease-Classification
e3aefc21f39fc4ad3a8dcb64ca8d0e4b444c76b9
[ "MIT" ]
null
null
null
import tensorflow as tf print(tf.__version__)
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6
f37939aa55cc20028d3c4297b97f0ac248544edc
41
py
Python
src/neural_networks/architectures/RestrictedBoltzmannMachine.py
jmetzz/ml-fundamentals
36ab416f4ca0737c76f76b24dec3b51c4c7a0071
[ "MIT" ]
1
2018-05-10T11:00:34.000Z
2018-05-10T11:00:34.000Z
src/neural_networks/architectures/RestrictedBoltzmannMachine.py
jmetzz/ml-fundamentals
36ab416f4ca0737c76f76b24dec3b51c4c7a0071
[ "MIT" ]
null
null
null
src/neural_networks/architectures/RestrictedBoltzmannMachine.py
jmetzz/ml-fundamentals
36ab416f4ca0737c76f76b24dec3b51c4c7a0071
[ "MIT" ]
null
null
null
class RestrictedBoltzmannMachine: pass
13.666667
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0.853659
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11.666667
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6
3473a2a0e0402b830262373c97258e464d546996
110
py
Python
app/blueprints/__init__.py
mkorcha/CoyoteLab
8932d9cc35fb840e468368c2e1249ca4811b59d0
[ "MIT" ]
2
2016-12-01T00:10:46.000Z
2016-12-31T19:18:35.000Z
app/blueprints/__init__.py
mkorcha/CoyoteLab
8932d9cc35fb840e468368c2e1249ca4811b59d0
[ "MIT" ]
null
null
null
app/blueprints/__init__.py
mkorcha/CoyoteLab
8932d9cc35fb840e468368c2e1249ca4811b59d0
[ "MIT" ]
null
null
null
from . import auth from . import instructor from . import main from . import student from . import workspace
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cab1b52d6da264b7fb2dab989d7bcdd2f68ae9d5
189
py
Python
l5kit/l5kit/random/__init__.py
xiaoxiaoheimei/l5kit
1ea2f8cecfe7ad974419bf5c8519ab3a21300119
[ "Apache-2.0" ]
5
2021-02-27T07:40:41.000Z
2022-03-24T07:03:35.000Z
l5kit/l5kit/random/__init__.py
phalanx-hk/l5kit
92c88c4050b946b6828a47ddb3d13da9d87f9f7d
[ "Apache-2.0" ]
1
2021-02-23T18:55:05.000Z
2021-02-23T18:55:05.000Z
l5kit/l5kit/random/__init__.py
phalanx-hk/l5kit
92c88c4050b946b6828a47ddb3d13da9d87f9f7d
[ "Apache-2.0" ]
2
2021-12-07T06:59:06.000Z
2022-01-22T07:19:18.000Z
from .random_generator import GaussianRandomGenerator, LambdaRandomGenerator, ReplayRandomGenerator __all__ = ["GaussianRandomGenerator", "LambdaRandomGenerator", "ReplayRandomGenerator"]
47.25
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6
cadecd10f89faf20e614ebd8fefe1f46ba9b3800
35,195
py
Python
VESIcal/batchmodel.py
kaylai/VESIcal
3ea18b0ce30b30fb55786346c37ef8f428ee5034
[ "MIT" ]
16
2020-06-22T09:07:32.000Z
2022-01-12T13:42:12.000Z
VESIcal/batchmodel.py
kaylai/VESIcal
3ea18b0ce30b30fb55786346c37ef8f428ee5034
[ "MIT" ]
136
2020-05-22T21:43:23.000Z
2022-03-07T22:06:33.000Z
build/lib/VESIcal/batchmodel.py
kaylai/VESIcal
3ea18b0ce30b30fb55786346c37ef8f428ee5034
[ "MIT" ]
3
2021-05-18T08:21:02.000Z
2022-03-25T01:08:10.000Z
from VESIcal import core from VESIcal import models from VESIcal import calculate_classes from VESIcal import batchfile import numpy as np import warnings as w import sys from thermoengine import equilibrate w.filterwarnings("ignore", message="rubicon.objc.ctypes_patch has only been " "tested ") # -------------- MELTS preamble --------------- # # instantiate thermoengine equilibrate MELTS instance melts = equilibrate.MELTSmodel('1.2.0') # Suppress phases not required in the melts simulation phases = melts.get_phase_names() for phase in phases: melts.set_phase_inclusion_status({phase: False}) melts.set_phase_inclusion_status({'Fluid': True, 'Liquid': True}) # --------------------------------------------- # # -------------- BATCH PROCESSING ----------- # class BatchFile(batchfile.BatchFile): """Performs model functions on a batchfile.BatchFile object """ pass def get_XH2O_fluid(self, sample, temperature, pressure, H2O, CO2): """An internally used function to calculate fluid composition. Parameters ---------- sample: dictionary Sample composition in wt% oxides temperature: float Temperature in degrees C. pressure: float Pressure in bars H2O: float wt% H2O in the system CO2: float wt% CO2 in the system Returns ------- float Mole fraction of H2O in the H2O-CO2 fluid """ pressureMPa = pressure / 10.0 bulk_comp = {oxide: sample[oxide] for oxide in core.oxides} bulk_comp["H2O"] = H2O bulk_comp["CO2"] = CO2 melts.set_bulk_composition(bulk_comp) output = melts.equilibrate_tp(temperature, pressureMPa, initialize=True) (status, temperature, pressureMPa, xmlout) = output[0] fluid_comp = melts.get_composition_of_phase(xmlout, phase_name='Fluid', mode='component') # NOTE mode='component' returns endmember component keys with values # in mol fraction. if "Water" in fluid_comp: H2O_fl = fluid_comp["Water"] else: H2O_fl = 0.0 return H2O_fl def calculate_dissolved_volatiles(self, temperature, pressure, X_fluid=1, print_status=True, model='MagmaSat', record_errors=False, **kwargs): """ Calculates the amount of H2O and CO2 dissolved in a magma at the given P/T conditions and fluid composition. Fluid composition will be matched to within 0.0001 mole fraction. Parameters ---------- temperature: float, int, or str Temperature, in degrees C. Can be passed as float, in which case the passed value is used as the temperature for all samples. Alternatively, temperature information for each individual sample may already be present in the BatchFile object. If so, pass the str value corresponding to the column title in the BatchFile object. pressure: float, int, or str Pressure, in bars. Can be passed as float or int, in which case the passed value is used as the pressure for all samples. Alternatively, pressure information for each individual sample may already be present in the BatchFile object. If so, pass the str value corresponding to the column title in the BatchFile object. X_fluid: float, int, or str OPTIONAL: Default value is 1. The mole fraction of H2O in the H2O-CO2 fluid. X_fluid=1 is a pure H2O fluid. X_fluid=0 is a pure CO2 fluid. Can be passed as a float or int, in which case the passed value is used as the X_fluid for all samples. Alternatively, X_fluid information for each individual sample may already be present in the BatchFile object. If so, pass the str value corresponding to the column title in the BatchFile object. print_status: bool OPTIONAL: The default value is True, in which case the progress of the calculation will be printed to the terminal. If set to False, nothing will be printed. MagmaSat calculations tend to be slow, and so a value of True is recommended for most use cases. model: string OPTIONAL: Default is 'MagmaSat'. Any other model name can be passed here. record_errors: bool OPTIONAL: If True, any errors arising during the calculation will be recorded as a column. Returns ------- pandas DataFrame Original data passed plus newly calculated values are returned. """ dissolved_data = self.get_data().copy() if isinstance(temperature, str): file_has_temp = True temp_name = temperature elif isinstance(temperature, float) or isinstance(temperature, int): file_has_temp = False else: raise core.InputError("temp must be type str or float or int") if isinstance(pressure, str): file_has_press = True press_name = pressure elif isinstance(pressure, float) or isinstance(pressure, int): file_has_press = False else: raise core.InputError("pressure must be type str or float or int") if isinstance(X_fluid, str): file_has_X = True X_name = X_fluid elif isinstance(X_fluid, float) or isinstance(X_fluid, int): file_has_X = False if X_fluid != 0 and X_fluid != 1: if X_fluid < 0.001 or X_fluid > 0.999: raise core.InputError("X_fluid is calculated to a " "precision of 0.0001 mole fraction. " "Value for X_fluid must be between " "0.0001 and 0.9999.") else: raise core.InputError("X_fluid must be type str or float or int") # Check if the model passed as the attribute "model_type" # Currently only implemented for MagmaSat type models if hasattr(model, 'model_type') is True: model = model.model_type H2Ovals = [] CO2vals = [] warnings = [] errors = [] if model in models.get_model_names(model='mixed'): for index, row in dissolved_data.iterrows(): try: if file_has_temp: temperature = row[temp_name] if file_has_press: pressure = row[press_name] if file_has_X: X_fluid = row[X_name] # Get sample comp as Sample class with defaults bulk_comp = self.get_sample_composition( index, normalization=self.default_normalization, units='wtpt_oxides', asSampleClass=True) bulk_comp.set_default_units(self.default_units) bulk_comp.set_default_normalization( self.default_normalization) calc = calculate_classes.calculate_dissolved_volatiles( sample=bulk_comp, pressure=pressure, temperature=temperature, X_fluid=(X_fluid, 1-X_fluid), model=model, silence_warnings=True, **kwargs) H2Ovals.append(calc.result['H2O_liq']) CO2vals.append(calc.result['CO2_liq']) warnings.append(calc.calib_check) errors.append('') except Exception: H2Ovals.append(np.nan) CO2vals.append(np.nan) warnings.append('Calculation Failed.') errors.append(sys.exc_info()[0]) dissolved_data["H2O_liq_VESIcal"] = H2Ovals dissolved_data["CO2_liq_VESIcal"] = CO2vals if file_has_temp is False: dissolved_data["Temperature_C_VESIcal"] = temperature if file_has_press is False: dissolved_data["Pressure_bars_VESIcal"] = pressure if file_has_X is False: dissolved_data["X_fluid_input_VESIcal"] = X_fluid dissolved_data["Model"] = model dissolved_data["Warnings"] = warnings if record_errors: dissolved_data["Errors"] = errors return dissolved_data elif model == 'MagmaSat': XH2Ovals = [] XCO2vals = [] FluidProportionvals = [] iterno = 0 for index, row in dissolved_data.iterrows(): iterno += 1 if print_status: percent = iterno/len(dissolved_data.index) batchfile.status_bar.status_bar(percent, index) if file_has_temp: temperature = row[temp_name] if temperature <= 0: H2Ovals.append(np.nan) CO2vals.append(np.nan) XH2Ovals.append(np.nan) XCO2vals.append(np.nan) FluidProportionvals.append(np.nan) warnings.append("Sample skipped. Bad temperature.") errors.append(sys.exc_info()[0]) w.warn("Temperature for sample " + str(index) + " is <=0. Skipping sample.", stacklevel=2) if file_has_press: pressure = row[press_name] if temperature > 0 and pressure <= 0: H2Ovals.append(np.nan) CO2vals.append(np.nan) XH2Ovals.append(np.nan) XCO2vals.append(np.nan) FluidProportionvals.append(np.nan) warnings.append("Sample skipped. Bad pressure.") errors.append(sys.exc_info()[0]) w.warn("Pressure for sample " + str(index) + " is <=0. Skipping sample.", stacklevel=2) if file_has_X: X_fluid = row[X_name] if temperature > 0 and pressure > 0 and X_fluid < 0: H2Ovals.append(np.nan) CO2vals.append(np.nan) XH2Ovals.append(np.nan) XCO2vals.append(np.nan) FluidProportionvals.append(np.nan) warnings.append("Sample skipped. Bad X_fluid.") errors.append(sys.exc_info()[0]) w.warn("X_fluid for sample " + str(index) + " is <0. Skipping sample.", stacklevel=2) if temperature > 0 and pressure > 0 and X_fluid > 1: H2Ovals.append(np.nan) CO2vals.append(np.nan) XH2Ovals.append(np.nan) XCO2vals.append(np.nan) FluidProportionvals.append(np.nan) warnings.append("Sample skipped. Bad X_fluid.") errors.append(sys.exc_info()[0]) w.warn("X_fluid for sample " + str(index) + " is >1. Skipping sample.", stacklevel=2) if (temperature > 0 and pressure > 0 and X_fluid >= 0 and X_fluid <= 1): try: # Get sample comp as Sample class with defaults bulk_comp = self.get_sample_composition( index, normalization=self.default_normalization, units='wtpt_oxides', asSampleClass=True) bulk_comp.set_default_units(self.default_units) bulk_comp.set_default_normalization( self.default_normalization) calc = calculate_classes.calculate_dissolved_volatiles( sample=bulk_comp, pressure=pressure, temperature=temperature, X_fluid=X_fluid, model=model, silence_warnings=True, verbose=True) H2Ovals.append(calc.result['H2O_liq']) CO2vals.append(calc.result['CO2_liq']) XH2Ovals.append(calc.result['XH2O_fl']) XCO2vals.append(calc.result['XCO2_fl']) FluidProportionvals.append( calc.result['FluidProportion_wt']) warnings.append(calc.calib_check) errors.append('') except Exception: H2Ovals.append(np.nan) CO2vals.append(np.nan) XH2Ovals.append(np.nan) XCO2vals.append(np.nan) FluidProportionvals.append(np.nan) warnings.append('Calculation Failed.') errors.append(sys.exc_info()[0]) dissolved_data["H2O_liq_VESIcal"] = H2Ovals dissolved_data["CO2_liq_VESIcal"] = CO2vals if file_has_temp is False: dissolved_data["Temperature_C_VESIcal"] = temperature if file_has_press is False: dissolved_data["Pressure_bars_VESIcal"] = pressure if file_has_X is False: dissolved_data["X_fluid_input_VESIcal"] = X_fluid dissolved_data["Model"] = model dissolved_data["Warnings"] = warnings if record_errors: dissolved_data["Errors"] = errors return dissolved_data else: XH2Ovals = [] XCO2vals = [] FluidProportionvals = [] for index, row in dissolved_data.iterrows(): if file_has_temp: temperature = row[temp_name] if file_has_press: pressure = row[press_name] if file_has_X: X_fluid = row[X_name] # Get sample comp as Sample class with defaults bulk_comp = self.get_sample_composition( index, normalization=self.default_normalization, units='wtpt_oxides', asSampleClass=True) bulk_comp.set_default_units(self.default_units) bulk_comp.set_default_normalization(self.default_normalization) if 'Water' in model: try: calc = calculate_classes.calculate_dissolved_volatiles( sample=bulk_comp, pressure=pressure, temperature=temperature, X_fluid=X_fluid, model=model, silence_warnings=True) H2Ovals.append(calc.result) warnings.append(calc.calib_check) except Exception: H2Ovals.append(0) warnings.append('Calculation Failed #001') if 'Carbon' in model: try: calc = calculate_classes.calculate_dissolved_volatiles( sample=bulk_comp, pressure=pressure, temperature=temperature, X_fluid=X_fluid, model=model, silence_warnings=True) CO2vals.append(calc.result) warnings.append(calc.calib_check) except Exception: CO2vals.append(0) warnings.append('Calculation Failed #002') if 'Water' in model: dissolved_data["H2O_liq_VESIcal"] = H2Ovals if 'Carbon' in model: dissolved_data["CO2_liq_VESIcal"] = CO2vals if file_has_temp is False: dissolved_data["Temperature_C_VESIcal"] = temperature if file_has_press is False: dissolved_data["Pressure_bars_VESIcal"] = pressure if file_has_X is False: dissolved_data["X_fluid_input_VESIcal"] = X_fluid dissolved_data["Model"] = model dissolved_data["Warnings"] = warnings return dissolved_data def calculate_equilibrium_fluid_comp(self, temperature, pressure=None, print_status=False, model='MagmaSat', **kwargs): """ Returns H2O and CO2 concentrations in wt% or mole fraction in a fluid in equilibrium with the given sample(s) at the given P/T condition. Parameters ---------- sample: BatchFile object Compositional information on samples in oxides. temperature: float, int, or str Temperature, in degrees C. Can be passed as float, in which case the passed value is used as the temperature for all samples. Alternatively, temperature information for each individual sample may already be present in the BatchFile object. If so, pass the str value corresponding to the column title in the BatchFile object. presure: float, int, or str Pressure, in bars. Can be passed as float or int, in which case the passed value is used as the pressure for all samples. Alternatively, pressure information for each individual sample may already be present in the BatchFile object. If so, pass the str value corresponding to the column title in the BatchFile object. model: string OPTIONAL: Default is 'MagmaSat'. Any other model name can be passed here. Returns ------- pandas DataFrame Original data passed plus newly calculated values are returned. """ fluid_data = self.get_data().copy() # Check if the model passed as the attribute "model_type" # Currently only implemented for MagmaSat type models if hasattr(model, 'model_type') is True: model = model.model_type if isinstance(temperature, str): file_has_temp = True temp_name = temperature elif isinstance(temperature, float) or isinstance(temperature, int): file_has_temp = False else: raise core.InputError("temp must be type str or float or int") if isinstance(pressure, str): file_has_press = True press_name = pressure elif (isinstance(pressure, float) or isinstance(pressure, int) or pressure is None): file_has_press = False else: raise core.InputError("pressure must be type str or float or int") H2Ovals = [] CO2vals = [] warnings = [] if (model in models.get_model_names(model='mixed') or model == "MooreWater"): for index, row in fluid_data.iterrows(): try: if file_has_temp: temperature = row[temp_name] if file_has_press: pressure = row[press_name] # Get sample comp as Sample class with defaults bulk_comp = self.get_sample_composition( index, normalization=self.default_normalization, units='wtpt_oxides', asSampleClass=True) bulk_comp.set_default_units(self.default_units) bulk_comp.set_default_normalization( self.default_normalization) calc = calculate_classes.calculate_equilibrium_fluid_comp( sample=bulk_comp, pressure=pressure, temperature=temperature, model=model, silence_warnings=True, **kwargs) H2Ovals.append(calc.result['H2O']) CO2vals.append(calc.result['CO2']) if calc.result['H2O'] == 0 and calc.result['CO2'] == 0: warnings.append(calc.calib_check + "Sample not " + "saturated at these conditions") else: warnings.append(calc.calib_check) except Exception: H2Ovals.append(np.nan) CO2vals.append(np.nan) warnings.append("Calculation Failed.") fluid_data["XH2O_fl_VESIcal"] = H2Ovals fluid_data["XCO2_fl_VESIcal"] = CO2vals if file_has_temp is False: fluid_data["Temperature_C_VESIcal"] = temperature if file_has_press is False: fluid_data["Pressure_bars_VESIcal"] = pressure fluid_data["Model"] = model fluid_data["Warnings"] = warnings return fluid_data elif model == 'MagmaSat': iterno = 0 for index, row in fluid_data.iterrows(): iterno += 1 if print_status: percent = iterno/len(fluid_data.index) batchfile.status_bar.status_bar(percent, index) if file_has_temp: temperature = row[temp_name] if temperature <= 0: H2Ovals.append(np.nan) CO2vals.append(np.nan) warnings.append("Calculation skipped. Bad temperature.") w.warn("Temperature for sample " + str(index) + " is <=0. Skipping sample.", stacklevel=2) if file_has_press: pressure = row[press_name] if temperature > 0 and pressure <= 0: H2Ovals.append(np.nan) CO2vals.append(np.nan) warnings.append("Calculation skipped. Bad pressure.") w.warn("Pressure for sample " + str(index) + " is <=0. Skipping sample.", stacklevel=2) if temperature > 0 and pressure > 0: try: # Get sample comp as Sample class with defaults bulk_comp = self.get_sample_composition( index, normalization=self.default_normalization, units='wtpt_oxides', asSampleClass=True) bulk_comp.set_default_units(self.default_units) bulk_comp.set_default_normalization( self.default_normalization) calc = ( calculate_classes.calculate_equilibrium_fluid_comp( sample=bulk_comp, pressure=pressure, temperature=temperature, model=model, silence_warnings=True)) H2Ovals.append(calc.result['H2O']) CO2vals.append(calc.result['CO2']) if calc.result['H2O'] == 0 and calc.result['CO2'] == 0: warnings.append(calc.calib_check + "Sample not " + "saturated at these conditions") else: warnings.append(calc.calib_check) except Exception: H2Ovals.append(np.nan) CO2vals.append(np.nan) warnings.append("Calculation Failed.") fluid_data["XH2O_fl_VESIcal"] = H2Ovals fluid_data["XCO2_fl_VESIcal"] = CO2vals if file_has_temp is False: fluid_data["Temperature_C_VESIcal"] = temperature if file_has_press is False: fluid_data["Pressure_bars_VESIcal"] = pressure fluid_data["Model"] = model fluid_data["Warnings"] = warnings return fluid_data else: saturated = [] for index, row in fluid_data.iterrows(): try: if file_has_temp: temperature = row[temp_name] if file_has_press: pressure = row[press_name] # Get sample comp as Sample class with defaults bulk_comp = self.get_sample_composition( index, normalization=self.default_normalization, units='wtpt_oxides', asSampleClass=True) bulk_comp.set_default_units(self.default_units) bulk_comp.set_default_normalization( self.default_normalization) calc = calculate_classes.calculate_equilibrium_fluid_comp( sample=bulk_comp, pressure=pressure, temperature=temperature, model=model, silence_warnings=True) saturated.append(calc.result) warnings.append(calc.calib_check) except Exception: saturated.append(np.nan) warnings.append("Calculation Failed.") fluid_data["Saturated_VESIcal"] = saturated if file_has_temp is False: fluid_data["Temperature_C_VESIcal"] = temperature if file_has_press is False: fluid_data["Pressure_bars_VESIcal"] = pressure fluid_data["Model"] = model fluid_data["Warnings"] = warnings return fluid_data def calculate_saturation_pressure(self, temperature, print_status=None, model='MagmaSat', **kwargs): """ Calculates the saturation pressure of multiple sample compositions in the BatchFile. Parameters ---------- temperature: float, int, or str Temperature at which to calculate saturation pressures, in degrees C. Can be passed as float or int, in which case the passed value is used as the temperature for all samples. Alternatively, temperature information for each individual sample may already be present in the passed BatchFile object. If so, pass the str value corresponding to the column title in the passed BatchFile object. print_status: bool OPTIONAL: The default value for MagmaSat is True and the default for all other models is False. If set to True, the progress of the calculation will be printed to the terminal. If set to False, nothing will be printed. MagmaSat calculations tend to be slow, and so a value of True is recommended more most use cases. model: string OPTIONAL: Default is 'MagmaSat'. Any other model name can be passed here. Returns ------- pandas DataFrame object Values returned are saturation pressure in bars, the mass of fluid present, and the composition of the fluid present. """ satp_data = self.get_data().copy() # Check if the model passed has the attribute "model_type" # Currently only implemented for MagmaSat type models if hasattr(model, 'model_type') is True: model = model.model_type # set default print_status to True for MagmaSat, False for other # models if user doesn't pass any option if print_status is None: if model == 'MagmaSat': print_status = True else: print_status = False if isinstance(temperature, str): file_has_temp = True temp_name = temperature elif isinstance(temperature, float) or isinstance(temperature, int): file_has_temp = False else: raise core.InputError("temperature must be type str or float or " "int") if model != 'MagmaSat': satP = [] warnings = [] piStar = [] iterno = 0 for index, row in satp_data.iterrows(): iterno += 1 if print_status: percent = iterno/len(satp_data.index) batchfile.status_bar.status_bar(percent, index) if file_has_temp: temperature = row[temp_name] # Get sample comp as Sample class with defaults bulk_comp = self.get_sample_composition( index, normalization=self.default_normalization, units='wtpt_oxides', asSampleClass=True) bulk_comp.set_default_units(self.default_units) bulk_comp.set_default_normalization(self.default_normalization) calc = calculate_classes.calculate_saturation_pressure( sample=bulk_comp, temperature=temperature, model=model, silence_warnings=True, **kwargs) satP.append(calc.result) warnings.append(calc.calib_check) if model == 'ShishkinaIdealMixing': piStar.append( models.default_models['ShishkinaIdealMixing' ].models[1].PiStar(bulk_comp)) satp_data["SaturationP_bars_VESIcal"] = satP if file_has_temp is False: satp_data["Temperature_C_VESIcal"] = temperature satp_data["Model"] = model satp_data["Warnings"] = warnings if len(piStar) > 0: satp_data['PiStar_VESIcal'] = piStar return satp_data elif model == 'MagmaSat': satP = [] flmass = [] flH2O = [] flCO2 = [] flsystem_wtper = [] warnings = [] iterno = 0 for index, row in satp_data.iterrows(): iterno += 1 if print_status: percent = iterno/len(satp_data.index) batchfile.status_bar.status_bar(percent, index) if file_has_temp: temperature = row[temp_name] if temperature <= 0: satP.append(np.nan) flmass.append(np.nan) flsystem_wtper.append(np.nan) flH2O.append(np.nan) flCO2.append(np.nan) warnings.append("Calculation skipped. Bad temperature.") w.warn("Temperature for sample " + str(index) + " is <=0. Skipping sample.", stacklevel=2) if temperature > 0: try: # Get sample comp as Sample class with defaults bulk_comp = self.get_sample_composition( index, normalization=self.default_normalization, units='wtpt_oxides', asSampleClass=True) bulk_comp.set_default_units(self.default_units) bulk_comp.set_default_normalization( self.default_normalization) calc = calculate_classes.calculate_saturation_pressure( sample=bulk_comp, temperature=temperature, model=model, verbose=True, silence_warnings=True) satP.append(calc.result["SaturationP_bars"]) flmass.append(calc.result["FluidMass_grams"]) flsystem_wtper.append( calc.result["FluidProportion_wt"]) flH2O.append(calc.result["XH2O_fl"]) flCO2.append(calc.result["XCO2_fl"]) warnings.append(calc.calib_check) except Exception: satP.append(np.nan) flmass.append(np.nan) flsystem_wtper.append(np.nan) flH2O.append(np.nan) flCO2.append(np.nan) warnings.append("Calculation Failed") satp_data["SaturationP_bars_VESIcal"] = satP if file_has_temp is False: satp_data["Temperature_C_VESIcal"] = temperature satp_data["XH2O_fl_VESIcal"] = flH2O satp_data["XCO2_fl_VESIcal"] = flCO2 satp_data["FluidMass_grams_VESIcal"] = flmass satp_data["FluidSystem_wt_VESIcal"] = flsystem_wtper satp_data["Model"] = model satp_data["Warnings"] = warnings return satp_data def BatchFile_from_DataFrame(dataframe, units='wtpt_oxides', label=None): """ Transforms any pandas DataFrame object into a VESIcal BatchFile object. Parameters ---------- Same as batchfile.BatchFile_from_DataFrame() Returns ------- VESIcal.BatchFile object """ return BatchFile(filename=None, dataframe=dataframe, units=units, label=label)
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py
Python
website/plugins/latex/__init__.py
brandonjflannery/data-analysis-template
178a088c15956331b59b16b4b05b9b3ba58d41b5
[ "MIT" ]
1
2020-08-14T16:13:47.000Z
2020-08-14T16:13:47.000Z
website/plugins/latex/__init__.py
johnjdailey/data-analysis-template
178a088c15956331b59b16b4b05b9b3ba58d41b5
[ "MIT" ]
null
null
null
website/plugins/latex/__init__.py
johnjdailey/data-analysis-template
178a088c15956331b59b16b4b05b9b3ba58d41b5
[ "MIT" ]
1
2020-07-23T05:09:07.000Z
2020-07-23T05:09:07.000Z
from .latex import *
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py
Python
jobs/admin.py
abdur-rakib/django-job-portal-site
a676635f08e36cf4fef47d595e634f1aa9b8a940
[ "MIT" ]
3
2020-02-10T19:03:26.000Z
2020-02-20T08:36:14.000Z
jobs/admin.py
RakibWebDeveloper/django-job-portal-site
a676635f08e36cf4fef47d595e634f1aa9b8a940
[ "MIT" ]
null
null
null
jobs/admin.py
RakibWebDeveloper/django-job-portal-site
a676635f08e36cf4fef47d595e634f1aa9b8a940
[ "MIT" ]
1
2021-09-24T21:51:07.000Z
2021-09-24T21:51:07.000Z
from django.contrib import admin from .models import * admin.site.register(Job) admin.site.register(Applicant) admin.site.register(About)
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py
Python
min/sys_info.py
Richienb/ros-code
fbca60d965ff1792b380dd457d4af881b4f4b889
[ "Apache-2.0" ]
10
2017-10-21T06:02:42.000Z
2021-04-27T08:53:00.000Z
min/sys_info.py
Richienb/ros-code
fbca60d965ff1792b380dd457d4af881b4f4b889
[ "Apache-2.0" ]
4
2018-08-07T14:27:58.000Z
2019-07-06T18:01:51.000Z
min/sys_info.py
Richienb/ros-code
fbca60d965ff1792b380dd457d4af881b4f4b889
[ "Apache-2.0" ]
2
2018-03-24T18:48:57.000Z
2018-06-26T23:43:11.000Z
import platform import sys from pprint import pprint VER="ROS Code 2.0 | Running on {} {} | Python Version {}.{}.{}".format(platform.system(),platform.release(),list(sys.version_info)[0],list(sys.version_info)[1],list(sys.version_info)[2]) VAR=[str(platform.system()),str(platform.release()),str(sys.version_info),str(list(sys.version_info)[0]),str(list(sys.version_info)[1]),str(list(sys.version_info)[2])] def print_ver(): print(VER) def get_ver(): return VER def print_var(): print(VAR) def get_var(): return VAR def pprint_var(): pprint(VAR) if __name__=="__main__": print_ver() # Created by pyminifier (https://github.com/liftoff/pyminifier)
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py
Python
Tests/ML/utils/test_model_util.py
mkoivi-ms/InnerEye-DeepLearning
5879efe407ed411eb8393d6bd30757d0d775b863
[ "MIT" ]
1
2021-01-20T10:11:51.000Z
2021-01-20T10:11:51.000Z
Tests/ML/utils/test_model_util.py
mkoivi-ms/InnerEye-DeepLearning
5879efe407ed411eb8393d6bd30757d0d775b863
[ "MIT" ]
null
null
null
Tests/ML/utils/test_model_util.py
mkoivi-ms/InnerEye-DeepLearning
5879efe407ed411eb8393d6bd30757d0d775b863
[ "MIT" ]
null
null
null
# ------------------------------------------------------------------------------------------ # Copyright (c) Microsoft Corporation. All rights reserved. # Licensed under the MIT License (MIT). See LICENSE in the repo root for license information. # ------------------------------------------------------------------------------------------ import pytest import torch import os from torch.optim import Optimizer from torch import nn from typing import Callable from InnerEye.ML.utils.model_util import ModelAndInfo from InnerEye.ML.utils.device_aware_module import DeviceAwareModule from InnerEye.Common.common_util import ModelExecutionMode from InnerEye.ML.models.architectures.base_model import BaseModel from InnerEye.ML.model_config_base import ModelConfigBase from InnerEye.ML.config import SegmentationModelBase from InnerEye.ML.models.parallel.data_parallel import DataParallelModel from Tests.ML.configs.ClassificationModelForTesting import ClassificationModelForTesting from Tests.ML.configs.DummyModel import DummyModel from Tests.ML.util import no_gpu_available from InnerEye.Common.fixed_paths_for_tests import full_ml_test_data_path @pytest.mark.parametrize("config, checkpoint_path", [(DummyModel(), "checkpoints/1_checkpoint.pth.tar"), (ClassificationModelForTesting(), "classification_data_generated_random/checkpoints/1_checkpoint.pth.tar")]) def test_try_create_model_and_load_from_checkpoint(config: ModelConfigBase, checkpoint_path: str) -> None: # no checkpoint path provided model_and_info = ModelAndInfo(config, model_execution_mode=ModelExecutionMode.TEST, checkpoint_path=None) with pytest.raises(ValueError): model_and_info.model model_loaded = model_and_info.try_create_model_and_load_from_checkpoint() assert model_loaded if isinstance(config, SegmentationModelBase): assert isinstance(model_and_info.model, BaseModel) else: assert isinstance(model_and_info.model, DeviceAwareModule) # Invalid checkpoint path provided model_and_info = ModelAndInfo(config, model_execution_mode=ModelExecutionMode.TEST, checkpoint_path=full_ml_test_data_path("non_exist.pth.tar")) model_loaded = model_and_info.try_create_model_and_load_from_checkpoint() assert not model_loaded # Current code assumes that even if this function returns False, the model itself was created, only the checkpoint # loading failed. if isinstance(config, SegmentationModelBase): assert isinstance(model_and_info.model, BaseModel) else: assert isinstance(model_and_info.model, DeviceAwareModule) # Valid checkpoint path provided model_and_info = ModelAndInfo(config, model_execution_mode=ModelExecutionMode.TEST, checkpoint_path=full_ml_test_data_path(checkpoint_path)) model_loaded = model_and_info.try_create_model_and_load_from_checkpoint() assert model_loaded if isinstance(config, SegmentationModelBase): assert isinstance(model_and_info.model, BaseModel) else: assert isinstance(model_and_info.model, DeviceAwareModule) assert model_and_info.checkpoint_epoch == 1 @pytest.mark.gpu @pytest.mark.skipif(no_gpu_available, reason="Testing shift to DataParallelModel requires a GPU") @pytest.mark.parametrize("model_execution_mode", [ModelExecutionMode.TRAIN, ModelExecutionMode.TEST]) @pytest.mark.parametrize("config, checkpoint_path", [(DummyModel(), "checkpoints/1_checkpoint.pth.tar"), (ClassificationModelForTesting(), "classification_data_generated_random/checkpoints/1_checkpoint.pth.tar")]) def test_try_create_model_load_from_checkpoint_and_adjust(config: ModelConfigBase, checkpoint_path: str, model_execution_mode: ModelExecutionMode) -> None: config.use_gpu = True # no checkpoint path provided model_and_info = ModelAndInfo(config, model_execution_mode=model_execution_mode, checkpoint_path=None) with pytest.raises(ValueError): model_and_info.model model_loaded = model_and_info.try_create_model_load_from_checkpoint_and_adjust() assert model_loaded assert isinstance(model_and_info.model, DataParallelModel) # Invalid checkpoint path provided model_and_info = ModelAndInfo(config, model_execution_mode=model_execution_mode, checkpoint_path=full_ml_test_data_path("non_exist.pth.tar")) model_loaded = model_and_info.try_create_model_load_from_checkpoint_and_adjust() assert not model_loaded # Current code assumes that even if this function returns False, the model itself was created, only the checkpoint # loading failed. assert isinstance(model_and_info.model, DataParallelModel) # Valid checkpoint path provided model_and_info = ModelAndInfo(config, model_execution_mode=model_execution_mode, checkpoint_path=full_ml_test_data_path(checkpoint_path)) model_loaded = model_and_info.try_create_model_load_from_checkpoint_and_adjust() assert model_loaded assert isinstance(model_and_info.model, DataParallelModel) assert model_and_info.checkpoint_epoch == 1 @pytest.mark.parametrize("config, checkpoint_path", [(DummyModel(), "checkpoints/1_checkpoint.pth.tar"), (ClassificationModelForTesting(), "classification_data_generated_random/checkpoints/1_checkpoint.pth.tar")]) def test_try_create_optimizer_and_load_from_checkpoint(config: ModelConfigBase, checkpoint_path: str) -> None: # no checkpoint path provided model_and_info = ModelAndInfo(config, model_execution_mode=ModelExecutionMode.TEST, checkpoint_path=None) with pytest.raises(ValueError): model_and_info.optimizer model_loaded = model_and_info.try_create_model_and_load_from_checkpoint() assert model_loaded optimizer_loaded = model_and_info.try_create_optimizer_and_load_from_checkpoint() assert optimizer_loaded assert isinstance(model_and_info.optimizer, Optimizer) # Invalid checkpoint path provided model_and_info = ModelAndInfo(config, model_execution_mode=ModelExecutionMode.TEST, checkpoint_path=full_ml_test_data_path("non_exist.pth.tar")) model_loaded = model_and_info.try_create_model_and_load_from_checkpoint() assert not model_loaded # Current code assumes that even if this function returns False, the model itself was created, only the checkpoint # loading failed. optimizer_loaded = model_and_info.try_create_optimizer_and_load_from_checkpoint() assert not optimizer_loaded # Current code assumes that even if this function returns False, # the optimizer itself was created, only the checkpoint loading failed. assert isinstance(model_and_info.optimizer, Optimizer) # Valid checkpoint path provided model_and_info = ModelAndInfo(config, model_execution_mode=ModelExecutionMode.TEST, checkpoint_path=full_ml_test_data_path(checkpoint_path)) model_loaded = model_and_info.try_create_model_and_load_from_checkpoint() assert model_loaded assert model_and_info.checkpoint_epoch == 1 optimizer_loaded = model_and_info.try_create_optimizer_and_load_from_checkpoint() assert optimizer_loaded assert isinstance(model_and_info.optimizer, Optimizer) assert model_and_info.checkpoint_epoch == 1 @pytest.mark.parametrize("config, checkpoint_path", [(ClassificationModelForTesting(), "classification_data_generated_random/checkpoints/1_checkpoint.pth.tar")]) def test_try_create_mean_teacher_model_and_load_from_checkpoint(config: ModelConfigBase, checkpoint_path: str) -> None: config.mean_teacher_alpha = 0.999 # no checkpoint path provided model_and_info = ModelAndInfo(config, model_execution_mode=ModelExecutionMode.TEST, checkpoint_path=None) with pytest.raises(ValueError): model_and_info.mean_teacher_model model_loaded = model_and_info.try_create_mean_teacher_model_and_load_from_checkpoint() assert model_loaded if isinstance(config, SegmentationModelBase): assert isinstance(model_and_info.mean_teacher_model, BaseModel) else: assert isinstance(model_and_info.mean_teacher_model, DeviceAwareModule) # Invalid checkpoint path provided model_and_info = ModelAndInfo(config, model_execution_mode=ModelExecutionMode.TEST, checkpoint_path=full_ml_test_data_path("non_exist.pth.tar")) model_loaded = model_and_info.try_create_mean_teacher_model_and_load_from_checkpoint() assert not model_loaded # Current code assumes that even if this function returns False, the model itself was created, only the checkpoint # loading failed. if isinstance(config, SegmentationModelBase): assert isinstance(model_and_info.mean_teacher_model, BaseModel) else: assert isinstance(model_and_info.mean_teacher_model, DeviceAwareModule) # Valid checkpoint path provided model_and_info = ModelAndInfo(config, model_execution_mode=ModelExecutionMode.TEST, checkpoint_path=full_ml_test_data_path(checkpoint_path)) model_loaded = model_and_info.try_create_mean_teacher_model_and_load_from_checkpoint() assert model_loaded if isinstance(config, SegmentationModelBase): assert isinstance(model_and_info.mean_teacher_model, BaseModel) else: assert isinstance(model_and_info.mean_teacher_model, DeviceAwareModule) assert model_and_info.checkpoint_epoch == 1 @pytest.mark.parametrize("config", [DummyModel(), ClassificationModelForTesting()]) def test_save_checkpoint(config: ModelConfigBase) -> None: """ Test that checkpoints are saved correctly """ config.mean_teacher_alpha = 0.999 model_and_info = ModelAndInfo(config, model_execution_mode=ModelExecutionMode.TEST, checkpoint_path=None) model_and_info.try_create_model_and_load_from_checkpoint() model_and_info.try_create_mean_teacher_model_and_load_from_checkpoint() model_and_info.try_create_optimizer_and_load_from_checkpoint() def get_constant_init_function(constant: float) -> Callable: def init(layer: nn.Module) -> None: if type(layer) == nn.Conv3d: layer.weight.data.fill_(constant) # type: ignore return init assert model_and_info.mean_teacher_model is not None # for mypy model_and_info.model.apply(get_constant_init_function(1.0)) model_and_info.mean_teacher_model.apply(get_constant_init_function(2.0)) epoch = 3 checkpoint_path = config.get_path_to_checkpoint(epoch=epoch) checkpoint_dir = checkpoint_path.parent if not os.path.isdir(checkpoint_dir): os.makedirs(checkpoint_dir) model_and_info.save_checkpoint(epoch=epoch) model_and_info_restored = ModelAndInfo(config, model_execution_mode=ModelExecutionMode.TEST, checkpoint_path=config.get_path_to_checkpoint(epoch=epoch)) model_and_info_restored.try_create_model_load_from_checkpoint_and_adjust() model_and_info_restored.try_create_mean_teacher_model_load_from_checkpoint_and_adjust() assert model_and_info_restored.mean_teacher_model is not None # for mypy for module in model_and_info_restored.model.modules(): if type(module) == nn.Conv3d: assert torch.equal(module.weight.detach(), torch.full_like(module.weight.detach(), 1.0)) # type: ignore for module in model_and_info_restored.mean_teacher_model.modules(): if type(module) == nn.Conv3d: assert torch.equal(module.weight.detach(), torch.full_like(module.weight.detach(), 2.0)) # type: ignore
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6
946fc7e570a42dbf8aeefa867d02131449d3c0f5
229
py
Python
baselines/metaLearners_745103/src/learner/pretrained_encoders/__init__.py
ebadrian/ss-metadl
e79f74731c15d431d240e9ec0692d8d7ef1cb23e
[ "Apache-2.0" ]
null
null
null
baselines/metaLearners_745103/src/learner/pretrained_encoders/__init__.py
ebadrian/ss-metadl
e79f74731c15d431d240e9ec0692d8d7ef1cb23e
[ "Apache-2.0" ]
null
null
null
baselines/metaLearners_745103/src/learner/pretrained_encoders/__init__.py
ebadrian/ss-metadl
e79f74731c15d431d240e9ec0692d8d7ef1cb23e
[ "Apache-2.0" ]
null
null
null
from .mobilenet_pretrained import mobilenet_v2 from .resnet_pretrained import resnet18, resnet34, resnet50, resnet101, resnet152, resnext50_32x4d, resnext101_32x8d from .squeezenet_pretrained import squeezenet1_0, squeezenet1_1
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6
9480b0885b3844d40eaaaab324b46250a1441ab0
5,365
py
Python
tests/happy/test_04_happy_link_module.py
mingchik/happy
5d998f4aa01d375770fa57a23f819dcf9f434625
[ "Apache-2.0" ]
null
null
null
tests/happy/test_04_happy_link_module.py
mingchik/happy
5d998f4aa01d375770fa57a23f819dcf9f434625
[ "Apache-2.0" ]
null
null
null
tests/happy/test_04_happy_link_module.py
mingchik/happy
5d998f4aa01d375770fa57a23f819dcf9f434625
[ "Apache-2.0" ]
null
null
null
#!/usr/bin/env python # # Copyright (c) 2016-2017 Nest Labs, Inc. # 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. # ## # @file # Tests happy for creating, deleting, and listing nodes. # import pexpect import os import unittest import happy.HappyLinkAdd import happy.HappyLinkDelete import happy.HappyLinkList class test_happy_node_module(unittest.TestCase): def setUp(self): pass def test_node(self): options = happy.HappyLinkAdd.option() options["type"] = "thread" options["quiet"] = True addLink = happy.HappyLinkAdd.HappyLinkAdd(options) addLink.run() options = happy.HappyLinkAdd.option() options["type"] = "wifi" options["quiet"] = True addLink = happy.HappyLinkAdd.HappyLinkAdd(options) addLink.run() options = happy.HappyLinkAdd.option() options["type"] = "wan" options["quiet"] = True addLink = happy.HappyLinkAdd.HappyLinkAdd(options) addLink.run() options = happy.HappyLinkAdd.option() options["type"] = "cellular" options["quiet"] = True addLink = happy.HappyLinkAdd.HappyLinkAdd(options) addLink.run() options = happy.HappyLinkList.option() options["quiet"] = True listLink = happy.HappyLinkList.HappyLinkList(options) listLink.run() options = happy.HappyLinkDelete.option() options["link_id"] = "thread0" options["quiet"] = True deleteLink = happy.HappyLinkDelete.HappyLinkDelete(options) deleteLink.run() options = happy.HappyLinkDelete.option() options["link_id"] = "wifi0" options["quiet"] = True deleteLink = happy.HappyLinkDelete.HappyLinkDelete(options) deleteLink.run() options = happy.HappyLinkDelete.option() options["link_id"] = "wan0" options["quiet"] = True deleteLink = happy.HappyLinkDelete.HappyLinkDelete(options) deleteLink.run() options = happy.HappyLinkDelete.option() options["link_id"] = "cellular0" options["quiet"] = True deleteLink = happy.HappyLinkDelete.HappyLinkDelete(options) deleteLink.run() options = happy.HappyLinkList.option() options["quiet"] = True listLink = happy.HappyLinkList.HappyLinkList(options) listLink.run() # TAP options = happy.HappyLinkAdd.option() options["type"] = "thread" options["tap"] = True options["quiet"] = True addLink = happy.HappyLinkAdd.HappyLinkAdd(options) addLink.run() options = happy.HappyLinkAdd.option() options["type"] = "wifi" options["tap"] = True options["quiet"] = True addLink = happy.HappyLinkAdd.HappyLinkAdd(options) addLink.run() options = happy.HappyLinkAdd.option() options["type"] = "wan" options["tap"] = True options["quiet"] = True addLink = happy.HappyLinkAdd.HappyLinkAdd(options) addLink.run() options = happy.HappyLinkAdd.option() options["type"] = "cellular" options["tap"] = True options["quiet"] = True addLink = happy.HappyLinkAdd.HappyLinkAdd(options) addLink.run() options = happy.HappyLinkList.option() options["quiet"] = True listLink = happy.HappyLinkList.HappyLinkList(options) listLink.run() options = happy.HappyLinkDelete.option() options["link_id"] = "thread0" options["quiet"] = True deleteLink = happy.HappyLinkDelete.HappyLinkDelete(options) deleteLink.run() options = happy.HappyLinkDelete.option() options["link_id"] = "wifi0" options["quiet"] = True deleteLink = happy.HappyLinkDelete.HappyLinkDelete(options) deleteLink.run() options = happy.HappyLinkDelete.option() options["link_id"] = "wan0" options["quiet"] = True deleteLink = happy.HappyLinkDelete.HappyLinkDelete(options) deleteLink.run() options = happy.HappyLinkDelete.option() options["link_id"] = "cellular0" options["quiet"] = True deleteLink = happy.HappyLinkDelete.HappyLinkDelete(options) deleteLink.run() options = happy.HappyLinkList.option() options["quiet"] = True listLink = happy.HappyLinkList.HappyLinkList(options) listLink.run() child = pexpect.spawn("happy-state") child.expect(' Prefixes\r\n\r\nNODES Name Interface Type IPs\r\n\r\n') child.close(force=True) def tearDown(self): os.system("happy-state-delete") if __name__ == "__main__": unittest.main()
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6
94813b37c101f1fa236a8dc1c0ff19136b7f684f
2,519
py
Python
tests/test_upload_triggers.py
Robpol86/FlashAirMusic
acc5db1c4a1590623168eed05e48a8975f340d9f
[ "MIT" ]
null
null
null
tests/test_upload_triggers.py
Robpol86/FlashAirMusic
acc5db1c4a1590623168eed05e48a8975f340d9f
[ "MIT" ]
5
2016-01-03T08:39:06.000Z
2016-02-16T03:30:50.000Z
tests/test_upload_triggers.py
Robpol86/FlashAirMusic
acc5db1c4a1590623168eed05e48a8975f340d9f
[ "MIT" ]
null
null
null
"""Test functions in module.""" import asyncio import socket from flash_air_music.upload import triggers def test_skip(monkeypatch, caplog, shutdown_future): """Test with watch_for_flashair() disabled/skipped. :param monkeypatch: pytest fixture. :param caplog: pytest extension fixture. :param shutdown_future: conftest fixture. """ loop = asyncio.get_event_loop() shutdown_future.set_result(True) monkeypatch.setattr(triggers, 'GLOBAL_MUTABLE_CONFIG', {'--ip-addr': None}) loop.run_until_complete(triggers.watch_for_flashair()) messages = [r.message for r in caplog.records if r.name.startswith('flash_air_music')] assert '127.0.0.1 is reachable. calling run().' not in messages assert 'watch_for_flashair() saw shutdown signal.' in messages def test_fail(monkeypatch, caplog, shutdown_future): """Test socket error. :param monkeypatch: pytest fixture. :param caplog: pytest extension fixture. :param shutdown_future: conftest fixture. """ def func(*_): """Raise exception.""" raise socket.error('Error') loop = asyncio.get_event_loop() shutdown_future.set_result(True) monkeypatch.setattr(triggers, 'GLOBAL_MUTABLE_CONFIG', {'--ip-addr': '127.0.0.1'}) monkeypatch.setattr(triggers.socket, 'connect', func) loop.run_until_complete(triggers.watch_for_flashair()) messages = [r.message for r in caplog.records if r.name.startswith('flash_air_music')] assert '127.0.0.1 is reachable. calling run().' not in messages assert 'watch_for_flashair() saw shutdown signal.' in messages def test_success(monkeypatch, caplog, shutdown_future): """Test two loop iterations. :param monkeypatch: pytest fixture. :param caplog: pytest extension fixture. :param shutdown_future: conftest fixture. """ loop = asyncio.get_event_loop() tries = list(range(3)) monkeypatch.setattr(triggers, 'GLOBAL_MUTABLE_CONFIG', {'--ip-addr': '127.0.0.1'}) monkeypatch.setattr(triggers, 'run', asyncio.coroutine(lambda *_: tries.pop() or shutdown_future.set_result(True))) monkeypatch.setattr(triggers, 'SUCCESS_SLEEP', 1) monkeypatch.setattr(triggers.socket, 'connect', lambda *_: None) loop.run_until_complete(triggers.watch_for_flashair()) messages = [r.message for r in caplog.records if r.name.startswith('flash_air_music')] assert '127.0.0.1 is reachable. calling run().' in messages assert 'watch_for_flashair() saw shutdown signal.' in messages
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6
846d0cda378744f39bb2dadd0befa385e0da701e
37
py
Python
flaskcbv/forms/__init__.py
procool/flaskcbv
18c254c10ef03145073e1264a06a0313e811ad29
[ "BSD-2-Clause" ]
1
2020-02-24T13:08:16.000Z
2020-02-24T13:08:16.000Z
flaskcbv/forms/__init__.py
procool/flaskcbv
18c254c10ef03145073e1264a06a0313e811ad29
[ "BSD-2-Clause" ]
null
null
null
flaskcbv/forms/__init__.py
procool/flaskcbv
18c254c10ef03145073e1264a06a0313e811ad29
[ "BSD-2-Clause" ]
null
null
null
from flaskcbv.forms.form import Form
18.5
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6
848098d8aa19cc5785d1e2be4020cf99a755c8dc
160
py
Python
csv_cti/blueprints/web_api/__init__.py
Osmond1689/csv-cti
84be8241e9ba50f495b23775eb153e4129845474
[ "MIT" ]
null
null
null
csv_cti/blueprints/web_api/__init__.py
Osmond1689/csv-cti
84be8241e9ba50f495b23775eb153e4129845474
[ "MIT" ]
null
null
null
csv_cti/blueprints/web_api/__init__.py
Osmond1689/csv-cti
84be8241e9ba50f495b23775eb153e4129845474
[ "MIT" ]
null
null
null
from flask import Blueprint web_api=Blueprint('web_api',__name__,template_folder='templates') from .views import agents,call,dids,exts,queues,tiers,cdr,groups
32
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6
84a63f71b77093b37b09a39ea1e6260935d29936
81
py
Python
jacdac/verified_telemetry/__init__.py
microsoft/jacdac-python
712ad5559e29065f5eccb5dbfe029c039132df5a
[ "MIT" ]
1
2022-02-15T21:30:36.000Z
2022-02-15T21:30:36.000Z
jacdac/verified_telemetry/__init__.py
microsoft/jacdac-python
712ad5559e29065f5eccb5dbfe029c039132df5a
[ "MIT" ]
null
null
null
jacdac/verified_telemetry/__init__.py
microsoft/jacdac-python
712ad5559e29065f5eccb5dbfe029c039132df5a
[ "MIT" ]
1
2022-02-08T19:32:45.000Z
2022-02-08T19:32:45.000Z
# Autogenerated file. from .client import VerifiedTelemetryClient # type: ignore
27
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0
6
84b8a01b58f99fa834de70fe520184a160d4d21d
46
py
Python
pepdna/utils/apps/httperfpy/httperfpy/__init__.py
kr1stj0n/pep-dna
17136ca8c16238423bf1ca1ab4302d51d2fc8e57
[ "RSA-MD", "Linux-OpenIB", "FTL", "TCP-wrappers", "CECILL-B" ]
3
2021-11-12T13:01:51.000Z
2022-02-19T09:06:23.000Z
pepdna/utils/apps/httperfpy/httperfpy/__init__.py
kr1stj0n/pep-dna
17136ca8c16238423bf1ca1ab4302d51d2fc8e57
[ "RSA-MD", "Linux-OpenIB", "FTL", "TCP-wrappers", "CECILL-B" ]
null
null
null
pepdna/utils/apps/httperfpy/httperfpy/__init__.py
kr1stj0n/pep-dna
17136ca8c16238423bf1ca1ab4302d51d2fc8e57
[ "RSA-MD", "Linux-OpenIB", "FTL", "TCP-wrappers", "CECILL-B" ]
null
null
null
from httperfpy import Httperf, HttperfParser
15.333333
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7.8
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0
1
0
0
6
84c3d1e48f1a6f59854f2423007d52e0fe16de4d
82
py
Python
aggan_pytorch/__init__.py
TheSignPainter/AGGAN
d75144f81df3f5a0a761d48c6285c38e74002be3
[ "Apache-2.0" ]
null
null
null
aggan_pytorch/__init__.py
TheSignPainter/AGGAN
d75144f81df3f5a0a761d48c6285c38e74002be3
[ "Apache-2.0" ]
null
null
null
aggan_pytorch/__init__.py
TheSignPainter/AGGAN
d75144f81df3f5a0a761d48c6285c38e74002be3
[ "Apache-2.0" ]
null
null
null
from aggan_pytorch.aggan_pytorch import Trainer, AGGAN, NanException, ModelLoader
41
81
0.865854
10
82
6.9
0.7
0.347826
0
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0
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0
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0
0.085366
82
1
82
82
0.92
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true
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6
ca6137ddc851237e68402de893ca8d1e2e1d90c4
30,306
py
Python
manila/tests/api/v2/test_consistency_groups.py
nidhimittalhada/access_group_repo
62f3365bc5fb728fcca692a9b3977690fabcd78f
[ "Apache-2.0" ]
1
2019-05-06T10:33:38.000Z
2019-05-06T10:33:38.000Z
manila/tests/api/v2/test_consistency_groups.py
nidhimittalhada/access_group_repo
62f3365bc5fb728fcca692a9b3977690fabcd78f
[ "Apache-2.0" ]
5
2015-08-13T15:17:28.000Z
2016-08-02T02:55:01.000Z
manila/tests/api/v2/test_consistency_groups.py
nidhimittalhada/access_group_repo
62f3365bc5fb728fcca692a9b3977690fabcd78f
[ "Apache-2.0" ]
3
2019-05-03T12:32:47.000Z
2021-01-30T20:26:19.000Z
# Copyright 2015 Alex Meade # 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. import copy import datetime import uuid import ddt import mock from oslo_config import cfg from oslo_serialization import jsonutils import six import webob from manila.api.openstack import wsgi import manila.api.v2.consistency_groups as cgs from manila.common import constants import manila.consistency_group.api as cg_api from manila import context from manila import db from manila import exception from manila import policy from manila.share import share_types from manila import test from manila.tests.api import fakes from manila.tests import db_utils CONF = cfg.CONF @ddt.ddt class CGApiTest(test.TestCase): """Consistency Groups API Test suite.""" def setUp(self): super(self.__class__, self).setUp() self.controller = cgs.CGController() self.resource_name = self.controller.resource_name self.fake_share_type = {'id': six.text_type(uuid.uuid4())} self.api_version = '2.4' self.request = fakes.HTTPRequest.blank('/consistency-groups', version=self.api_version, experimental=True) self.flags(rpc_backend='manila.openstack.common.rpc.impl_fake') self.admin_context = context.RequestContext('admin', 'fake', True) self.member_context = context.RequestContext('fake', 'fake') self.mock_policy_check = self.mock_object( policy, 'check_policy', mock.Mock(return_value=True)) self.context = self.request.environ['manila.context'] def _get_context(self, role): return getattr(self, '%s_context' % role) def _setup_cg_data(self, cg=None, version='2.7'): if cg is None: cg = db_utils.create_consistency_group( status=constants.STATUS_AVAILABLE) req = fakes.HTTPRequest.blank('/v2/fake/consistency-groups/%s/action' % cg['id'], version=version) req.headers[wsgi.API_VERSION_REQUEST_HEADER] = version req.headers[wsgi.EXPERIMENTAL_API_REQUEST_HEADER] = 'True' return cg, req def _get_fake_cg(self, **values): cg = { 'id': 'fake_id', 'user_id': 'fakeuser', 'project_id': 'fakeproject', 'status': constants.STATUS_CREATING, 'name': None, 'description': None, 'host': None, 'source_cgsnapshot_id': None, 'share_network_id': None, 'share_server_id': None, 'share_types': [], 'created_at': datetime.datetime(1, 1, 1, 1, 1, 1), } cg.update(**values) expected_cg = copy.deepcopy(cg) del expected_cg['user_id'] del expected_cg['share_server_id'] expected_cg['links'] = mock.ANY expected_cg['share_types'] = [st['share_type_id'] for st in cg.get('share_types')] return cg, expected_cg def _get_fake_simple_cg(self, **values): cg = { 'id': 'fake_id', 'name': None, } cg.update(**values) expected_cg = copy.deepcopy(cg) expected_cg['links'] = mock.ANY return cg, expected_cg def test_cg_create(self): fake_cg, expected_cg = self._get_fake_cg() self.mock_object(share_types, 'get_default_share_type', mock.Mock(return_value=self.fake_share_type)) self.mock_object(self.controller.cg_api, 'create', mock.Mock(return_value=fake_cg)) body = {"consistency_group": {}} context = self.request.environ['manila.context'] res_dict = self.controller.create(self.request, body) self.controller.cg_api.create.assert_called_once_with( context, share_type_ids=[self.fake_share_type['id']]) self.assertEqual(expected_cg, res_dict['consistency_group']) self.mock_policy_check.assert_called_once_with( self.context, self.resource_name, 'create') def test_cg_create_invalid_cgsnapshot_state(self): fake_snap_id = six.text_type(uuid.uuid4()) self.mock_object(self.controller.cg_api, 'create', mock.Mock(side_effect=exception.InvalidCGSnapshot( reason='bad status' ))) body = {"consistency_group": {"source_cgsnapshot_id": fake_snap_id}} self.assertRaises(webob.exc.HTTPConflict, self.controller.create, self.request, body) self.mock_policy_check.assert_called_once_with( self.context, self.resource_name, 'create') def test_cg_create_no_default_share_type(self): fake_cg, expected_cg = self._get_fake_cg() self.mock_object(share_types, 'get_default_share_type', mock.Mock(return_value=None)) self.mock_object(self.controller.cg_api, 'create', mock.Mock(return_value=fake_cg)) body = {"consistency_group": {}} self.assertRaises(webob.exc.HTTPBadRequest, self.controller.create, self.request, body) self.mock_policy_check.assert_called_once_with( self.context, self.resource_name, 'create') def test_cg_create_with_name(self): fake_name = 'fake_name' fake_cg, expected_cg = self._get_fake_cg(name=fake_name) self.mock_object(share_types, 'get_default_share_type', mock.Mock(return_value=self.fake_share_type)) self.mock_object(self.controller.cg_api, 'create', mock.Mock(return_value=fake_cg)) body = {"consistency_group": {"name": fake_name}} res_dict = self.controller.create(self.request, body) self.controller.cg_api.create.assert_called_once_with( self.context, name=fake_name, share_type_ids=[self.fake_share_type['id']]) self.assertEqual(expected_cg, res_dict['consistency_group']) self.mock_policy_check.assert_called_once_with( self.context, self.resource_name, 'create') def test_cg_create_with_description(self): fake_description = 'fake_description' fake_cg, expected_cg = self._get_fake_cg(description=fake_description) self.mock_object(share_types, 'get_default_share_type', mock.Mock(return_value=self.fake_share_type)) self.mock_object(self.controller.cg_api, 'create', mock.Mock(return_value=fake_cg)) body = {"consistency_group": {"description": fake_description}} res_dict = self.controller.create(self.request, body) self.controller.cg_api.create.assert_called_once_with( self.context, description=fake_description, share_type_ids=[self.fake_share_type['id']]) self.assertEqual(expected_cg, res_dict['consistency_group']) self.mock_policy_check.assert_called_once_with( self.context, self.resource_name, 'create') def test_cg_create_with_share_types(self): fake_share_types = [{"share_type_id": self.fake_share_type['id']}] fake_cg, expected_cg = self._get_fake_cg(share_types=fake_share_types) self.mock_object(self.controller.cg_api, 'create', mock.Mock(return_value=fake_cg)) body = {"consistency_group": { "share_types": [self.fake_share_type['id']]}} res_dict = self.controller.create(self.request, body) self.controller.cg_api.create.assert_called_once_with( self.context, share_type_ids=[self.fake_share_type['id']]) self.assertEqual(expected_cg, res_dict['consistency_group']) self.mock_policy_check.assert_called_once_with( self.context, self.resource_name, 'create') def test_cg_create_with_source_cgsnapshot_id(self): fake_snap_id = six.text_type(uuid.uuid4()) fake_cg, expected_cg = self._get_fake_cg( source_cgsnapshot_id=fake_snap_id) self.mock_object(share_types, 'get_default_share_type', mock.Mock(return_value=self.fake_share_type)) self.mock_object(self.controller.cg_api, 'create', mock.Mock(return_value=fake_cg)) body = {"consistency_group": { "source_cgsnapshot_id": fake_snap_id}} res_dict = self.controller.create(self.request, body) self.controller.cg_api.create.assert_called_once_with( self.context, source_cgsnapshot_id=fake_snap_id) self.assertEqual(expected_cg, res_dict['consistency_group']) self.mock_policy_check.assert_called_once_with( self.context, self.resource_name, 'create') def test_cg_create_with_share_network_id(self): fake_net_id = six.text_type(uuid.uuid4()) fake_cg, expected_cg = self._get_fake_cg( share_network_id=fake_net_id) self.mock_object(share_types, 'get_default_share_type', mock.Mock(return_value=self.fake_share_type)) self.mock_object(self.controller.cg_api, 'create', mock.Mock(return_value=fake_cg)) body = {"consistency_group": { "share_network_id": fake_net_id}} res_dict = self.controller.create(self.request, body) self.controller.cg_api.create.assert_called_once_with( self.context, share_network_id=fake_net_id, share_type_ids=mock.ANY) self.assertEqual(expected_cg, res_dict['consistency_group']) self.mock_policy_check.assert_called_once_with( self.context, self.resource_name, 'create') def test_cg_create_no_default_share_type_with_cgsnapshot(self): fake_snap_id = six.text_type(uuid.uuid4()) fake_cg, expected_cg = self._get_fake_cg() self.mock_object(share_types, 'get_default_share_type', mock.Mock(return_value=None)) self.mock_object(self.controller.cg_api, 'create', mock.Mock(return_value=fake_cg)) body = {"consistency_group": { "source_cgsnapshot_id": fake_snap_id}} res_dict = self.controller.create(self.request, body) self.controller.cg_api.create.assert_called_once_with( self.context, source_cgsnapshot_id=fake_snap_id) self.assertEqual(expected_cg, res_dict['consistency_group']) self.mock_policy_check.assert_called_once_with( self.context, self.resource_name, 'create') def test_cg_create_with_name_and_description(self): fake_name = 'fake_name' fake_description = 'fake_description' fake_cg, expected_cg = self._get_fake_cg(name=fake_name, description=fake_description) self.mock_object(share_types, 'get_default_share_type', mock.Mock(return_value=self.fake_share_type)) self.mock_object(self.controller.cg_api, 'create', mock.Mock(return_value=fake_cg)) body = {"consistency_group": {"name": fake_name, "description": fake_description}} res_dict = self.controller.create(self.request, body) self.controller.cg_api.create.assert_called_once_with( self.context, name=fake_name, description=fake_description, share_type_ids=[self.fake_share_type['id']]) self.assertEqual(expected_cg, res_dict['consistency_group']) self.mock_policy_check.assert_called_once_with( self.context, self.resource_name, 'create') def test_cg_create_invalid_body(self): body = {"not_consistency_group": {}} self.assertRaises(webob.exc.HTTPBadRequest, self.controller.create, self.request, body) self.mock_policy_check.assert_called_once_with( self.context, self.resource_name, 'create') def test_cg_create_invalid_body_share_types_and_source_cgsnapshot(self): body = {"consistency_group": {"share_types": [], "source_cgsnapshot_id": ""}} self.assertRaises(webob.exc.HTTPBadRequest, self.controller.create, self.request, body) self.mock_policy_check.assert_called_once_with( self.context, self.resource_name, 'create') def test_cg_create_source_cgsnapshot_not_in_available(self): fake_snap_id = six.text_type(uuid.uuid4()) body = {"consistency_group": {"source_cgsnapshot_id": fake_snap_id}} self.mock_object(self.controller.cg_api, 'create', mock.Mock( side_effect=exception.InvalidCGSnapshot(reason='blah'))) self.assertRaises(webob.exc.HTTPConflict, self.controller.create, self.request, body) self.mock_policy_check.assert_called_once_with( self.context, self.resource_name, 'create') def test_cg_create_source_cgsnapshot_does_not_exist(self): fake_snap_id = six.text_type(uuid.uuid4()) body = {"consistency_group": {"source_cgsnapshot_id": fake_snap_id}} self.mock_object(self.controller.cg_api, 'create', mock.Mock( side_effect=exception.CGSnapshotNotFound( cgsnapshot_id=fake_snap_id))) self.assertRaises(webob.exc.HTTPBadRequest, self.controller.create, self.request, body) self.mock_policy_check.assert_called_once_with( self.context, self.resource_name, 'create') def test_cg_create_source_cgsnapshot_not_a_uuid(self): fake_snap_id = "Not a uuid" body = {"consistency_group": {"source_cgsnapshot_id": fake_snap_id}} self.assertRaises(webob.exc.HTTPBadRequest, self.controller.create, self.request, body) self.mock_policy_check.assert_called_once_with( self.context, self.resource_name, 'create') def test_cg_create_share_network_id_not_a_uuid(self): fake_net_id = "Not a uuid" body = {"consistency_group": {"share_network_id": fake_net_id}} self.assertRaises(webob.exc.HTTPBadRequest, self.controller.create, self.request, body) self.mock_policy_check.assert_called_once_with( self.context, self.resource_name, 'create') def test_cg_create_invalid_body_share_types_not_a_list(self): body = {"consistency_group": {"share_types": ""}} self.assertRaises(webob.exc.HTTPBadRequest, self.controller.create, self.request, body) self.mock_policy_check.assert_called_once_with( self.context, self.resource_name, 'create') def test_cg_create_invalid_body_invalid_field(self): body = {"consistency_group": {"unknown_field": ""}} exc = self.assertRaises(webob.exc.HTTPBadRequest, self.controller.create, self.request, body) self.assertTrue('unknown_field' in six.text_type(exc)) self.mock_policy_check.assert_called_once_with( self.context, self.resource_name, 'create') def test_cg_create_with_invalid_share_types_field(self): body = {"consistency_group": {"share_types": 'iamastring'}} self.assertRaises(webob.exc.HTTPBadRequest, self.controller.create, self.request, body) self.mock_policy_check.assert_called_once_with( self.context, self.resource_name, 'create') def test_cg_create_with_invalid_share_types_field_not_uuids(self): body = {"consistency_group": {"share_types": ['iamastring']}} self.assertRaises(webob.exc.HTTPBadRequest, self.controller.create, self.request, body) self.mock_policy_check.assert_called_once_with( self.context, self.resource_name, 'create') def test_cg_update_with_name_and_description(self): fake_name = 'fake_name' fake_description = 'fake_description' fake_cg, expected_cg = self._get_fake_cg(name=fake_name, description=fake_description) self.mock_object(self.controller.cg_api, 'get', mock.Mock(return_value=fake_cg)) self.mock_object(self.controller.cg_api, 'update', mock.Mock(return_value=fake_cg)) body = {"consistency_group": {"name": fake_name, "description": fake_description}} context = self.request.environ['manila.context'] res_dict = self.controller.update(self.request, fake_cg['id'], body) self.controller.cg_api.update.assert_called_once_with( context, fake_cg, {"name": fake_name, "description": fake_description}) self.assertEqual(expected_cg, res_dict['consistency_group']) self.mock_policy_check.assert_called_once_with( self.context, self.resource_name, 'update') def test_cg_update_cg_not_found(self): body = {"consistency_group": {}} self.mock_object(self.controller.cg_api, 'get', mock.Mock(side_effect=exception.NotFound)) self.assertRaises(webob.exc.HTTPNotFound, self.controller.update, self.request, 'fake_id', body) self.mock_policy_check.assert_called_once_with( self.context, self.resource_name, 'update') def test_cg_update_invalid_body(self): body = {"not_consistency_group": {}} self.assertRaises(webob.exc.HTTPBadRequest, self.controller.update, self.request, 'fake_id', body) self.mock_policy_check.assert_called_once_with( self.context, self.resource_name, 'update') def test_cg_update_invalid_body_invalid_field(self): body = {"consistency_group": {"unknown_field": ""}} exc = self.assertRaises(webob.exc.HTTPBadRequest, self.controller.update, self.request, 'fake_id', body) self.assertTrue('unknown_field' in six.text_type(exc)) self.mock_policy_check.assert_called_once_with( self.context, self.resource_name, 'update') def test_cg_update_invalid_body_readonly_field(self): body = {"consistency_group": {"share_types": []}} exc = self.assertRaises(webob.exc.HTTPBadRequest, self.controller.update, self.request, 'fake_id', body) self.assertTrue('share_types' in six.text_type(exc)) self.mock_policy_check.assert_called_once_with( self.context, self.resource_name, 'update') def test_cg_list_index(self): fake_cg, expected_cg = self._get_fake_simple_cg() self.mock_object(cg_api.API, 'get_all', mock.Mock(return_value=[fake_cg])) res_dict = self.controller.index(self.request) self.assertEqual([expected_cg], res_dict['consistency_groups']) self.mock_policy_check.assert_called_once_with( self.context, self.resource_name, 'get_all') def test_cg_list_index_no_cgs(self): self.mock_object(cg_api.API, 'get_all', mock.Mock(return_value=[])) res_dict = self.controller.index(self.request) self.assertEqual([], res_dict['consistency_groups']) self.mock_policy_check.assert_called_once_with( self.context, self.resource_name, 'get_all') def test_cg_list_index_with_limit(self): fake_cg, expected_cg = self._get_fake_simple_cg() fake_cg2, expected_cg2 = self._get_fake_simple_cg(id="fake_id2") self.mock_object(cg_api.API, 'get_all', mock.Mock(return_value=[fake_cg, fake_cg2])) req = fakes.HTTPRequest.blank('/consistency_groups?limit=1', version=self.api_version, experimental=True) req_context = req.environ['manila.context'] res_dict = self.controller.index(req) self.assertEqual(1, len(res_dict['consistency_groups'])) self.assertEqual([expected_cg], res_dict['consistency_groups']) self.mock_policy_check.assert_called_once_with( req_context, self.resource_name, 'get_all') def test_cg_list_index_with_limit_and_offset(self): fake_cg, expected_cg = self._get_fake_simple_cg() fake_cg2, expected_cg2 = self._get_fake_simple_cg(id="fake_id2") self.mock_object(cg_api.API, 'get_all', mock.Mock(return_value=[fake_cg, fake_cg2])) req = fakes.HTTPRequest.blank('/consistency_groups?limit=1&offset=1', version=self.api_version, experimental=True) req_context = req.environ['manila.context'] res_dict = self.controller.index(req) self.assertEqual(1, len(res_dict['consistency_groups'])) self.assertEqual([expected_cg2], res_dict['consistency_groups']) self.mock_policy_check.assert_called_once_with( req_context, self.resource_name, 'get_all') def test_cg_list_detail(self): fake_cg, expected_cg = self._get_fake_cg() self.mock_object(cg_api.API, 'get_all', mock.Mock(return_value=[fake_cg])) res_dict = self.controller.detail(self.request) self.assertEqual([expected_cg], res_dict['consistency_groups']) self.mock_policy_check.assert_called_once_with( self.context, self.resource_name, 'get_all') def test_cg_list_detail_no_cgs(self): self.mock_object(cg_api.API, 'get_all', mock.Mock(return_value=[])) res_dict = self.controller.detail(self.request) self.assertEqual([], res_dict['consistency_groups']) self.mock_policy_check.assert_called_once_with( self.context, self.resource_name, 'get_all') def test_cg_list_detail_with_limit(self): fake_cg, expected_cg = self._get_fake_cg() fake_cg2, expected_cg2 = self._get_fake_cg(id="fake_id2") self.mock_object(cg_api.API, 'get_all', mock.Mock(return_value=[fake_cg, fake_cg2])) req = fakes.HTTPRequest.blank('/consistency_groups?limit=1', version=self.api_version, experimental=True) req_context = req.environ['manila.context'] res_dict = self.controller.detail(req) self.assertEqual(1, len(res_dict['consistency_groups'])) self.assertEqual([expected_cg], res_dict['consistency_groups']) self.mock_policy_check.assert_called_once_with( req_context, self.resource_name, 'get_all') def test_cg_list_detail_with_limit_and_offset(self): fake_cg, expected_cg = self._get_fake_cg() fake_cg2, expected_cg2 = self._get_fake_cg(id="fake_id2") self.mock_object(cg_api.API, 'get_all', mock.Mock(return_value=[fake_cg, fake_cg2])) req = fakes.HTTPRequest.blank('/consistency_groups?limit=1&offset=1', version=self.api_version, experimental=True) req_context = req.environ['manila.context'] res_dict = self.controller.detail(req) self.assertEqual(1, len(res_dict['consistency_groups'])) self.assertEqual([expected_cg2], res_dict['consistency_groups']) self.mock_policy_check.assert_called_once_with( req_context, self.resource_name, 'get_all') def test_cg_delete(self): fake_cg, expected_cg = self._get_fake_cg() self.mock_object(cg_api.API, 'get', mock.Mock(return_value=fake_cg)) self.mock_object(cg_api.API, 'delete') res = self.controller.delete(self.request, fake_cg['id']) self.assertEqual(202, res.status_code) self.mock_policy_check.assert_called_once_with( self.context, self.resource_name, 'delete') def test_cg_delete_cg_not_found(self): fake_cg, expected_cg = self._get_fake_cg() self.mock_object(cg_api.API, 'get', mock.Mock(side_effect=exception.NotFound)) self.assertRaises(webob.exc.HTTPNotFound, self.controller.delete, self.request, fake_cg['id']) self.mock_policy_check.assert_called_once_with( self.context, self.resource_name, 'delete') def test_cg_delete_in_conflicting_status(self): fake_cg, expected_cg = self._get_fake_cg() self.mock_object(cg_api.API, 'get', mock.Mock(return_value=fake_cg)) self.mock_object(cg_api.API, 'delete', mock.Mock( side_effect=exception.InvalidConsistencyGroup(reason='blah'))) self.assertRaises(webob.exc.HTTPConflict, self.controller.delete, self.request, fake_cg['id']) self.mock_policy_check.assert_called_once_with( self.context, self.resource_name, 'delete') def test_cg_show(self): fake_cg, expected_cg = self._get_fake_cg() self.mock_object(cg_api.API, 'get', mock.Mock(return_value=fake_cg)) req = fakes.HTTPRequest.blank( '/consistency_groups/%s' % fake_cg['id'], version=self.api_version, experimental=True) req_context = req.environ['manila.context'] res_dict = self.controller.show(req, fake_cg['id']) self.assertEqual(expected_cg, res_dict['consistency_group']) self.mock_policy_check.assert_called_once_with( req_context, self.resource_name, 'get') def test_cg_show_as_admin(self): fake_cg, expected_cg = self._get_fake_cg() expected_cg['share_server_id'] = None self.mock_object(cg_api.API, 'get', mock.Mock(return_value=fake_cg)) req = fakes.HTTPRequest.blank( '/consistency_groups/%s' % fake_cg['id'], version=self.api_version, experimental=True) admin_context = req.environ['manila.context'].elevated() req.environ['manila.context'] = admin_context res_dict = self.controller.show(req, fake_cg['id']) self.assertEqual(expected_cg, res_dict['consistency_group']) self.mock_policy_check.assert_called_once_with( admin_context, self.resource_name, 'get') def test_cg_show_cg_not_found(self): fake_cg, expected_cg = self._get_fake_cg() self.mock_object(cg_api.API, 'get', mock.Mock(side_effect=exception.NotFound)) req = fakes.HTTPRequest.blank( '/consistency_groups/%s' % fake_cg['id'], version=self.api_version, experimental=True) req_context = req.environ['manila.context'] self.assertRaises(webob.exc.HTTPNotFound, self.controller.show, req, fake_cg['id']) self.mock_policy_check.assert_called_once_with( req_context, self.resource_name, 'get') @ddt.data(*fakes.fixture_reset_status_with_different_roles) @ddt.unpack def test_consistency_groups_reset_status_with_different_roles( self, role, valid_code, valid_status, version): ctxt = self._get_context(role) cg, req = self._setup_cg_data(version=version) if float(version) > 2.6: action_name = 'reset_status' else: action_name = 'os-reset_status' body = {action_name: {'status': constants.STATUS_ERROR}} req.method = 'POST' req.headers['content-type'] = 'application/json' req.body = six.b(jsonutils.dumps(body)) req.headers['X-Openstack-Manila-Api-Version'] = version req.environ['manila.context'] = ctxt with mock.patch.object( policy, 'check_policy', fakes.mock_fake_admin_check): resp = req.get_response(fakes.app()) # validate response code and model status self.assertEqual(valid_code, resp.status_int) if valid_code == 404: self.assertRaises(exception.NotFound, db.consistency_group_get, ctxt, cg['id']) else: actual_model = db.consistency_group_get(ctxt, cg['id']) self.assertEqual(valid_status, actual_model['status']) @ddt.data(*fakes.fixture_force_delete_with_different_roles) @ddt.unpack def test_consistency_group_force_delete_with_different_roles(self, role, resp_code, version): ctxt = self._get_context(role) cg, req = self._setup_cg_data(version=version) req.method = 'POST' req.headers['content-type'] = 'application/json' if float(version) > 2.6: action_name = 'force_delete' else: action_name = 'os-force_delete' body = {action_name: {}} req.body = six.b(jsonutils.dumps(body)) req.environ['manila.context'] = ctxt with mock.patch.object( policy, 'check_policy', fakes.mock_fake_admin_check): resp = req.get_response(fakes.app()) # validate response self.assertEqual(resp_code, resp.status_int)
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6
ca8f02b023708bb8f90b91f71354aba543f42a81
8,978
py
Python
tests/test20140716.py
yaukwankiu/armor
6c57df82fe3e7761f43f9fbfe4f3b21882c91436
[ "CC0-1.0" ]
1
2015-11-06T06:41:33.000Z
2015-11-06T06:41:33.000Z
tests/test20140716.py
yaukwankiu/armor
6c57df82fe3e7761f43f9fbfe4f3b21882c91436
[ "CC0-1.0" ]
null
null
null
tests/test20140716.py
yaukwankiu/armor
6c57df82fe3e7761f43f9fbfe4f3b21882c91436
[ "CC0-1.0" ]
null
null
null
# test20140716.py # constructing the objects for the report """ COMPREF: march 20140311.0000 -1. COMPREF Intensity plot:Scale = 2 0. COMPREF Intensity plot:Scale = 4 1. COMPREF Max Intensity:Scale plot (Scale 1=0.05deg) 20140311.0000 2. COMPREF Max Intensity:Intensity plot (corresp. to scale) 3. COMPREF: Maximal Spectrum:(2-day average) 4. COMPREF: Total Spectrum:(2-day average) WRF01-WRF20 5. WRF01- 20140311.0300 - plot 6. WRF01 intensity plot scale 2 7. WRF01 intensity plot scale 4 8. WRF01 Max Intensity Scale plot 9. WRF01 Max intensity intensity plot 10 WRF01-14 max spec (2-day average) 11 WRF01-14 total spec(2-day average) 12. COMPREF v WRF: Max spec 13. COMPREF v WRF: Total spec WRF14 14. WRF14 15. WRF14 intensity plot scale2 16 ... scale 4 17. ... max intensity scale plot 18. ... max intensity intensity plot 19. ... max spec (2-day average) 20. ... total spec(2-day average) 21. COMPREF v WRF14 max spec 22. COMPREF v WRF14 total spec """ # imports from armor.initialise import * #from armor import objects4 as ob #from armor import pattern #from armor import defaultParameters as dp #import time, os, shutil, re #import numpy as np #import matplotlib.pyplot as plt from armor.graphics import specContour #import pickle, os # setups inputFolderCOMPREF = 'C:/yau/1404716726.06COMPREF_Rainband_March_2014/' inputFolderWRF= 'C:/yau/1404716726.08WRF_Rainband_March_2014/' outputFolder = 'c:/yau/july2014report/' #inputFolderCOMPREF = '/media/TOSHIBA EXT/ARMOR/labLogs2/july2014report/1404716726.06COMPREF_Rainband_March_2014/' #inputFolderWRF= '/media/TOSHIBA EXT/ARMOR/labLogs2/july2014report/1404716726.08WRF_Rainband_March_2014/' #outputFolder = dp.root + 'labLogs2/july2014report/' WRFwindow = (200,200,600,560) sigmas = [1, 2, 4, 5, 8, 10, 16, 20, 32, 40, 64, 80, 128] plt.close() ########################################################## # 1. COMPREF """ COMPREF: march 20140311.0000 -1. COMPREF Intensity plot:Scale = 2 0. COMPREF Intensity plot:Scale = 4 1. COMPREF Max Intensity:Scale plot (Scale 1=0.05deg) 20140311.0000 2. COMPREF Max Intensity:Intensity plot (corresp. to scale) 3. COMPREF: Maximal Spectrum:(2-day average) 4. COMPREF: Total Spectrum:(2-day average) """ m = ob.march2014('20140311.0000')[0] m.load() m.show(block=False) m.saveImage(outputFolder+ '1.png') m1 = m.getWindow(*WRFwindow) m1.show(block=False) m1.saveImage(outputFolder+'2.png') m2 = m1.coarser().coarser() m2.show(block=False) m2.saveImage(outputFolder+'3.png') x2 = m2.powerSpec(outputFolder=outputFolder, toPlotContours=True, toPlot3d=True, vmin=-2.0, vmax=3.0) resp = x2['responseImages'] resp.shape for i in range(13): plt.close() plt.imshow(resp[:,:,i], origin='lower') plt.colorbar() plt.title('Laplacian-of-Gaussian filter; sigma=' + str(sigmas[i])) plt.savefig(outputFolder+m.name+ "_sigma" + str(sigmas[i])+ ".png") plt.show(block=False) plt.close() ### # 3. COMPREF: Maximal Spectrum(2-day average) # 4. COMPREF: Total Spectrum(2-day average) L = os.listdir(inputFolderCOMPREF) Ltotal = [v for v in L if 'XYZ.pydump' in v] Lmax = [v for v in L if 'XYZmax.pydump' in v] LtotalCOMPREF = Ltotal LmaxCOMPREF = Lmax inputFolder = inputFolderCOMPREF testName = 'Contour_Spec_COMPREF_Rainband_March_2014' # ----> contourPlotTest.py lines 19-56 #XYZoutsCOMPREF = XYZouts ################## """ WRF01-WRF14 5. WRF01- 20140311.0300 - plot 6. WRF01 intensity plot scale 2 7. WRF01 intensity plot scale 4 8. WRF01 Max Intensity Scale plot 9. WRF01 Max intensity intensity plot 10 WRF01-14 max spec (2-day average) 11 WRF01-14 total spec(2-day average) 12. COMPREF v WRF: Max spec 13. COMPREF v WRF: Total spec """ w = marchwrf('20140311.0300')[0] x2 = w.powerSpec(outputFolder=outputFolder, toPlotContours=True, toPlot3d=True, vmin=-2., vmax=3.) resp = x2['responseImages'] resp.shape for i in range(13): plt.close() plt.imshow(resp[:,:,i], origin='lower') plt.colorbar() plt.title('Laplacian-of-Gaussian filter; sigma=' + str(sigmas[i])) plt.savefig(outputFolder+w.name+ "_sigma" + str(sigmas[i])+ ".png") plt.show(block=False) plt.close() ### # 3. COMPREF: Maximal Spectrum(2-day average) # 4. COMPREF: Total Spectrum(2-day average) # imports from armor.initialise import * #from armor import pattern #from armor import defaultParameters as dp #import time, os, shutil, re #import numpy as np #import matplotlib.pyplot as plt from armor.graphics import specContour #import pickle, os # setups #inputFolderCOMPREF = 'C:/yau/1404716726.06COMPREF_Rainband_March_2014/' #inputFolderWRF= 'C:/yau/1404716726.08WRF_Rainband_March_2014/' inputFolderCOMPREF = '/media/TOSHIBA EXT/ARMOR/labLogs2/july2014report/1404716726.06COMPREF_Rainband_March_2014/' inputFolderWRF = '/media/TOSHIBA EXT/ARMOR/labLogs2/july2014report/1404716726.08WRF_Rainband_March_2014/' outputFolder = dp.root + 'labLogs2/july2014report/' WRFwindow = (200,200,600,560) sigmas = [1, 2, 4, 5, 8, 10, 16, 20, 32, 40, 64, 80, 128] ###### # setups inputFolderCOMPREF = 'C:/yau/1404716726.06COMPREF_Rainband_March_2014/' inputFolderWRF= 'C:/yau/1404716726.08WRF_Rainband_March_2014/' outputFolder = 'c:/yau/july2014report/' plt.close() ######## inputFolder = inputFolderWRF testName = 'Contour_Spec_WRF_Rainband_March_2014' L = os.listdir(inputFolder) L = [v for v in L if 'WRF15' not in v] L = [v for v in L if '0313.0300' not in v] L = [v for v in L if '0313.0600' not in v] L = [v for v in L if '0313.0900' not in v] Ltotal = [v for v in L if 'XYZ.pydump' in v] Lmax = [v for v in L if 'XYZmax.pydump' in v] Ltotal[:20] Lmax[:20] LtotalWRF= Ltotal LmaxWRF = Lmax # ----> contourPlotTest.py lines 19-56 #XYZoutsRADAR = XYZouts ########### # dual plots # 2014-07-16 # single plots def specContourWithXYZout(L, inputFolder=inputFolderWRF, label="", vmin="", vmax="", title=""): if label=="": label = str(time.time()) plt.close() Z = np.zeros((13,8)) for frameCount, fileName in enumerate(L): XYZ = pickle.load(open(inputFolder+fileName,'r')) #X = XYZ['X'] #Y = XYZ['Y'] Z1 = XYZ['Z'] Z += Z1 XYZ['Z'] = Z/ (frameCount+1) #vmins = (np.log10(XYZ["Z"])* (Z>0)).min() #vmaxs = (np.log10(XYZ["Z"])* (Z>0)).max() X = XYZ['X'] Y = XYZ['Y'] XYZout = specContour.specContour(XYZ, display=True, outputFolder=outputFolder, #vmin=-1.0, vmax=3.6, vmin=vmin, vmax=vmax, fileName = testName+ label + "_average_of_" + str(frameCount+1) +'images.png', title=title, ) plt.close() print testName, "number of frames", frameCount+1 return XYZout XYZ1 = specContourWithXYZout(L=LmaxCOMPREF, inputFolder=inputFolderCOMPREF, label="COMPREF_max", vmin=-1, vmax=5, title = "Mean Max Spectrum for WRF") XYZ2 = specContourWithXYZout(L=LmaxWRF, label="WRF_max", vmin=-1, vmax=5, title="Mean Max Spectrum for COMPREF") # dual plots def crossContourWithXYZout(L, inputFolder, L2, inputFolder2, label="", vmin=-1, vmax=5, title=""): if label=="": label = str(time.time()) plt.close() Z = np.zeros((13,8)) for frameCount, fileName in enumerate(L): XYZ = pickle.load(open(inputFolder+fileName,'r')) #X = XYZ['X'] #Y = XYZ['Y'] Z1 = XYZ['Z'] Z += Z1 XYZ['Z'] = Z/ (frameCount+1) #vmins = (np.log10(XYZ["Z"])* (Z>0)).min() #vmaxs = (np.log10(XYZ["Z"])* (Z>0)).max() X = XYZ['X'] Y = XYZ['Y'] ### Z2 = np.zeros((13,8)) for frameCount, fileName in enumerate(L2): XYZ = pickle.load(open(inputFolder2+fileName,'r')) #X = XYZ['X'] #Y = XYZ['Y'] Z3 = XYZ['Z'] Z2 += Z3 XYZ2={'X':X, 'Y':Y, 'Z': Z2/ (frameCount+1), } XYZout = specContour.specContour(XYZ, XYZ2, display=True, outputFolder=outputFolder, #vmin=-1.0, vmax=3.6, vmin=vmin, vmax=vmax, fileName = testName+ label + "_average_of_" + str(frameCount+1) +'images.png', title=title, ) plt.close() print testName, "number of frames", frameCount+1 return XYZout crossContourWithXYZout(LmaxWRF, inputFolderWRF, LmaxCOMPREF, inputFolderCOMPREF,title="Mean Max Spectra: COMPREF(red)-WRF", vmin=-1, vmax=5) crossContourWithXYZout(LtotalWRF, inputFolderWRF, LtotalCOMPREF, inputFolderCOMPREF,title="Total Max Spectra: COMPREF(red)-WRF", vmin=-1, vmax=5)
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6
04a7737dea9012f68efb43a932a67ce314b515de
8,723
py
Python
tests/ti_deps/deps/trigger_rule_dep.py
rubeshdcube/incubator-airflow
5419fbb78a2ea2388456c356d2f899ea1991b2de
[ "Apache-2.0" ]
4
2017-06-25T14:09:31.000Z
2020-11-20T09:51:24.000Z
tests/ti_deps/deps/trigger_rule_dep.py
rubeshdcube/incubator-airflow
5419fbb78a2ea2388456c356d2f899ea1991b2de
[ "Apache-2.0" ]
1
2017-07-04T07:31:15.000Z
2017-07-06T06:01:42.000Z
tests/ti_deps/deps/trigger_rule_dep.py
rubeshdcube/incubator-airflow
5419fbb78a2ea2388456c356d2f899ea1991b2de
[ "Apache-2.0" ]
2
2018-04-09T15:13:50.000Z
2019-06-14T07:19:46.000Z
# -*- coding: utf-8 -*- # # 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 unittest from airflow.utils.trigger_rule import TriggerRule from airflow.ti_deps.deps.trigger_rule_dep import TriggerRuleDep from airflow.utils.state import State from fake_models import FakeTask, FakeTI class TriggerRuleDepTest(unittest.TestCase): def test_no_upstream_tasks(self): """ If the TI has no upstream TIs then there is nothing to check and the dep is passed """ task = FakeTask( trigger_rule=TriggerRule.ALL_DONE, upstream_list=[]) ti = FakeTI( task=task, state=State.UP_FOR_RETRY) self.assertTrue(TriggerRuleDep().is_met(ti=ti, dep_context=None)) def test_dummy_tr(self): """ The dummy trigger rule should always pass this dep """ task = FakeTask( trigger_rule=TriggerRule.DUMMY, upstream_list=[]) ti = FakeTI( task=task, state=State.UP_FOR_RETRY) self.assertTrue(TriggerRuleDep().is_met(ti=ti, dep_context=None)) def test_one_success_tr_success(self): """ One-success trigger rule success """ task = FakeTask( trigger_rule=TriggerRule.ONE_SUCCESS, upstream_task_ids=[]) ti = FakeTI(task=task) dep_statuses = tuple(TriggerRuleDep()._evaluate_trigger_rule( ti=ti, successes=1, skipped=2, failed=2, upstream_failed=2, done=2, flag_upstream_failed=False, session="Fake Session")) self.assertEqual(len(dep_statuses), 0) def test_one_success_tr_failure(self): """ One-success trigger rule failure """ task = FakeTask( trigger_rule=TriggerRule.ONE_SUCCESS, upstream_task_ids=[]) ti = FakeTI(task=task) dep_statuses = tuple(TriggerRuleDep()._evaluate_trigger_rule( ti=ti, successes=0, skipped=2, failed=2, upstream_failed=2, done=2, flag_upstream_failed=False, session="Fake Session")) self.assertEqual(len(dep_statuses), 1) self.assertFalse(dep_statuses[0].passed) def test_one_failure_tr_failure(self): """ One-failure trigger rule failure """ task = FakeTask( trigger_rule=TriggerRule.ONE_FAILED, upstream_task_ids=[]) ti = FakeTI(task=task) dep_statuses = tuple(TriggerRuleDep()._evaluate_trigger_rule( ti=ti, successes=2, skipped=0, failed=0, upstream_failed=0, done=2, flag_upstream_failed=False, session="Fake Session")) def test_one_failure_tr_success(self): """ One-failure trigger rule success """ task = FakeTask( trigger_rule=TriggerRule.ONE_FAILED, upstream_task_ids=[]) ti = FakeTI(task=task) dep_statuses = tuple(TriggerRuleDep()._evaluate_trigger_rule( ti=ti, successes=0, skipped=2, failed=2, upstream_failed=0, done=2, flag_upstream_failed=False, session="Fake Session")) self.assertEqual(len(dep_statuses), 0) dep_statuses = tuple(TriggerRuleDep()._evaluate_trigger_rule( ti=ti, successes=0, skipped=2, failed=0, upstream_failed=2, done=2, flag_upstream_failed=False, session="Fake Session")) self.assertEqual(len(dep_statuses), 0) def test_all_success_tr_success(self): """ All-success trigger rule success """ task = FakeTask( trigger_rule=TriggerRule.ALL_SUCCESS, upstream_task_ids=["FakeTaskID"]) ti = FakeTI(task=task) dep_statuses = tuple(TriggerRuleDep()._evaluate_trigger_rule( ti=ti, successes=1, skipped=0, failed=0, upstream_failed=0, done=1, flag_upstream_failed=False, session="Fake Session")) self.assertEqual(len(dep_statuses), 0) def test_all_success_tr_failure(self): """ All-success trigger rule failure """ task = FakeTask( trigger_rule=TriggerRule.ALL_SUCCESS, upstream_task_ids=["FakeTaskID", "OtherFakeTaskID"]) ti = FakeTI(task=task) dep_statuses = tuple(TriggerRuleDep()._evaluate_trigger_rule( ti=ti, successes=1, skipped=0, failed=1, upstream_failed=0, done=2, flag_upstream_failed=False, session="Fake Session")) self.assertEqual(len(dep_statuses), 1) self.assertFalse(dep_statuses[0].passed) def test_all_failed_tr_success(self): """ All-failed trigger rule success """ task = FakeTask( trigger_rule=TriggerRule.ALL_FAILED, upstream_task_ids=["FakeTaskID", "OtherFakeTaskID"]) ti = FakeTI(task=task) dep_statuses = tuple(TriggerRuleDep()._evaluate_trigger_rule( ti=ti, successes=0, skipped=0, failed=2, upstream_failed=0, done=2, flag_upstream_failed=False, session="Fake Session")) self.assertEqual(len(dep_statuses), 0) def test_all_failed_tr_failure(self): """ All-failed trigger rule failure """ task = FakeTask( trigger_rule=TriggerRule.ALL_FAILED, upstream_task_ids=["FakeTaskID", "OtherFakeTaskID"]) ti = FakeTI(task=task) dep_statuses = tuple(TriggerRuleDep()._evaluate_trigger_rule( ti=ti, successes=2, skipped=0, failed=0, upstream_failed=0, done=2, flag_upstream_failed=False, session="Fake Session")) self.assertEqual(len(dep_statuses), 1) self.assertFalse(dep_statuses[0].passed) def test_all_done_tr_success(self): """ All-done trigger rule success """ task = FakeTask( trigger_rule=TriggerRule.ALL_DONE, upstream_task_ids=["FakeTaskID", "OtherFakeTaskID"]) ti = FakeTI(task=task) dep_statuses = tuple(TriggerRuleDep()._evaluate_trigger_rule( ti=ti, successes=2, skipped=0, failed=0, upstream_failed=0, done=2, flag_upstream_failed=False, session="Fake Session")) self.assertEqual(len(dep_statuses), 0) def test_all_done_tr_failure(self): """ All-done trigger rule failure """ task = FakeTask( trigger_rule=TriggerRule.ALL_DONE, upstream_task_ids=["FakeTaskID", "OtherFakeTaskID"]) ti = FakeTI(task=task) dep_statuses = tuple(TriggerRuleDep()._evaluate_trigger_rule( ti=ti, successes=1, skipped=0, failed=0, upstream_failed=0, done=1, flag_upstream_failed=False, session="Fake Session")) self.assertEqual(len(dep_statuses), 1) self.assertFalse(dep_statuses[0].passed) def test_unknown_tr(self): """ Unknown trigger rules should cause this dep to fail """ task = FakeTask( trigger_rule="Unknown Trigger Rule", upstream_task_ids=[]) ti = FakeTI(task=task) dep_statuses = tuple(TriggerRuleDep()._evaluate_trigger_rule( ti=ti, successes=1, skipped=0, failed=0, upstream_failed=0, done=1, flag_upstream_failed=False, session="Fake Session")) self.assertEqual(len(dep_statuses), 1) self.assertFalse(dep_statuses[0].passed)
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0
0
0
6
04b94805aaee0415d0e9c0d74ddb62ec91719945
68
py
Python
geeksw/optimize/__init__.py
guitargeek/geeksw
d6e774824eae713e68cf23ae242933be9df52fcf
[ "MIT" ]
2
2019-04-11T22:26:29.000Z
2021-06-23T19:59:36.000Z
geeksw/optimize/__init__.py
guitargeek/geeksw
d6e774824eae713e68cf23ae242933be9df52fcf
[ "MIT" ]
null
null
null
geeksw/optimize/__init__.py
guitargeek/geeksw
d6e774824eae713e68cf23ae242933be9df52fcf
[ "MIT" ]
null
null
null
from .nnls import nnls from .minuit_minimize import minuit_minimize
22.666667
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0.852941
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68
5.6
0.5
0.5
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68
2
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6
04cea7e7297cfecbd6d3107e54bd0a2064f02bd8
1,138
py
Python
opti_models/models/backbones/torchvision_models/mnasnet.py
IlyaDobrynin/opti_models
342b87e782650e8803196c52eee2b0d21f1d9576
[ "MIT" ]
62
2020-09-07T10:30:09.000Z
2021-12-21T21:27:54.000Z
opti_models/models/backbones/torchvision_models/mnasnet.py
IlyaDobrynin/opti_models
342b87e782650e8803196c52eee2b0d21f1d9576
[ "MIT" ]
null
null
null
opti_models/models/backbones/torchvision_models/mnasnet.py
IlyaDobrynin/opti_models
342b87e782650e8803196c52eee2b0d21f1d9576
[ "MIT" ]
2
2020-11-06T14:31:30.000Z
2021-09-26T12:16:10.000Z
from torchvision import models __all__ = ['mnasnet0_5', 'mnasnet0_75', 'mnasnet1_0', 'mnasnet1_3'] def mnasnet0_5(pretrained: bool, progress: bool = True, requires_grad: bool = True): model = models.mnasnet0_5(pretrained=pretrained, progress=progress) for params in model.parameters(): params.requires_grad = requires_grad return model def mnasnet0_75(pretrained: bool, progress: bool = True, requires_grad: bool = True): model = models.mnasnet0_75(pretrained=pretrained, progress=progress) for params in model.parameters(): params.requires_grad = requires_grad return model def mnasnet1_0(pretrained: bool, progress: bool = True, requires_grad: bool = True): model = models.mnasnet1_0(pretrained=pretrained, progress=progress) for params in model.parameters(): params.requires_grad = requires_grad return model def mnasnet1_3(pretrained: bool, progress: bool = True, requires_grad: bool = True): model = models.mnasnet1_3(pretrained=pretrained, progress=progress) for params in model.parameters(): params.requires_grad = requires_grad return model
35.5625
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1,138
5.737589
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0.108776
0.128554
0.881335
0.881335
0.881335
0.881335
0.881335
0.881335
0
0.028632
0.171353
1,138
31
86
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0.829268
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0.181818
false
0
0.045455
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0.409091
0
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null
0
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1
1
1
1
1
0
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null
0
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0
0
0
0
0
0
0
0
6
04d1232e1e1c06ad5e17ede3a1bbe5ebf260b8d2
119
py
Python
app/api/v2/black_list.py
jomasim/heroku-devops
baaa639f6288673cc902d8fe0df211a7eeac08e2
[ "MIT" ]
null
null
null
app/api/v2/black_list.py
jomasim/heroku-devops
baaa639f6288673cc902d8fe0df211a7eeac08e2
[ "MIT" ]
14
2018-10-27T20:55:42.000Z
2018-11-19T17:19:47.000Z
app/api/v2/black_list.py
jomasim/store-api-v2
ee569a17911b0cfbf67b644bd454fd4b895af95f
[ "MIT" ]
null
null
null
blacklist=set() def get_black_list(): return blacklist def add_to_black_list(jti): return blacklist.add(jti)
14.875
29
0.739496
18
119
4.611111
0.555556
0.216867
0
0
0
0
0
0
0
0
0
0
0.159664
119
7
30
17
0.83
0
0
0
0
0
0
0
0
0
0
0
0
1
0.4
false
0
0
0.4
0.8
0
1
0
0
null
1
0
0
0
0
0
0
0
0
0
0
0
0
1
0
0
0
0
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0
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null
0
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0
0
1
0
0
0
1
1
0
0
6
04d30635bb736fbc2d38babdb47e014c60165c27
40
py
Python
wagtail/core/whitelist.py
stevedya/wagtail
52e5abfe62547cdfd90ea7dfeb8bf5a52f16324c
[ "BSD-3-Clause" ]
1
2022-02-09T05:25:30.000Z
2022-02-09T05:25:30.000Z
wagtail/core/whitelist.py
stevedya/wagtail
52e5abfe62547cdfd90ea7dfeb8bf5a52f16324c
[ "BSD-3-Clause" ]
null
null
null
wagtail/core/whitelist.py
stevedya/wagtail
52e5abfe62547cdfd90ea7dfeb8bf5a52f16324c
[ "BSD-3-Clause" ]
null
null
null
from wagtail.whitelist import * # noqa
20
39
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40
1
40
40
0.909091
0.1
0
0
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true
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null
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6