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228,100
gwastro/pycbc
pycbc/workflow/core.py
FileList.dump
def dump(self, filename): """ Output this AhopeFileList to a pickle file """ f = open(filename, 'w') cPickle.dump(self, f)
python
def dump(self, filename): f = open(filename, 'w') cPickle.dump(self, f)
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Output this AhopeFileList to a pickle file
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/workflow/core.py#L1542-L1547
228,101
gwastro/pycbc
pycbc/workflow/core.py
FileList.to_file_object
def to_file_object(self, name, out_dir): """Dump to a pickle file and return an File object reference of this list Parameters ---------- name : str An identifier of this file. Needs to be unique. out_dir : path path to place this file Returns ------- file : AhopeFile """ make_analysis_dir(out_dir) file_ref = File('ALL', name, self.get_times_covered_by_files(), extension='.pkl', directory=out_dir) self.dump(file_ref.storage_path) return file_ref
python
def to_file_object(self, name, out_dir): make_analysis_dir(out_dir) file_ref = File('ALL', name, self.get_times_covered_by_files(), extension='.pkl', directory=out_dir) self.dump(file_ref.storage_path) return file_ref
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Dump to a pickle file and return an File object reference of this list Parameters ---------- name : str An identifier of this file. Needs to be unique. out_dir : path path to place this file Returns ------- file : AhopeFile
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/workflow/core.py#L1549-L1568
228,102
gwastro/pycbc
pycbc/workflow/core.py
SegFile.from_segment_list
def from_segment_list(cls, description, segmentlist, name, ifo, seg_summ_list=None, **kwargs): """ Initialize a SegFile object from a segmentlist. Parameters ------------ description : string (required) See File.__init__ segmentlist : ligo.segments.segmentslist The segment list that will be stored in this file. name : str The name of the segment lists to be stored in the file. ifo : str The ifo of the segment lists to be stored in this file. seg_summ_list : ligo.segments.segmentslist (OPTIONAL) Specify the segment_summary segmentlist that goes along with the segmentlist. Default=None, in this case segment_summary is taken from the valid_segment of the SegFile class. """ seglistdict = segments.segmentlistdict() seglistdict[ifo + ':' + name] = segmentlist if seg_summ_list is not None: seg_summ_dict = segments.segmentlistdict() seg_summ_dict[ifo + ':' + name] = seg_summ_list else: seg_summ_dict = None return cls.from_segment_list_dict(description, seglistdict, seg_summ_dict=None, **kwargs)
python
def from_segment_list(cls, description, segmentlist, name, ifo, seg_summ_list=None, **kwargs): seglistdict = segments.segmentlistdict() seglistdict[ifo + ':' + name] = segmentlist if seg_summ_list is not None: seg_summ_dict = segments.segmentlistdict() seg_summ_dict[ifo + ':' + name] = seg_summ_list else: seg_summ_dict = None return cls.from_segment_list_dict(description, seglistdict, seg_summ_dict=None, **kwargs)
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Initialize a SegFile object from a segmentlist. Parameters ------------ description : string (required) See File.__init__ segmentlist : ligo.segments.segmentslist The segment list that will be stored in this file. name : str The name of the segment lists to be stored in the file. ifo : str The ifo of the segment lists to be stored in this file. seg_summ_list : ligo.segments.segmentslist (OPTIONAL) Specify the segment_summary segmentlist that goes along with the segmentlist. Default=None, in this case segment_summary is taken from the valid_segment of the SegFile class.
[ "Initialize", "a", "SegFile", "object", "from", "a", "segmentlist", "." ]
7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/workflow/core.py#L1610-L1637
228,103
gwastro/pycbc
pycbc/workflow/core.py
SegFile.from_multi_segment_list
def from_multi_segment_list(cls, description, segmentlists, names, ifos, seg_summ_lists=None, **kwargs): """ Initialize a SegFile object from a list of segmentlists. Parameters ------------ description : string (required) See File.__init__ segmentlists : List of ligo.segments.segmentslist List of segment lists that will be stored in this file. names : List of str List of names of the segment lists to be stored in the file. ifos : str List of ifos of the segment lists to be stored in this file. seg_summ_lists : ligo.segments.segmentslist (OPTIONAL) Specify the segment_summary segmentlists that go along with the segmentlists. Default=None, in this case segment_summary is taken from the valid_segment of the SegFile class. """ seglistdict = segments.segmentlistdict() for name, ifo, segmentlist in zip(names, ifos, segmentlists): seglistdict[ifo + ':' + name] = segmentlist if seg_summ_lists is not None: seg_summ_dict = segments.segmentlistdict() for name, ifo, seg_summ_list in zip(names, ifos, seg_summ_lists): seg_summ_dict[ifo + ':' + name] = seg_summ_list else: seg_summ_dict = None return cls.from_segment_list_dict(description, seglistdict, seg_summ_dict=seg_summ_dict, **kwargs)
python
def from_multi_segment_list(cls, description, segmentlists, names, ifos, seg_summ_lists=None, **kwargs): seglistdict = segments.segmentlistdict() for name, ifo, segmentlist in zip(names, ifos, segmentlists): seglistdict[ifo + ':' + name] = segmentlist if seg_summ_lists is not None: seg_summ_dict = segments.segmentlistdict() for name, ifo, seg_summ_list in zip(names, ifos, seg_summ_lists): seg_summ_dict[ifo + ':' + name] = seg_summ_list else: seg_summ_dict = None return cls.from_segment_list_dict(description, seglistdict, seg_summ_dict=seg_summ_dict, **kwargs)
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Initialize a SegFile object from a list of segmentlists. Parameters ------------ description : string (required) See File.__init__ segmentlists : List of ligo.segments.segmentslist List of segment lists that will be stored in this file. names : List of str List of names of the segment lists to be stored in the file. ifos : str List of ifos of the segment lists to be stored in this file. seg_summ_lists : ligo.segments.segmentslist (OPTIONAL) Specify the segment_summary segmentlists that go along with the segmentlists. Default=None, in this case segment_summary is taken from the valid_segment of the SegFile class.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/workflow/core.py#L1640-L1670
228,104
gwastro/pycbc
pycbc/workflow/core.py
SegFile.from_segment_list_dict
def from_segment_list_dict(cls, description, segmentlistdict, ifo_list=None, valid_segment=None, file_exists=False, seg_summ_dict=None, **kwargs): """ Initialize a SegFile object from a segmentlistdict. Parameters ------------ description : string (required) See File.__init__ segmentlistdict : ligo.segments.segmentslistdict See SegFile.__init__ ifo_list : string or list (optional) See File.__init__, if not given a list of all ifos in the segmentlistdict object will be used valid_segment : ligo.segments.segment or ligo.segments.segmentlist See File.__init__, if not given the extent of all segments in the segmentlistdict is used. file_exists : boolean (default = False) If provided and set to True it is assumed that this file already exists on disk and so there is no need to write again. seg_summ_dict : ligo.segments.segmentslistdict Optional. See SegFile.__init__. """ if ifo_list is None: ifo_set = set([i.split(':')[0] for i in segmentlistdict.keys()]) ifo_list = list(ifo_set) ifo_list.sort() if valid_segment is None: if seg_summ_dict and \ numpy.any([len(v) for _, v in seg_summ_dict.items()]): # Only come here if seg_summ_dict is supplied and it is # not empty. valid_segment = seg_summ_dict.extent_all() else: try: valid_segment = segmentlistdict.extent_all() except: # Numpty probably didn't supply a glue.segmentlistdict segmentlistdict=segments.segmentlistdict(segmentlistdict) try: valid_segment = segmentlistdict.extent_all() except ValueError: # No segment_summary and segment list is empty # Setting valid segment now is hard! warn_msg = "No information with which to set valid " warn_msg += "segment." logging.warn(warn_msg) valid_segment = segments.segment([0,1]) instnc = cls(ifo_list, description, valid_segment, segment_dict=segmentlistdict, seg_summ_dict=seg_summ_dict, **kwargs) if not file_exists: instnc.to_segment_xml() else: instnc.PFN(urlparse.urljoin('file:', urllib.pathname2url( instnc.storage_path)), site='local') return instnc
python
def from_segment_list_dict(cls, description, segmentlistdict, ifo_list=None, valid_segment=None, file_exists=False, seg_summ_dict=None, **kwargs): if ifo_list is None: ifo_set = set([i.split(':')[0] for i in segmentlistdict.keys()]) ifo_list = list(ifo_set) ifo_list.sort() if valid_segment is None: if seg_summ_dict and \ numpy.any([len(v) for _, v in seg_summ_dict.items()]): # Only come here if seg_summ_dict is supplied and it is # not empty. valid_segment = seg_summ_dict.extent_all() else: try: valid_segment = segmentlistdict.extent_all() except: # Numpty probably didn't supply a glue.segmentlistdict segmentlistdict=segments.segmentlistdict(segmentlistdict) try: valid_segment = segmentlistdict.extent_all() except ValueError: # No segment_summary and segment list is empty # Setting valid segment now is hard! warn_msg = "No information with which to set valid " warn_msg += "segment." logging.warn(warn_msg) valid_segment = segments.segment([0,1]) instnc = cls(ifo_list, description, valid_segment, segment_dict=segmentlistdict, seg_summ_dict=seg_summ_dict, **kwargs) if not file_exists: instnc.to_segment_xml() else: instnc.PFN(urlparse.urljoin('file:', urllib.pathname2url( instnc.storage_path)), site='local') return instnc
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Initialize a SegFile object from a segmentlistdict. Parameters ------------ description : string (required) See File.__init__ segmentlistdict : ligo.segments.segmentslistdict See SegFile.__init__ ifo_list : string or list (optional) See File.__init__, if not given a list of all ifos in the segmentlistdict object will be used valid_segment : ligo.segments.segment or ligo.segments.segmentlist See File.__init__, if not given the extent of all segments in the segmentlistdict is used. file_exists : boolean (default = False) If provided and set to True it is assumed that this file already exists on disk and so there is no need to write again. seg_summ_dict : ligo.segments.segmentslistdict Optional. See SegFile.__init__.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/workflow/core.py#L1673-L1731
228,105
gwastro/pycbc
pycbc/workflow/core.py
SegFile.from_segment_xml
def from_segment_xml(cls, xml_file, **kwargs): """ Read a ligo.segments.segmentlist from the file object file containing an xml segment table. Parameters ----------- xml_file : file object file object for segment xml file """ # load xmldocument and SegmentDefTable and SegmentTables fp = open(xml_file, 'r') xmldoc, _ = ligolw_utils.load_fileobj(fp, gz=xml_file.endswith(".gz"), contenthandler=ContentHandler) seg_def_table = table.get_table(xmldoc, lsctables.SegmentDefTable.tableName) seg_table = table.get_table(xmldoc, lsctables.SegmentTable.tableName) seg_sum_table = table.get_table(xmldoc, lsctables.SegmentSumTable.tableName) segs = segments.segmentlistdict() seg_summ = segments.segmentlistdict() seg_id = {} for seg_def in seg_def_table: # Here we want to encode ifo and segment name full_channel_name = ':'.join([str(seg_def.ifos), str(seg_def.name)]) seg_id[int(seg_def.segment_def_id)] = full_channel_name segs[full_channel_name] = segments.segmentlist() seg_summ[full_channel_name] = segments.segmentlist() for seg in seg_table: seg_obj = segments.segment( lal.LIGOTimeGPS(seg.start_time, seg.start_time_ns), lal.LIGOTimeGPS(seg.end_time, seg.end_time_ns)) segs[seg_id[int(seg.segment_def_id)]].append(seg_obj) for seg in seg_sum_table: seg_obj = segments.segment( lal.LIGOTimeGPS(seg.start_time, seg.start_time_ns), lal.LIGOTimeGPS(seg.end_time, seg.end_time_ns)) seg_summ[seg_id[int(seg.segment_def_id)]].append(seg_obj) for seg_name in seg_id.values(): segs[seg_name] = segs[seg_name].coalesce() xmldoc.unlink() fp.close() curr_url = urlparse.urlunparse(['file', 'localhost', xml_file, None, None, None]) return cls.from_segment_list_dict('SEGMENTS', segs, file_url=curr_url, file_exists=True, seg_summ_dict=seg_summ, **kwargs)
python
def from_segment_xml(cls, xml_file, **kwargs): # load xmldocument and SegmentDefTable and SegmentTables fp = open(xml_file, 'r') xmldoc, _ = ligolw_utils.load_fileobj(fp, gz=xml_file.endswith(".gz"), contenthandler=ContentHandler) seg_def_table = table.get_table(xmldoc, lsctables.SegmentDefTable.tableName) seg_table = table.get_table(xmldoc, lsctables.SegmentTable.tableName) seg_sum_table = table.get_table(xmldoc, lsctables.SegmentSumTable.tableName) segs = segments.segmentlistdict() seg_summ = segments.segmentlistdict() seg_id = {} for seg_def in seg_def_table: # Here we want to encode ifo and segment name full_channel_name = ':'.join([str(seg_def.ifos), str(seg_def.name)]) seg_id[int(seg_def.segment_def_id)] = full_channel_name segs[full_channel_name] = segments.segmentlist() seg_summ[full_channel_name] = segments.segmentlist() for seg in seg_table: seg_obj = segments.segment( lal.LIGOTimeGPS(seg.start_time, seg.start_time_ns), lal.LIGOTimeGPS(seg.end_time, seg.end_time_ns)) segs[seg_id[int(seg.segment_def_id)]].append(seg_obj) for seg in seg_sum_table: seg_obj = segments.segment( lal.LIGOTimeGPS(seg.start_time, seg.start_time_ns), lal.LIGOTimeGPS(seg.end_time, seg.end_time_ns)) seg_summ[seg_id[int(seg.segment_def_id)]].append(seg_obj) for seg_name in seg_id.values(): segs[seg_name] = segs[seg_name].coalesce() xmldoc.unlink() fp.close() curr_url = urlparse.urlunparse(['file', 'localhost', xml_file, None, None, None]) return cls.from_segment_list_dict('SEGMENTS', segs, file_url=curr_url, file_exists=True, seg_summ_dict=seg_summ, **kwargs)
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Read a ligo.segments.segmentlist from the file object file containing an xml segment table. Parameters ----------- xml_file : file object file object for segment xml file
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/workflow/core.py#L1734-L1790
228,106
gwastro/pycbc
pycbc/workflow/core.py
SegFile.remove_short_sci_segs
def remove_short_sci_segs(self, minSegLength): """ Function to remove all science segments shorter than a specific length. Also updates the file on disk to remove these segments. Parameters ----------- minSegLength : int Maximum length of science segments. Segments shorter than this will be removed. """ newsegment_list = segments.segmentlist() for key, seglist in self.segment_dict.items(): newsegment_list = segments.segmentlist() for seg in seglist: if abs(seg) > minSegLength: newsegment_list.append(seg) newsegment_list.coalesce() self.segment_dict[key] = newsegment_list self.to_segment_xml(override_file_if_exists=True)
python
def remove_short_sci_segs(self, minSegLength): newsegment_list = segments.segmentlist() for key, seglist in self.segment_dict.items(): newsegment_list = segments.segmentlist() for seg in seglist: if abs(seg) > minSegLength: newsegment_list.append(seg) newsegment_list.coalesce() self.segment_dict[key] = newsegment_list self.to_segment_xml(override_file_if_exists=True)
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Function to remove all science segments shorter than a specific length. Also updates the file on disk to remove these segments. Parameters ----------- minSegLength : int Maximum length of science segments. Segments shorter than this will be removed.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/workflow/core.py#L1792-L1812
228,107
gwastro/pycbc
pycbc/workflow/core.py
SegFile.parse_segdict_key
def parse_segdict_key(self, key): """ Return ifo and name from the segdict key. """ splt = key.split(':') if len(splt) == 2: return splt[0], splt[1] else: err_msg = "Key should be of the format 'ifo:name', got %s." %(key,) raise ValueError(err_msg)
python
def parse_segdict_key(self, key): splt = key.split(':') if len(splt) == 2: return splt[0], splt[1] else: err_msg = "Key should be of the format 'ifo:name', got %s." %(key,) raise ValueError(err_msg)
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Return ifo and name from the segdict key.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/workflow/core.py#L1817-L1826
228,108
gwastro/pycbc
pycbc/workflow/core.py
SegFile.to_segment_xml
def to_segment_xml(self, override_file_if_exists=False): """ Write the segment list in self.segmentList to self.storage_path. """ # create XML doc and add process table outdoc = ligolw.Document() outdoc.appendChild(ligolw.LIGO_LW()) process = ligolw_process.register_to_xmldoc(outdoc, sys.argv[0], {}) for key, seglist in self.segment_dict.items(): ifo, name = self.parse_segdict_key(key) # Ensure we have LIGOTimeGPS fsegs = [(lal.LIGOTimeGPS(seg[0]), lal.LIGOTimeGPS(seg[1])) for seg in seglist] if self.seg_summ_dict is None: vsegs = [(lal.LIGOTimeGPS(seg[0]), lal.LIGOTimeGPS(seg[1])) \ for seg in self.valid_segments] else: vsegs = [(lal.LIGOTimeGPS(seg[0]), lal.LIGOTimeGPS(seg[1])) \ for seg in self.seg_summ_dict[key]] # Add using glue library to set all segment tables with ligolw_segments.LigolwSegments(outdoc, process) as x: x.add(ligolw_segments.LigolwSegmentList(active=fsegs, instruments=set([ifo]), name=name, version=1, valid=vsegs)) # write file url = urlparse.urljoin('file:', urllib.pathname2url(self.storage_path)) if not override_file_if_exists or not self.has_pfn(url, site='local'): self.PFN(url, site='local') ligolw_utils.write_filename(outdoc, self.storage_path)
python
def to_segment_xml(self, override_file_if_exists=False): # create XML doc and add process table outdoc = ligolw.Document() outdoc.appendChild(ligolw.LIGO_LW()) process = ligolw_process.register_to_xmldoc(outdoc, sys.argv[0], {}) for key, seglist in self.segment_dict.items(): ifo, name = self.parse_segdict_key(key) # Ensure we have LIGOTimeGPS fsegs = [(lal.LIGOTimeGPS(seg[0]), lal.LIGOTimeGPS(seg[1])) for seg in seglist] if self.seg_summ_dict is None: vsegs = [(lal.LIGOTimeGPS(seg[0]), lal.LIGOTimeGPS(seg[1])) \ for seg in self.valid_segments] else: vsegs = [(lal.LIGOTimeGPS(seg[0]), lal.LIGOTimeGPS(seg[1])) \ for seg in self.seg_summ_dict[key]] # Add using glue library to set all segment tables with ligolw_segments.LigolwSegments(outdoc, process) as x: x.add(ligolw_segments.LigolwSegmentList(active=fsegs, instruments=set([ifo]), name=name, version=1, valid=vsegs)) # write file url = urlparse.urljoin('file:', urllib.pathname2url(self.storage_path)) if not override_file_if_exists or not self.has_pfn(url, site='local'): self.PFN(url, site='local') ligolw_utils.write_filename(outdoc, self.storage_path)
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Write the segment list in self.segmentList to self.storage_path.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/workflow/core.py#L1828-L1862
228,109
gwastro/pycbc
pycbc/strain/lines.py
complex_median
def complex_median(complex_list): """ Get the median value of a list of complex numbers. Parameters ---------- complex_list: list List of complex numbers to calculate the median. Returns ------- a + 1.j*b: complex number The median of the real and imaginary parts. """ median_real = numpy.median([complex_number.real for complex_number in complex_list]) median_imag = numpy.median([complex_number.imag for complex_number in complex_list]) return median_real + 1.j*median_imag
python
def complex_median(complex_list): median_real = numpy.median([complex_number.real for complex_number in complex_list]) median_imag = numpy.median([complex_number.imag for complex_number in complex_list]) return median_real + 1.j*median_imag
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Get the median value of a list of complex numbers. Parameters ---------- complex_list: list List of complex numbers to calculate the median. Returns ------- a + 1.j*b: complex number The median of the real and imaginary parts.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/strain/lines.py#L22-L39
228,110
gwastro/pycbc
pycbc/strain/lines.py
avg_inner_product
def avg_inner_product(data1, data2, bin_size): """ Calculate the time-domain inner product averaged over bins. Parameters ---------- data1: pycbc.types.TimeSeries First data set. data2: pycbc.types.TimeSeries Second data set, with same duration and sample rate as data1. bin_size: float Duration of the bins the data will be divided into to calculate the inner product. Returns ------- inner_prod: list The (complex) inner product of data1 and data2 obtained in each bin. amp: float The absolute value of the median of the inner product. phi: float The angle of the median of the inner product. """ assert data1.duration == data2.duration assert data1.sample_rate == data2.sample_rate seglen = int(bin_size * data1.sample_rate) inner_prod = [] for idx in range(int(data1.duration / bin_size)): start, end = idx * seglen, (idx+1) * seglen norm = len(data1[start:end]) bin_prod = 2 * sum(data1.data[start:end].real * numpy.conjugate(data2.data[start:end])) / norm inner_prod.append(bin_prod) # Get the median over all bins to avoid outliers due to the presence # of a signal in a particular bin. inner_median = complex_median(inner_prod) return inner_prod, numpy.abs(inner_median), numpy.angle(inner_median)
python
def avg_inner_product(data1, data2, bin_size): assert data1.duration == data2.duration assert data1.sample_rate == data2.sample_rate seglen = int(bin_size * data1.sample_rate) inner_prod = [] for idx in range(int(data1.duration / bin_size)): start, end = idx * seglen, (idx+1) * seglen norm = len(data1[start:end]) bin_prod = 2 * sum(data1.data[start:end].real * numpy.conjugate(data2.data[start:end])) / norm inner_prod.append(bin_prod) # Get the median over all bins to avoid outliers due to the presence # of a signal in a particular bin. inner_median = complex_median(inner_prod) return inner_prod, numpy.abs(inner_median), numpy.angle(inner_median)
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Calculate the time-domain inner product averaged over bins. Parameters ---------- data1: pycbc.types.TimeSeries First data set. data2: pycbc.types.TimeSeries Second data set, with same duration and sample rate as data1. bin_size: float Duration of the bins the data will be divided into to calculate the inner product. Returns ------- inner_prod: list The (complex) inner product of data1 and data2 obtained in each bin. amp: float The absolute value of the median of the inner product. phi: float The angle of the median of the inner product.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/strain/lines.py#L41-L77
228,111
gwastro/pycbc
pycbc/strain/lines.py
line_model
def line_model(freq, data, tref, amp=1, phi=0): """ Simple time-domain model for a frequency line. Parameters ---------- freq: float Frequency of the line. data: pycbc.types.TimeSeries Reference data, to get delta_t, start_time, duration and sample_times. tref: float Reference time for the line model. amp: {1., float}, optional Amplitude of the frequency line. phi: {0. float}, optional Phase of the frequency line (radians). Returns ------- freq_line: pycbc.types.TimeSeries A timeseries of the line model with frequency 'freq'. The returned data are complex to allow measuring the amplitude and phase of the corresponding frequency line in the strain data. For extraction, use only the real part of the data. """ freq_line = TimeSeries(zeros(len(data)), delta_t=data.delta_t, epoch=data.start_time) times = data.sample_times - float(tref) alpha = 2 * numpy.pi * freq * times + phi freq_line.data = amp * numpy.exp(1.j * alpha) return freq_line
python
def line_model(freq, data, tref, amp=1, phi=0): freq_line = TimeSeries(zeros(len(data)), delta_t=data.delta_t, epoch=data.start_time) times = data.sample_times - float(tref) alpha = 2 * numpy.pi * freq * times + phi freq_line.data = amp * numpy.exp(1.j * alpha) return freq_line
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Simple time-domain model for a frequency line. Parameters ---------- freq: float Frequency of the line. data: pycbc.types.TimeSeries Reference data, to get delta_t, start_time, duration and sample_times. tref: float Reference time for the line model. amp: {1., float}, optional Amplitude of the frequency line. phi: {0. float}, optional Phase of the frequency line (radians). Returns ------- freq_line: pycbc.types.TimeSeries A timeseries of the line model with frequency 'freq'. The returned data are complex to allow measuring the amplitude and phase of the corresponding frequency line in the strain data. For extraction, use only the real part of the data.
[ "Simple", "time", "-", "domain", "model", "for", "a", "frequency", "line", "." ]
7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/strain/lines.py#L79-L110
228,112
gwastro/pycbc
pycbc/strain/lines.py
matching_line
def matching_line(freq, data, tref, bin_size=1): """ Find the parameter of the line with frequency 'freq' in the data. Parameters ---------- freq: float Frequency of the line to find in the data. data: pycbc.types.TimeSeries Data from which the line wants to be measured. tref: float Reference time for the frequency line. bin_size: {1, float}, optional Duration of the bins the data will be divided into for averaging. Returns ------- line_model: pycbc.types.TimeSeries A timeseries containing the frequency line with the amplitude and phase measured from the data. """ template_line = line_model(freq, data, tref=tref) # Measure amplitude and phase of the line in the data _, amp, phi = avg_inner_product(data, template_line, bin_size=bin_size) return line_model(freq, data, tref=tref, amp=amp, phi=phi)
python
def matching_line(freq, data, tref, bin_size=1): template_line = line_model(freq, data, tref=tref) # Measure amplitude and phase of the line in the data _, amp, phi = avg_inner_product(data, template_line, bin_size=bin_size) return line_model(freq, data, tref=tref, amp=amp, phi=phi)
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Find the parameter of the line with frequency 'freq' in the data. Parameters ---------- freq: float Frequency of the line to find in the data. data: pycbc.types.TimeSeries Data from which the line wants to be measured. tref: float Reference time for the frequency line. bin_size: {1, float}, optional Duration of the bins the data will be divided into for averaging. Returns ------- line_model: pycbc.types.TimeSeries A timeseries containing the frequency line with the amplitude and phase measured from the data.
[ "Find", "the", "parameter", "of", "the", "line", "with", "frequency", "freq", "in", "the", "data", "." ]
7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/strain/lines.py#L112-L136
228,113
gwastro/pycbc
pycbc/strain/lines.py
calibration_lines
def calibration_lines(freqs, data, tref=None): """ Extract the calibration lines from strain data. Parameters ---------- freqs: list List containing the frequencies of the calibration lines. data: pycbc.types.TimeSeries Strain data to extract the calibration lines from. tref: {None, float}, optional Reference time for the line. If None, will use data.start_time. Returns ------- data: pycbc.types.TimeSeries The strain data with the calibration lines removed. """ if tref is None: tref = float(data.start_time) for freq in freqs: measured_line = matching_line(freq, data, tref, bin_size=data.duration) data -= measured_line.data.real return data
python
def calibration_lines(freqs, data, tref=None): if tref is None: tref = float(data.start_time) for freq in freqs: measured_line = matching_line(freq, data, tref, bin_size=data.duration) data -= measured_line.data.real return data
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Extract the calibration lines from strain data. Parameters ---------- freqs: list List containing the frequencies of the calibration lines. data: pycbc.types.TimeSeries Strain data to extract the calibration lines from. tref: {None, float}, optional Reference time for the line. If None, will use data.start_time. Returns ------- data: pycbc.types.TimeSeries The strain data with the calibration lines removed.
[ "Extract", "the", "calibration", "lines", "from", "strain", "data", "." ]
7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/strain/lines.py#L138-L162
228,114
gwastro/pycbc
pycbc/workflow/injection.py
compute_inj_optimal_snr
def compute_inj_optimal_snr(workflow, inj_file, precalc_psd_files, out_dir, tags=None): "Set up a job for computing optimal SNRs of a sim_inspiral file." if tags is None: tags = [] node = Executable(workflow.cp, 'optimal_snr', ifos=workflow.ifos, out_dir=out_dir, tags=tags).create_node() node.add_input_opt('--input-file', inj_file) node.add_input_list_opt('--time-varying-psds', precalc_psd_files) node.new_output_file_opt(workflow.analysis_time, '.xml', '--output-file') workflow += node return node.output_files[0]
python
def compute_inj_optimal_snr(workflow, inj_file, precalc_psd_files, out_dir, tags=None): "Set up a job for computing optimal SNRs of a sim_inspiral file." if tags is None: tags = [] node = Executable(workflow.cp, 'optimal_snr', ifos=workflow.ifos, out_dir=out_dir, tags=tags).create_node() node.add_input_opt('--input-file', inj_file) node.add_input_list_opt('--time-varying-psds', precalc_psd_files) node.new_output_file_opt(workflow.analysis_time, '.xml', '--output-file') workflow += node return node.output_files[0]
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Set up a job for computing optimal SNRs of a sim_inspiral file.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/workflow/injection.py#L52-L64
228,115
gwastro/pycbc
pycbc/workflow/injection.py
cut_distant_injections
def cut_distant_injections(workflow, inj_file, out_dir, tags=None): "Set up a job for removing injections that are too distant to be seen" if tags is None: tags = [] node = Executable(workflow.cp, 'inj_cut', ifos=workflow.ifos, out_dir=out_dir, tags=tags).create_node() node.add_input_opt('--input', inj_file) node.new_output_file_opt(workflow.analysis_time, '.xml', '--output-file') workflow += node return node.output_files[0]
python
def cut_distant_injections(workflow, inj_file, out_dir, tags=None): "Set up a job for removing injections that are too distant to be seen" if tags is None: tags = [] node = Executable(workflow.cp, 'inj_cut', ifos=workflow.ifos, out_dir=out_dir, tags=tags).create_node() node.add_input_opt('--input', inj_file) node.new_output_file_opt(workflow.analysis_time, '.xml', '--output-file') workflow += node return node.output_files[0]
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Set up a job for removing injections that are too distant to be seen
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/workflow/injection.py#L66-L76
228,116
gwastro/pycbc
pycbc/inference/models/base.py
read_sampling_params_from_config
def read_sampling_params_from_config(cp, section_group=None, section='sampling_params'): """Reads sampling parameters from the given config file. Parameters are read from the `[({section_group}_){section}]` section. The options should list the variable args to transform; the parameters they point to should list the parameters they are to be transformed to for sampling. If a multiple parameters are transformed together, they should be comma separated. Example: .. code-block:: ini [sampling_params] mass1, mass2 = mchirp, logitq spin1_a = logitspin1_a Note that only the final sampling parameters should be listed, even if multiple intermediate transforms are needed. (In the above example, a transform is needed to go from mass1, mass2 to mchirp, q, then another one needed to go from q to logitq.) These transforms should be specified in separate sections; see ``transforms.read_transforms_from_config`` for details. Parameters ---------- cp : WorkflowConfigParser An open config parser to read from. section_group : str, optional Append `{section_group}_` to the section name. Default is None. section : str, optional The name of the section. Default is 'sampling_params'. Returns ------- sampling_params : list The list of sampling parameters to use instead. replaced_params : list The list of variable args to replace in the sampler. """ if section_group is not None: section_prefix = '{}_'.format(section_group) else: section_prefix = '' section = section_prefix + section replaced_params = set() sampling_params = set() for args in cp.options(section): map_args = cp.get(section, args) sampling_params.update(set(map(str.strip, map_args.split(',')))) replaced_params.update(set(map(str.strip, args.split(',')))) return list(sampling_params), list(replaced_params)
python
def read_sampling_params_from_config(cp, section_group=None, section='sampling_params'): if section_group is not None: section_prefix = '{}_'.format(section_group) else: section_prefix = '' section = section_prefix + section replaced_params = set() sampling_params = set() for args in cp.options(section): map_args = cp.get(section, args) sampling_params.update(set(map(str.strip, map_args.split(',')))) replaced_params.update(set(map(str.strip, args.split(',')))) return list(sampling_params), list(replaced_params)
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Reads sampling parameters from the given config file. Parameters are read from the `[({section_group}_){section}]` section. The options should list the variable args to transform; the parameters they point to should list the parameters they are to be transformed to for sampling. If a multiple parameters are transformed together, they should be comma separated. Example: .. code-block:: ini [sampling_params] mass1, mass2 = mchirp, logitq spin1_a = logitspin1_a Note that only the final sampling parameters should be listed, even if multiple intermediate transforms are needed. (In the above example, a transform is needed to go from mass1, mass2 to mchirp, q, then another one needed to go from q to logitq.) These transforms should be specified in separate sections; see ``transforms.read_transforms_from_config`` for details. Parameters ---------- cp : WorkflowConfigParser An open config parser to read from. section_group : str, optional Append `{section_group}_` to the section name. Default is None. section : str, optional The name of the section. Default is 'sampling_params'. Returns ------- sampling_params : list The list of sampling parameters to use instead. replaced_params : list The list of variable args to replace in the sampler.
[ "Reads", "sampling", "parameters", "from", "the", "given", "config", "file", "." ]
7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/inference/models/base.py#L222-L272
228,117
gwastro/pycbc
pycbc/inference/models/base.py
ModelStats.getstats
def getstats(self, names, default=numpy.nan): """Get the requested stats as a tuple. If a requested stat is not an attribute (implying it hasn't been stored), then the default value is returned for that stat. Parameters ---------- names : list of str The names of the stats to get. default : float, optional What to return if a requested stat is not an attribute of self. Default is ``numpy.nan``. Returns ------- tuple A tuple of the requested stats. """ return tuple(getattr(self, n, default) for n in names)
python
def getstats(self, names, default=numpy.nan): return tuple(getattr(self, n, default) for n in names)
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Get the requested stats as a tuple. If a requested stat is not an attribute (implying it hasn't been stored), then the default value is returned for that stat. Parameters ---------- names : list of str The names of the stats to get. default : float, optional What to return if a requested stat is not an attribute of self. Default is ``numpy.nan``. Returns ------- tuple A tuple of the requested stats.
[ "Get", "the", "requested", "stats", "as", "a", "tuple", "." ]
7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/inference/models/base.py#L65-L84
228,118
gwastro/pycbc
pycbc/inference/models/base.py
ModelStats.getstatsdict
def getstatsdict(self, names, default=numpy.nan): """Get the requested stats as a dictionary. If a requested stat is not an attribute (implying it hasn't been stored), then the default value is returned for that stat. Parameters ---------- names : list of str The names of the stats to get. default : float, optional What to return if a requested stat is not an attribute of self. Default is ``numpy.nan``. Returns ------- dict A dictionary of the requested stats. """ return dict(zip(names, self.getstats(names, default=default)))
python
def getstatsdict(self, names, default=numpy.nan): return dict(zip(names, self.getstats(names, default=default)))
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Get the requested stats as a dictionary. If a requested stat is not an attribute (implying it hasn't been stored), then the default value is returned for that stat. Parameters ---------- names : list of str The names of the stats to get. default : float, optional What to return if a requested stat is not an attribute of self. Default is ``numpy.nan``. Returns ------- dict A dictionary of the requested stats.
[ "Get", "the", "requested", "stats", "as", "a", "dictionary", "." ]
7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/inference/models/base.py#L86-L105
228,119
gwastro/pycbc
pycbc/inference/models/base.py
SamplingTransforms.logjacobian
def logjacobian(self, **params): r"""Returns the log of the jacobian needed to transform pdfs in the ``variable_params`` parameter space to the ``sampling_params`` parameter space. Let :math:`\mathbf{x}` be the set of variable parameters, :math:`\mathbf{y} = f(\mathbf{x})` the set of sampling parameters, and :math:`p_x(\mathbf{x})` a probability density function defined over :math:`\mathbf{x}`. The corresponding pdf in :math:`\mathbf{y}` is then: .. math:: p_y(\mathbf{y}) = p_x(\mathbf{x})\left|\mathrm{det}\,\mathbf{J}_{ij}\right|, where :math:`\mathbf{J}_{ij}` is the Jacobian of the inverse transform :math:`\mathbf{x} = g(\mathbf{y})`. This has elements: .. math:: \mathbf{J}_{ij} = \frac{\partial g_i}{\partial{y_j}} This function returns :math:`\log \left|\mathrm{det}\,\mathbf{J}_{ij}\right|`. Parameters ---------- \**params : The keyword arguments should specify values for all of the variable args and all of the sampling args. Returns ------- float : The value of the jacobian. """ return numpy.log(abs(transforms.compute_jacobian( params, self.sampling_transforms, inverse=True)))
python
def logjacobian(self, **params): r"""Returns the log of the jacobian needed to transform pdfs in the ``variable_params`` parameter space to the ``sampling_params`` parameter space. Let :math:`\mathbf{x}` be the set of variable parameters, :math:`\mathbf{y} = f(\mathbf{x})` the set of sampling parameters, and :math:`p_x(\mathbf{x})` a probability density function defined over :math:`\mathbf{x}`. The corresponding pdf in :math:`\mathbf{y}` is then: .. math:: p_y(\mathbf{y}) = p_x(\mathbf{x})\left|\mathrm{det}\,\mathbf{J}_{ij}\right|, where :math:`\mathbf{J}_{ij}` is the Jacobian of the inverse transform :math:`\mathbf{x} = g(\mathbf{y})`. This has elements: .. math:: \mathbf{J}_{ij} = \frac{\partial g_i}{\partial{y_j}} This function returns :math:`\log \left|\mathrm{det}\,\mathbf{J}_{ij}\right|`. Parameters ---------- \**params : The keyword arguments should specify values for all of the variable args and all of the sampling args. Returns ------- float : The value of the jacobian. """ return numpy.log(abs(transforms.compute_jacobian( params, self.sampling_transforms, inverse=True)))
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r"""Returns the log of the jacobian needed to transform pdfs in the ``variable_params`` parameter space to the ``sampling_params`` parameter space. Let :math:`\mathbf{x}` be the set of variable parameters, :math:`\mathbf{y} = f(\mathbf{x})` the set of sampling parameters, and :math:`p_x(\mathbf{x})` a probability density function defined over :math:`\mathbf{x}`. The corresponding pdf in :math:`\mathbf{y}` is then: .. math:: p_y(\mathbf{y}) = p_x(\mathbf{x})\left|\mathrm{det}\,\mathbf{J}_{ij}\right|, where :math:`\mathbf{J}_{ij}` is the Jacobian of the inverse transform :math:`\mathbf{x} = g(\mathbf{y})`. This has elements: .. math:: \mathbf{J}_{ij} = \frac{\partial g_i}{\partial{y_j}} This function returns :math:`\log \left|\mathrm{det}\,\mathbf{J}_{ij}\right|`. Parameters ---------- \**params : The keyword arguments should specify values for all of the variable args and all of the sampling args. Returns ------- float : The value of the jacobian.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/inference/models/base.py#L125-L164
228,120
gwastro/pycbc
pycbc/inference/models/base.py
SamplingTransforms.apply
def apply(self, samples, inverse=False): """Applies the sampling transforms to the given samples. Parameters ---------- samples : dict or FieldArray The samples to apply the transforms to. inverse : bool, optional Whether to apply the inverse transforms (i.e., go from the sampling args to the ``variable_params``). Default is False. Returns ------- dict or FieldArray The transformed samples, along with the original samples. """ return transforms.apply_transforms(samples, self.sampling_transforms, inverse=inverse)
python
def apply(self, samples, inverse=False): return transforms.apply_transforms(samples, self.sampling_transforms, inverse=inverse)
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Applies the sampling transforms to the given samples. Parameters ---------- samples : dict or FieldArray The samples to apply the transforms to. inverse : bool, optional Whether to apply the inverse transforms (i.e., go from the sampling args to the ``variable_params``). Default is False. Returns ------- dict or FieldArray The transformed samples, along with the original samples.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/inference/models/base.py#L166-L183
228,121
gwastro/pycbc
pycbc/inference/models/base.py
SamplingTransforms.from_config
def from_config(cls, cp, variable_params): """Gets sampling transforms specified in a config file. Sampling parameters and the parameters they replace are read from the ``sampling_params`` section, if it exists. Sampling transforms are read from the ``sampling_transforms`` section(s), using ``transforms.read_transforms_from_config``. An ``AssertionError`` is raised if no ``sampling_params`` section exists in the config file. Parameters ---------- cp : WorkflowConfigParser Config file parser to read. variable_params : list List of parameter names of the original variable params. Returns ------- SamplingTransforms A sampling transforms class. """ if not cp.has_section('sampling_params'): raise ValueError("no sampling_params section found in config file") # get sampling transformations sampling_params, replace_parameters = \ read_sampling_params_from_config(cp) sampling_transforms = transforms.read_transforms_from_config( cp, 'sampling_transforms') logging.info("Sampling in {} in place of {}".format( ', '.join(sampling_params), ', '.join(replace_parameters))) return cls(variable_params, sampling_params, replace_parameters, sampling_transforms)
python
def from_config(cls, cp, variable_params): if not cp.has_section('sampling_params'): raise ValueError("no sampling_params section found in config file") # get sampling transformations sampling_params, replace_parameters = \ read_sampling_params_from_config(cp) sampling_transforms = transforms.read_transforms_from_config( cp, 'sampling_transforms') logging.info("Sampling in {} in place of {}".format( ', '.join(sampling_params), ', '.join(replace_parameters))) return cls(variable_params, sampling_params, replace_parameters, sampling_transforms)
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Gets sampling transforms specified in a config file. Sampling parameters and the parameters they replace are read from the ``sampling_params`` section, if it exists. Sampling transforms are read from the ``sampling_transforms`` section(s), using ``transforms.read_transforms_from_config``. An ``AssertionError`` is raised if no ``sampling_params`` section exists in the config file. Parameters ---------- cp : WorkflowConfigParser Config file parser to read. variable_params : list List of parameter names of the original variable params. Returns ------- SamplingTransforms A sampling transforms class.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/inference/models/base.py#L186-L219
228,122
gwastro/pycbc
pycbc/inference/models/base.py
BaseModel.sampling_params
def sampling_params(self): """Returns the sampling parameters. If ``sampling_transforms`` is None, this is the same as the ``variable_params``. """ if self.sampling_transforms is None: sampling_params = self.variable_params else: sampling_params = self.sampling_transforms.sampling_params return sampling_params
python
def sampling_params(self): if self.sampling_transforms is None: sampling_params = self.variable_params else: sampling_params = self.sampling_transforms.sampling_params return sampling_params
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Returns the sampling parameters. If ``sampling_transforms`` is None, this is the same as the ``variable_params``.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/inference/models/base.py#L397-L407
228,123
gwastro/pycbc
pycbc/inference/models/base.py
BaseModel.update
def update(self, **params): """Updates the current parameter positions and resets stats. If any sampling transforms are specified, they are applied to the params before being stored. """ self._current_params = self._transform_params(**params) self._current_stats = ModelStats()
python
def update(self, **params): self._current_params = self._transform_params(**params) self._current_stats = ModelStats()
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Updates the current parameter positions and resets stats. If any sampling transforms are specified, they are applied to the params before being stored.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/inference/models/base.py#L409-L416
228,124
gwastro/pycbc
pycbc/inference/models/base.py
BaseModel.get_current_stats
def get_current_stats(self, names=None): """Return one or more of the current stats as a tuple. This function does no computation. It only returns what has already been calculated. If a stat hasn't been calculated, it will be returned as ``numpy.nan``. Parameters ---------- names : list of str, optional Specify the names of the stats to retrieve. If ``None`` (the default), will return ``default_stats``. Returns ------- tuple : The current values of the requested stats, as a tuple. The order of the stats is the same as the names. """ if names is None: names = self.default_stats return self._current_stats.getstats(names)
python
def get_current_stats(self, names=None): if names is None: names = self.default_stats return self._current_stats.getstats(names)
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Return one or more of the current stats as a tuple. This function does no computation. It only returns what has already been calculated. If a stat hasn't been calculated, it will be returned as ``numpy.nan``. Parameters ---------- names : list of str, optional Specify the names of the stats to retrieve. If ``None`` (the default), will return ``default_stats``. Returns ------- tuple : The current values of the requested stats, as a tuple. The order of the stats is the same as the names.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/inference/models/base.py#L439-L460
228,125
gwastro/pycbc
pycbc/inference/models/base.py
BaseModel._trytoget
def _trytoget(self, statname, fallback, **kwargs): """Helper function to get a stat from ``_current_stats``. If the statistic hasn't been calculated, ``_current_stats`` will raise an ``AttributeError``. In that case, the ``fallback`` function will be called. If that call is successful, the ``statname`` will be added to ``_current_stats`` with the returned value. Parameters ---------- statname : str The stat to get from ``current_stats``. fallback : method of self The function to call if the property call fails. \**kwargs : Any other keyword arguments are passed through to the function. Returns ------- float : The value of the property. """ try: return getattr(self._current_stats, statname) except AttributeError: val = fallback(**kwargs) setattr(self._current_stats, statname, val) return val
python
def _trytoget(self, statname, fallback, **kwargs): try: return getattr(self._current_stats, statname) except AttributeError: val = fallback(**kwargs) setattr(self._current_stats, statname, val) return val
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Helper function to get a stat from ``_current_stats``. If the statistic hasn't been calculated, ``_current_stats`` will raise an ``AttributeError``. In that case, the ``fallback`` function will be called. If that call is successful, the ``statname`` will be added to ``_current_stats`` with the returned value. Parameters ---------- statname : str The stat to get from ``current_stats``. fallback : method of self The function to call if the property call fails. \**kwargs : Any other keyword arguments are passed through to the function. Returns ------- float : The value of the property.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/inference/models/base.py#L477-L504
228,126
gwastro/pycbc
pycbc/inference/models/base.py
BaseModel._logjacobian
def _logjacobian(self): """Calculates the logjacobian of the current parameters.""" if self.sampling_transforms is None: logj = 0. else: logj = self.sampling_transforms.logjacobian( **self.current_params) return logj
python
def _logjacobian(self): if self.sampling_transforms is None: logj = 0. else: logj = self.sampling_transforms.logjacobian( **self.current_params) return logj
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Calculates the logjacobian of the current parameters.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/inference/models/base.py#L541-L548
228,127
gwastro/pycbc
pycbc/inference/models/base.py
BaseModel._logprior
def _logprior(self): """Calculates the log prior at the current parameters.""" logj = self.logjacobian logp = self.prior_distribution(**self.current_params) + logj if numpy.isnan(logp): logp = -numpy.inf return logp
python
def _logprior(self): logj = self.logjacobian logp = self.prior_distribution(**self.current_params) + logj if numpy.isnan(logp): logp = -numpy.inf return logp
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Calculates the log prior at the current parameters.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/inference/models/base.py#L555-L561
228,128
gwastro/pycbc
pycbc/inference/models/base.py
BaseModel.logposterior
def logposterior(self): """Returns the log of the posterior of the current parameter values. The logprior is calculated first. If the logprior returns ``-inf`` (possibly indicating a non-physical point), then the ``loglikelihood`` is not called. """ logp = self.logprior if logp == -numpy.inf: return logp else: return logp + self.loglikelihood
python
def logposterior(self): logp = self.logprior if logp == -numpy.inf: return logp else: return logp + self.loglikelihood
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Returns the log of the posterior of the current parameter values. The logprior is calculated first. If the logprior returns ``-inf`` (possibly indicating a non-physical point), then the ``loglikelihood`` is not called.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/inference/models/base.py#L564-L575
228,129
gwastro/pycbc
pycbc/inference/models/base.py
BaseModel.prior_rvs
def prior_rvs(self, size=1, prior=None): """Returns random variates drawn from the prior. If the ``sampling_params`` are different from the ``variable_params``, the variates are transformed to the `sampling_params` parameter space before being returned. Parameters ---------- size : int, optional Number of random values to return for each parameter. Default is 1. prior : JointDistribution, optional Use the given prior to draw values rather than the saved prior. Returns ------- FieldArray A field array of the random values. """ # draw values from the prior if prior is None: prior = self.prior_distribution p0 = prior.rvs(size=size) # transform if necessary if self.sampling_transforms is not None: ptrans = self.sampling_transforms.apply(p0) # pull out the sampling args p0 = FieldArray.from_arrays([ptrans[arg] for arg in self.sampling_params], names=self.sampling_params) return p0
python
def prior_rvs(self, size=1, prior=None): # draw values from the prior if prior is None: prior = self.prior_distribution p0 = prior.rvs(size=size) # transform if necessary if self.sampling_transforms is not None: ptrans = self.sampling_transforms.apply(p0) # pull out the sampling args p0 = FieldArray.from_arrays([ptrans[arg] for arg in self.sampling_params], names=self.sampling_params) return p0
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Returns random variates drawn from the prior. If the ``sampling_params`` are different from the ``variable_params``, the variates are transformed to the `sampling_params` parameter space before being returned. Parameters ---------- size : int, optional Number of random values to return for each parameter. Default is 1. prior : JointDistribution, optional Use the given prior to draw values rather than the saved prior. Returns ------- FieldArray A field array of the random values.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/inference/models/base.py#L577-L607
228,130
gwastro/pycbc
pycbc/inference/models/base.py
BaseModel._transform_params
def _transform_params(self, **params): """Applies all transforms to the given params. Parameters ---------- \**params : Key, value pairs of parameters to apply the transforms to. Returns ------- dict A dictionary of the transformed parameters. """ # apply inverse transforms to go from sampling parameters to # variable args if self.sampling_transforms is not None: params = self.sampling_transforms.apply(params, inverse=True) # apply waveform transforms if self.waveform_transforms is not None: params = transforms.apply_transforms(params, self.waveform_transforms, inverse=False) # apply boundary conditions params = self.prior_distribution.apply_boundary_conditions(**params) return params
python
def _transform_params(self, **params): # apply inverse transforms to go from sampling parameters to # variable args if self.sampling_transforms is not None: params = self.sampling_transforms.apply(params, inverse=True) # apply waveform transforms if self.waveform_transforms is not None: params = transforms.apply_transforms(params, self.waveform_transforms, inverse=False) # apply boundary conditions params = self.prior_distribution.apply_boundary_conditions(**params) return params
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Applies all transforms to the given params. Parameters ---------- \**params : Key, value pairs of parameters to apply the transforms to. Returns ------- dict A dictionary of the transformed parameters.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/inference/models/base.py#L609-L633
228,131
gwastro/pycbc
pycbc/inference/models/base.py
BaseModel.extra_args_from_config
def extra_args_from_config(cp, section, skip_args=None, dtypes=None): """Gets any additional keyword in the given config file. Parameters ---------- cp : WorkflowConfigParser Config file parser to read. section : str The name of the section to read. skip_args : list of str, optional Names of arguments to skip. dtypes : dict, optional A dictionary of arguments -> data types. If an argument is found in the dict, it will be cast to the given datatype. Otherwise, the argument's value will just be read from the config file (and thus be a string). Returns ------- dict Dictionary of keyword arguments read from the config file. """ kwargs = {} if dtypes is None: dtypes = {} if skip_args is None: skip_args = [] read_args = [opt for opt in cp.options(section) if opt not in skip_args] for opt in read_args: val = cp.get(section, opt) # try to cast the value if a datatype was specified for this opt try: val = dtypes[opt](val) except KeyError: pass kwargs[opt] = val return kwargs
python
def extra_args_from_config(cp, section, skip_args=None, dtypes=None): kwargs = {} if dtypes is None: dtypes = {} if skip_args is None: skip_args = [] read_args = [opt for opt in cp.options(section) if opt not in skip_args] for opt in read_args: val = cp.get(section, opt) # try to cast the value if a datatype was specified for this opt try: val = dtypes[opt](val) except KeyError: pass kwargs[opt] = val return kwargs
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Gets any additional keyword in the given config file. Parameters ---------- cp : WorkflowConfigParser Config file parser to read. section : str The name of the section to read. skip_args : list of str, optional Names of arguments to skip. dtypes : dict, optional A dictionary of arguments -> data types. If an argument is found in the dict, it will be cast to the given datatype. Otherwise, the argument's value will just be read from the config file (and thus be a string). Returns ------- dict Dictionary of keyword arguments read from the config file.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/inference/models/base.py#L639-L676
228,132
gwastro/pycbc
pycbc/inference/models/base.py
BaseModel.prior_from_config
def prior_from_config(cp, variable_params, prior_section, constraint_section): """Gets arguments and keyword arguments from a config file. Parameters ---------- cp : WorkflowConfigParser Config file parser to read. variable_params : list List of of model parameter names. prior_section : str Section to read prior(s) from. constraint_section : str Section to read constraint(s) from. Returns ------- pycbc.distributions.JointDistribution The prior. """ # get prior distribution for each variable parameter logging.info("Setting up priors for each parameter") dists = distributions.read_distributions_from_config(cp, prior_section) constraints = distributions.read_constraints_from_config( cp, constraint_section) return distributions.JointDistribution(variable_params, *dists, constraints=constraints)
python
def prior_from_config(cp, variable_params, prior_section, constraint_section): # get prior distribution for each variable parameter logging.info("Setting up priors for each parameter") dists = distributions.read_distributions_from_config(cp, prior_section) constraints = distributions.read_constraints_from_config( cp, constraint_section) return distributions.JointDistribution(variable_params, *dists, constraints=constraints)
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Gets arguments and keyword arguments from a config file. Parameters ---------- cp : WorkflowConfigParser Config file parser to read. variable_params : list List of of model parameter names. prior_section : str Section to read prior(s) from. constraint_section : str Section to read constraint(s) from. Returns ------- pycbc.distributions.JointDistribution The prior.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/inference/models/base.py#L679-L705
228,133
gwastro/pycbc
pycbc/inference/models/base.py
BaseModel._init_args_from_config
def _init_args_from_config(cls, cp): """Helper function for loading parameters. This retrieves the prior, variable parameters, static parameterss, constraints, sampling transforms, and waveform transforms (if provided). Parameters ---------- cp : ConfigParser Config parser to read. Returns ------- dict : Dictionary of the arguments. Has keys ``variable_params``, ``static_params``, ``prior``, and ``sampling_transforms``. If waveform transforms are in the config file, will also have ``waveform_transforms``. """ section = "model" prior_section = "prior" vparams_section = 'variable_params' sparams_section = 'static_params' constraint_section = 'constraint' # check that the name exists and matches name = cp.get(section, 'name') if name != cls.name: raise ValueError("section's {} name does not match mine {}".format( name, cls.name)) # get model parameters variable_params, static_params = distributions.read_params_from_config( cp, prior_section=prior_section, vargs_section=vparams_section, sargs_section=sparams_section) # get prior prior = cls.prior_from_config(cp, variable_params, prior_section, constraint_section) args = {'variable_params': variable_params, 'static_params': static_params, 'prior': prior} # try to load sampling transforms try: sampling_transforms = SamplingTransforms.from_config( cp, variable_params) except ValueError: sampling_transforms = None args['sampling_transforms'] = sampling_transforms # get any waveform transforms if any(cp.get_subsections('waveform_transforms')): logging.info("Loading waveform transforms") args['waveform_transforms'] = \ transforms.read_transforms_from_config( cp, 'waveform_transforms') return args
python
def _init_args_from_config(cls, cp): section = "model" prior_section = "prior" vparams_section = 'variable_params' sparams_section = 'static_params' constraint_section = 'constraint' # check that the name exists and matches name = cp.get(section, 'name') if name != cls.name: raise ValueError("section's {} name does not match mine {}".format( name, cls.name)) # get model parameters variable_params, static_params = distributions.read_params_from_config( cp, prior_section=prior_section, vargs_section=vparams_section, sargs_section=sparams_section) # get prior prior = cls.prior_from_config(cp, variable_params, prior_section, constraint_section) args = {'variable_params': variable_params, 'static_params': static_params, 'prior': prior} # try to load sampling transforms try: sampling_transforms = SamplingTransforms.from_config( cp, variable_params) except ValueError: sampling_transforms = None args['sampling_transforms'] = sampling_transforms # get any waveform transforms if any(cp.get_subsections('waveform_transforms')): logging.info("Loading waveform transforms") args['waveform_transforms'] = \ transforms.read_transforms_from_config( cp, 'waveform_transforms') return args
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Helper function for loading parameters. This retrieves the prior, variable parameters, static parameterss, constraints, sampling transforms, and waveform transforms (if provided). Parameters ---------- cp : ConfigParser Config parser to read. Returns ------- dict : Dictionary of the arguments. Has keys ``variable_params``, ``static_params``, ``prior``, and ``sampling_transforms``. If waveform transforms are in the config file, will also have ``waveform_transforms``.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/inference/models/base.py#L708-L761
228,134
gwastro/pycbc
pycbc/inference/models/base.py
BaseModel.write_metadata
def write_metadata(self, fp): """Writes metadata to the given file handler. Parameters ---------- fp : pycbc.inference.io.BaseInferenceFile instance The inference file to write to. """ fp.attrs['model'] = self.name fp.attrs['variable_params'] = list(self.variable_params) fp.attrs['sampling_params'] = list(self.sampling_params) fp.write_kwargs_to_attrs(fp.attrs, static_params=self.static_params)
python
def write_metadata(self, fp): fp.attrs['model'] = self.name fp.attrs['variable_params'] = list(self.variable_params) fp.attrs['sampling_params'] = list(self.sampling_params) fp.write_kwargs_to_attrs(fp.attrs, static_params=self.static_params)
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Writes metadata to the given file handler. Parameters ---------- fp : pycbc.inference.io.BaseInferenceFile instance The inference file to write to.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/inference/models/base.py#L782-L793
228,135
gwastro/pycbc
pycbc/tmpltbank/coord_utils.py
get_cov_params
def get_cov_params(mass1, mass2, spin1z, spin2z, metricParams, fUpper, lambda1=None, lambda2=None, quadparam1=None, quadparam2=None): """ Function to convert between masses and spins and locations in the xi parameter space. Xi = Cartesian metric and rotated to principal components. Parameters ----------- mass1 : float Mass of heavier body. mass2 : float Mass of lighter body. spin1z : float Spin of body 1. spin2z : float Spin of body 2. metricParams : metricParameters instance Structure holding all the options for construction of the metric and the eigenvalues, eigenvectors and covariance matrix needed to manipulate the space. fUpper : float The value of fUpper to use when getting the mu coordinates from the lambda coordinates. This must be a key in metricParams.evals, metricParams.evecs and metricParams.evecsCV (ie. we must know how to do the transformation for the given value of fUpper) Returns -------- xis : list of floats or numpy.arrays Position of the system(s) in the xi coordinate system """ # Do this by doing masses - > lambdas -> mus mus = get_conv_params(mass1, mass2, spin1z, spin2z, metricParams, fUpper, lambda1=lambda1, lambda2=lambda2, quadparam1=quadparam1, quadparam2=quadparam2) # and then mus -> xis xis = get_covaried_params(mus, metricParams.evecsCV[fUpper]) return xis
python
def get_cov_params(mass1, mass2, spin1z, spin2z, metricParams, fUpper, lambda1=None, lambda2=None, quadparam1=None, quadparam2=None): # Do this by doing masses - > lambdas -> mus mus = get_conv_params(mass1, mass2, spin1z, spin2z, metricParams, fUpper, lambda1=lambda1, lambda2=lambda2, quadparam1=quadparam1, quadparam2=quadparam2) # and then mus -> xis xis = get_covaried_params(mus, metricParams.evecsCV[fUpper]) return xis
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Function to convert between masses and spins and locations in the xi parameter space. Xi = Cartesian metric and rotated to principal components. Parameters ----------- mass1 : float Mass of heavier body. mass2 : float Mass of lighter body. spin1z : float Spin of body 1. spin2z : float Spin of body 2. metricParams : metricParameters instance Structure holding all the options for construction of the metric and the eigenvalues, eigenvectors and covariance matrix needed to manipulate the space. fUpper : float The value of fUpper to use when getting the mu coordinates from the lambda coordinates. This must be a key in metricParams.evals, metricParams.evecs and metricParams.evecsCV (ie. we must know how to do the transformation for the given value of fUpper) Returns -------- xis : list of floats or numpy.arrays Position of the system(s) in the xi coordinate system
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/tmpltbank/coord_utils.py#L295-L335
228,136
gwastro/pycbc
pycbc/tmpltbank/coord_utils.py
get_conv_params
def get_conv_params(mass1, mass2, spin1z, spin2z, metricParams, fUpper, lambda1=None, lambda2=None, quadparam1=None, quadparam2=None): """ Function to convert between masses and spins and locations in the mu parameter space. Mu = Cartesian metric, but not principal components. Parameters ----------- mass1 : float Mass of heavier body. mass2 : float Mass of lighter body. spin1z : float Spin of body 1. spin2z : float Spin of body 2. metricParams : metricParameters instance Structure holding all the options for construction of the metric and the eigenvalues, eigenvectors and covariance matrix needed to manipulate the space. fUpper : float The value of fUpper to use when getting the mu coordinates from the lambda coordinates. This must be a key in metricParams.evals and metricParams.evecs (ie. we must know how to do the transformation for the given value of fUpper) Returns -------- mus : list of floats or numpy.arrays Position of the system(s) in the mu coordinate system """ # Do this by masses -> lambdas lambdas = get_chirp_params(mass1, mass2, spin1z, spin2z, metricParams.f0, metricParams.pnOrder, lambda1=lambda1, lambda2=lambda2, quadparam1=quadparam1, quadparam2=quadparam2) # and lambdas -> mus mus = get_mu_params(lambdas, metricParams, fUpper) return mus
python
def get_conv_params(mass1, mass2, spin1z, spin2z, metricParams, fUpper, lambda1=None, lambda2=None, quadparam1=None, quadparam2=None): # Do this by masses -> lambdas lambdas = get_chirp_params(mass1, mass2, spin1z, spin2z, metricParams.f0, metricParams.pnOrder, lambda1=lambda1, lambda2=lambda2, quadparam1=quadparam1, quadparam2=quadparam2) # and lambdas -> mus mus = get_mu_params(lambdas, metricParams, fUpper) return mus
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Function to convert between masses and spins and locations in the mu parameter space. Mu = Cartesian metric, but not principal components. Parameters ----------- mass1 : float Mass of heavier body. mass2 : float Mass of lighter body. spin1z : float Spin of body 1. spin2z : float Spin of body 2. metricParams : metricParameters instance Structure holding all the options for construction of the metric and the eigenvalues, eigenvectors and covariance matrix needed to manipulate the space. fUpper : float The value of fUpper to use when getting the mu coordinates from the lambda coordinates. This must be a key in metricParams.evals and metricParams.evecs (ie. we must know how to do the transformation for the given value of fUpper) Returns -------- mus : list of floats or numpy.arrays Position of the system(s) in the mu coordinate system
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/tmpltbank/coord_utils.py#L337-L377
228,137
gwastro/pycbc
pycbc/tmpltbank/coord_utils.py
get_mu_params
def get_mu_params(lambdas, metricParams, fUpper): """ Function to rotate from the lambda coefficients into position in the mu coordinate system. Mu = Cartesian metric, but not principal components. Parameters ----------- lambdas : list of floats or numpy.arrays Position of the system(s) in the lambda coefficients metricParams : metricParameters instance Structure holding all the options for construction of the metric and the eigenvalues, eigenvectors and covariance matrix needed to manipulate the space. fUpper : float The value of fUpper to use when getting the mu coordinates from the lambda coordinates. This must be a key in metricParams.evals and metricParams.evecs (ie. we must know how to do the transformation for the given value of fUpper) Returns -------- mus : list of floats or numpy.arrays Position of the system(s) in the mu coordinate system """ lambdas = numpy.array(lambdas, copy=False) # If original inputs were floats we need to make this a 2D array if len(lambdas.shape) == 1: resize_needed = True lambdas = lambdas[:,None] else: resize_needed = False evecs = metricParams.evecs[fUpper] evals = metricParams.evals[fUpper] evecs = numpy.array(evecs, copy=False) mus = ((lambdas.T).dot(evecs)).T mus = mus * numpy.sqrt(evals)[:,None] if resize_needed: mus = numpy.ndarray.flatten(mus) return mus
python
def get_mu_params(lambdas, metricParams, fUpper): lambdas = numpy.array(lambdas, copy=False) # If original inputs were floats we need to make this a 2D array if len(lambdas.shape) == 1: resize_needed = True lambdas = lambdas[:,None] else: resize_needed = False evecs = metricParams.evecs[fUpper] evals = metricParams.evals[fUpper] evecs = numpy.array(evecs, copy=False) mus = ((lambdas.T).dot(evecs)).T mus = mus * numpy.sqrt(evals)[:,None] if resize_needed: mus = numpy.ndarray.flatten(mus) return mus
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Function to rotate from the lambda coefficients into position in the mu coordinate system. Mu = Cartesian metric, but not principal components. Parameters ----------- lambdas : list of floats or numpy.arrays Position of the system(s) in the lambda coefficients metricParams : metricParameters instance Structure holding all the options for construction of the metric and the eigenvalues, eigenvectors and covariance matrix needed to manipulate the space. fUpper : float The value of fUpper to use when getting the mu coordinates from the lambda coordinates. This must be a key in metricParams.evals and metricParams.evecs (ie. we must know how to do the transformation for the given value of fUpper) Returns -------- mus : list of floats or numpy.arrays Position of the system(s) in the mu coordinate system
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/tmpltbank/coord_utils.py#L379-L422
228,138
gwastro/pycbc
pycbc/tmpltbank/coord_utils.py
calc_point_dist
def calc_point_dist(vsA, entryA): """ This function is used to determine the distance between two points. Parameters ---------- vsA : list or numpy.array or similar An array of point 1's position in the \chi_i coordinate system entryA : list or numpy.array or similar An array of point 2's position in the \chi_i coordinate system MMdistA : float The minimal mismatch allowed between the points Returns -------- val : float The metric distance between the two points. """ chi_diffs = vsA - entryA val = ((chi_diffs)*(chi_diffs)).sum() return val
python
def calc_point_dist(vsA, entryA): chi_diffs = vsA - entryA val = ((chi_diffs)*(chi_diffs)).sum() return val
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This function is used to determine the distance between two points. Parameters ---------- vsA : list or numpy.array or similar An array of point 1's position in the \chi_i coordinate system entryA : list or numpy.array or similar An array of point 2's position in the \chi_i coordinate system MMdistA : float The minimal mismatch allowed between the points Returns -------- val : float The metric distance between the two points.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/tmpltbank/coord_utils.py#L543-L563
228,139
gwastro/pycbc
pycbc/population/scale_injections.py
read_injections
def read_injections(sim_files, m_dist, s_dist, d_dist): ''' Read all the injections from the files in the provided folder. The files must belong to individual set i.e. no files that combine all the injections in a run. Identify injection strategies and finds parameter boundaries. Collect injection according to GPS. Parameters ---------- sim_files: list List containign names of the simulation files m_dist: list The mass distribution used in the simulation runs s_dist: list The spin distribution used in the simulation runs d_dist: list The distance distribution used in the simulation runs Returns ------- injections: dictionary Contains the organized information about the injections ''' injections = {} min_d, max_d = 1e12, 0 nf = len(sim_files) for i in range(nf): key = str(i) injections[key] = process_injections(sim_files[i]) injections[key]['file_name'] = sim_files[i] injections[key]['m_dist'] = m_dist[i] injections[key]['s_dist'] = s_dist[i] injections[key]['d_dist'] = d_dist[i] mass1, mass2 = injections[key]['mass1'], injections[key]['mass2'] distance = injections[key]['distance'] mchirp = m1m2tomch(mass1, mass2) injections[key]['chirp_mass'] = mchirp injections[key]['total_mass'] = mass1 + mass2 injections[key]['mtot_range'] = [min(mass1 + mass2), max(mass1 + mass2)] injections[key]['m1_range'] = [min(mass1), max(mass1)] injections[key]['m2_range'] = [min(mass2), max(mass2)] injections[key]['d_range'] = [min(distance), max(distance)] min_d, max_d = min(min_d, min(distance)), max(max_d, max(distance)) injections['z_range'] = [dlum_to_z(min_d), dlum_to_z(max_d)] return injections
python
def read_injections(sim_files, m_dist, s_dist, d_dist): ''' Read all the injections from the files in the provided folder. The files must belong to individual set i.e. no files that combine all the injections in a run. Identify injection strategies and finds parameter boundaries. Collect injection according to GPS. Parameters ---------- sim_files: list List containign names of the simulation files m_dist: list The mass distribution used in the simulation runs s_dist: list The spin distribution used in the simulation runs d_dist: list The distance distribution used in the simulation runs Returns ------- injections: dictionary Contains the organized information about the injections ''' injections = {} min_d, max_d = 1e12, 0 nf = len(sim_files) for i in range(nf): key = str(i) injections[key] = process_injections(sim_files[i]) injections[key]['file_name'] = sim_files[i] injections[key]['m_dist'] = m_dist[i] injections[key]['s_dist'] = s_dist[i] injections[key]['d_dist'] = d_dist[i] mass1, mass2 = injections[key]['mass1'], injections[key]['mass2'] distance = injections[key]['distance'] mchirp = m1m2tomch(mass1, mass2) injections[key]['chirp_mass'] = mchirp injections[key]['total_mass'] = mass1 + mass2 injections[key]['mtot_range'] = [min(mass1 + mass2), max(mass1 + mass2)] injections[key]['m1_range'] = [min(mass1), max(mass1)] injections[key]['m2_range'] = [min(mass2), max(mass2)] injections[key]['d_range'] = [min(distance), max(distance)] min_d, max_d = min(min_d, min(distance)), max(max_d, max(distance)) injections['z_range'] = [dlum_to_z(min_d), dlum_to_z(max_d)] return injections
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Read all the injections from the files in the provided folder. The files must belong to individual set i.e. no files that combine all the injections in a run. Identify injection strategies and finds parameter boundaries. Collect injection according to GPS. Parameters ---------- sim_files: list List containign names of the simulation files m_dist: list The mass distribution used in the simulation runs s_dist: list The spin distribution used in the simulation runs d_dist: list The distance distribution used in the simulation runs Returns ------- injections: dictionary Contains the organized information about the injections
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/population/scale_injections.py#L19-L71
228,140
gwastro/pycbc
pycbc/population/scale_injections.py
process_injections
def process_injections(hdffile): """Function to read in the injection file and extract the found injections and all injections Parameters ---------- hdffile: hdf file File for which injections are to be processed Returns ------- data: dictionary Dictionary containing injection read from the input file """ data = {} with h5py.File(hdffile, 'r') as inp: found_index = inp['found_after_vetoes/injection_index'][:] for param in _save_params: data[param] = inp['injections/'+param][:] ifar = np.zeros_like(data[_save_params[0]]) ifar[found_index] = inp['found_after_vetoes/ifar'][:] data['ifar'] = ifar stat = np.zeros_like(data[_save_params[0]]) stat[found_index] = inp['found_after_vetoes/stat'][:] data['stat'] = stat return data
python
def process_injections(hdffile): data = {} with h5py.File(hdffile, 'r') as inp: found_index = inp['found_after_vetoes/injection_index'][:] for param in _save_params: data[param] = inp['injections/'+param][:] ifar = np.zeros_like(data[_save_params[0]]) ifar[found_index] = inp['found_after_vetoes/ifar'][:] data['ifar'] = ifar stat = np.zeros_like(data[_save_params[0]]) stat[found_index] = inp['found_after_vetoes/stat'][:] data['stat'] = stat return data
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Function to read in the injection file and extract the found injections and all injections Parameters ---------- hdffile: hdf file File for which injections are to be processed Returns ------- data: dictionary Dictionary containing injection read from the input file
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/population/scale_injections.py#L238-L270
228,141
gwastro/pycbc
pycbc/population/scale_injections.py
astro_redshifts
def astro_redshifts(min_z, max_z, nsamples): '''Sample the redshifts for sources, with redshift independent rate, using standard cosmology Parameters ---------- min_z: float Minimum redshift max_z: float Maximum redshift nsamples: int Number of samples Returns ------- z_astro: array nsamples of redshift, between min_z, max_z, by standard cosmology ''' dz, fac = 0.001, 3.0 # use interpolation instead of directly estimating all the pdfz for rndz V = quad(contracted_dVdc, 0., max_z)[0] zbins = np.arange(min_z, max_z + dz/2., dz) zcenter = (zbins[:-1] + zbins[1:]) / 2 pdfz = cosmo.differential_comoving_volume(zcenter).value/(1+zcenter)/V int_pdf = interp1d(zcenter, pdfz, bounds_error=False, fill_value=0) rndz = np.random.uniform(min_z, max_z, int(fac*nsamples)) pdf_zs = int_pdf(rndz) maxpdf = max(pdf_zs) rndn = np.random.uniform(0, 1, int(fac*nsamples)) * maxpdf diff = pdf_zs - rndn idx = np.where(diff > 0) z_astro = rndz[idx] np.random.shuffle(z_astro) z_astro.resize(nsamples) return z_astro
python
def astro_redshifts(min_z, max_z, nsamples): '''Sample the redshifts for sources, with redshift independent rate, using standard cosmology Parameters ---------- min_z: float Minimum redshift max_z: float Maximum redshift nsamples: int Number of samples Returns ------- z_astro: array nsamples of redshift, between min_z, max_z, by standard cosmology ''' dz, fac = 0.001, 3.0 # use interpolation instead of directly estimating all the pdfz for rndz V = quad(contracted_dVdc, 0., max_z)[0] zbins = np.arange(min_z, max_z + dz/2., dz) zcenter = (zbins[:-1] + zbins[1:]) / 2 pdfz = cosmo.differential_comoving_volume(zcenter).value/(1+zcenter)/V int_pdf = interp1d(zcenter, pdfz, bounds_error=False, fill_value=0) rndz = np.random.uniform(min_z, max_z, int(fac*nsamples)) pdf_zs = int_pdf(rndz) maxpdf = max(pdf_zs) rndn = np.random.uniform(0, 1, int(fac*nsamples)) * maxpdf diff = pdf_zs - rndn idx = np.where(diff > 0) z_astro = rndz[idx] np.random.shuffle(z_astro) z_astro.resize(nsamples) return z_astro
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Sample the redshifts for sources, with redshift independent rate, using standard cosmology Parameters ---------- min_z: float Minimum redshift max_z: float Maximum redshift nsamples: int Number of samples Returns ------- z_astro: array nsamples of redshift, between min_z, max_z, by standard cosmology
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/population/scale_injections.py#L288-L327
228,142
gwastro/pycbc
pycbc/population/scale_injections.py
inj_mass_pdf
def inj_mass_pdf(key, mass1, mass2, lomass, himass, lomass_2 = 0, himass_2 = 0): '''Estimate the probability density based on the injection strategy Parameters ---------- key: string Injection strategy mass1: array First mass of the injections mass2: array Second mass of the injections lomass: float Lower value of the mass distributions himass: float higher value of the mass distribution Returns ------- pdf: array Probability density of the injections ''' mass1, mass2 = np.array(mass1), np.array(mass2) if key == 'totalMass': # Returns the PDF of mass when total mass is uniformly distributed. # Both the component masses have the same distribution for this case. # Parameters # ---------- # lomass: lower component mass # himass: higher component mass bound = np.sign((lomass + himass) - (mass1 + mass2)) bound += np.sign((himass - mass1)*(mass1 - lomass)) bound += np.sign((himass - mass2)*(mass2 - lomass)) idx = np.where(bound != 3) pdf = 1./(himass - lomass)/(mass1 + mass2 - 2 * lomass) pdf[idx] = 0 return pdf if key == 'componentMass': # Returns the PDF of mass when component mass is uniformly # distributed. Component masses are independent for this case. # Parameters # ---------- # lomass: lower component mass # himass: higher component mass bound = np.sign((himass - mass1)*(mass1 - lomass)) bound += np.sign((himass_2 - mass2)*(mass2 - lomass_2)) idx = np.where(bound != 2) pdf = np.ones_like(mass1) / (himass - lomass) / (himass_2 - lomass_2) pdf[idx] = 0 return pdf if key == 'log': # Returns the PDF of mass when component mass is uniform in log. # Component masses are independent for this case. # Parameters # ---------- # lomass: lower component mass # himass: higher component mass bound = np.sign((himass - mass1)*(mass1 - lomass)) bound += np.sign((himass_2 - mass2)*(mass2 - lomass_2)) idx = np.where(bound != 2) pdf = 1 / (log(himass) - log(lomass)) / (log(himass_2) - log(lomass_2)) pdf /= (mass1 * mass2) pdf[idx] = 0 return pdf
python
def inj_mass_pdf(key, mass1, mass2, lomass, himass, lomass_2 = 0, himass_2 = 0): '''Estimate the probability density based on the injection strategy Parameters ---------- key: string Injection strategy mass1: array First mass of the injections mass2: array Second mass of the injections lomass: float Lower value of the mass distributions himass: float higher value of the mass distribution Returns ------- pdf: array Probability density of the injections ''' mass1, mass2 = np.array(mass1), np.array(mass2) if key == 'totalMass': # Returns the PDF of mass when total mass is uniformly distributed. # Both the component masses have the same distribution for this case. # Parameters # ---------- # lomass: lower component mass # himass: higher component mass bound = np.sign((lomass + himass) - (mass1 + mass2)) bound += np.sign((himass - mass1)*(mass1 - lomass)) bound += np.sign((himass - mass2)*(mass2 - lomass)) idx = np.where(bound != 3) pdf = 1./(himass - lomass)/(mass1 + mass2 - 2 * lomass) pdf[idx] = 0 return pdf if key == 'componentMass': # Returns the PDF of mass when component mass is uniformly # distributed. Component masses are independent for this case. # Parameters # ---------- # lomass: lower component mass # himass: higher component mass bound = np.sign((himass - mass1)*(mass1 - lomass)) bound += np.sign((himass_2 - mass2)*(mass2 - lomass_2)) idx = np.where(bound != 2) pdf = np.ones_like(mass1) / (himass - lomass) / (himass_2 - lomass_2) pdf[idx] = 0 return pdf if key == 'log': # Returns the PDF of mass when component mass is uniform in log. # Component masses are independent for this case. # Parameters # ---------- # lomass: lower component mass # himass: higher component mass bound = np.sign((himass - mass1)*(mass1 - lomass)) bound += np.sign((himass_2 - mass2)*(mass2 - lomass_2)) idx = np.where(bound != 2) pdf = 1 / (log(himass) - log(lomass)) / (log(himass_2) - log(lomass_2)) pdf /= (mass1 * mass2) pdf[idx] = 0 return pdf
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Estimate the probability density based on the injection strategy Parameters ---------- key: string Injection strategy mass1: array First mass of the injections mass2: array Second mass of the injections lomass: float Lower value of the mass distributions himass: float higher value of the mass distribution Returns ------- pdf: array Probability density of the injections
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/population/scale_injections.py#L341-L417
228,143
gwastro/pycbc
pycbc/population/scale_injections.py
inj_spin_pdf
def inj_spin_pdf(key, high_spin, spinz): ''' Estimate the probability density of the injections for the spin distribution. Parameters ---------- key: string Injections strategy high_spin: float Maximum spin used in the strategy spinz: array Spin of the injections (for one component) ''' # If the data comes from disable_spin simulation if spinz[0] == 0: return np.ones_like(spinz) spinz = np.array(spinz) bound = np.sign(np.absolute(high_spin) - np.absolute(spinz)) bound += np.sign(1 - np.absolute(spinz)) if key == 'precessing': # Returns the PDF of spins when total spin is # isotropically distributed. Both the component # masses have the same distribution for this case. pdf = (np.log(high_spin - np.log(abs(spinz)))/high_spin/2) idx = np.where(bound != 2) pdf[idx] = 0 return pdf if key == 'aligned': # Returns the PDF of mass when spins are aligned and uniformly # distributed. Component spins are independent for this case. pdf = (np.ones_like(spinz) / 2 / high_spin) idx = np.where(bound != 2) pdf[idx] = 0 return pdf if key == 'disable_spin': # Returns unit array pdf = np.ones_like(spinz) return pdf
python
def inj_spin_pdf(key, high_spin, spinz): ''' Estimate the probability density of the injections for the spin distribution. Parameters ---------- key: string Injections strategy high_spin: float Maximum spin used in the strategy spinz: array Spin of the injections (for one component) ''' # If the data comes from disable_spin simulation if spinz[0] == 0: return np.ones_like(spinz) spinz = np.array(spinz) bound = np.sign(np.absolute(high_spin) - np.absolute(spinz)) bound += np.sign(1 - np.absolute(spinz)) if key == 'precessing': # Returns the PDF of spins when total spin is # isotropically distributed. Both the component # masses have the same distribution for this case. pdf = (np.log(high_spin - np.log(abs(spinz)))/high_spin/2) idx = np.where(bound != 2) pdf[idx] = 0 return pdf if key == 'aligned': # Returns the PDF of mass when spins are aligned and uniformly # distributed. Component spins are independent for this case. pdf = (np.ones_like(spinz) / 2 / high_spin) idx = np.where(bound != 2) pdf[idx] = 0 return pdf if key == 'disable_spin': # Returns unit array pdf = np.ones_like(spinz) return pdf
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Estimate the probability density of the injections for the spin distribution. Parameters ---------- key: string Injections strategy high_spin: float Maximum spin used in the strategy spinz: array Spin of the injections (for one component)
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/population/scale_injections.py#L419-L468
228,144
gwastro/pycbc
pycbc/population/scale_injections.py
inj_distance_pdf
def inj_distance_pdf(key, distance, low_dist, high_dist, mchirp = 1): ''' Estimate the probability density of the injections for the distance distribution. Parameters ---------- key: string Injections strategy distance: array Array of distances low_dist: float Lower value of distance used in the injection strategy high_dist: float Higher value of distance used in the injection strategy ''' distance = np.array(distance) if key == 'uniform': # Returns the PDF at a distance when # distance is uniformly distributed. pdf = np.ones_like(distance)/(high_dist - low_dist) bound = np.sign((high_dist - distance)*(distance - low_dist)) idx = np.where(bound != 1) pdf[idx] = 0 return pdf if key == 'dchirp': # Returns the PDF at a distance when distance is uniformly # distributed but scaled by the chirp mass weight = (mchirp/_mch_BNS)**(5./6) pdf = np.ones_like(distance) / weight / (high_dist - low_dist) bound = np.sign((weight*high_dist - distance)*(distance - weight*low_dist)) idx = np.where(bound != 1) pdf[idx] = 0 return pdf
python
def inj_distance_pdf(key, distance, low_dist, high_dist, mchirp = 1): ''' Estimate the probability density of the injections for the distance distribution. Parameters ---------- key: string Injections strategy distance: array Array of distances low_dist: float Lower value of distance used in the injection strategy high_dist: float Higher value of distance used in the injection strategy ''' distance = np.array(distance) if key == 'uniform': # Returns the PDF at a distance when # distance is uniformly distributed. pdf = np.ones_like(distance)/(high_dist - low_dist) bound = np.sign((high_dist - distance)*(distance - low_dist)) idx = np.where(bound != 1) pdf[idx] = 0 return pdf if key == 'dchirp': # Returns the PDF at a distance when distance is uniformly # distributed but scaled by the chirp mass weight = (mchirp/_mch_BNS)**(5./6) pdf = np.ones_like(distance) / weight / (high_dist - low_dist) bound = np.sign((weight*high_dist - distance)*(distance - weight*low_dist)) idx = np.where(bound != 1) pdf[idx] = 0 return pdf
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Estimate the probability density of the injections for the distance distribution. Parameters ---------- key: string Injections strategy distance: array Array of distances low_dist: float Lower value of distance used in the injection strategy high_dist: float Higher value of distance used in the injection strategy
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/population/scale_injections.py#L470-L507
228,145
gwastro/pycbc
pycbc/transforms.py
get_common_cbc_transforms
def get_common_cbc_transforms(requested_params, variable_args, valid_params=None): """Determines if any additional parameters from the InferenceFile are needed to get derived parameters that user has asked for. First it will try to add any base parameters that are required to calculate the derived parameters. Then it will add any sampling parameters that are required to calculate the base parameters needed. Parameters ---------- requested_params : list List of parameters that user wants. variable_args : list List of parameters that InferenceFile has. valid_params : list List of parameters that can be accepted. Returns ------- requested_params : list Updated list of parameters that user wants. all_c : list List of BaseTransforms to apply. """ variable_args = set(variable_args) if not isinstance(variable_args, set) \ else variable_args # try to parse any equations by putting all strings together # this will get some garbage but ensures all alphanumeric/underscored # parameter names are added new_params = [] for opt in requested_params: s = "" for ch in opt: s += ch if ch.isalnum() or ch == "_" else " " new_params += s.split(" ") requested_params = set(list(requested_params) + list(new_params)) # can pass a list of valid parameters to remove garbage from parsing above if valid_params: valid_params = set(valid_params) requested_params = requested_params.intersection(valid_params) # find all the transforms for the requested derived parameters # calculated from base parameters from_base_c = [] for converter in common_cbc_inverse_transforms: if (converter.outputs.issubset(variable_args) or converter.outputs.isdisjoint(requested_params)): continue intersect = converter.outputs.intersection(requested_params) if (not intersect or intersect.issubset(converter.inputs) or intersect.issubset(variable_args)): continue requested_params.update(converter.inputs) from_base_c.append(converter) # find all the tranforms for the required base parameters # calculated from sampling parameters to_base_c = [] for converter in common_cbc_forward_transforms: if (converter.inputs.issubset(variable_args) and len(converter.outputs.intersection(requested_params)) > 0): requested_params.update(converter.inputs) to_base_c.append(converter) variable_args.update(converter.outputs) # get list of transforms that converts sampling parameters to the base # parameters and then converts base parameters to the derived parameters all_c = to_base_c + from_base_c return list(requested_params), all_c
python
def get_common_cbc_transforms(requested_params, variable_args, valid_params=None): variable_args = set(variable_args) if not isinstance(variable_args, set) \ else variable_args # try to parse any equations by putting all strings together # this will get some garbage but ensures all alphanumeric/underscored # parameter names are added new_params = [] for opt in requested_params: s = "" for ch in opt: s += ch if ch.isalnum() or ch == "_" else " " new_params += s.split(" ") requested_params = set(list(requested_params) + list(new_params)) # can pass a list of valid parameters to remove garbage from parsing above if valid_params: valid_params = set(valid_params) requested_params = requested_params.intersection(valid_params) # find all the transforms for the requested derived parameters # calculated from base parameters from_base_c = [] for converter in common_cbc_inverse_transforms: if (converter.outputs.issubset(variable_args) or converter.outputs.isdisjoint(requested_params)): continue intersect = converter.outputs.intersection(requested_params) if (not intersect or intersect.issubset(converter.inputs) or intersect.issubset(variable_args)): continue requested_params.update(converter.inputs) from_base_c.append(converter) # find all the tranforms for the required base parameters # calculated from sampling parameters to_base_c = [] for converter in common_cbc_forward_transforms: if (converter.inputs.issubset(variable_args) and len(converter.outputs.intersection(requested_params)) > 0): requested_params.update(converter.inputs) to_base_c.append(converter) variable_args.update(converter.outputs) # get list of transforms that converts sampling parameters to the base # parameters and then converts base parameters to the derived parameters all_c = to_base_c + from_base_c return list(requested_params), all_c
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Determines if any additional parameters from the InferenceFile are needed to get derived parameters that user has asked for. First it will try to add any base parameters that are required to calculate the derived parameters. Then it will add any sampling parameters that are required to calculate the base parameters needed. Parameters ---------- requested_params : list List of parameters that user wants. variable_args : list List of parameters that InferenceFile has. valid_params : list List of parameters that can be accepted. Returns ------- requested_params : list Updated list of parameters that user wants. all_c : list List of BaseTransforms to apply.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/transforms.py#L1517-L1589
228,146
gwastro/pycbc
pycbc/transforms.py
apply_transforms
def apply_transforms(samples, transforms, inverse=False): """Applies a list of BaseTransform instances on a mapping object. Parameters ---------- samples : {FieldArray, dict} Mapping object to apply transforms to. transforms : list List of BaseTransform instances to apply. Nested transforms are assumed to be in order for forward transforms. inverse : bool, optional Apply inverse transforms. In this case transforms will be applied in the opposite order. Default is False. Returns ------- samples : {FieldArray, dict} Mapping object with transforms applied. Same type as input. """ if inverse: transforms = transforms[::-1] for t in transforms: try: if inverse: samples = t.inverse_transform(samples) else: samples = t.transform(samples) except NotImplementedError: continue return samples
python
def apply_transforms(samples, transforms, inverse=False): if inverse: transforms = transforms[::-1] for t in transforms: try: if inverse: samples = t.inverse_transform(samples) else: samples = t.transform(samples) except NotImplementedError: continue return samples
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Applies a list of BaseTransform instances on a mapping object. Parameters ---------- samples : {FieldArray, dict} Mapping object to apply transforms to. transforms : list List of BaseTransform instances to apply. Nested transforms are assumed to be in order for forward transforms. inverse : bool, optional Apply inverse transforms. In this case transforms will be applied in the opposite order. Default is False. Returns ------- samples : {FieldArray, dict} Mapping object with transforms applied. Same type as input.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/transforms.py#L1592-L1621
228,147
gwastro/pycbc
pycbc/transforms.py
compute_jacobian
def compute_jacobian(samples, transforms, inverse=False): """Computes the jacobian of the list of transforms at the given sample points. Parameters ---------- samples : {FieldArray, dict} Mapping object specifying points at which to compute jacobians. transforms : list List of BaseTransform instances to apply. Nested transforms are assumed to be in order for forward transforms. inverse : bool, optional Compute inverse jacobians. Default is False. Returns ------- float : The product of the jacobians of all fo the transforms. """ j = 1. if inverse: for t in transforms: j *= t.inverse_jacobian(samples) else: for t in transforms: j *= t.jacobian(samples) return j
python
def compute_jacobian(samples, transforms, inverse=False): j = 1. if inverse: for t in transforms: j *= t.inverse_jacobian(samples) else: for t in transforms: j *= t.jacobian(samples) return j
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Computes the jacobian of the list of transforms at the given sample points. Parameters ---------- samples : {FieldArray, dict} Mapping object specifying points at which to compute jacobians. transforms : list List of BaseTransform instances to apply. Nested transforms are assumed to be in order for forward transforms. inverse : bool, optional Compute inverse jacobians. Default is False. Returns ------- float : The product of the jacobians of all fo the transforms.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/transforms.py#L1624-L1650
228,148
gwastro/pycbc
pycbc/transforms.py
order_transforms
def order_transforms(transforms): """Orders transforms to ensure proper chaining. For example, if `transforms = [B, A, C]`, and `A` produces outputs needed by `B`, the transforms will be re-rorderd to `[A, B, C]`. Parameters ---------- transforms : list List of transform instances to order. Outputs ------- list : List of transformed ordered such that forward transforms can be carried out without error. """ # get a set of all inputs and all outputs outputs = set().union(*[t.outputs for t in transforms]) out = [] remaining = [t for t in transforms] while remaining: # pull out transforms that have no inputs in the set of outputs leftover = [] for t in remaining: if t.inputs.isdisjoint(outputs): out.append(t) outputs -= t.outputs else: leftover.append(t) remaining = leftover return out
python
def order_transforms(transforms): # get a set of all inputs and all outputs outputs = set().union(*[t.outputs for t in transforms]) out = [] remaining = [t for t in transforms] while remaining: # pull out transforms that have no inputs in the set of outputs leftover = [] for t in remaining: if t.inputs.isdisjoint(outputs): out.append(t) outputs -= t.outputs else: leftover.append(t) remaining = leftover return out
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Orders transforms to ensure proper chaining. For example, if `transforms = [B, A, C]`, and `A` produces outputs needed by `B`, the transforms will be re-rorderd to `[A, B, C]`. Parameters ---------- transforms : list List of transform instances to order. Outputs ------- list : List of transformed ordered such that forward transforms can be carried out without error.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/transforms.py#L1653-L1684
228,149
gwastro/pycbc
pycbc/transforms.py
read_transforms_from_config
def read_transforms_from_config(cp, section="transforms"): """Returns a list of PyCBC transform instances for a section in the given configuration file. If the transforms are nested (i.e., the output of one transform is the input of another), the returned list will be sorted by the order of the nests. Parameters ---------- cp : WorflowConfigParser An open config file to read. section : {"transforms", string} Prefix on section names from which to retrieve the transforms. Returns ------- list A list of the parsed transforms. """ trans = [] for subsection in cp.get_subsections(section): name = cp.get_opt_tag(section, "name", subsection) t = transforms[name].from_config(cp, section, subsection) trans.append(t) return order_transforms(trans)
python
def read_transforms_from_config(cp, section="transforms"): trans = [] for subsection in cp.get_subsections(section): name = cp.get_opt_tag(section, "name", subsection) t = transforms[name].from_config(cp, section, subsection) trans.append(t) return order_transforms(trans)
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Returns a list of PyCBC transform instances for a section in the given configuration file. If the transforms are nested (i.e., the output of one transform is the input of another), the returned list will be sorted by the order of the nests. Parameters ---------- cp : WorflowConfigParser An open config file to read. section : {"transforms", string} Prefix on section names from which to retrieve the transforms. Returns ------- list A list of the parsed transforms.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/transforms.py#L1686-L1711
228,150
gwastro/pycbc
pycbc/transforms.py
BaseTransform.format_output
def format_output(old_maps, new_maps): """ This function takes the returned dict from `transform` and converts it to the same datatype as the input. Parameters ---------- old_maps : {FieldArray, dict} The mapping object to add new maps to. new_maps : dict A dict with key as parameter name and value is numpy.array. Returns ------- {FieldArray, dict} The old_maps object with new keys from new_maps. """ # if input is FieldArray then return FieldArray if isinstance(old_maps, record.FieldArray): keys = new_maps.keys() values = [new_maps[key] for key in keys] for key, vals in zip(keys, values): try: old_maps = old_maps.add_fields([vals], [key]) except ValueError: old_maps[key] = vals return old_maps # if input is dict then return dict elif isinstance(old_maps, dict): out = old_maps.copy() out.update(new_maps) return out # else error else: raise TypeError("Input type must be FieldArray or dict.")
python
def format_output(old_maps, new_maps): # if input is FieldArray then return FieldArray if isinstance(old_maps, record.FieldArray): keys = new_maps.keys() values = [new_maps[key] for key in keys] for key, vals in zip(keys, values): try: old_maps = old_maps.add_fields([vals], [key]) except ValueError: old_maps[key] = vals return old_maps # if input is dict then return dict elif isinstance(old_maps, dict): out = old_maps.copy() out.update(new_maps) return out # else error else: raise TypeError("Input type must be FieldArray or dict.")
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This function takes the returned dict from `transform` and converts it to the same datatype as the input. Parameters ---------- old_maps : {FieldArray, dict} The mapping object to add new maps to. new_maps : dict A dict with key as parameter name and value is numpy.array. Returns ------- {FieldArray, dict} The old_maps object with new keys from new_maps.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/transforms.py#L68-L104
228,151
gwastro/pycbc
pycbc/transforms.py
BaseTransform.from_config
def from_config(cls, cp, section, outputs, skip_opts=None, additional_opts=None): """Initializes a transform from the given section. Parameters ---------- cp : pycbc.workflow.WorkflowConfigParser A parsed configuration file that contains the transform options. section : str Name of the section in the configuration file. outputs : str The names of the parameters that are output by this transformation, separated by `VARARGS_DELIM`. These must appear in the "tag" part of the section header. skip_opts : list, optional Do not read options in the given list. additional_opts : dict, optional Any additional arguments to pass to the class. If an option is provided that also exists in the config file, the value provided will be used instead of being read from the file. Returns ------- cls An instance of the class. """ tag = outputs if skip_opts is None: skip_opts = [] if additional_opts is None: additional_opts = {} else: additional_opts = additional_opts.copy() outputs = set(outputs.split(VARARGS_DELIM)) special_args = ['name'] + skip_opts + additional_opts.keys() # get any extra arguments to pass to init extra_args = {} for opt in cp.options("-".join([section, tag])): if opt in special_args: continue # check if option can be cast as a float val = cp.get_opt_tag(section, opt, tag) try: val = float(val) except ValueError: pass # add option extra_args.update({opt:val}) extra_args.update(additional_opts) out = cls(**extra_args) # check that the outputs matches if outputs-out.outputs != set() or out.outputs-outputs != set(): raise ValueError("outputs of class do not match outputs specified " "in section") return out
python
def from_config(cls, cp, section, outputs, skip_opts=None, additional_opts=None): tag = outputs if skip_opts is None: skip_opts = [] if additional_opts is None: additional_opts = {} else: additional_opts = additional_opts.copy() outputs = set(outputs.split(VARARGS_DELIM)) special_args = ['name'] + skip_opts + additional_opts.keys() # get any extra arguments to pass to init extra_args = {} for opt in cp.options("-".join([section, tag])): if opt in special_args: continue # check if option can be cast as a float val = cp.get_opt_tag(section, opt, tag) try: val = float(val) except ValueError: pass # add option extra_args.update({opt:val}) extra_args.update(additional_opts) out = cls(**extra_args) # check that the outputs matches if outputs-out.outputs != set() or out.outputs-outputs != set(): raise ValueError("outputs of class do not match outputs specified " "in section") return out
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Initializes a transform from the given section. Parameters ---------- cp : pycbc.workflow.WorkflowConfigParser A parsed configuration file that contains the transform options. section : str Name of the section in the configuration file. outputs : str The names of the parameters that are output by this transformation, separated by `VARARGS_DELIM`. These must appear in the "tag" part of the section header. skip_opts : list, optional Do not read options in the given list. additional_opts : dict, optional Any additional arguments to pass to the class. If an option is provided that also exists in the config file, the value provided will be used instead of being read from the file. Returns ------- cls An instance of the class.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/transforms.py#L107-L161
228,152
gwastro/pycbc
pycbc/transforms.py
CustomTransform._createscratch
def _createscratch(self, shape=1): """Creates a scratch FieldArray to use for transforms.""" self._scratch = record.FieldArray(shape, dtype=[(p, float) for p in self.inputs])
python
def _createscratch(self, shape=1): self._scratch = record.FieldArray(shape, dtype=[(p, float) for p in self.inputs])
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Creates a scratch FieldArray to use for transforms.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/transforms.py#L214-L217
228,153
gwastro/pycbc
pycbc/transforms.py
CustomTransform._copytoscratch
def _copytoscratch(self, maps): """Copies the data in maps to the scratch space. If the maps contain arrays that are not the same shape as the scratch space, a new scratch space will be created. """ try: for p in self.inputs: self._scratch[p][:] = maps[p] except ValueError: # we'll get a ValueError if the scratch space isn't the same size # as the maps; in that case, re-create the scratch space with the # appropriate size and try again invals = maps[list(self.inputs)[0]] if isinstance(invals, numpy.ndarray): shape = invals.shape else: shape = len(invals) self._createscratch(shape) for p in self.inputs: self._scratch[p][:] = maps[p]
python
def _copytoscratch(self, maps): try: for p in self.inputs: self._scratch[p][:] = maps[p] except ValueError: # we'll get a ValueError if the scratch space isn't the same size # as the maps; in that case, re-create the scratch space with the # appropriate size and try again invals = maps[list(self.inputs)[0]] if isinstance(invals, numpy.ndarray): shape = invals.shape else: shape = len(invals) self._createscratch(shape) for p in self.inputs: self._scratch[p][:] = maps[p]
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Copies the data in maps to the scratch space. If the maps contain arrays that are not the same shape as the scratch space, a new scratch space will be created.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/transforms.py#L219-L239
228,154
gwastro/pycbc
pycbc/transforms.py
CustomTransform._getslice
def _getslice(self, maps): """Determines how to slice the scratch for returning values.""" invals = maps[list(self.inputs)[0]] if not isinstance(invals, (numpy.ndarray, list)): getslice = 0 else: getslice = slice(None, None) return getslice
python
def _getslice(self, maps): invals = maps[list(self.inputs)[0]] if not isinstance(invals, (numpy.ndarray, list)): getslice = 0 else: getslice = slice(None, None) return getslice
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Determines how to slice the scratch for returning values.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/transforms.py#L241-L248
228,155
gwastro/pycbc
pycbc/transforms.py
CustomTransform.transform
def transform(self, maps): """Applies the transform functions to the given maps object. Parameters ---------- maps : dict, or FieldArray Returns ------- dict or FieldArray A map object containing the transformed variables, along with the original variables. The type of the output will be the same as the input. """ if self.transform_functions is None: raise NotImplementedError("no transform function(s) provided") # copy values to scratch self._copytoscratch(maps) # ensure that we return the same data type in each dict getslice = self._getslice(maps) # evaluate the functions out = {p: self._scratch[func][getslice] for p,func in self.transform_functions.items()} return self.format_output(maps, out)
python
def transform(self, maps): if self.transform_functions is None: raise NotImplementedError("no transform function(s) provided") # copy values to scratch self._copytoscratch(maps) # ensure that we return the same data type in each dict getslice = self._getslice(maps) # evaluate the functions out = {p: self._scratch[func][getslice] for p,func in self.transform_functions.items()} return self.format_output(maps, out)
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Applies the transform functions to the given maps object. Parameters ---------- maps : dict, or FieldArray Returns ------- dict or FieldArray A map object containing the transformed variables, along with the original variables. The type of the output will be the same as the input.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/transforms.py#L250-L273
228,156
gwastro/pycbc
pycbc/transforms.py
CustomTransform.from_config
def from_config(cls, cp, section, outputs): """Loads a CustomTransform from the given config file. Example section: .. code-block:: ini [{section}-outvar1+outvar2] name = custom inputs = inputvar1, inputvar2 outvar1 = func1(inputs) outvar2 = func2(inputs) jacobian = func(inputs) """ tag = outputs outputs = set(outputs.split(VARARGS_DELIM)) inputs = map(str.strip, cp.get_opt_tag(section, 'inputs', tag).split(',')) # get the functions for each output transform_functions = {} for var in outputs: # check if option can be cast as a float func = cp.get_opt_tag(section, var, tag) transform_functions[var] = func s = '-'.join([section, tag]) if cp.has_option(s, 'jacobian'): jacobian = cp.get_opt_tag(section, 'jacobian', tag) else: jacobian = None return cls(inputs, outputs, transform_functions, jacobian=jacobian)
python
def from_config(cls, cp, section, outputs): tag = outputs outputs = set(outputs.split(VARARGS_DELIM)) inputs = map(str.strip, cp.get_opt_tag(section, 'inputs', tag).split(',')) # get the functions for each output transform_functions = {} for var in outputs: # check if option can be cast as a float func = cp.get_opt_tag(section, var, tag) transform_functions[var] = func s = '-'.join([section, tag]) if cp.has_option(s, 'jacobian'): jacobian = cp.get_opt_tag(section, 'jacobian', tag) else: jacobian = None return cls(inputs, outputs, transform_functions, jacobian=jacobian)
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Loads a CustomTransform from the given config file. Example section: .. code-block:: ini [{section}-outvar1+outvar2] name = custom inputs = inputvar1, inputvar2 outvar1 = func1(inputs) outvar2 = func2(inputs) jacobian = func(inputs)
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/transforms.py#L286-L315
228,157
gwastro/pycbc
pycbc/transforms.py
MchirpQToMass1Mass2.transform
def transform(self, maps): """This function transforms from chirp mass and mass ratio to component masses. Parameters ---------- maps : a mapping object Examples -------- Convert a dict of numpy.array: >>> import numpy >>> from pycbc import transforms >>> t = transforms.MchirpQToMass1Mass2() >>> t.transform({'mchirp': numpy.array([10.]), 'q': numpy.array([2.])}) {'mass1': array([ 16.4375183]), 'mass2': array([ 8.21875915]), 'mchirp': array([ 10.]), 'q': array([ 2.])} Returns ------- out : dict A dict with key as parameter name and value as numpy.array or float of transformed values. """ out = {} out[parameters.mass1] = conversions.mass1_from_mchirp_q( maps[parameters.mchirp], maps[parameters.q]) out[parameters.mass2] = conversions.mass2_from_mchirp_q( maps[parameters.mchirp], maps[parameters.q]) return self.format_output(maps, out)
python
def transform(self, maps): out = {} out[parameters.mass1] = conversions.mass1_from_mchirp_q( maps[parameters.mchirp], maps[parameters.q]) out[parameters.mass2] = conversions.mass2_from_mchirp_q( maps[parameters.mchirp], maps[parameters.q]) return self.format_output(maps, out)
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This function transforms from chirp mass and mass ratio to component masses. Parameters ---------- maps : a mapping object Examples -------- Convert a dict of numpy.array: >>> import numpy >>> from pycbc import transforms >>> t = transforms.MchirpQToMass1Mass2() >>> t.transform({'mchirp': numpy.array([10.]), 'q': numpy.array([2.])}) {'mass1': array([ 16.4375183]), 'mass2': array([ 8.21875915]), 'mchirp': array([ 10.]), 'q': array([ 2.])} Returns ------- out : dict A dict with key as parameter name and value as numpy.array or float of transformed values.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/transforms.py#L333-L365
228,158
gwastro/pycbc
pycbc/transforms.py
MchirpQToMass1Mass2.inverse_transform
def inverse_transform(self, maps): """This function transforms from component masses to chirp mass and mass ratio. Parameters ---------- maps : a mapping object Examples -------- Convert a dict of numpy.array: >>> import numpy >>> from pycbc import transforms >>> t = transforms.MchirpQToMass1Mass2() >>> t.inverse_transform({'mass1': numpy.array([16.4]), 'mass2': numpy.array([8.2])}) {'mass1': array([ 16.4]), 'mass2': array([ 8.2]), 'mchirp': array([ 9.97717521]), 'q': 2.0} Returns ------- out : dict A dict with key as parameter name and value as numpy.array or float of transformed values. """ out = {} m1 = maps[parameters.mass1] m2 = maps[parameters.mass2] out[parameters.mchirp] = conversions.mchirp_from_mass1_mass2(m1, m2) out[parameters.q] = m1 / m2 return self.format_output(maps, out)
python
def inverse_transform(self, maps): out = {} m1 = maps[parameters.mass1] m2 = maps[parameters.mass2] out[parameters.mchirp] = conversions.mchirp_from_mass1_mass2(m1, m2) out[parameters.q] = m1 / m2 return self.format_output(maps, out)
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This function transforms from component masses to chirp mass and mass ratio. Parameters ---------- maps : a mapping object Examples -------- Convert a dict of numpy.array: >>> import numpy >>> from pycbc import transforms >>> t = transforms.MchirpQToMass1Mass2() >>> t.inverse_transform({'mass1': numpy.array([16.4]), 'mass2': numpy.array([8.2])}) {'mass1': array([ 16.4]), 'mass2': array([ 8.2]), 'mchirp': array([ 9.97717521]), 'q': 2.0} Returns ------- out : dict A dict with key as parameter name and value as numpy.array or float of transformed values.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/transforms.py#L367-L397
228,159
gwastro/pycbc
pycbc/transforms.py
MchirpQToMass1Mass2.jacobian
def jacobian(self, maps): """Returns the Jacobian for transforming mchirp and q to mass1 and mass2. """ mchirp = maps[parameters.mchirp] q = maps[parameters.q] return mchirp * ((1.+q)/q**3.)**(2./5)
python
def jacobian(self, maps): mchirp = maps[parameters.mchirp] q = maps[parameters.q] return mchirp * ((1.+q)/q**3.)**(2./5)
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Returns the Jacobian for transforming mchirp and q to mass1 and mass2.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/transforms.py#L399-L405
228,160
gwastro/pycbc
pycbc/transforms.py
MchirpQToMass1Mass2.inverse_jacobian
def inverse_jacobian(self, maps): """Returns the Jacobian for transforming mass1 and mass2 to mchirp and q. """ m1 = maps[parameters.mass1] m2 = maps[parameters.mass2] return conversions.mchirp_from_mass1_mass2(m1, m2)/m2**2.
python
def inverse_jacobian(self, maps): m1 = maps[parameters.mass1] m2 = maps[parameters.mass2] return conversions.mchirp_from_mass1_mass2(m1, m2)/m2**2.
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Returns the Jacobian for transforming mass1 and mass2 to mchirp and q.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/transforms.py#L407-L413
228,161
gwastro/pycbc
pycbc/transforms.py
MchirpEtaToMass1Mass2.transform
def transform(self, maps): """This function transforms from chirp mass and symmetric mass ratio to component masses. Parameters ---------- maps : a mapping object Examples -------- Convert a dict of numpy.array: >>> import numpy >>> from pycbc import transforms >>> t = transforms.MchirpEtaToMass1Mass2() >>> t.transform({'mchirp': numpy.array([10.]), 'eta': numpy.array([0.25])}) {'mass1': array([ 16.4375183]), 'mass2': array([ 8.21875915]), 'mchirp': array([ 10.]), 'eta': array([ 0.25])} Returns ------- out : dict A dict with key as parameter name and value as numpy.array or float of transformed values. """ out = {} out[parameters.mass1] = conversions.mass1_from_mchirp_eta( maps[parameters.mchirp], maps[parameters.eta]) out[parameters.mass2] = conversions.mass2_from_mchirp_eta( maps[parameters.mchirp], maps[parameters.eta]) return self.format_output(maps, out)
python
def transform(self, maps): out = {} out[parameters.mass1] = conversions.mass1_from_mchirp_eta( maps[parameters.mchirp], maps[parameters.eta]) out[parameters.mass2] = conversions.mass2_from_mchirp_eta( maps[parameters.mchirp], maps[parameters.eta]) return self.format_output(maps, out)
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This function transforms from chirp mass and symmetric mass ratio to component masses. Parameters ---------- maps : a mapping object Examples -------- Convert a dict of numpy.array: >>> import numpy >>> from pycbc import transforms >>> t = transforms.MchirpEtaToMass1Mass2() >>> t.transform({'mchirp': numpy.array([10.]), 'eta': numpy.array([0.25])}) {'mass1': array([ 16.4375183]), 'mass2': array([ 8.21875915]), 'mchirp': array([ 10.]), 'eta': array([ 0.25])} Returns ------- out : dict A dict with key as parameter name and value as numpy.array or float of transformed values.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/transforms.py#L422-L454
228,162
gwastro/pycbc
pycbc/transforms.py
MchirpEtaToMass1Mass2.jacobian
def jacobian(self, maps): """Returns the Jacobian for transforming mchirp and eta to mass1 and mass2. """ mchirp = maps[parameters.mchirp] eta = maps[parameters.eta] m1 = conversions.mass1_from_mchirp_eta(mchirp, eta) m2 = conversions.mass2_from_mchirp_eta(mchirp, eta) return mchirp * (m1 - m2) / (m1 + m2)**3
python
def jacobian(self, maps): mchirp = maps[parameters.mchirp] eta = maps[parameters.eta] m1 = conversions.mass1_from_mchirp_eta(mchirp, eta) m2 = conversions.mass2_from_mchirp_eta(mchirp, eta) return mchirp * (m1 - m2) / (m1 + m2)**3
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Returns the Jacobian for transforming mchirp and eta to mass1 and mass2.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/transforms.py#L488-L496
228,163
gwastro/pycbc
pycbc/transforms.py
MchirpEtaToMass1Mass2.inverse_jacobian
def inverse_jacobian(self, maps): """Returns the Jacobian for transforming mass1 and mass2 to mchirp and eta. """ m1 = maps[parameters.mass1] m2 = maps[parameters.mass2] mchirp = conversions.mchirp_from_mass1_mass2(m1, m2) eta = conversions.eta_from_mass1_mass2(m1, m2) return -1. * mchirp / eta**(6./5)
python
def inverse_jacobian(self, maps): m1 = maps[parameters.mass1] m2 = maps[parameters.mass2] mchirp = conversions.mchirp_from_mass1_mass2(m1, m2) eta = conversions.eta_from_mass1_mass2(m1, m2) return -1. * mchirp / eta**(6./5)
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Returns the Jacobian for transforming mass1 and mass2 to mchirp and eta.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/transforms.py#L498-L506
228,164
gwastro/pycbc
pycbc/transforms.py
ChirpDistanceToDistance.transform
def transform(self, maps): """This function transforms from chirp distance to luminosity distance, given the chirp mass. Parameters ---------- maps : a mapping object Examples -------- Convert a dict of numpy.array: >>> import numpy as np >>> from pycbc import transforms >>> t = transforms.ChirpDistanceToDistance() >>> t.transform({'chirp_distance': np.array([40.]), 'mchirp': np.array([1.2])}) {'mchirp': array([ 1.2]), 'chirp_distance': array([ 40.]), 'distance': array([ 39.48595679])} Returns ------- out : dict A dict with key as parameter name and value as numpy.array or float of transformed values. """ out = {} out[parameters.distance] = \ conversions.distance_from_chirp_distance_mchirp( maps[parameters.chirp_distance], maps[parameters.mchirp], ref_mass=self.ref_mass) return self.format_output(maps, out)
python
def transform(self, maps): out = {} out[parameters.distance] = \ conversions.distance_from_chirp_distance_mchirp( maps[parameters.chirp_distance], maps[parameters.mchirp], ref_mass=self.ref_mass) return self.format_output(maps, out)
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This function transforms from chirp distance to luminosity distance, given the chirp mass. Parameters ---------- maps : a mapping object Examples -------- Convert a dict of numpy.array: >>> import numpy as np >>> from pycbc import transforms >>> t = transforms.ChirpDistanceToDistance() >>> t.transform({'chirp_distance': np.array([40.]), 'mchirp': np.array([1.2])}) {'mchirp': array([ 1.2]), 'chirp_distance': array([ 40.]), 'distance': array([ 39.48595679])} Returns ------- out : dict A dict with key as parameter name and value as numpy.array or float of transformed values.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/transforms.py#L520-L550
228,165
gwastro/pycbc
pycbc/transforms.py
ChirpDistanceToDistance.inverse_transform
def inverse_transform(self, maps): """This function transforms from luminosity distance to chirp distance, given the chirp mass. Parameters ---------- maps : a mapping object Examples -------- Convert a dict of numpy.array: >>> import numpy as np >>> from pycbc import transforms >>> t = transforms.ChirpDistanceToDistance() >>> t.inverse_transform({'distance': np.array([40.]), 'mchirp': np.array([1.2])}) {'distance': array([ 40.]), 'chirp_distance': array([ 40.52073522]), 'mchirp': array([ 1.2])} Returns ------- out : dict A dict with key as parameter name and value as numpy.array or float of transformed values. """ out = {} out[parameters.chirp_distance] = \ conversions.chirp_distance(maps[parameters.distance], maps[parameters.mchirp], ref_mass=self.ref_mass) return self.format_output(maps, out)
python
def inverse_transform(self, maps): out = {} out[parameters.chirp_distance] = \ conversions.chirp_distance(maps[parameters.distance], maps[parameters.mchirp], ref_mass=self.ref_mass) return self.format_output(maps, out)
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This function transforms from luminosity distance to chirp distance, given the chirp mass. Parameters ---------- maps : a mapping object Examples -------- Convert a dict of numpy.array: >>> import numpy as np >>> from pycbc import transforms >>> t = transforms.ChirpDistanceToDistance() >>> t.inverse_transform({'distance': np.array([40.]), 'mchirp': np.array([1.2])}) {'distance': array([ 40.]), 'chirp_distance': array([ 40.52073522]), 'mchirp': array([ 1.2])} Returns ------- out : dict A dict with key as parameter name and value as numpy.array or float of transformed values.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/transforms.py#L552-L580
228,166
gwastro/pycbc
pycbc/transforms.py
SphericalSpin1ToCartesianSpin1.transform
def transform(self, maps): """ This function transforms from spherical to cartesian spins. Parameters ---------- maps : a mapping object Examples -------- Convert a dict of numpy.array: >>> import numpy >>> from pycbc import transforms >>> t = transforms.SphericalSpin1ToCartesianSpin1() >>> t.transform({'spin1_a': numpy.array([0.1]), 'spin1_azimuthal': numpy.array([0.1]), 'spin1_polar': numpy.array([0.1])}) {'spin1_a': array([ 0.1]), 'spin1_azimuthal': array([ 0.1]), 'spin1_polar': array([ 0.1]), 'spin2x': array([ 0.00993347]), 'spin2y': array([ 0.00099667]), 'spin2z': array([ 0.09950042])} Returns ------- out : dict A dict with key as parameter name and value as numpy.array or float of transformed values. """ a, az, po = self._inputs data = coordinates.spherical_to_cartesian(maps[a], maps[az], maps[po]) out = {param : val for param, val in zip(self._outputs, data)} return self.format_output(maps, out)
python
def transform(self, maps): a, az, po = self._inputs data = coordinates.spherical_to_cartesian(maps[a], maps[az], maps[po]) out = {param : val for param, val in zip(self._outputs, data)} return self.format_output(maps, out)
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This function transforms from spherical to cartesian spins. Parameters ---------- maps : a mapping object Examples -------- Convert a dict of numpy.array: >>> import numpy >>> from pycbc import transforms >>> t = transforms.SphericalSpin1ToCartesianSpin1() >>> t.transform({'spin1_a': numpy.array([0.1]), 'spin1_azimuthal': numpy.array([0.1]), 'spin1_polar': numpy.array([0.1])}) {'spin1_a': array([ 0.1]), 'spin1_azimuthal': array([ 0.1]), 'spin1_polar': array([ 0.1]), 'spin2x': array([ 0.00993347]), 'spin2y': array([ 0.00099667]), 'spin2z': array([ 0.09950042])} Returns ------- out : dict A dict with key as parameter name and value as numpy.array or float of transformed values.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/transforms.py#L609-L636
228,167
gwastro/pycbc
pycbc/transforms.py
SphericalSpin1ToCartesianSpin1.inverse_transform
def inverse_transform(self, maps): """ This function transforms from cartesian to spherical spins. Parameters ---------- maps : a mapping object Returns ------- out : dict A dict with key as parameter name and value as numpy.array or float of transformed values. """ sx, sy, sz = self._outputs data = coordinates.cartesian_to_spherical(maps[sx], maps[sy], maps[sz]) out = {param : val for param, val in zip(self._outputs, data)} return self.format_output(maps, out)
python
def inverse_transform(self, maps): sx, sy, sz = self._outputs data = coordinates.cartesian_to_spherical(maps[sx], maps[sy], maps[sz]) out = {param : val for param, val in zip(self._outputs, data)} return self.format_output(maps, out)
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This function transforms from cartesian to spherical spins. Parameters ---------- maps : a mapping object Returns ------- out : dict A dict with key as parameter name and value as numpy.array or float of transformed values.
[ "This", "function", "transforms", "from", "cartesian", "to", "spherical", "spins", "." ]
7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/transforms.py#L638-L654
228,168
gwastro/pycbc
pycbc/transforms.py
DistanceToRedshift.transform
def transform(self, maps): """ This function transforms from distance to redshift. Parameters ---------- maps : a mapping object Examples -------- Convert a dict of numpy.array: >>> import numpy >>> from pycbc import transforms >>> t = transforms.DistanceToRedshift() >>> t.transform({'distance': numpy.array([1000])}) {'distance': array([1000]), 'redshift': 0.19650987609144363} Returns ------- out : dict A dict with key as parameter name and value as numpy.array or float of transformed values. """ out = {parameters.redshift : cosmology.redshift( maps[parameters.distance])} return self.format_output(maps, out)
python
def transform(self, maps): out = {parameters.redshift : cosmology.redshift( maps[parameters.distance])} return self.format_output(maps, out)
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This function transforms from distance to redshift. Parameters ---------- maps : a mapping object Examples -------- Convert a dict of numpy.array: >>> import numpy >>> from pycbc import transforms >>> t = transforms.DistanceToRedshift() >>> t.transform({'distance': numpy.array([1000])}) {'distance': array([1000]), 'redshift': 0.19650987609144363} Returns ------- out : dict A dict with key as parameter name and value as numpy.array or float of transformed values.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/transforms.py#L676-L701
228,169
gwastro/pycbc
pycbc/transforms.py
AlignedMassSpinToCartesianSpin.transform
def transform(self, maps): """ This function transforms from aligned mass-weighted spins to cartesian spins aligned along the z-axis. Parameters ---------- maps : a mapping object Returns ------- out : dict A dict with key as parameter name and value as numpy.array or float of transformed values. """ mass1 = maps[parameters.mass1] mass2 = maps[parameters.mass2] out = {} out[parameters.spin1z] = \ conversions.spin1z_from_mass1_mass2_chi_eff_chi_a( mass1, mass2, maps[parameters.chi_eff], maps["chi_a"]) out[parameters.spin2z] = \ conversions.spin2z_from_mass1_mass2_chi_eff_chi_a( mass1, mass2, maps[parameters.chi_eff], maps["chi_a"]) return self.format_output(maps, out)
python
def transform(self, maps): mass1 = maps[parameters.mass1] mass2 = maps[parameters.mass2] out = {} out[parameters.spin1z] = \ conversions.spin1z_from_mass1_mass2_chi_eff_chi_a( mass1, mass2, maps[parameters.chi_eff], maps["chi_a"]) out[parameters.spin2z] = \ conversions.spin2z_from_mass1_mass2_chi_eff_chi_a( mass1, mass2, maps[parameters.chi_eff], maps["chi_a"]) return self.format_output(maps, out)
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This function transforms from aligned mass-weighted spins to cartesian spins aligned along the z-axis. Parameters ---------- maps : a mapping object Returns ------- out : dict A dict with key as parameter name and value as numpy.array or float of transformed values.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/transforms.py#L712-L737
228,170
gwastro/pycbc
pycbc/transforms.py
AlignedMassSpinToCartesianSpin.inverse_transform
def inverse_transform(self, maps): """ This function transforms from component masses and cartesian spins to mass-weighted spin parameters aligned with the angular momentum. Parameters ---------- maps : a mapping object Returns ------- out : dict A dict with key as parameter name and value as numpy.array or float of transformed values. """ mass1 = maps[parameters.mass1] spin1z = maps[parameters.spin1z] mass2 = maps[parameters.mass2] spin2z = maps[parameters.spin2z] out = { parameters.chi_eff : conversions.chi_eff(mass1, mass2, spin1z, spin2z), "chi_a" : conversions.chi_a(mass1, mass2, spin1z, spin2z), } return self.format_output(maps, out)
python
def inverse_transform(self, maps): mass1 = maps[parameters.mass1] spin1z = maps[parameters.spin1z] mass2 = maps[parameters.mass2] spin2z = maps[parameters.spin2z] out = { parameters.chi_eff : conversions.chi_eff(mass1, mass2, spin1z, spin2z), "chi_a" : conversions.chi_a(mass1, mass2, spin1z, spin2z), } return self.format_output(maps, out)
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This function transforms from component masses and cartesian spins to mass-weighted spin parameters aligned with the angular momentum. Parameters ---------- maps : a mapping object Returns ------- out : dict A dict with key as parameter name and value as numpy.array or float of transformed values.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/transforms.py#L739-L762
228,171
gwastro/pycbc
pycbc/transforms.py
PrecessionMassSpinToCartesianSpin.transform
def transform(self, maps): """ This function transforms from mass-weighted spins to caretsian spins in the x-y plane. Parameters ---------- maps : a mapping object Returns ------- out : dict A dict with key as parameter name and value as numpy.array or float of transformed values. """ # find primary and secondary masses # since functions in conversions.py map to primary/secondary masses m_p = conversions.primary_mass(maps["mass1"], maps["mass2"]) m_s = conversions.secondary_mass(maps["mass1"], maps["mass2"]) # find primary and secondary xi # can re-purpose spin functions for just a generic variable xi_p = conversions.primary_spin(maps["mass1"], maps["mass2"], maps["xi1"], maps["xi2"]) xi_s = conversions.secondary_spin(maps["mass1"], maps["mass2"], maps["xi1"], maps["xi2"]) # convert using convention of conversions.py that is mass1 > mass2 spinx_p = conversions.spin1x_from_xi1_phi_a_phi_s( xi_p, maps["phi_a"], maps["phi_s"]) spiny_p = conversions.spin1y_from_xi1_phi_a_phi_s( xi_p, maps["phi_a"], maps["phi_s"]) spinx_s = conversions.spin2x_from_mass1_mass2_xi2_phi_a_phi_s( m_p, m_s, xi_s, maps["phi_a"], maps["phi_s"]) spiny_s = conversions.spin2y_from_mass1_mass2_xi2_phi_a_phi_s( m_p, m_s, xi_s, maps["phi_a"], maps["phi_s"]) # map parameters from primary/secondary to indices out = {} if isinstance(m_p, numpy.ndarray): mass1, mass2 = map(numpy.array, [maps["mass1"], maps["mass2"]]) mask_mass1_gte_mass2 = mass1 >= mass2 mask_mass1_lt_mass2 = mass1 < mass2 out[parameters.spin1x] = numpy.concatenate(( spinx_p[mask_mass1_gte_mass2], spinx_s[mask_mass1_lt_mass2])) out[parameters.spin1y] = numpy.concatenate(( spiny_p[mask_mass1_gte_mass2], spiny_s[mask_mass1_lt_mass2])) out[parameters.spin2x] = numpy.concatenate(( spinx_p[mask_mass1_lt_mass2], spinx_s[mask_mass1_gte_mass2])) out[parameters.spin2y] = numpy.concatenate(( spinx_p[mask_mass1_lt_mass2], spinx_s[mask_mass1_gte_mass2])) elif maps["mass1"] > maps["mass2"]: out[parameters.spin1x] = spinx_p out[parameters.spin1y] = spiny_p out[parameters.spin2x] = spinx_s out[parameters.spin2y] = spiny_s else: out[parameters.spin1x] = spinx_s out[parameters.spin1y] = spiny_s out[parameters.spin2x] = spinx_p out[parameters.spin2y] = spiny_p return self.format_output(maps, out)
python
def transform(self, maps): # find primary and secondary masses # since functions in conversions.py map to primary/secondary masses m_p = conversions.primary_mass(maps["mass1"], maps["mass2"]) m_s = conversions.secondary_mass(maps["mass1"], maps["mass2"]) # find primary and secondary xi # can re-purpose spin functions for just a generic variable xi_p = conversions.primary_spin(maps["mass1"], maps["mass2"], maps["xi1"], maps["xi2"]) xi_s = conversions.secondary_spin(maps["mass1"], maps["mass2"], maps["xi1"], maps["xi2"]) # convert using convention of conversions.py that is mass1 > mass2 spinx_p = conversions.spin1x_from_xi1_phi_a_phi_s( xi_p, maps["phi_a"], maps["phi_s"]) spiny_p = conversions.spin1y_from_xi1_phi_a_phi_s( xi_p, maps["phi_a"], maps["phi_s"]) spinx_s = conversions.spin2x_from_mass1_mass2_xi2_phi_a_phi_s( m_p, m_s, xi_s, maps["phi_a"], maps["phi_s"]) spiny_s = conversions.spin2y_from_mass1_mass2_xi2_phi_a_phi_s( m_p, m_s, xi_s, maps["phi_a"], maps["phi_s"]) # map parameters from primary/secondary to indices out = {} if isinstance(m_p, numpy.ndarray): mass1, mass2 = map(numpy.array, [maps["mass1"], maps["mass2"]]) mask_mass1_gte_mass2 = mass1 >= mass2 mask_mass1_lt_mass2 = mass1 < mass2 out[parameters.spin1x] = numpy.concatenate(( spinx_p[mask_mass1_gte_mass2], spinx_s[mask_mass1_lt_mass2])) out[parameters.spin1y] = numpy.concatenate(( spiny_p[mask_mass1_gte_mass2], spiny_s[mask_mass1_lt_mass2])) out[parameters.spin2x] = numpy.concatenate(( spinx_p[mask_mass1_lt_mass2], spinx_s[mask_mass1_gte_mass2])) out[parameters.spin2y] = numpy.concatenate(( spinx_p[mask_mass1_lt_mass2], spinx_s[mask_mass1_gte_mass2])) elif maps["mass1"] > maps["mass2"]: out[parameters.spin1x] = spinx_p out[parameters.spin1y] = spiny_p out[parameters.spin2x] = spinx_s out[parameters.spin2y] = spiny_s else: out[parameters.spin1x] = spinx_s out[parameters.spin1y] = spiny_s out[parameters.spin2x] = spinx_p out[parameters.spin2y] = spiny_p return self.format_output(maps, out)
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This function transforms from mass-weighted spins to caretsian spins in the x-y plane. Parameters ---------- maps : a mapping object Returns ------- out : dict A dict with key as parameter name and value as numpy.array or float of transformed values.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/transforms.py#L775-L841
228,172
gwastro/pycbc
pycbc/transforms.py
PrecessionMassSpinToCartesianSpin.inverse_transform
def inverse_transform(self, maps): """ This function transforms from component masses and cartesian spins to mass-weighted spin parameters perpendicular with the angular momentum. Parameters ---------- maps : a mapping object Returns ------- out : dict A dict with key as parameter name and value as numpy.array or float of transformed values. """ # convert out = {} xi1 = conversions.primary_xi( maps[parameters.mass1], maps[parameters.mass2], maps[parameters.spin1x], maps[parameters.spin1y], maps[parameters.spin2x], maps[parameters.spin2y]) xi2 = conversions.secondary_xi( maps[parameters.mass1], maps[parameters.mass2], maps[parameters.spin1x], maps[parameters.spin1y], maps[parameters.spin2x], maps[parameters.spin2y]) out["phi_a"] = conversions.phi_a( maps[parameters.mass1], maps[parameters.mass2], maps[parameters.spin1x], maps[parameters.spin1y], maps[parameters.spin2x], maps[parameters.spin2y]) out["phi_s"] = conversions.phi_s( maps[parameters.spin1x], maps[parameters.spin1y], maps[parameters.spin2x], maps[parameters.spin2y]) # map parameters from primary/secondary to indices if isinstance(xi1, numpy.ndarray): mass1, mass2 = map(numpy.array, [maps[parameters.mass1], maps[parameters.mass2]]) mask_mass1_gte_mass2 = mass1 >= mass2 mask_mass1_lt_mass2 = mass1 < mass2 out["xi1"] = numpy.concatenate(( xi1[mask_mass1_gte_mass2], xi2[mask_mass1_lt_mass2])) out["xi2"] = numpy.concatenate(( xi1[mask_mass1_gte_mass2], xi2[mask_mass1_lt_mass2])) elif maps["mass1"] > maps["mass2"]: out["xi1"] = xi1 out["xi2"] = xi2 else: out["xi1"] = xi2 out["xi2"] = xi1 return self.format_output(maps, out)
python
def inverse_transform(self, maps): # convert out = {} xi1 = conversions.primary_xi( maps[parameters.mass1], maps[parameters.mass2], maps[parameters.spin1x], maps[parameters.spin1y], maps[parameters.spin2x], maps[parameters.spin2y]) xi2 = conversions.secondary_xi( maps[parameters.mass1], maps[parameters.mass2], maps[parameters.spin1x], maps[parameters.spin1y], maps[parameters.spin2x], maps[parameters.spin2y]) out["phi_a"] = conversions.phi_a( maps[parameters.mass1], maps[parameters.mass2], maps[parameters.spin1x], maps[parameters.spin1y], maps[parameters.spin2x], maps[parameters.spin2y]) out["phi_s"] = conversions.phi_s( maps[parameters.spin1x], maps[parameters.spin1y], maps[parameters.spin2x], maps[parameters.spin2y]) # map parameters from primary/secondary to indices if isinstance(xi1, numpy.ndarray): mass1, mass2 = map(numpy.array, [maps[parameters.mass1], maps[parameters.mass2]]) mask_mass1_gte_mass2 = mass1 >= mass2 mask_mass1_lt_mass2 = mass1 < mass2 out["xi1"] = numpy.concatenate(( xi1[mask_mass1_gte_mass2], xi2[mask_mass1_lt_mass2])) out["xi2"] = numpy.concatenate(( xi1[mask_mass1_gte_mass2], xi2[mask_mass1_lt_mass2])) elif maps["mass1"] > maps["mass2"]: out["xi1"] = xi1 out["xi2"] = xi2 else: out["xi1"] = xi2 out["xi2"] = xi1 return self.format_output(maps, out)
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This function transforms from component masses and cartesian spins to mass-weighted spin parameters perpendicular with the angular momentum. Parameters ---------- maps : a mapping object Returns ------- out : dict A dict with key as parameter name and value as numpy.array or float of transformed values.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/transforms.py#L844-L896
228,173
gwastro/pycbc
pycbc/transforms.py
CartesianSpinToChiP.transform
def transform(self, maps): """ This function transforms from component masses and caretsian spins to chi_p. Parameters ---------- maps : a mapping object Examples -------- Convert a dict of numpy.array: Returns ------- out : dict A dict with key as parameter name and value as numpy.array or float of transformed values. """ out = {} out["chi_p"] = conversions.chi_p( maps[parameters.mass1], maps[parameters.mass2], maps[parameters.spin1x], maps[parameters.spin1y], maps[parameters.spin2x], maps[parameters.spin2y]) return self.format_output(maps, out)
python
def transform(self, maps): out = {} out["chi_p"] = conversions.chi_p( maps[parameters.mass1], maps[parameters.mass2], maps[parameters.spin1x], maps[parameters.spin1y], maps[parameters.spin2x], maps[parameters.spin2y]) return self.format_output(maps, out)
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This function transforms from component masses and caretsian spins to chi_p. Parameters ---------- maps : a mapping object Examples -------- Convert a dict of numpy.array: Returns ------- out : dict A dict with key as parameter name and value as numpy.array or float of transformed values.
[ "This", "function", "transforms", "from", "component", "masses", "and", "caretsian", "spins", "to", "chi_p", "." ]
7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/transforms.py#L908-L931
228,174
gwastro/pycbc
pycbc/transforms.py
Logistic.from_config
def from_config(cls, cp, section, outputs, skip_opts=None, additional_opts=None): """Initializes a Logistic transform from the given section. The section must specify an input and output variable name. The codomain of the output may be specified using `min-{output}`, `max-{output}`. Example: .. code-block:: ini [{section}-q] name = logistic inputvar = logitq outputvar = q min-q = 1 max-q = 8 Parameters ---------- cp : pycbc.workflow.WorkflowConfigParser A parsed configuration file that contains the transform options. section : str Name of the section in the configuration file. outputs : str The names of the parameters that are output by this transformation, separated by `VARARGS_DELIM`. These must appear in the "tag" part of the section header. skip_opts : list, optional Do not read options in the given list. additional_opts : dict, optional Any additional arguments to pass to the class. If an option is provided that also exists in the config file, the value provided will be used instead of being read from the file. Returns ------- cls An instance of the class. """ # pull out the minimum, maximum values of the output variable outputvar = cp.get_opt_tag(section, 'output', outputs) if skip_opts is None: skip_opts = [] if additional_opts is None: additional_opts = {} else: additional_opts = additional_opts.copy() s = '-'.join([section, outputs]) opt = 'min-{}'.format(outputvar) if cp.has_option(s, opt): a = cp.get_opt_tag(section, opt, outputs) skip_opts.append(opt) else: a = None opt = 'max-{}'.format(outputvar) if cp.has_option(s, opt): b = cp.get_opt_tag(section, opt, outputs) skip_opts.append(opt) else: b = None if a is None and b is not None or b is None and a is not None: raise ValueError("if providing a min(max)-{}, must also provide " "a max(min)-{}".format(outputvar, outputvar)) elif a is not None: additional_opts.update({'codomain': (float(a), float(b))}) return super(Logistic, cls).from_config(cp, section, outputs, skip_opts, additional_opts)
python
def from_config(cls, cp, section, outputs, skip_opts=None, additional_opts=None): # pull out the minimum, maximum values of the output variable outputvar = cp.get_opt_tag(section, 'output', outputs) if skip_opts is None: skip_opts = [] if additional_opts is None: additional_opts = {} else: additional_opts = additional_opts.copy() s = '-'.join([section, outputs]) opt = 'min-{}'.format(outputvar) if cp.has_option(s, opt): a = cp.get_opt_tag(section, opt, outputs) skip_opts.append(opt) else: a = None opt = 'max-{}'.format(outputvar) if cp.has_option(s, opt): b = cp.get_opt_tag(section, opt, outputs) skip_opts.append(opt) else: b = None if a is None and b is not None or b is None and a is not None: raise ValueError("if providing a min(max)-{}, must also provide " "a max(min)-{}".format(outputvar, outputvar)) elif a is not None: additional_opts.update({'codomain': (float(a), float(b))}) return super(Logistic, cls).from_config(cp, section, outputs, skip_opts, additional_opts)
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Initializes a Logistic transform from the given section. The section must specify an input and output variable name. The codomain of the output may be specified using `min-{output}`, `max-{output}`. Example: .. code-block:: ini [{section}-q] name = logistic inputvar = logitq outputvar = q min-q = 1 max-q = 8 Parameters ---------- cp : pycbc.workflow.WorkflowConfigParser A parsed configuration file that contains the transform options. section : str Name of the section in the configuration file. outputs : str The names of the parameters that are output by this transformation, separated by `VARARGS_DELIM`. These must appear in the "tag" part of the section header. skip_opts : list, optional Do not read options in the given list. additional_opts : dict, optional Any additional arguments to pass to the class. If an option is provided that also exists in the config file, the value provided will be used instead of being read from the file. Returns ------- cls An instance of the class.
[ "Initializes", "a", "Logistic", "transform", "from", "the", "given", "section", "." ]
7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/transforms.py#L1390-L1456
228,175
gwastro/pycbc
pycbc/tmpltbank/option_utils.py
get_options_from_group
def get_options_from_group(option_group): """ Take an option group and return all the options that are defined in that group. """ option_list = option_group._group_actions command_lines = [] for option in option_list: option_strings = option.option_strings for string in option_strings: if string.startswith('--'): command_lines.append(string) return command_lines
python
def get_options_from_group(option_group): option_list = option_group._group_actions command_lines = [] for option in option_list: option_strings = option.option_strings for string in option_strings: if string.startswith('--'): command_lines.append(string) return command_lines
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Take an option group and return all the options that are defined in that group.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/tmpltbank/option_utils.py#L96-L108
228,176
gwastro/pycbc
pycbc/tmpltbank/option_utils.py
insert_base_bank_options
def insert_base_bank_options(parser): """ Adds essential common options for template bank generation to an ArgumentParser instance. """ def match_type(s): err_msg = "must be a number between 0 and 1 excluded, not %r" % s try: value = float(s) except ValueError: raise argparse.ArgumentTypeError(err_msg) if value <= 0 or value >= 1: raise argparse.ArgumentTypeError(err_msg) return value parser.add_argument( '-m', '--min-match', type=match_type, required=True, help="Generate bank with specified minimum match. Required.") parser.add_argument( '-O', '--output-file', required=True, help="Output file name. Required.") parser.add_argument('--f-low-column', type=str, metavar='NAME', help='If given, store the lower frequency cutoff into ' 'column NAME of the single-inspiral table.')
python
def insert_base_bank_options(parser): def match_type(s): err_msg = "must be a number between 0 and 1 excluded, not %r" % s try: value = float(s) except ValueError: raise argparse.ArgumentTypeError(err_msg) if value <= 0 or value >= 1: raise argparse.ArgumentTypeError(err_msg) return value parser.add_argument( '-m', '--min-match', type=match_type, required=True, help="Generate bank with specified minimum match. Required.") parser.add_argument( '-O', '--output-file', required=True, help="Output file name. Required.") parser.add_argument('--f-low-column', type=str, metavar='NAME', help='If given, store the lower frequency cutoff into ' 'column NAME of the single-inspiral table.')
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Adds essential common options for template bank generation to an ArgumentParser instance.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/tmpltbank/option_utils.py#L110-L134
228,177
gwastro/pycbc
pycbc/tmpltbank/option_utils.py
insert_metric_calculation_options
def insert_metric_calculation_options(parser): """ Adds the options used to obtain a metric in the bank generation codes to an argparser as an OptionGroup. This should be used if you want to use these options in your code. """ metricOpts = parser.add_argument_group( "Options related to calculating the parameter space metric") metricOpts.add_argument("--pn-order", action="store", type=str, required=True, help="Determines the PN order to use. For a bank of " "non-spinning templates, spin-related terms in the " "metric will be zero. REQUIRED. " "Choices: %s" %(pycbcValidOrdersHelpDescriptions)) metricOpts.add_argument("--f0", action="store", type=positive_float, default=70.,\ help="f0 is used as a dynamic scaling factor when " "calculating integrals used in metric construction. " "I.e. instead of integrating F(f) we integrate F(f/f0) " "then rescale by powers of f0. The default value 70Hz " "should be fine for most applications. OPTIONAL. " "UNITS=Hz. **WARNING: If the ethinca metric is to be " "calculated, f0 must be set equal to f-low**") metricOpts.add_argument("--f-low", action="store", type=positive_float, required=True, help="Lower frequency cutoff used in computing the " "parameter space metric. REQUIRED. UNITS=Hz") metricOpts.add_argument("--f-upper", action="store", type=positive_float, required=True, help="Upper frequency cutoff used in computing the " "parameter space metric. REQUIRED. UNITS=Hz") metricOpts.add_argument("--delta-f", action="store", type=positive_float, required=True, help="Frequency spacing used in computing the parameter " "space metric: integrals of the form \int F(f) df " "are approximated as \sum F(f) delta_f. REQUIRED. " "UNITS=Hz") metricOpts.add_argument("--write-metric", action="store_true", default=False, help="If given write the metric components " "to disk as they are calculated.") return metricOpts
python
def insert_metric_calculation_options(parser): metricOpts = parser.add_argument_group( "Options related to calculating the parameter space metric") metricOpts.add_argument("--pn-order", action="store", type=str, required=True, help="Determines the PN order to use. For a bank of " "non-spinning templates, spin-related terms in the " "metric will be zero. REQUIRED. " "Choices: %s" %(pycbcValidOrdersHelpDescriptions)) metricOpts.add_argument("--f0", action="store", type=positive_float, default=70.,\ help="f0 is used as a dynamic scaling factor when " "calculating integrals used in metric construction. " "I.e. instead of integrating F(f) we integrate F(f/f0) " "then rescale by powers of f0. The default value 70Hz " "should be fine for most applications. OPTIONAL. " "UNITS=Hz. **WARNING: If the ethinca metric is to be " "calculated, f0 must be set equal to f-low**") metricOpts.add_argument("--f-low", action="store", type=positive_float, required=True, help="Lower frequency cutoff used in computing the " "parameter space metric. REQUIRED. UNITS=Hz") metricOpts.add_argument("--f-upper", action="store", type=positive_float, required=True, help="Upper frequency cutoff used in computing the " "parameter space metric. REQUIRED. UNITS=Hz") metricOpts.add_argument("--delta-f", action="store", type=positive_float, required=True, help="Frequency spacing used in computing the parameter " "space metric: integrals of the form \int F(f) df " "are approximated as \sum F(f) delta_f. REQUIRED. " "UNITS=Hz") metricOpts.add_argument("--write-metric", action="store_true", default=False, help="If given write the metric components " "to disk as they are calculated.") return metricOpts
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Adds the options used to obtain a metric in the bank generation codes to an argparser as an OptionGroup. This should be used if you want to use these options in your code.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/tmpltbank/option_utils.py#L136-L176
228,178
gwastro/pycbc
pycbc/tmpltbank/option_utils.py
verify_ethinca_metric_options
def verify_ethinca_metric_options(opts, parser): """ Checks that the necessary options are given for the ethinca metric calculation. Parameters ---------- opts : argparse.Values instance Result of parsing the input options with OptionParser parser : object The OptionParser instance. """ if opts.filter_cutoff is not None and not (opts.filter_cutoff in pnutils.named_frequency_cutoffs.keys()): parser.error("Need a valid cutoff formula to calculate ethinca or " "assign filter f_final values! Possible values are " +str(pnutils.named_frequency_cutoffs.keys())) if (opts.calculate_ethinca_metric or opts.calculate_time_metric_components)\ and not opts.ethinca_frequency_step: parser.error("Need to specify a cutoff frequency step to calculate " "ethinca!") if not (opts.calculate_ethinca_metric or\ opts.calculate_time_metric_components) and opts.ethinca_pn_order: parser.error("Can't specify an ethinca PN order if not " "calculating ethinca metric!")
python
def verify_ethinca_metric_options(opts, parser): if opts.filter_cutoff is not None and not (opts.filter_cutoff in pnutils.named_frequency_cutoffs.keys()): parser.error("Need a valid cutoff formula to calculate ethinca or " "assign filter f_final values! Possible values are " +str(pnutils.named_frequency_cutoffs.keys())) if (opts.calculate_ethinca_metric or opts.calculate_time_metric_components)\ and not opts.ethinca_frequency_step: parser.error("Need to specify a cutoff frequency step to calculate " "ethinca!") if not (opts.calculate_ethinca_metric or\ opts.calculate_time_metric_components) and opts.ethinca_pn_order: parser.error("Can't specify an ethinca PN order if not " "calculating ethinca metric!")
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Checks that the necessary options are given for the ethinca metric calculation. Parameters ---------- opts : argparse.Values instance Result of parsing the input options with OptionParser parser : object The OptionParser instance.
[ "Checks", "that", "the", "necessary", "options", "are", "given", "for", "the", "ethinca", "metric", "calculation", "." ]
7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/tmpltbank/option_utils.py#L1158-L1182
228,179
gwastro/pycbc
pycbc/tmpltbank/option_utils.py
check_ethinca_against_bank_params
def check_ethinca_against_bank_params(ethincaParams, metricParams): """ Cross-check the ethinca and bank layout metric calculation parameters and set the ethinca metric PN order equal to the bank PN order if not previously set. Parameters ---------- ethincaParams: instance of ethincaParameters metricParams: instance of metricParameters """ if ethincaParams.doEthinca: if metricParams.f0 != metricParams.fLow: raise ValueError("If calculating ethinca metric, f0 and f-low " "must be equal!") if ethincaParams.fLow is not None and ( ethincaParams.fLow != metricParams.fLow): raise ValueError("Ethinca metric calculation does not currently " "support a f-low value different from the bank " "metric!") if ethincaParams.pnOrder is None: ethincaParams.pnOrder = metricParams.pnOrder else: pass
python
def check_ethinca_against_bank_params(ethincaParams, metricParams): if ethincaParams.doEthinca: if metricParams.f0 != metricParams.fLow: raise ValueError("If calculating ethinca metric, f0 and f-low " "must be equal!") if ethincaParams.fLow is not None and ( ethincaParams.fLow != metricParams.fLow): raise ValueError("Ethinca metric calculation does not currently " "support a f-low value different from the bank " "metric!") if ethincaParams.pnOrder is None: ethincaParams.pnOrder = metricParams.pnOrder else: pass
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Cross-check the ethinca and bank layout metric calculation parameters and set the ethinca metric PN order equal to the bank PN order if not previously set. Parameters ---------- ethincaParams: instance of ethincaParameters metricParams: instance of metricParameters
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/tmpltbank/option_utils.py#L1184-L1206
228,180
gwastro/pycbc
pycbc/tmpltbank/option_utils.py
metricParameters.from_argparse
def from_argparse(cls, opts): """ Initialize an instance of the metricParameters class from an argparse.OptionParser instance. This assumes that insert_metric_calculation_options and verify_metric_calculation_options have already been called before initializing the class. """ return cls(opts.pn_order, opts.f_low, opts.f_upper, opts.delta_f,\ f0=opts.f0, write_metric=opts.write_metric)
python
def from_argparse(cls, opts): return cls(opts.pn_order, opts.f_low, opts.f_upper, opts.delta_f,\ f0=opts.f0, write_metric=opts.write_metric)
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Initialize an instance of the metricParameters class from an argparse.OptionParser instance. This assumes that insert_metric_calculation_options and verify_metric_calculation_options have already been called before initializing the class.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/tmpltbank/option_utils.py#L223-L233
228,181
gwastro/pycbc
pycbc/tmpltbank/option_utils.py
metricParameters.psd
def psd(self): """ A pyCBC FrequencySeries holding the appropriate PSD. Return the PSD used in the metric calculation. """ if not self._psd: errMsg = "The PSD has not been set in the metricParameters " errMsg += "instance." raise ValueError(errMsg) return self._psd
python
def psd(self): if not self._psd: errMsg = "The PSD has not been set in the metricParameters " errMsg += "instance." raise ValueError(errMsg) return self._psd
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A pyCBC FrequencySeries holding the appropriate PSD. Return the PSD used in the metric calculation.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/tmpltbank/option_utils.py#L236-L245
228,182
gwastro/pycbc
pycbc/tmpltbank/option_utils.py
metricParameters.evals
def evals(self): """ The eigenvalues of the parameter space. This is a Dictionary of numpy.array Each entry in the dictionary corresponds to the different frequency ranges described in vary_fmax. If vary_fmax = False, the only entry will be f_upper, this corresponds to integrals in [f_low,f_upper). This entry is always present. Each other entry will use floats as keys to the dictionary. These floats give the upper frequency cutoff when it is varying. Each numpy.array contains the eigenvalues which, with the eigenvectors in evecs, are needed to rotate the coordinate system to one in which the metric is the identity matrix. """ if self._evals is None: errMsg = "The metric eigenvalues have not been set in the " errMsg += "metricParameters instance." raise ValueError(errMsg) return self._evals
python
def evals(self): if self._evals is None: errMsg = "The metric eigenvalues have not been set in the " errMsg += "metricParameters instance." raise ValueError(errMsg) return self._evals
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The eigenvalues of the parameter space. This is a Dictionary of numpy.array Each entry in the dictionary corresponds to the different frequency ranges described in vary_fmax. If vary_fmax = False, the only entry will be f_upper, this corresponds to integrals in [f_low,f_upper). This entry is always present. Each other entry will use floats as keys to the dictionary. These floats give the upper frequency cutoff when it is varying. Each numpy.array contains the eigenvalues which, with the eigenvectors in evecs, are needed to rotate the coordinate system to one in which the metric is the identity matrix.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/tmpltbank/option_utils.py#L296-L314
228,183
gwastro/pycbc
pycbc/tmpltbank/option_utils.py
metricParameters.evecs
def evecs(self): """ The eigenvectors of the parameter space. This is a Dictionary of numpy.matrix Each entry in the dictionary is as described under evals. Each numpy.matrix contains the eigenvectors which, with the eigenvalues in evals, are needed to rotate the coordinate system to one in which the metric is the identity matrix. """ if self._evecs is None: errMsg = "The metric eigenvectors have not been set in the " errMsg += "metricParameters instance." raise ValueError(errMsg) return self._evecs
python
def evecs(self): if self._evecs is None: errMsg = "The metric eigenvectors have not been set in the " errMsg += "metricParameters instance." raise ValueError(errMsg) return self._evecs
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The eigenvectors of the parameter space. This is a Dictionary of numpy.matrix Each entry in the dictionary is as described under evals. Each numpy.matrix contains the eigenvectors which, with the eigenvalues in evals, are needed to rotate the coordinate system to one in which the metric is the identity matrix.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/tmpltbank/option_utils.py#L325-L338
228,184
gwastro/pycbc
pycbc/tmpltbank/option_utils.py
metricParameters.metric
def metric(self): """ The metric of the parameter space. This is a Dictionary of numpy.matrix Each entry in the dictionary is as described under evals. Each numpy.matrix contains the metric of the parameter space in the Lambda_i coordinate system. """ if self._metric is None: errMsg = "The metric eigenvectors have not been set in the " errMsg += "metricParameters instance." raise ValueError(errMsg) return self._metric
python
def metric(self): if self._metric is None: errMsg = "The metric eigenvectors have not been set in the " errMsg += "metricParameters instance." raise ValueError(errMsg) return self._metric
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The metric of the parameter space. This is a Dictionary of numpy.matrix Each entry in the dictionary is as described under evals. Each numpy.matrix contains the metric of the parameter space in the Lambda_i coordinate system.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/tmpltbank/option_utils.py#L349-L361
228,185
gwastro/pycbc
pycbc/tmpltbank/option_utils.py
metricParameters.evecsCV
def evecsCV(self): """ The eigenvectors of the principal directions of the mu space. This is a Dictionary of numpy.matrix Each entry in the dictionary is as described under evals. Each numpy.matrix contains the eigenvectors which, with the eigenvalues in evals, are needed to rotate the coordinate system to one in which the metric is the identity matrix. """ if self._evecsCV is None: errMsg = "The covariance eigenvectors have not been set in the " errMsg += "metricParameters instance." raise ValueError(errMsg) return self._evecsCV
python
def evecsCV(self): if self._evecsCV is None: errMsg = "The covariance eigenvectors have not been set in the " errMsg += "metricParameters instance." raise ValueError(errMsg) return self._evecsCV
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The eigenvectors of the principal directions of the mu space. This is a Dictionary of numpy.matrix Each entry in the dictionary is as described under evals. Each numpy.matrix contains the eigenvectors which, with the eigenvalues in evals, are needed to rotate the coordinate system to one in which the metric is the identity matrix.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/tmpltbank/option_utils.py#L396-L409
228,186
gwastro/pycbc
pycbc/tmpltbank/option_utils.py
massRangeParameters.from_argparse
def from_argparse(cls, opts, nonSpin=False): """ Initialize an instance of the massRangeParameters class from an argparse.OptionParser instance. This assumes that insert_mass_range_option_group and verify_mass_range_options have already been called before initializing the class. """ if nonSpin: return cls(opts.min_mass1, opts.max_mass1, opts.min_mass2, opts.max_mass2, maxTotMass=opts.max_total_mass, minTotMass=opts.min_total_mass, maxEta=opts.max_eta, minEta=opts.min_eta, max_chirp_mass=opts.max_chirp_mass, min_chirp_mass=opts.min_chirp_mass, remnant_mass_threshold=opts.remnant_mass_threshold, ns_eos=opts.ns_eos, use_eos_max_ns_mass=opts.use_eos_max_ns_mass, delta_bh_spin=opts.delta_bh_spin, delta_ns_mass=opts.delta_ns_mass) else: return cls(opts.min_mass1, opts.max_mass1, opts.min_mass2, opts.max_mass2, maxTotMass=opts.max_total_mass, minTotMass=opts.min_total_mass, maxEta=opts.max_eta, minEta=opts.min_eta, maxNSSpinMag=opts.max_ns_spin_mag, maxBHSpinMag=opts.max_bh_spin_mag, nsbhFlag=opts.nsbh_flag, max_chirp_mass=opts.max_chirp_mass, min_chirp_mass=opts.min_chirp_mass, ns_bh_boundary_mass=opts.ns_bh_boundary_mass, remnant_mass_threshold=opts.remnant_mass_threshold, ns_eos=opts.ns_eos, use_eos_max_ns_mass=opts.use_eos_max_ns_mass, delta_bh_spin=opts.delta_bh_spin, delta_ns_mass=opts.delta_ns_mass)
python
def from_argparse(cls, opts, nonSpin=False): if nonSpin: return cls(opts.min_mass1, opts.max_mass1, opts.min_mass2, opts.max_mass2, maxTotMass=opts.max_total_mass, minTotMass=opts.min_total_mass, maxEta=opts.max_eta, minEta=opts.min_eta, max_chirp_mass=opts.max_chirp_mass, min_chirp_mass=opts.min_chirp_mass, remnant_mass_threshold=opts.remnant_mass_threshold, ns_eos=opts.ns_eos, use_eos_max_ns_mass=opts.use_eos_max_ns_mass, delta_bh_spin=opts.delta_bh_spin, delta_ns_mass=opts.delta_ns_mass) else: return cls(opts.min_mass1, opts.max_mass1, opts.min_mass2, opts.max_mass2, maxTotMass=opts.max_total_mass, minTotMass=opts.min_total_mass, maxEta=opts.max_eta, minEta=opts.min_eta, maxNSSpinMag=opts.max_ns_spin_mag, maxBHSpinMag=opts.max_bh_spin_mag, nsbhFlag=opts.nsbh_flag, max_chirp_mass=opts.max_chirp_mass, min_chirp_mass=opts.min_chirp_mass, ns_bh_boundary_mass=opts.ns_bh_boundary_mass, remnant_mass_threshold=opts.remnant_mass_threshold, ns_eos=opts.ns_eos, use_eos_max_ns_mass=opts.use_eos_max_ns_mass, delta_bh_spin=opts.delta_bh_spin, delta_ns_mass=opts.delta_ns_mass)
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Initialize an instance of the massRangeParameters class from an argparse.OptionParser instance. This assumes that insert_mass_range_option_group and verify_mass_range_options have already been called before initializing the class.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/tmpltbank/option_utils.py#L965-L995
228,187
gwastro/pycbc
pycbc/tmpltbank/option_utils.py
massRangeParameters.is_outside_range
def is_outside_range(self, mass1, mass2, spin1z, spin2z): """ Test if a given location in mass1, mass2, spin1z, spin2z is within the range of parameters allowed by the massParams object. """ # Mass1 test if mass1 * 1.001 < self.minMass1: return 1 if mass1 > self.maxMass1 * 1.001: return 1 # Mass2 test if mass2 * 1.001 < self.minMass2: return 1 if mass2 > self.maxMass2 * 1.001: return 1 # Spin1 test if self.nsbhFlag: if (abs(spin1z) > self.maxBHSpinMag * 1.001): return 1 else: spin1zM = abs(spin1z) if not( (mass1 * 1.001 > self.ns_bh_boundary_mass \ and spin1zM <= self.maxBHSpinMag * 1.001) \ or (mass1 < self.ns_bh_boundary_mass * 1.001 \ and spin1zM <= self.maxNSSpinMag * 1.001)): return 1 # Spin2 test if self.nsbhFlag: if (abs(spin2z) > self.maxNSSpinMag * 1.001): return 1 else: spin2zM = abs(spin2z) if not( (mass2 * 1.001 > self.ns_bh_boundary_mass \ and spin2zM <= self.maxBHSpinMag * 1.001) \ or (mass2 < self.ns_bh_boundary_mass * 1.001 and \ spin2zM <= self.maxNSSpinMag * 1.001)): return 1 # Total mass test mTot = mass1 + mass2 if mTot > self.maxTotMass * 1.001: return 1 if mTot * 1.001 < self.minTotMass: return 1 # Eta test eta = mass1 * mass2 / (mTot * mTot) if eta > self.maxEta * 1.001: return 1 if eta * 1.001 < self.minEta: return 1 # Chirp mass test chirp_mass = mTot * eta**(3./5.) if self.min_chirp_mass is not None \ and chirp_mass * 1.001 < self.min_chirp_mass: return 1 if self.max_chirp_mass is not None \ and chirp_mass > self.max_chirp_mass * 1.001: return 1 return 0
python
def is_outside_range(self, mass1, mass2, spin1z, spin2z): # Mass1 test if mass1 * 1.001 < self.minMass1: return 1 if mass1 > self.maxMass1 * 1.001: return 1 # Mass2 test if mass2 * 1.001 < self.minMass2: return 1 if mass2 > self.maxMass2 * 1.001: return 1 # Spin1 test if self.nsbhFlag: if (abs(spin1z) > self.maxBHSpinMag * 1.001): return 1 else: spin1zM = abs(spin1z) if not( (mass1 * 1.001 > self.ns_bh_boundary_mass \ and spin1zM <= self.maxBHSpinMag * 1.001) \ or (mass1 < self.ns_bh_boundary_mass * 1.001 \ and spin1zM <= self.maxNSSpinMag * 1.001)): return 1 # Spin2 test if self.nsbhFlag: if (abs(spin2z) > self.maxNSSpinMag * 1.001): return 1 else: spin2zM = abs(spin2z) if not( (mass2 * 1.001 > self.ns_bh_boundary_mass \ and spin2zM <= self.maxBHSpinMag * 1.001) \ or (mass2 < self.ns_bh_boundary_mass * 1.001 and \ spin2zM <= self.maxNSSpinMag * 1.001)): return 1 # Total mass test mTot = mass1 + mass2 if mTot > self.maxTotMass * 1.001: return 1 if mTot * 1.001 < self.minTotMass: return 1 # Eta test eta = mass1 * mass2 / (mTot * mTot) if eta > self.maxEta * 1.001: return 1 if eta * 1.001 < self.minEta: return 1 # Chirp mass test chirp_mass = mTot * eta**(3./5.) if self.min_chirp_mass is not None \ and chirp_mass * 1.001 < self.min_chirp_mass: return 1 if self.max_chirp_mass is not None \ and chirp_mass > self.max_chirp_mass * 1.001: return 1 return 0
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Test if a given location in mass1, mass2, spin1z, spin2z is within the range of parameters allowed by the massParams object.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/tmpltbank/option_utils.py#L997-L1057
228,188
gwastro/pycbc
pycbc/tmpltbank/option_utils.py
ethincaParameters.from_argparse
def from_argparse(cls, opts): """ Initialize an instance of the ethincaParameters class from an argparse.OptionParser instance. This assumes that insert_ethinca_metric_options and verify_ethinca_metric_options have already been called before initializing the class. """ return cls(opts.ethinca_pn_order, opts.filter_cutoff, opts.ethinca_frequency_step, fLow=None, full_ethinca=opts.calculate_ethinca_metric, time_ethinca=opts.calculate_time_metric_components)
python
def from_argparse(cls, opts): return cls(opts.ethinca_pn_order, opts.filter_cutoff, opts.ethinca_frequency_step, fLow=None, full_ethinca=opts.calculate_ethinca_metric, time_ethinca=opts.calculate_time_metric_components)
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Initialize an instance of the ethincaParameters class from an argparse.OptionParser instance. This assumes that insert_ethinca_metric_options and verify_ethinca_metric_options have already been called before initializing the class.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/tmpltbank/option_utils.py#L1097-L1109
228,189
gwastro/pycbc
pycbc/inject/inject.py
set_sim_data
def set_sim_data(inj, field, data): """Sets data of a SimInspiral instance.""" try: sim_field = sim_inspiral_map[field] except KeyError: sim_field = field # for tc, map to geocentric times if sim_field == 'tc': inj.geocent_end_time = int(data) inj.geocent_end_time_ns = int(1e9*(data % 1)) else: setattr(inj, sim_field, data)
python
def set_sim_data(inj, field, data): try: sim_field = sim_inspiral_map[field] except KeyError: sim_field = field # for tc, map to geocentric times if sim_field == 'tc': inj.geocent_end_time = int(data) inj.geocent_end_time_ns = int(1e9*(data % 1)) else: setattr(inj, sim_field, data)
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Sets data of a SimInspiral instance.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/inject/inject.py#L69-L80
228,190
gwastro/pycbc
pycbc/inject/inject.py
get_hdf_injtype
def get_hdf_injtype(sim_file): """Gets the HDFInjectionSet class to use with the given file. This looks for the ``injtype`` in the given file's top level ``attrs``. If that attribute isn't set, will default to :py:class:`CBCHDFInjectionSet`. Parameters ---------- sim_file : str Name of the file. The file must already exist. Returns ------- HDFInjectionSet : The type of HDFInjectionSet to use. """ with h5py.File(sim_file, 'r') as fp: try: ftype = fp.attrs['injtype'] except KeyError: ftype = CBCHDFInjectionSet.injtype return hdfinjtypes[ftype]
python
def get_hdf_injtype(sim_file): with h5py.File(sim_file, 'r') as fp: try: ftype = fp.attrs['injtype'] except KeyError: ftype = CBCHDFInjectionSet.injtype return hdfinjtypes[ftype]
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Gets the HDFInjectionSet class to use with the given file. This looks for the ``injtype`` in the given file's top level ``attrs``. If that attribute isn't set, will default to :py:class:`CBCHDFInjectionSet`. Parameters ---------- sim_file : str Name of the file. The file must already exist. Returns ------- HDFInjectionSet : The type of HDFInjectionSet to use.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/inject/inject.py#L722-L743
228,191
gwastro/pycbc
pycbc/inject/inject.py
hdf_injtype_from_approximant
def hdf_injtype_from_approximant(approximant): """Gets the HDFInjectionSet class to use with the given approximant. Parameters ---------- approximant : str Name of the approximant. Returns ------- HDFInjectionSet : The type of HDFInjectionSet to use. """ retcls = None for cls in hdfinjtypes.values(): if approximant in cls.supported_approximants(): retcls = cls if retcls is None: # none were found, raise an error raise ValueError("Injection file type unknown for approximant {}" .format(approximant)) return retcls
python
def hdf_injtype_from_approximant(approximant): retcls = None for cls in hdfinjtypes.values(): if approximant in cls.supported_approximants(): retcls = cls if retcls is None: # none were found, raise an error raise ValueError("Injection file type unknown for approximant {}" .format(approximant)) return retcls
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Gets the HDFInjectionSet class to use with the given approximant. Parameters ---------- approximant : str Name of the approximant. Returns ------- HDFInjectionSet : The type of HDFInjectionSet to use.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/inject/inject.py#L746-L767
228,192
gwastro/pycbc
pycbc/inject/inject.py
_XMLInjectionSet.write
def write(filename, samples, write_params=None, static_args=None): """Writes the injection samples to the given xml. Parameters ---------- filename : str The name of the file to write to. samples : io.FieldArray FieldArray of parameters. write_params : list, optional Only write the given parameter names. All given names must be keys in ``samples``. Default is to write all parameters in ``samples``. static_args : dict, optional Dictionary mapping static parameter names to values. These are written to the ``attrs``. """ xmldoc = ligolw.Document() xmldoc.appendChild(ligolw.LIGO_LW()) simtable = lsctables.New(lsctables.SimInspiralTable) xmldoc.childNodes[0].appendChild(simtable) if static_args is None: static_args = {} if write_params is None: write_params = samples.fieldnames for ii in range(samples.size): sim = lsctables.SimInspiral() # initialize all elements to None for col in sim.__slots__: setattr(sim, col, None) for field in write_params: data = samples[ii][field] set_sim_data(sim, field, data) # set any static args for (field, value) in static_args.items(): set_sim_data(sim, field, value) simtable.append(sim) ligolw_utils.write_filename(xmldoc, filename, gz=filename.endswith('gz'))
python
def write(filename, samples, write_params=None, static_args=None): xmldoc = ligolw.Document() xmldoc.appendChild(ligolw.LIGO_LW()) simtable = lsctables.New(lsctables.SimInspiralTable) xmldoc.childNodes[0].appendChild(simtable) if static_args is None: static_args = {} if write_params is None: write_params = samples.fieldnames for ii in range(samples.size): sim = lsctables.SimInspiral() # initialize all elements to None for col in sim.__slots__: setattr(sim, col, None) for field in write_params: data = samples[ii][field] set_sim_data(sim, field, data) # set any static args for (field, value) in static_args.items(): set_sim_data(sim, field, value) simtable.append(sim) ligolw_utils.write_filename(xmldoc, filename, gz=filename.endswith('gz'))
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Writes the injection samples to the given xml. Parameters ---------- filename : str The name of the file to write to. samples : io.FieldArray FieldArray of parameters. write_params : list, optional Only write the given parameter names. All given names must be keys in ``samples``. Default is to write all parameters in ``samples``. static_args : dict, optional Dictionary mapping static parameter names to values. These are written to the ``attrs``.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/inject/inject.py#L269-L306
228,193
gwastro/pycbc
pycbc/tmpltbank/partitioned_bank.py
PartitionedTmpltbank.get_point_from_bins_and_idx
def get_point_from_bins_and_idx(self, chi1_bin, chi2_bin, idx): """Find masses and spins given bin numbers and index. Given the chi1 bin, chi2 bin and an index, return the masses and spins of the point at that index. Will fail if no point exists there. Parameters ----------- chi1_bin : int The bin number for chi1. chi2_bin : int The bin number for chi2. idx : int The index within the chi1, chi2 bin. Returns -------- mass1 : float Mass of heavier body. mass2 : float Mass of lighter body. spin1z : float Spin of heavier body. spin2z : float Spin of lighter body. """ mass1 = self.massbank[chi1_bin][chi2_bin]['mass1s'][idx] mass2 = self.massbank[chi1_bin][chi2_bin]['mass2s'][idx] spin1z = self.massbank[chi1_bin][chi2_bin]['spin1s'][idx] spin2z = self.massbank[chi1_bin][chi2_bin]['spin2s'][idx] return mass1, mass2, spin1z, spin2z
python
def get_point_from_bins_and_idx(self, chi1_bin, chi2_bin, idx): mass1 = self.massbank[chi1_bin][chi2_bin]['mass1s'][idx] mass2 = self.massbank[chi1_bin][chi2_bin]['mass2s'][idx] spin1z = self.massbank[chi1_bin][chi2_bin]['spin1s'][idx] spin2z = self.massbank[chi1_bin][chi2_bin]['spin2s'][idx] return mass1, mass2, spin1z, spin2z
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Find masses and spins given bin numbers and index. Given the chi1 bin, chi2 bin and an index, return the masses and spins of the point at that index. Will fail if no point exists there. Parameters ----------- chi1_bin : int The bin number for chi1. chi2_bin : int The bin number for chi2. idx : int The index within the chi1, chi2 bin. Returns -------- mass1 : float Mass of heavier body. mass2 : float Mass of lighter body. spin1z : float Spin of heavier body. spin2z : float Spin of lighter body.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/tmpltbank/partitioned_bank.py#L119-L149
228,194
gwastro/pycbc
pycbc/tmpltbank/partitioned_bank.py
PartitionedTmpltbank.find_point_bin
def find_point_bin(self, chi_coords): """ Given a set of coordinates in the chi parameter space, identify the indices of the chi1 and chi2 bins that the point occurs in. Returns these indices. Parameters ----------- chi_coords : numpy.array The position of the point in the chi coordinates. Returns -------- chi1_bin : int Index of the chi_1 bin. chi2_bin : int Index of the chi_2 bin. """ # Identify bin chi1_bin = int((chi_coords[0] - self.chi1_min) // self.bin_spacing) chi2_bin = int((chi_coords[1] - self.chi2_min) // self.bin_spacing) self.check_bin_existence(chi1_bin, chi2_bin) return chi1_bin, chi2_bin
python
def find_point_bin(self, chi_coords): # Identify bin chi1_bin = int((chi_coords[0] - self.chi1_min) // self.bin_spacing) chi2_bin = int((chi_coords[1] - self.chi2_min) // self.bin_spacing) self.check_bin_existence(chi1_bin, chi2_bin) return chi1_bin, chi2_bin
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Given a set of coordinates in the chi parameter space, identify the indices of the chi1 and chi2 bins that the point occurs in. Returns these indices. Parameters ----------- chi_coords : numpy.array The position of the point in the chi coordinates. Returns -------- chi1_bin : int Index of the chi_1 bin. chi2_bin : int Index of the chi_2 bin.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/tmpltbank/partitioned_bank.py#L177-L199
228,195
gwastro/pycbc
pycbc/tmpltbank/partitioned_bank.py
PartitionedTmpltbank.calc_point_distance
def calc_point_distance(self, chi_coords): """ Calculate distance between point and the bank. Return the closest distance. Parameters ----------- chi_coords : numpy.array The position of the point in the chi coordinates. Returns -------- min_dist : float The smallest **SQUARED** metric distance between the test point and the bank. indexes : The chi1_bin, chi2_bin and position within that bin at which the closest matching point lies. """ chi1_bin, chi2_bin = self.find_point_bin(chi_coords) min_dist = 1000000000 indexes = None for chi1_bin_offset, chi2_bin_offset in self.bin_loop_order: curr_chi1_bin = chi1_bin + chi1_bin_offset curr_chi2_bin = chi2_bin + chi2_bin_offset for idx, bank_chis in \ enumerate(self.bank[curr_chi1_bin][curr_chi2_bin]): dist = coord_utils.calc_point_dist(chi_coords, bank_chis) if dist < min_dist: min_dist = dist indexes = (curr_chi1_bin, curr_chi2_bin, idx) return min_dist, indexes
python
def calc_point_distance(self, chi_coords): chi1_bin, chi2_bin = self.find_point_bin(chi_coords) min_dist = 1000000000 indexes = None for chi1_bin_offset, chi2_bin_offset in self.bin_loop_order: curr_chi1_bin = chi1_bin + chi1_bin_offset curr_chi2_bin = chi2_bin + chi2_bin_offset for idx, bank_chis in \ enumerate(self.bank[curr_chi1_bin][curr_chi2_bin]): dist = coord_utils.calc_point_dist(chi_coords, bank_chis) if dist < min_dist: min_dist = dist indexes = (curr_chi1_bin, curr_chi2_bin, idx) return min_dist, indexes
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Calculate distance between point and the bank. Return the closest distance. Parameters ----------- chi_coords : numpy.array The position of the point in the chi coordinates. Returns -------- min_dist : float The smallest **SQUARED** metric distance between the test point and the bank. indexes : The chi1_bin, chi2_bin and position within that bin at which the closest matching point lies.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/tmpltbank/partitioned_bank.py#L234-L264
228,196
gwastro/pycbc
pycbc/tmpltbank/partitioned_bank.py
PartitionedTmpltbank.calc_point_distance_vary
def calc_point_distance_vary(self, chi_coords, point_fupper, mus): """ Calculate distance between point and the bank allowing the metric to vary based on varying upper frequency cutoff. Slower than calc_point_distance, but more reliable when upper frequency cutoff can change a lot. Parameters ----------- chi_coords : numpy.array The position of the point in the chi coordinates. point_fupper : float The upper frequency cutoff to use for this point. This value must be one of the ones already calculated in the metric. mus : numpy.array A 2D array where idx 0 holds the upper frequency cutoff and idx 1 holds the coordinates in the [not covaried] mu parameter space for each value of the upper frequency cutoff. Returns -------- min_dist : float The smallest **SQUARED** metric distance between the test point and the bank. indexes : The chi1_bin, chi2_bin and position within that bin at which the closest matching point lies. """ chi1_bin, chi2_bin = self.find_point_bin(chi_coords) min_dist = 1000000000 indexes = None for chi1_bin_offset, chi2_bin_offset in self.bin_loop_order: curr_chi1_bin = chi1_bin + chi1_bin_offset curr_chi2_bin = chi2_bin + chi2_bin_offset # No points = Next iteration curr_bank = self.massbank[curr_chi1_bin][curr_chi2_bin] if not curr_bank['mass1s'].size: continue # *NOT* the same of .min and .max f_upper = numpy.minimum(point_fupper, curr_bank['freqcuts']) f_other = numpy.maximum(point_fupper, curr_bank['freqcuts']) # NOTE: freq_idxes is a vector! freq_idxes = numpy.array([self.frequency_map[f] for f in f_upper]) # vecs1 gives a 2x2 vector: idx0 = stored index, idx1 = mu index vecs1 = mus[freq_idxes, :] # vecs2 gives a 2x2 vector: idx0 = stored index, idx1 = mu index range_idxes = numpy.arange(len(freq_idxes)) vecs2 = curr_bank['mus'][range_idxes, freq_idxes, :] # Now do the sums dists = (vecs1 - vecs2)*(vecs1 - vecs2) # This reduces to 1D: idx = stored index dists = numpy.sum(dists, axis=1) norm_upper = numpy.array([self.normalization_map[f] \ for f in f_upper]) norm_other = numpy.array([self.normalization_map[f] \ for f in f_other]) norm_fac = norm_upper / norm_other renormed_dists = 1 - (1 - dists)*norm_fac curr_min_dist = renormed_dists.min() if curr_min_dist < min_dist: min_dist = curr_min_dist indexes = curr_chi1_bin, curr_chi2_bin, renormed_dists.argmin() return min_dist, indexes
python
def calc_point_distance_vary(self, chi_coords, point_fupper, mus): chi1_bin, chi2_bin = self.find_point_bin(chi_coords) min_dist = 1000000000 indexes = None for chi1_bin_offset, chi2_bin_offset in self.bin_loop_order: curr_chi1_bin = chi1_bin + chi1_bin_offset curr_chi2_bin = chi2_bin + chi2_bin_offset # No points = Next iteration curr_bank = self.massbank[curr_chi1_bin][curr_chi2_bin] if not curr_bank['mass1s'].size: continue # *NOT* the same of .min and .max f_upper = numpy.minimum(point_fupper, curr_bank['freqcuts']) f_other = numpy.maximum(point_fupper, curr_bank['freqcuts']) # NOTE: freq_idxes is a vector! freq_idxes = numpy.array([self.frequency_map[f] for f in f_upper]) # vecs1 gives a 2x2 vector: idx0 = stored index, idx1 = mu index vecs1 = mus[freq_idxes, :] # vecs2 gives a 2x2 vector: idx0 = stored index, idx1 = mu index range_idxes = numpy.arange(len(freq_idxes)) vecs2 = curr_bank['mus'][range_idxes, freq_idxes, :] # Now do the sums dists = (vecs1 - vecs2)*(vecs1 - vecs2) # This reduces to 1D: idx = stored index dists = numpy.sum(dists, axis=1) norm_upper = numpy.array([self.normalization_map[f] \ for f in f_upper]) norm_other = numpy.array([self.normalization_map[f] \ for f in f_other]) norm_fac = norm_upper / norm_other renormed_dists = 1 - (1 - dists)*norm_fac curr_min_dist = renormed_dists.min() if curr_min_dist < min_dist: min_dist = curr_min_dist indexes = curr_chi1_bin, curr_chi2_bin, renormed_dists.argmin() return min_dist, indexes
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Calculate distance between point and the bank allowing the metric to vary based on varying upper frequency cutoff. Slower than calc_point_distance, but more reliable when upper frequency cutoff can change a lot. Parameters ----------- chi_coords : numpy.array The position of the point in the chi coordinates. point_fupper : float The upper frequency cutoff to use for this point. This value must be one of the ones already calculated in the metric. mus : numpy.array A 2D array where idx 0 holds the upper frequency cutoff and idx 1 holds the coordinates in the [not covaried] mu parameter space for each value of the upper frequency cutoff. Returns -------- min_dist : float The smallest **SQUARED** metric distance between the test point and the bank. indexes : The chi1_bin, chi2_bin and position within that bin at which the closest matching point lies.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/tmpltbank/partitioned_bank.py#L297-L361
228,197
gwastro/pycbc
pycbc/tmpltbank/partitioned_bank.py
PartitionedTmpltbank.add_point_by_chi_coords
def add_point_by_chi_coords(self, chi_coords, mass1, mass2, spin1z, spin2z, point_fupper=None, mus=None): """ Add a point to the partitioned template bank. The point_fupper and mus kwargs must be provided for all templates if the vary fupper capability is desired. This requires that the chi_coords, as well as mus and point_fupper if needed, to be precalculated. If you just have the masses and don't want to worry about translations see add_point_by_masses, which will do translations and then call this. Parameters ----------- chi_coords : numpy.array The position of the point in the chi coordinates. mass1 : float The heavier mass of the point to add. mass2 : float The lighter mass of the point to add. spin1z: float The [aligned] spin on the heavier body. spin2z: float The [aligned] spin on the lighter body. The upper frequency cutoff to use for this point. This value must be one of the ones already calculated in the metric. mus : numpy.array A 2D array where idx 0 holds the upper frequency cutoff and idx 1 holds the coordinates in the [not covaried] mu parameter space for each value of the upper frequency cutoff. """ chi1_bin, chi2_bin = self.find_point_bin(chi_coords) self.bank[chi1_bin][chi2_bin].append(copy.deepcopy(chi_coords)) curr_bank = self.massbank[chi1_bin][chi2_bin] if curr_bank['mass1s'].size: curr_bank['mass1s'] = numpy.append(curr_bank['mass1s'], numpy.array([mass1])) curr_bank['mass2s'] = numpy.append(curr_bank['mass2s'], numpy.array([mass2])) curr_bank['spin1s'] = numpy.append(curr_bank['spin1s'], numpy.array([spin1z])) curr_bank['spin2s'] = numpy.append(curr_bank['spin2s'], numpy.array([spin2z])) if point_fupper is not None: curr_bank['freqcuts'] = numpy.append(curr_bank['freqcuts'], numpy.array([point_fupper])) # Mus needs to append onto axis 0. See below for contents of # the mus variable if mus is not None: curr_bank['mus'] = numpy.append(curr_bank['mus'], numpy.array([mus[:,:]]), axis=0) else: curr_bank['mass1s'] = numpy.array([mass1]) curr_bank['mass2s'] = numpy.array([mass2]) curr_bank['spin1s'] = numpy.array([spin1z]) curr_bank['spin2s'] = numpy.array([spin2z]) if point_fupper is not None: curr_bank['freqcuts'] = numpy.array([point_fupper]) # curr_bank['mus'] is a 3D array # NOTE: mu relates to the non-covaried Cartesian coordinate system # Axis 0: Template index # Axis 1: Frequency cutoff index # Axis 2: Mu coordinate index if mus is not None: curr_bank['mus'] = numpy.array([mus[:,:]])
python
def add_point_by_chi_coords(self, chi_coords, mass1, mass2, spin1z, spin2z, point_fupper=None, mus=None): chi1_bin, chi2_bin = self.find_point_bin(chi_coords) self.bank[chi1_bin][chi2_bin].append(copy.deepcopy(chi_coords)) curr_bank = self.massbank[chi1_bin][chi2_bin] if curr_bank['mass1s'].size: curr_bank['mass1s'] = numpy.append(curr_bank['mass1s'], numpy.array([mass1])) curr_bank['mass2s'] = numpy.append(curr_bank['mass2s'], numpy.array([mass2])) curr_bank['spin1s'] = numpy.append(curr_bank['spin1s'], numpy.array([spin1z])) curr_bank['spin2s'] = numpy.append(curr_bank['spin2s'], numpy.array([spin2z])) if point_fupper is not None: curr_bank['freqcuts'] = numpy.append(curr_bank['freqcuts'], numpy.array([point_fupper])) # Mus needs to append onto axis 0. See below for contents of # the mus variable if mus is not None: curr_bank['mus'] = numpy.append(curr_bank['mus'], numpy.array([mus[:,:]]), axis=0) else: curr_bank['mass1s'] = numpy.array([mass1]) curr_bank['mass2s'] = numpy.array([mass2]) curr_bank['spin1s'] = numpy.array([spin1z]) curr_bank['spin2s'] = numpy.array([spin2z]) if point_fupper is not None: curr_bank['freqcuts'] = numpy.array([point_fupper]) # curr_bank['mus'] is a 3D array # NOTE: mu relates to the non-covaried Cartesian coordinate system # Axis 0: Template index # Axis 1: Frequency cutoff index # Axis 2: Mu coordinate index if mus is not None: curr_bank['mus'] = numpy.array([mus[:,:]])
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Add a point to the partitioned template bank. The point_fupper and mus kwargs must be provided for all templates if the vary fupper capability is desired. This requires that the chi_coords, as well as mus and point_fupper if needed, to be precalculated. If you just have the masses and don't want to worry about translations see add_point_by_masses, which will do translations and then call this. Parameters ----------- chi_coords : numpy.array The position of the point in the chi coordinates. mass1 : float The heavier mass of the point to add. mass2 : float The lighter mass of the point to add. spin1z: float The [aligned] spin on the heavier body. spin2z: float The [aligned] spin on the lighter body. The upper frequency cutoff to use for this point. This value must be one of the ones already calculated in the metric. mus : numpy.array A 2D array where idx 0 holds the upper frequency cutoff and idx 1 holds the coordinates in the [not covaried] mu parameter space for each value of the upper frequency cutoff.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/tmpltbank/partitioned_bank.py#L432-L495
228,198
gwastro/pycbc
pycbc/tmpltbank/partitioned_bank.py
PartitionedTmpltbank.add_tmpltbank_from_xml_table
def add_tmpltbank_from_xml_table(self, sngl_table, vary_fupper=False): """ This function will take a sngl_inspiral_table of templates and add them into the partitioned template bank object. Parameters ----------- sngl_table : sngl_inspiral_table List of sngl_inspiral templates. vary_fupper : False If given also include the additional information needed to compute distances with a varying upper frequency cutoff. """ for sngl in sngl_table: self.add_point_by_masses(sngl.mass1, sngl.mass2, sngl.spin1z, sngl.spin2z, vary_fupper=vary_fupper)
python
def add_tmpltbank_from_xml_table(self, sngl_table, vary_fupper=False): for sngl in sngl_table: self.add_point_by_masses(sngl.mass1, sngl.mass2, sngl.spin1z, sngl.spin2z, vary_fupper=vary_fupper)
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This function will take a sngl_inspiral_table of templates and add them into the partitioned template bank object. Parameters ----------- sngl_table : sngl_inspiral_table List of sngl_inspiral templates. vary_fupper : False If given also include the additional information needed to compute distances with a varying upper frequency cutoff.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/tmpltbank/partitioned_bank.py#L572-L587
228,199
gwastro/pycbc
pycbc/tmpltbank/partitioned_bank.py
PartitionedTmpltbank.add_tmpltbank_from_hdf_file
def add_tmpltbank_from_hdf_file(self, hdf_fp, vary_fupper=False): """ This function will take a pointer to an open HDF File object containing a list of templates and add them into the partitioned template bank object. Parameters ----------- hdf_fp : h5py.File object The template bank in HDF5 format. vary_fupper : False If given also include the additional information needed to compute distances with a varying upper frequency cutoff. """ mass1s = hdf_fp['mass1'][:] mass2s = hdf_fp['mass2'][:] spin1zs = hdf_fp['spin1z'][:] spin2zs = hdf_fp['spin2z'][:] for idx in xrange(len(mass1s)): self.add_point_by_masses(mass1s[idx], mass2s[idx], spin1zs[idx], spin2zs[idx], vary_fupper=vary_fupper)
python
def add_tmpltbank_from_hdf_file(self, hdf_fp, vary_fupper=False): mass1s = hdf_fp['mass1'][:] mass2s = hdf_fp['mass2'][:] spin1zs = hdf_fp['spin1z'][:] spin2zs = hdf_fp['spin2z'][:] for idx in xrange(len(mass1s)): self.add_point_by_masses(mass1s[idx], mass2s[idx], spin1zs[idx], spin2zs[idx], vary_fupper=vary_fupper)
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This function will take a pointer to an open HDF File object containing a list of templates and add them into the partitioned template bank object. Parameters ----------- hdf_fp : h5py.File object The template bank in HDF5 format. vary_fupper : False If given also include the additional information needed to compute distances with a varying upper frequency cutoff.
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7a64cdd104d263f1b6ea0b01e6841837d05a4cb3
https://github.com/gwastro/pycbc/blob/7a64cdd104d263f1b6ea0b01e6841837d05a4cb3/pycbc/tmpltbank/partitioned_bank.py#L589-L609