idx int64 0 251k | question stringlengths 53 3.53k | target stringlengths 5 1.23k | len_question int64 20 893 | len_target int64 3 238 |
|---|---|---|---|---|
250,200 | def parse ( self , limit : Optional [ int ] = None ) : if limit is not None : LOG . info ( "Only parsing first %d rows" , limit ) LOG . info ( "Parsing files..." ) file_path = '/' . join ( ( self . rawdir , self . files [ 'developmental_disorders' ] [ 'file' ] ) ) with gzip . open ( file_path , 'rt' ) as csvfile : reader = csv . reader ( csvfile ) next ( reader ) # header for row in reader : if limit is None or reader . line_num <= ( limit + 1 ) : self . _add_gene_disease ( row ) else : break LOG . info ( "Done parsing." ) | Here we parse each row of the gene to phenotype file | 165 | 11 |
250,201 | def _add_gene_disease ( self , row ) : # ::List getting syntax error here col = self . files [ 'developmental_disorders' ] [ 'columns' ] if len ( row ) != len ( col ) : raise ValueError ( "Unexpected number of fields for row {}" . format ( row ) ) variant_label = "variant of {}" . format ( row [ col . index ( 'gene_symbol' ) ] ) disease_omim_id = row [ col . index ( 'disease_omim_id' ) ] if disease_omim_id == 'No disease mim' : # check if we've manually curated disease_label = row [ col . index ( 'disease_label' ) ] if disease_label in self . mondo_map : disease_id = self . mondo_map [ disease_label ] else : return # sorry for this else : disease_id = 'OMIM:' + disease_omim_id hgnc_curie = 'HGNC:' + row [ col . index ( 'hgnc_id' ) ] relation_curie = self . resolve ( row [ col . index ( 'g2p_relation_label' ) ] ) mutation_consequence = row [ col . index ( 'mutation_consequence' ) ] if mutation_consequence not in ( 'uncertain' , '' ) : consequence_relation = self . resolve ( self . _get_consequence_predicate ( mutation_consequence ) ) consequence_curie = self . resolve ( mutation_consequence ) variant_label = "{} {}" . format ( mutation_consequence , variant_label ) else : consequence_relation = None consequence_curie = None allelic_requirement = row [ col . index ( 'allelic_requirement' ) ] if allelic_requirement != '' : requirement_curie = self . resolve ( allelic_requirement ) else : requirement_curie = None pmids = row [ col . index ( 'pmids' ) ] if pmids != '' : pmid_list = [ 'PMID:' + pmid for pmid in pmids . split ( ';' ) ] else : pmid_list = [ ] # build the model # Should we build a reusable object and/or tuple that # could be passed to a more general model builder for # this and orphanet (and maybe clinvar) self . _build_gene_disease_model ( hgnc_curie , relation_curie , disease_id , variant_label , consequence_relation , consequence_curie , requirement_curie , pmid_list ) | Parse and add gene variant disease model Model building happens in _build_gene_disease_model | 583 | 23 |
250,202 | def _build_gene_disease_model ( self , gene_id , relation_id , disease_id , variant_label , consequence_predicate = None , consequence_id = None , allelic_requirement = None , pmids = None ) : model = Model ( self . graph ) geno = Genotype ( self . graph ) pmids = [ ] if pmids is None else pmids is_variant = False variant_or_gene = gene_id variant_id_string = variant_label variant_bnode = self . make_id ( variant_id_string , "_" ) if consequence_predicate is not None and consequence_id is not None : is_variant = True model . addTriple ( variant_bnode , consequence_predicate , consequence_id ) # Hack to add labels to terms that # don't exist in an ontology if consequence_id . startswith ( ':' ) : model . addLabel ( consequence_id , consequence_id . strip ( ':' ) . replace ( '_' , ' ' ) ) if is_variant : variant_or_gene = variant_bnode # Typically we would type the variant using the # molecular consequence, but these are not specific # enough for us to make mappings (see translation table) model . addIndividualToGraph ( variant_bnode , variant_label , self . globaltt [ 'variant_locus' ] ) geno . addAffectedLocus ( variant_bnode , gene_id ) model . addBlankNodeAnnotation ( variant_bnode ) assoc = G2PAssoc ( self . graph , self . name , variant_or_gene , disease_id , relation_id ) assoc . source = pmids assoc . add_association_to_graph ( ) if allelic_requirement is not None and is_variant is False : model . addTriple ( assoc . assoc_id , self . globaltt [ 'has_allelic_requirement' ] , allelic_requirement ) if allelic_requirement . startswith ( ':' ) : model . addLabel ( allelic_requirement , allelic_requirement . strip ( ':' ) . replace ( '_' , ' ' ) ) | Builds gene variant disease model | 498 | 6 |
250,203 | def _get_identifiers ( self , limit ) : LOG . info ( "getting identifier mapping" ) line_counter = 0 f = '/' . join ( ( self . rawdir , self . files [ 'identifiers' ] [ 'file' ] ) ) myzip = ZipFile ( f , 'r' ) # assume that the first entry is the item fname = myzip . namelist ( ) [ 0 ] foundheader = False # TODO align this species filter with the one above # speciesfilters = 'Homo sapiens,Mus musculus,Drosophila melanogaster, # Danio rerio, Caenorhabditis elegans,Xenopus laevis'.split(',') speciesfilters = 'Homo sapiens,Mus musculus' . split ( ',' ) with myzip . open ( fname , 'r' ) as csvfile : for line in csvfile : # skip header lines if not foundheader : if re . match ( r'BIOGRID_ID' , line . decode ( ) ) : foundheader = True continue line = line . decode ( ) . strip ( ) # BIOGRID_ID # IDENTIFIER_VALUE # IDENTIFIER_TYPE # ORGANISM_OFFICIAL_NAME # 1 814566 ENTREZ_GENE Arabidopsis thaliana ( biogrid_num , id_num , id_type , organism_label ) = line . split ( '\t' ) if self . test_mode : graph = self . testgraph # skip any genes that don't match our test set if int ( biogrid_num ) not in self . biogrid_ids : continue else : graph = self . graph model = Model ( graph ) # for each one of these, # create the node and add equivalent classes biogrid_id = 'BIOGRID:' + biogrid_num prefix = self . localtt [ id_type ] # TODO make these filters available as commandline options # geneidtypefilters='NCBIGene,OMIM,MGI,FlyBase,ZFIN,MGI,HGNC, # WormBase,XenBase,ENSEMBL,miRBase'.split(',') geneidtypefilters = 'NCBIGene,MGI,ENSEMBL,ZFIN,HGNC' . split ( ',' ) # proteinidtypefilters='HPRD,Swiss-Prot,NCBIProtein' if ( speciesfilters is not None ) and ( organism_label . strip ( ) in speciesfilters ) : line_counter += 1 if ( geneidtypefilters is not None ) and ( prefix in geneidtypefilters ) : mapped_id = ':' . join ( ( prefix , id_num ) ) model . addEquivalentClass ( biogrid_id , mapped_id ) # this symbol will only get attached to the biogrid class elif id_type == 'OFFICIAL_SYMBOL' : model . addClassToGraph ( biogrid_id , id_num ) # elif (id_type == 'SYNONYM'): # FIXME - i am not sure these are synonyms, altids? # gu.addSynonym(g,biogrid_id,id_num) if not self . test_mode and limit is not None and line_counter > limit : break myzip . close ( ) return | This will process the id mapping file provided by Biogrid . The file has a very large header which we scan past then pull the identifiers and make equivalence axioms | 742 | 35 |
250,204 | def add_supporting_evidence ( self , evidence_line , evidence_type = None , label = None ) : self . graph . addTriple ( self . association , self . globaltt [ 'has_supporting_evidence_line' ] , evidence_line ) if evidence_type is not None : self . model . addIndividualToGraph ( evidence_line , label , evidence_type ) return | Add supporting line of evidence node to association id | 86 | 9 |
250,205 | def add_association_to_graph ( self ) : Assoc . add_association_to_graph ( self ) # make a blank stage if self . start_stage_id or self . end_stage_id is not None : stage_process_id = '-' . join ( ( str ( self . start_stage_id ) , str ( self . end_stage_id ) ) ) stage_process_id = '_:' + re . sub ( r':' , '' , stage_process_id ) self . model . addIndividualToGraph ( stage_process_id , None , self . globaltt [ 'developmental_process' ] ) self . graph . addTriple ( stage_process_id , self . globaltt [ 'starts during' ] , self . start_stage_id ) self . graph . addTriple ( stage_process_id , self . globaltt [ 'ends during' ] , self . end_stage_id ) self . stage_process_id = stage_process_id self . graph . addTriple ( self . assoc_id , self . globaltt [ 'has_qualifier' ] , self . stage_process_id ) if self . environment_id is not None : self . graph . addTriple ( self . assoc_id , self . globaltt [ 'has_qualifier' ] , self . environment_id ) return | Overrides Association by including bnode support | 304 | 9 |
250,206 | def parse ( self , limit = None ) : if limit is not None : LOG . info ( "Only parsing first %s rows fo each file" , str ( limit ) ) LOG . info ( "Parsing files..." ) self . _process_straininfo ( limit ) # the following will provide us the hash-lookups # These must be processed in a specific order # mapping between assays and ontology terms self . _process_ontology_mappings_file ( limit ) # this is the metadata about the measurements self . _process_measurements_file ( limit ) # get all the measurements per strain self . _process_strainmeans_file ( limit ) # The following will use the hash populated above # to lookup the ids when filling in the graph self . _fill_provenance_graph ( limit ) LOG . info ( "Finished parsing." ) return | MPD data is delivered in four separate csv files and one xml file which we process iteratively and write out as one large graph . | 188 | 28 |
250,207 | def _add_g2p_assoc ( self , graph , strain_id , sex , assay_id , phenotypes , comment ) : geno = Genotype ( graph ) model = Model ( graph ) eco_id = self . globaltt [ 'experimental phenotypic evidence' ] strain_label = self . idlabel_hash . get ( strain_id ) # strain genotype genotype_id = '_:' + '-' . join ( ( re . sub ( r':' , '' , strain_id ) , 'genotype' ) ) genotype_label = '[' + strain_label + ']' sex_specific_genotype_id = '_:' + '-' . join ( ( re . sub ( r':' , '' , strain_id ) , sex , 'genotype' ) ) if strain_label is not None : sex_specific_genotype_label = strain_label + ' (' + sex + ')' else : sex_specific_genotype_label = strain_id + '(' + sex + ')' genotype_type = self . globaltt [ 'sex_qualified_genotype' ] if sex == 'm' : genotype_type = self . globaltt [ 'male_genotype' ] elif sex == 'f' : genotype_type = self . globaltt [ 'female_genotype' ] # add the genotype to strain connection geno . addGenotype ( genotype_id , genotype_label , self . globaltt [ 'genomic_background' ] ) graph . addTriple ( strain_id , self . globaltt [ 'has_genotype' ] , genotype_id ) geno . addGenotype ( sex_specific_genotype_id , sex_specific_genotype_label , genotype_type ) # add the strain as the background for the genotype graph . addTriple ( sex_specific_genotype_id , self . globaltt [ 'has_sex_agnostic_part' ] , genotype_id ) # ############# BUILD THE G2P ASSOC ############# # TODO add more provenance info when that model is completed if phenotypes is not None : for phenotype_id in phenotypes : assoc = G2PAssoc ( graph , self . name , sex_specific_genotype_id , phenotype_id ) assoc . add_evidence ( assay_id ) assoc . add_evidence ( eco_id ) assoc . add_association_to_graph ( ) assoc_id = assoc . get_association_id ( ) model . addComment ( assoc_id , comment ) model . _addSexSpecificity ( assoc_id , self . resolve ( sex ) ) return | Create an association between a sex - specific strain id and each of the phenotypes . Here we create a genotype from the strain and a sex - specific genotype . Each of those genotypes are created as anonymous nodes . | 593 | 45 |
250,208 | def parse ( self , limit = None ) : if limit is not None : LOG . info ( "Only parsing first %s rows fo each file" , str ( limit ) ) LOG . info ( "Parsing files..." ) if self . test_only : self . test_mode = True # for f in ['impc', 'euro', 'mgd', '3i']: for f in [ 'all' ] : file = '/' . join ( ( self . rawdir , self . files [ f ] [ 'file' ] ) ) self . _process_data ( file , limit ) LOG . info ( "Finished parsing" ) return | IMPC data is delivered in three separate csv files OR in one integrated file each with the same file format . | 139 | 23 |
250,209 | def addGeneToPathway ( self , gene_id , pathway_id ) : gene_product = '_:' + re . sub ( r':' , '' , gene_id ) + 'product' self . model . addIndividualToGraph ( gene_product , None , self . globaltt [ 'gene_product' ] ) self . graph . addTriple ( gene_id , self . globaltt [ 'has gene product' ] , gene_product ) self . addComponentToPathway ( gene_product , pathway_id ) return | When adding a gene to a pathway we create an intermediate gene product that is involved in the pathway through a blank node . | 117 | 24 |
250,210 | def addComponentToPathway ( self , component_id , pathway_id ) : self . graph . addTriple ( component_id , self . globaltt [ 'involved in' ] , pathway_id ) return | This can be used directly when the component is directly involved in the pathway . If a transforming event is performed on the component first then the addGeneToPathway should be used instead . | 46 | 37 |
250,211 | def write ( self , fmt = 'turtle' , stream = None ) : fmt_ext = { 'rdfxml' : 'xml' , 'turtle' : 'ttl' , 'nt' : 'nt' , # ntriples 'nquads' : 'nq' , 'n3' : 'n3' # notation3 } # make the regular graph output file dest = None if self . name is not None : dest = '/' . join ( ( self . outdir , self . name ) ) if fmt in fmt_ext : dest = '.' . join ( ( dest , fmt_ext . get ( fmt ) ) ) else : dest = '.' . join ( ( dest , fmt ) ) LOG . info ( "Setting outfile to %s" , dest ) # make the dataset_file name, always format as turtle self . datasetfile = '/' . join ( ( self . outdir , self . name + '_dataset.ttl' ) ) LOG . info ( "Setting dataset file to %s" , self . datasetfile ) if self . dataset is not None and self . dataset . version is None : self . dataset . set_version_by_date ( ) LOG . info ( "No version for %s setting to date issued." , self . name ) else : LOG . warning ( "No output file set. Using stdout" ) stream = 'stdout' gu = GraphUtils ( None ) # the _dataset description is always turtle gu . write ( self . dataset . getGraph ( ) , 'turtle' , filename = self . datasetfile ) if self . test_mode : # unless we stop hardcoding, the test dataset is always turtle LOG . info ( "Setting testfile to %s" , self . testfile ) gu . write ( self . testgraph , 'turtle' , filename = self . testfile ) # print graph out if stream is None : outfile = dest elif stream . lower ( ) . strip ( ) == 'stdout' : outfile = None else : LOG . error ( "I don't understand our stream." ) return gu . write ( self . graph , fmt , filename = outfile ) | This convenience method will write out all of the graphs associated with the source . Right now these are hardcoded to be a single graph and a src_dataset . ttl and a src_test . ttl If you do not supply stream = stdout it will default write these to files . | 472 | 61 |
250,212 | def declareAsOntology ( self , graph ) : # <http://data.monarchinitiative.org/ttl/biogrid.ttl> a owl:Ontology ; # owl:versionInfo # <https://archive.monarchinitiative.org/YYYYMM/ttl/biogrid.ttl> model = Model ( graph ) # is self.outfile suffix set yet??? ontology_file_id = 'MonarchData:' + self . name + ".ttl" model . addOntologyDeclaration ( ontology_file_id ) # add timestamp as version info cur_time = datetime . now ( ) t_string = cur_time . strftime ( "%Y-%m-%d" ) ontology_version = t_string # TEC this means the MonarchArchive IRI needs the release updated # maybe extract the version info from there # should not hardcode the suffix as it may change archive_url = 'MonarchArchive:' + 'ttl/' + self . name + '.ttl' model . addOWLVersionIRI ( ontology_file_id , archive_url ) model . addOWLVersionInfo ( ontology_file_id , ontology_version ) | The file we output needs to be declared as an ontology including it s version information . | 270 | 18 |
250,213 | def remove_backslash_r ( filename , encoding ) : with open ( filename , 'r' , encoding = encoding , newline = r'\n' ) as filereader : contents = filereader . read ( ) contents = re . sub ( r'\r' , '' , contents ) with open ( filename , "w" ) as filewriter : filewriter . truncate ( ) filewriter . write ( contents ) | A helpful utility to remove Carriage Return from any file . This will read a file into memory and overwrite the contents of the original file . | 91 | 28 |
250,214 | def load_local_translationtable ( self , name ) : localtt_file = 'translationtable/' + name + '.yaml' try : with open ( localtt_file ) : pass except IOError : # write a stub file as a place holder if none exists with open ( localtt_file , 'w' ) as write_yaml : yaml . dump ( { name : name } , write_yaml ) finally : with open ( localtt_file , 'r' ) as read_yaml : localtt = yaml . safe_load ( read_yaml ) # inverse local translation. # note: keeping this invertable will be work. # Useful to not litter an ingest with external syntax self . localtcid = { v : k for k , v in localtt . items ( ) } return localtt | Load ingest specific translation from whatever they called something to the ontology label we need to map it to . To facilitate seeing more ontology lables in dipper ingests a reverse mapping from ontology lables to external strings is also generated and available as a dict localtcid | 179 | 56 |
250,215 | def addGene ( self , gene_id , gene_label , gene_type = None , gene_description = None ) : if gene_type is None : gene_type = self . globaltt [ 'gene' ] self . model . addClassToGraph ( gene_id , gene_label , gene_type , gene_description ) return | genes are classes | 74 | 4 |
250,216 | def get_ncbi_taxon_num_by_label ( label ) : req = { 'db' : 'taxonomy' , 'retmode' : 'json' , 'term' : label } req . update ( EREQ ) request = SESSION . get ( ESEARCH , params = req ) LOG . info ( 'fetching: %s' , request . url ) request . raise_for_status ( ) result = request . json ( ) [ 'esearchresult' ] # Occasionally eutils returns the json blob # {'ERROR': 'Invalid db name specified: taxonomy'} if 'ERROR' in result : request = SESSION . get ( ESEARCH , params = req ) LOG . info ( 'fetching: %s' , request . url ) request . raise_for_status ( ) result = request . json ( ) [ 'esearchresult' ] tax_num = None if 'count' in result and str ( result [ 'count' ] ) == '1' : tax_num = result [ 'idlist' ] [ 0 ] else : # TODO throw errors LOG . warning ( 'ESEARCH for taxon label "%s" returns %s' , label , str ( result ) ) return tax_num | Here we want to look up the NCBI Taxon id using some kind of label . It will only return a result if there is a unique hit . | 271 | 31 |
250,217 | def set_association_id ( self , assoc_id = None ) : if assoc_id is None : self . assoc_id = self . make_association_id ( self . definedby , self . sub , self . rel , self . obj ) else : self . assoc_id = assoc_id return self . assoc_id | This will set the association ID based on the internal parts of the association . To be used in cases where an external association identifier should be used . | 79 | 29 |
250,218 | def make_association_id ( definedby , sub , pred , obj , attributes = None ) : items_to_hash = [ definedby , sub , pred , obj ] if attributes is not None and len ( attributes ) > 0 : items_to_hash += attributes items_to_hash = [ x for x in items_to_hash if x is not None ] assoc_id = ':' . join ( ( 'MONARCH' , GraphUtils . digest_id ( '+' . join ( items_to_hash ) ) ) ) assert assoc_id is not None return assoc_id | A method to create unique identifiers for OBAN - style associations based on all the parts of the association If any of the items is empty or None it will convert it to blank . It effectively digests the string of concatonated values . Subclasses of Assoc can submit an additional array of attributes that will be appeded to the ID . | 132 | 69 |
250,219 | def toRoman ( num ) : if not 0 < num < 5000 : raise ValueError ( "number %n out of range (must be 1..4999)" , num ) if int ( num ) != num : raise TypeError ( "decimals %n can not be converted" , num ) result = "" for numeral , integer in romanNumeralMap : while num >= integer : result += numeral num -= integer return result | convert integer to Roman numeral | 92 | 7 |
250,220 | def fromRoman ( strng ) : if not strng : raise TypeError ( 'Input can not be blank' ) if not romanNumeralPattern . search ( strng ) : raise ValueError ( 'Invalid Roman numeral: %s' , strng ) result = 0 index = 0 for numeral , integer in romanNumeralMap : while strng [ index : index + len ( numeral ) ] == numeral : result += integer index += len ( numeral ) return result | convert Roman numeral to integer | 104 | 7 |
250,221 | def _process_genotype_backgrounds ( self , limit = None ) : if self . test_mode : graph = self . testgraph else : graph = self . graph model = Model ( graph ) LOG . info ( "Processing genotype backgrounds" ) line_counter = 0 raw = '/' . join ( ( self . rawdir , self . files [ 'backgrounds' ] [ 'file' ] ) ) geno = Genotype ( graph ) # Add the taxon as a class taxon_id = self . globaltt [ 'Danio rerio' ] model . addClassToGraph ( taxon_id , None ) with open ( raw , 'r' , encoding = "iso-8859-1" ) as csvfile : filereader = csv . reader ( csvfile , delimiter = '\t' , quotechar = '\"' ) for row in filereader : line_counter += 1 # Genotype_ID Genotype_Name Background Background_Name ( genotype_id , genotype_name , background_id , unused ) = row if self . test_mode and genotype_id not in self . test_ids [ 'genotype' ] : continue genotype_id = 'ZFIN:' + genotype_id . strip ( ) background_id = 'ZFIN:' + background_id . strip ( ) # store this in the hash for later lookup # when building fish genotypes self . genotype_backgrounds [ genotype_id ] = background_id # add the background into the graph, # in case we haven't seen it before geno . addGenomicBackground ( background_id , None ) # hang the taxon from the background geno . addTaxon ( taxon_id , background_id ) # add the intrinsic genotype to the graph # we DO NOT ADD THE LABEL here # as it doesn't include the background geno . addGenotype ( genotype_id , None , self . globaltt [ 'intrinsic_genotype' ] ) # Add background to the intrinsic genotype geno . addGenomicBackgroundToGenotype ( background_id , genotype_id ) if not self . test_mode and limit is not None and line_counter > limit : break LOG . info ( "Done with genotype backgrounds" ) return | This table provides a mapping of genotypes to background genotypes Note that the background_id is also a genotype_id . | 496 | 26 |
250,222 | def _process_stages ( self , limit = None ) : if self . test_mode : graph = self . testgraph else : graph = self . graph model = Model ( graph ) LOG . info ( "Processing stages" ) line_counter = 0 raw = '/' . join ( ( self . rawdir , self . files [ 'stage' ] [ 'file' ] ) ) with open ( raw , 'r' , encoding = "iso-8859-1" ) as csvfile : filereader = csv . reader ( csvfile , delimiter = '\t' , quotechar = '\"' ) for row in filereader : line_counter += 1 ( stage_id , stage_obo_id , stage_name , begin_hours , end_hours # ,empty # till next time ) = row # Add the stage as a class, and it's obo equivalent stage_id = 'ZFIN:' + stage_id . strip ( ) model . addClassToGraph ( stage_id , stage_name ) model . addEquivalentClass ( stage_id , stage_obo_id ) if not self . test_mode and limit is not None and line_counter > limit : break LOG . info ( "Done with stages" ) return | This table provides mappings between ZFIN stage IDs and ZFS terms and includes the starting and ending hours for the developmental stage . Currently only processing the mapping from the ZFIN stage ID to the ZFS ID . | 271 | 43 |
250,223 | def _process_genes ( self , limit = None ) : LOG . info ( "Processing genes" ) if self . test_mode : graph = self . testgraph else : graph = self . graph model = Model ( graph ) line_counter = 0 raw = '/' . join ( ( self . rawdir , self . files [ 'gene' ] [ 'file' ] ) ) geno = Genotype ( graph ) with open ( raw , 'r' , encoding = "iso-8859-1" ) as csvfile : filereader = csv . reader ( csvfile , delimiter = '\t' , quotechar = '\"' ) for row in filereader : line_counter += 1 ( gene_id , gene_so_id , gene_symbol , ncbi_gene_id # , empty # till next time ) = row if self . test_mode and gene_id not in self . test_ids [ 'gene' ] : continue gene_id = 'ZFIN:' + gene_id . strip ( ) ncbi_gene_id = 'NCBIGene:' + ncbi_gene_id . strip ( ) self . id_label_map [ gene_id ] = gene_symbol if not self . test_mode and limit is not None and line_counter > limit : pass else : geno . addGene ( gene_id , gene_symbol ) model . addEquivalentClass ( gene_id , ncbi_gene_id ) LOG . info ( "Done with genes" ) return | This table provides the ZFIN gene id the SO type of the gene the gene symbol and the NCBI Gene ID . | 342 | 24 |
250,224 | def _process_features ( self , limit = None ) : if self . test_mode : graph = self . testgraph else : graph = self . graph model = Model ( graph ) LOG . info ( "Processing features" ) line_counter = 0 geno = Genotype ( graph ) raw = '/' . join ( ( self . rawdir , self . files [ 'features' ] [ 'file' ] ) ) with open ( raw , 'r' , encoding = "iso-8859-1" ) as csvfile : filereader = csv . reader ( csvfile , delimiter = '\t' , quotechar = '\"' ) for row in filereader : line_counter += 1 ( genomic_feature_id , feature_so_id , genomic_feature_abbreviation , genomic_feature_name , genomic_feature_type , mutagen , mutagee , construct_id , construct_name , construct_so_id , talen_crispr_id , talen_crispr_nam # , empty ) = row if self . test_mode and ( genomic_feature_id not in self . test_ids [ 'allele' ] ) : continue genomic_feature_id = 'ZFIN:' + genomic_feature_id . strip ( ) model . addIndividualToGraph ( genomic_feature_id , genomic_feature_name , feature_so_id ) model . addSynonym ( genomic_feature_id , genomic_feature_abbreviation ) if construct_id is not None and construct_id != '' : construct_id = 'ZFIN:' + construct_id . strip ( ) geno . addConstruct ( construct_id , construct_name , construct_so_id ) geno . addSequenceDerivesFrom ( genomic_feature_id , construct_id ) # Note, we don't really care about how the variant was derived. # so we skip that. # add to the id-label map self . id_label_map [ genomic_feature_id ] = genomic_feature_abbreviation self . id_label_map [ construct_id ] = construct_name if not self . test_mode and limit is not None and line_counter > limit : break LOG . info ( "Done with features" ) return | This module provides information for the intrinsic and extrinsic genotype features of zebrafish . All items here are alterations and are therefore instances . | 492 | 29 |
250,225 | def _process_pubinfo ( self , limit = None ) : line_counter = 0 if self . test_mode : graph = self . testgraph else : graph = self . graph model = Model ( graph ) raw = '/' . join ( ( self . rawdir , self . files [ 'pubs' ] [ 'file' ] ) ) with open ( raw , 'r' , encoding = "latin-1" ) as csvfile : filereader = csv . reader ( csvfile , delimiter = '\t' , quotechar = '\"' ) for row in filereader : line_counter += 1 try : ( pub_id , pubmed_id , authors , title , journal , year , vol , pages ) = row except ValueError : try : ( pub_id , pubmed_id , authors , title , journal , year , vol , pages # , empty ) = row except ValueError : LOG . warning ( "Error parsing row %s: " , row ) if self . test_mode and ( 'ZFIN:' + pub_id not in self . test_ids [ 'pub' ] and 'PMID:' + pubmed_id not in self . test_ids [ 'pub' ] ) : continue pub_id = 'ZFIN:' + pub_id . strip ( ) # trim the author list for ease of reading alist = re . split ( r',' , authors ) if len ( alist ) > 1 : astring = ' ' . join ( ( alist [ 0 ] . strip ( ) , 'et al' ) ) else : astring = authors pub_label = '; ' . join ( ( astring , title , journal , year , vol , pages ) ) ref = Reference ( graph , pub_id ) ref . setShortCitation ( pub_label ) ref . setYear ( year ) ref . setTitle ( title ) if pubmed_id is not None and pubmed_id != '' : # let's make an assumption that if there's a pubmed id, # that it is a journal article ref . setType ( self . globaltt [ 'journal article' ] ) pubmed_id = 'PMID:' + pubmed_id . strip ( ) rpm = Reference ( graph , pubmed_id , self . globaltt [ 'journal article' ] ) rpm . addRefToGraph ( ) model . addSameIndividual ( pub_id , pubmed_id ) model . makeLeader ( pubmed_id ) ref . addRefToGraph ( ) if not self . test_mode and limit is not None and line_counter > limit : break return | This will pull the zfin internal publication information and map them to their equivalent pmid and make labels . | 559 | 21 |
250,226 | def _process_pub2pubmed ( self , limit = None ) : line_counter = 0 if self . test_mode : graph = self . testgraph else : graph = self . graph model = Model ( graph ) raw = '/' . join ( ( self . rawdir , self . files [ 'pub2pubmed' ] [ 'file' ] ) ) with open ( raw , 'r' , encoding = "latin-1" ) as csvfile : filereader = csv . reader ( csvfile , delimiter = '\t' , quotechar = '\"' ) for row in filereader : line_counter += 1 ( pub_id , pubmed_id # , empty ) = row if self . test_mode and ( 'ZFIN:' + pub_id not in self . test_ids [ 'pub' ] and 'PMID:' + pubmed_id not in self . test_ids [ 'pub' ] ) : continue pub_id = 'ZFIN:' + pub_id . strip ( ) rtype = None if pubmed_id != '' and pubmed_id is not None : pubmed_id = 'PMID:' + pubmed_id . strip ( ) rtype = self . globaltt [ 'journal article' ] rpm = Reference ( graph , pubmed_id , rtype ) rpm . addRefToGraph ( ) model . addSameIndividual ( pub_id , pubmed_id ) ref = Reference ( graph , pub_id , rtype ) ref . addRefToGraph ( ) if not self . test_mode and limit is not None and line_counter > limit : break return | This will pull the zfin internal publication to pubmed mappings . Somewhat redundant with the process_pubinfo method but this includes additional mappings . | 353 | 31 |
250,227 | def _process_targeting_reagents ( self , reagent_type , limit = None ) : LOG . info ( "Processing Gene Targeting Reagents" ) if self . test_mode : graph = self . testgraph else : graph = self . graph line_counter = 0 model = Model ( graph ) geno = Genotype ( graph ) if reagent_type not in [ 'morph' , 'talen' , 'crispr' ] : LOG . error ( "You didn't specify the right kind of file type." ) return raw = '/' . join ( ( self . rawdir , self . files [ reagent_type ] [ 'file' ] ) ) with open ( raw , 'r' , encoding = "iso-8859-1" ) as csvfile : filereader = csv . reader ( csvfile , delimiter = '\t' , quotechar = '\"' ) for row in filereader : line_counter += 1 if reagent_type in [ 'morph' , 'crispr' ] : try : ( gene_num , gene_so_id , gene_symbol , reagent_num , reagent_so_id , reagent_symbol , reagent_sequence , publication , note ) = row except ValueError : # Catch lines without publication or note ( gene_num , gene_so_id , gene_symbol , reagent_num , reagent_so_id , reagent_symbol , reagent_sequence , publication ) = row elif reagent_type == 'talen' : ( gene_num , gene_so_id , gene_symbol , reagent_num , reagent_so_id , reagent_symbol , reagent_sequence , reagent_sequence2 , publication , note ) = row else : # should not get here return reagent_id = 'ZFIN:' + reagent_num . strip ( ) gene_id = 'ZFIN:' + gene_num . strip ( ) self . id_label_map [ reagent_id ] = reagent_symbol if self . test_mode and ( reagent_num not in self . test_ids [ 'morpholino' ] and gene_num not in self . test_ids [ 'gene' ] ) : continue geno . addGeneTargetingReagent ( reagent_id , reagent_symbol , reagent_so_id , gene_id ) # The reagent targeted gene is added # in the pheno_environment processing function. # Add publication # note that the publications can be comma-delimited, # like: ZDB-PUB-100719-4,ZDB-PUB-130703-22 if publication != '' : pubs = re . split ( r',' , publication . strip ( ) ) for pub in pubs : pub_id = 'ZFIN:' + pub . strip ( ) ref = Reference ( graph , pub_id ) ref . addRefToGraph ( ) graph . addTriple ( pub_id , self . globaltt [ 'mentions' ] , reagent_id ) # Add comment? if note != '' : model . addComment ( reagent_id , note ) # use the variant hash for reagents to list the affected genes if reagent_id not in self . variant_loci_genes : self . variant_loci_genes [ reagent_id ] = [ gene_id ] else : if gene_id not in self . variant_loci_genes [ reagent_id ] : self . variant_loci_genes [ reagent_id ] += [ gene_id ] if not self . test_mode and limit is not None and line_counter > limit : break LOG . info ( "Done with Reagent type %s" , reagent_type ) return | This method processes the gene targeting knockdown reagents such as morpholinos talens and crisprs . We create triples for the reagents and pass the data into a hash map for use in the pheno_enviro method . | 828 | 49 |
250,228 | def _process_uniprot_ids ( self , limit = None ) : LOG . info ( "Processing UniProt IDs" ) if self . test_mode : graph = self . testgraph else : graph = self . graph line_counter = 0 model = Model ( graph ) geno = Genotype ( graph ) raw = '/' . join ( ( self . rawdir , self . files [ 'uniprot' ] [ 'file' ] ) ) with open ( raw , 'r' , encoding = "iso-8859-1" ) as csvfile : filereader = csv . reader ( csvfile , delimiter = '\t' , quotechar = '\"' ) for row in filereader : line_counter += 1 ( gene_id , gene_so_id , gene_symbol , uniprot_id # , empty ) = row if self . test_mode and gene_id not in self . test_ids [ 'gene' ] : continue gene_id = 'ZFIN:' + gene_id . strip ( ) uniprot_id = 'UniProtKB:' + uniprot_id . strip ( ) geno . addGene ( gene_id , gene_symbol ) # TODO: Abstract to one of the model utilities model . addIndividualToGraph ( uniprot_id , None , self . globaltt [ 'polypeptide' ] ) graph . addTriple ( gene_id , self . globaltt [ 'has gene product' ] , uniprot_id ) if not self . test_mode and limit is not None and line_counter > limit : break LOG . info ( "Done with UniProt IDs" ) return | This method processes the mappings from ZFIN gene IDs to UniProtKB IDs . | 366 | 17 |
250,229 | def get_orthology_evidence_code ( self , abbrev ) : # AA Amino acid sequence comparison. # CE Coincident expression. # CL Conserved genome location (synteny). # FC Functional complementation. # FH Formation of functional heteropolymers. # IX Immunological cross-reaction. # NS Not specified. # NT Nucleotide sequence comparison. # SI Similar response to inhibitors. # SL Similar subcellular location. # SS Similar substrate specificity. # SU Similar subunit structure. # XH Cross-hybridization to same molecular probe. # PT Phylogenetic Tree. # OT Other eco_abbrev_map = { 'AA' : 'ECO:0000031' , # BLAST protein sequence similarity evidence 'CE' : 'ECO:0000008' , # expression evidence 'CL' : 'ECO:0000044' , # sequence similarity FIXME 'FC' : 'ECO:0000012' , # functional complementation # functional complementation in a heterologous system 'FH' : 'ECO:0000064' , 'IX' : 'ECO:0000040' , # immunological assay evidence 'NS' : None , 'NT' : 'ECO:0000032' , # nucleotide blast 'SI' : 'ECO:0000094' , # biological assay evidence FIXME 'SL' : 'ECO:0000122' , # protein localization evidence FIXME 'SS' : 'ECO:0000024' , # protein binding evidence FIXME 'SU' : 'ECO:0000027' , # structural similarity evidence 'XH' : 'ECO:0000002' , # direct assay evidence FIXME 'PT' : 'ECO:0000080' , # phylogenetic evidence 'OT' : None , } if abbrev not in eco_abbrev_map : LOG . warning ( "Evidence code for orthology (%s) not mapped" , str ( abbrev ) ) return eco_abbrev_map . get ( abbrev ) | move to localtt & globltt | 431 | 8 |
250,230 | def _process_diseases ( self , limit = None ) : LOG . info ( "Processing diseases" ) if self . test_mode : graph = self . testgraph else : graph = self . graph line_counter = 0 model = Model ( graph ) raw = '/' . join ( ( self . rawdir , self . files [ 'disease' ] [ 'file' ] ) ) with open ( raw , 'r' , encoding = "iso-8859-1" ) as csvfile : filereader = csv . reader ( csvfile , delimiter = '\t' , quotechar = '\"' ) for row in filereader : line_counter += 1 ( disease_id , disease_name ) = row disease_id = 'KEGG-' + disease_id . strip ( ) if disease_id not in self . label_hash : self . label_hash [ disease_id ] = disease_name if self . test_mode and disease_id not in self . test_ids [ 'disease' ] : continue # Add the disease as a class. # we don't get all of these from MONDO yet see: # https://github.com/monarch-initiative/human-disease-ontology/issues/3 model . addClassToGraph ( disease_id , disease_name ) # not typing the diseases as DOID:4 yet because # I don't want to bulk up the graph unnecessarily if not self . test_mode and ( limit is not None and line_counter > limit ) : break LOG . info ( "Done with diseases" ) return | This method processes the KEGG disease IDs . | 348 | 10 |
250,231 | def _process_genes ( self , limit = None ) : LOG . info ( "Processing genes" ) if self . test_mode : graph = self . testgraph else : graph = self . graph model = Model ( graph ) line_counter = 0 family = Family ( graph ) geno = Genotype ( graph ) raw = '/' . join ( ( self . rawdir , self . files [ 'hsa_genes' ] [ 'file' ] ) ) with open ( raw , 'r' , encoding = "iso-8859-1" ) as csvfile : filereader = csv . reader ( csvfile , delimiter = '\t' , quotechar = '\"' ) for row in filereader : line_counter += 1 ( gene_id , gene_name ) = row gene_id = 'KEGG-' + gene_id . strip ( ) # the gene listing has a bunch of labels # that are delimited, as: # DST, BP240, BPA, BPAG1, CATX-15, CATX15, D6S1101, DMH, DT, # EBSB2, HSAN6, MACF2; dystonin; K10382 dystonin # it looks like the list is semicolon delimited # (symbol, name, gene_class) # where the symbol is a comma-delimited list # here, we split them up. # we will take the first abbreviation and make it the symbol # then take the rest as synonyms gene_stuff = re . split ( 'r;' , gene_name ) symbollist = re . split ( r',' , gene_stuff [ 0 ] ) first_symbol = symbollist [ 0 ] . strip ( ) if gene_id not in self . label_hash : self . label_hash [ gene_id ] = first_symbol if self . test_mode and gene_id not in self . test_ids [ 'genes' ] : continue # Add the gene as a class. geno . addGene ( gene_id , first_symbol ) # add the long name as the description if len ( gene_stuff ) > 1 : description = gene_stuff [ 1 ] . strip ( ) model . addDefinition ( gene_id , description ) # add the rest of the symbols as synonyms for i in enumerate ( symbollist , start = 1 ) : model . addSynonym ( gene_id , i [ 1 ] . strip ( ) ) if len ( gene_stuff ) > 2 : ko_part = gene_stuff [ 2 ] ko_match = re . search ( r'K\d+' , ko_part ) if ko_match is not None and len ( ko_match . groups ( ) ) == 1 : ko = 'KEGG-ko:' + ko_match . group ( 1 ) family . addMemberOf ( gene_id , ko ) if not self . test_mode and limit is not None and line_counter > limit : break LOG . info ( "Done with genes" ) return | This method processes the KEGG gene IDs . The label for the gene is pulled as the first symbol in the list of gene symbols ; the rest are added as synonyms . The long - form of the gene name is added as a definition . This is hardcoded to just processes human genes . | 664 | 60 |
250,232 | def _process_ortholog_classes ( self , limit = None ) : LOG . info ( "Processing ortholog classes" ) if self . test_mode : graph = self . testgraph else : graph = self . graph model = Model ( graph ) line_counter = 0 raw = '/' . join ( ( self . rawdir , self . files [ 'ortholog_classes' ] [ 'file' ] ) ) with open ( raw , 'r' , encoding = "iso-8859-1" ) as csvfile : filereader = csv . reader ( csvfile , delimiter = '\t' , quotechar = '\"' ) for row in filereader : line_counter += 1 ( orthology_class_id , orthology_class_name ) = row if self . test_mode and orthology_class_id not in self . test_ids [ 'orthology_classes' ] : continue # The orthology class is essentially a KEGG gene ID # that is species agnostic. # Add the ID and label as a gene family class other_labels = re . split ( r'[;,]' , orthology_class_name ) # the first one is the label we'll use orthology_label = other_labels [ 0 ] orthology_class_id = 'KEGG-' + orthology_class_id . strip ( ) orthology_type = self . globaltt [ 'gene_family' ] model . addClassToGraph ( orthology_class_id , orthology_label , orthology_type ) if len ( other_labels ) > 1 : # add the rest as synonyms # todo skip the first for s in other_labels : model . addSynonym ( orthology_class_id , s . strip ( ) ) # add the last one as the description d = other_labels [ len ( other_labels ) - 1 ] model . addDescription ( orthology_class_id , d ) # add the enzyme commission number (EC:1.2.99.5)as an xref # sometimes there's two, like [EC:1.3.5.1 1.3.5.4] # can also have a dash, like EC:1.10.3.- ec_matches = re . findall ( r'((?:\d+|\.|-){5,7})' , d ) if ec_matches is not None : for ecm in ec_matches : model . addXref ( orthology_class_id , 'EC:' + ecm ) if not self . test_mode and limit is not None and line_counter > limit : break LOG . info ( "Done with ortholog classes" ) return | This method add the KEGG orthology classes to the graph . | 593 | 14 |
250,233 | def _process_orthologs ( self , raw , limit = None ) : LOG . info ( "Processing orthologs" ) if self . test_mode : graph = self . testgraph else : graph = self . graph model = Model ( graph ) line_counter = 0 with open ( raw , 'r' , encoding = "iso-8859-1" ) as csvfile : filereader = csv . reader ( csvfile , delimiter = '\t' , quotechar = '\"' ) for row in filereader : line_counter += 1 ( gene_id , orthology_class_id ) = row orthology_class_id = 'KEGG:' + orthology_class_id . strip ( ) gene_id = 'KEGG:' + gene_id . strip ( ) # note that the panther_id references a group of orthologs, # and is not 1:1 with the rest # add the KO id as a gene-family grouping class OrthologyAssoc ( graph , self . name , gene_id , None ) . add_gene_family_to_graph ( orthology_class_id ) # add gene and orthology class to graph; # assume labels will be taken care of elsewhere model . addClassToGraph ( gene_id , None ) model . addClassToGraph ( orthology_class_id , None ) if not self . test_mode and limit is not None and line_counter > limit : break LOG . info ( "Done with orthologs" ) return | This method maps orthologs for a species to the KEGG orthology classes . | 332 | 18 |
250,234 | def _process_kegg_disease2gene ( self , limit = None ) : LOG . info ( "Processing KEGG disease to gene" ) if self . test_mode : graph = self . testgraph else : graph = self . graph model = Model ( graph ) line_counter = 0 geno = Genotype ( graph ) rel = self . globaltt [ 'is marker for' ] noomimset = set ( ) raw = '/' . join ( ( self . rawdir , self . files [ 'disease_gene' ] [ 'file' ] ) ) with open ( raw , 'r' , encoding = "iso-8859-1" ) as csvfile : filereader = csv . reader ( csvfile , delimiter = '\t' , quotechar = '\"' ) for row in filereader : line_counter += 1 ( gene_id , disease_id ) = row if self . test_mode and gene_id not in self . test_ids [ 'genes' ] : continue gene_id = 'KEGG-' + gene_id . strip ( ) disease_id = 'KEGG-' + disease_id . strip ( ) # only add diseases for which # there is no omim id and not a grouping class if disease_id not in self . kegg_disease_hash : # add as a class disease_label = None if disease_id in self . label_hash : disease_label = self . label_hash [ disease_id ] if re . search ( r'includ' , str ( disease_label ) ) : # they use 'including' when it's a grouping class LOG . info ( "Skipping this association because " + "it's a grouping class: %s" , disease_label ) continue # type this disease_id as a disease model . addClassToGraph ( disease_id , disease_label ) # , class_type=self.globaltt['disease']) noomimset . add ( disease_id ) alt_locus_id = self . _make_variant_locus_id ( gene_id , disease_id ) alt_label = self . label_hash [ alt_locus_id ] model . addIndividualToGraph ( alt_locus_id , alt_label , self . globaltt [ 'variant_locus' ] ) geno . addAffectedLocus ( alt_locus_id , gene_id ) model . addBlankNodeAnnotation ( alt_locus_id ) # Add the disease to gene relationship. assoc = G2PAssoc ( graph , self . name , alt_locus_id , disease_id , rel ) assoc . add_association_to_graph ( ) if not self . test_mode and ( limit is not None and line_counter > limit ) : break LOG . info ( "Done with KEGG disease to gene" ) LOG . info ( "Found %d diseases with no omim id" , len ( noomimset ) ) return | This method creates an association between diseases and their associated genes . We are being conservative here and only processing those diseases for which there is no mapping to OMIM . | 668 | 32 |
250,235 | def _process_omim2gene ( self , limit = None ) : LOG . info ( "Processing OMIM to KEGG gene" ) if self . test_mode : graph = self . testgraph else : graph = self . graph model = Model ( graph ) line_counter = 0 geno = Genotype ( graph ) raw = '/' . join ( ( self . rawdir , self . files [ 'omim2gene' ] [ 'file' ] ) ) with open ( raw , 'r' , encoding = "iso-8859-1" ) as csvfile : filereader = csv . reader ( csvfile , delimiter = '\t' , quotechar = '\"' ) for row in filereader : line_counter += 1 ( kegg_gene_id , omim_id , link_type ) = row if self . test_mode and kegg_gene_id not in self . test_ids [ 'genes' ] : continue kegg_gene_id = 'KEGG-' + kegg_gene_id . strip ( ) omim_id = re . sub ( r'omim' , 'OMIM' , omim_id ) if link_type == 'equivalent' : # these are genes! # so add them as a class then make equivalence model . addClassToGraph ( omim_id , None ) geno . addGene ( kegg_gene_id , None ) if not DipperUtil . is_omim_disease ( omim_id ) : model . addEquivalentClass ( kegg_gene_id , omim_id ) elif link_type == 'reverse' : # make an association between an OMIM ID & the KEGG gene ID # we do this with omim ids because # they are more atomic than KEGG ids alt_locus_id = self . _make_variant_locus_id ( kegg_gene_id , omim_id ) alt_label = self . label_hash [ alt_locus_id ] model . addIndividualToGraph ( alt_locus_id , alt_label , self . globaltt [ 'variant_locus' ] ) geno . addAffectedLocus ( alt_locus_id , kegg_gene_id ) model . addBlankNodeAnnotation ( alt_locus_id ) # Add the disease to gene relationship. rel = self . globaltt [ 'is marker for' ] assoc = G2PAssoc ( graph , self . name , alt_locus_id , omim_id , rel ) assoc . add_association_to_graph ( ) elif link_type == 'original' : # these are sometimes a gene, and sometimes a disease LOG . info ( 'Unable to handle original link for %s-%s' , kegg_gene_id , omim_id ) else : # don't know what these are LOG . warning ( 'Unhandled link type for %s-%s: %s' , kegg_gene_id , omim_id , link_type ) if ( not self . test_mode ) and ( limit is not None and line_counter > limit ) : break LOG . info ( "Done with OMIM to KEGG gene" ) return | This method maps the OMIM IDs and KEGG gene ID . Currently split based on the link_type field . Equivalent link types are mapped as gene XRefs . Reverse link types are mapped as disease to gene associations . Original link types are currently skipped . | 737 | 54 |
250,236 | def _process_genes_kegg2ncbi ( self , limit = None ) : LOG . info ( "Processing KEGG gene IDs to NCBI gene IDs" ) if self . test_mode : graph = self . testgraph else : graph = self . graph model = Model ( graph ) line_counter = 0 raw = '/' . join ( ( self . rawdir , self . files [ 'ncbi' ] [ 'file' ] ) ) with open ( raw , 'r' , encoding = "iso-8859-1" ) as csvfile : filereader = csv . reader ( csvfile , delimiter = '\t' , quotechar = '\"' ) for row in filereader : line_counter += 1 ( kegg_gene_id , ncbi_gene_id , link_type ) = row if self . test_mode and kegg_gene_id not in self . test_ids [ 'genes' ] : continue # Adjust the NCBI gene ID prefix. ncbi_gene_id = re . sub ( r'ncbi-geneid' , 'NCBIGene' , ncbi_gene_id ) kegg_gene_id = 'KEGG-' + kegg_gene_id # Adding the KEGG gene ID to the graph here is redundant, # unless there happens to be additional gene IDs in this table # not present in the genes table. model . addClassToGraph ( kegg_gene_id , None ) model . addClassToGraph ( ncbi_gene_id , None ) model . addEquivalentClass ( kegg_gene_id , ncbi_gene_id ) if not self . test_mode and ( limit is not None and line_counter > limit ) : break LOG . info ( "Done with KEGG gene IDs to NCBI gene IDs" ) return | This method maps the KEGG human gene IDs to the corresponding NCBI Gene IDs . | 419 | 18 |
250,237 | def _process_pathway_disease ( self , limit ) : LOG . info ( "Processing KEGG pathways to disease ids" ) if self . test_mode : graph = self . testgraph else : graph = self . graph line_counter = 0 raw = '/' . join ( ( self . rawdir , self . files [ 'pathway_disease' ] [ 'file' ] ) ) with open ( raw , 'r' , encoding = "iso-8859-1" ) as csvfile : filereader = csv . reader ( csvfile , delimiter = '\t' , quotechar = '\"' ) for row in filereader : line_counter += 1 ( disease_id , kegg_pathway_num ) = row if self . test_mode and kegg_pathway_num not in self . test_ids [ 'pathway' ] : continue disease_id = 'KEGG-' + disease_id # will look like KEGG-path:map04130 or KEGG-path:hsa04130 pathway_id = 'KEGG-' + kegg_pathway_num graph . addTriple ( pathway_id , self . globaltt [ 'causally upstream of or within' ] , disease_id ) if not self . test_mode and limit is not None and line_counter > limit : break return | We make a link between the pathway identifiers and any diseases associated with them . Since we model diseases as processes we make a triple saying that the pathway may be causally upstream of or within the disease process . | 303 | 41 |
250,238 | def _make_variant_locus_id ( self , gene_id , disease_id ) : alt_locus_id = '_:' + re . sub ( r':' , '' , gene_id ) + '-' + re . sub ( r':' , '' , disease_id ) + 'VL' alt_label = self . label_hash . get ( gene_id ) disease_label = self . label_hash . get ( disease_id ) if alt_label is not None and alt_label != '' : alt_label = 'some variant of ' + str ( alt_label ) if disease_label is not None and disease_label != '' : alt_label += ' that is associated with ' + str ( disease_label ) else : alt_label = None self . label_hash [ alt_locus_id ] = alt_label return alt_locus_id | We actually want the association between the gene and the disease to be via an alternate locus not the wildtype gene itself . so we make an anonymous alternate locus and put that in the association We also make the label for the anonymous class and add it to the label hash | 194 | 55 |
250,239 | def _fetch_disambiguating_assoc ( self ) : disambig_file = '/' . join ( ( self . rawdir , self . static_files [ 'publications' ] [ 'file' ] ) ) assoc_file = '/' . join ( ( self . rawdir , self . files [ 'chemical_disease_interactions' ] [ 'file' ] ) ) # check if there is a local association file, # and download if it's dated later than the original intxn file if os . path . exists ( disambig_file ) : dfile_dt = os . stat ( disambig_file ) afile_dt = os . stat ( assoc_file ) if dfile_dt < afile_dt : LOG . info ( "Local file date before chem-disease assoc file. " " Downloading..." ) else : LOG . info ( "Local file date after chem-disease assoc file. " " Skipping download." ) return all_pubs = set ( ) dual_evidence = re . compile ( r'^marker\/mechanism\|therapeutic$' ) # first get all the unique publications with gzip . open ( assoc_file , 'rt' ) as tsvfile : reader = csv . reader ( tsvfile , delimiter = "\t" ) for row in reader : if re . match ( r'^#' , ' ' . join ( row ) ) : continue self . _check_list_len ( row , 10 ) ( chem_name , chem_id , cas_rn , disease_name , disease_id , direct_evidence , inferred_gene_symbol , inference_score , omim_ids , pubmed_ids ) = row if direct_evidence == '' or not re . match ( dual_evidence , direct_evidence ) : continue if pubmed_ids is not None and pubmed_ids != '' : all_pubs . update ( set ( re . split ( r'\|' , pubmed_ids ) ) ) sorted_pubs = sorted ( list ( all_pubs ) ) # now in batches of 4000, we fetch the chemical-disease associations batch_size = 4000 params = { 'inputType' : 'reference' , 'report' : 'diseases_curated' , 'format' : 'tsv' , 'action' : 'Download' } url = 'http://ctdbase.org/tools/batchQuery.go?q' start = 0 end = min ( ( batch_size , len ( all_pubs ) ) ) # get them in batches of 4000 with open ( disambig_file , 'wb' ) as dmbf : while start < len ( sorted_pubs ) : params [ 'inputTerms' ] = '|' . join ( sorted_pubs [ start : end ] ) # fetch the data from url LOG . info ( 'fetching %d (%d-%d) refs: %s' , len ( re . split ( r'\|' , params [ 'inputTerms' ] ) ) , start , end , params [ 'inputTerms' ] ) data = urllib . parse . urlencode ( params ) encoding = 'utf-8' binary_data = data . encode ( encoding ) req = urllib . request . Request ( url , binary_data ) resp = urllib . request . urlopen ( req ) dmbf . write ( resp . read ( ) ) start = end end = min ( ( start + batch_size , len ( sorted_pubs ) ) ) return | For any of the items in the chemical - disease association file that have ambiguous association types we fetch the disambiguated associations using the batch query API and store these in a file . Elsewhere we can loop through the file and create the appropriate associations . | 791 | 51 |
250,240 | def _make_association ( self , subject_id , object_id , rel_id , pubmed_ids ) : # TODO pass in the relevant Assoc class rather than relying on G2P assoc = G2PAssoc ( self . graph , self . name , subject_id , object_id , rel_id ) if pubmed_ids is not None and len ( pubmed_ids ) > 0 : for pmid in pubmed_ids : ref = Reference ( self . graph , pmid , self . globaltt [ 'journal article' ] ) ref . addRefToGraph ( ) assoc . add_source ( pmid ) assoc . add_evidence ( self . globaltt [ 'traceable author statement' ] ) assoc . add_association_to_graph ( ) return | Make a reified association given an array of pubmed identifiers . | 175 | 13 |
250,241 | def checkIfRemoteIsNewer ( self , localfile , remote_size , remote_modify ) : is_remote_newer = False status = os . stat ( localfile ) LOG . info ( "\nLocal file size: %i" "\nLocal Timestamp: %s" , status [ ST_SIZE ] , datetime . fromtimestamp ( status . st_mtime ) ) remote_dt = Bgee . _convert_ftp_time_to_iso ( remote_modify ) if remote_dt != datetime . fromtimestamp ( status . st_mtime ) or status [ ST_SIZE ] != int ( remote_size ) : is_remote_newer = True LOG . info ( "Object on server is has different size %i and/or date %s" , remote_size , remote_dt ) return is_remote_newer | Overrides checkIfRemoteIsNewer in Source class | 191 | 12 |
250,242 | def _convert_ftp_time_to_iso ( ftp_time ) : date_time = datetime ( int ( ftp_time [ : 4 ] ) , int ( ftp_time [ 4 : 6 ] ) , int ( ftp_time [ 6 : 8 ] ) , int ( ftp_time [ 8 : 10 ] ) , int ( ftp_time [ 10 : 12 ] ) , int ( ftp_time [ 12 : 14 ] ) ) return date_time | Convert datetime in the format 20160705042714 to a datetime object | 108 | 17 |
250,243 | def fetch ( self , is_dl_forced = False ) : cxn = { } cxn [ 'host' ] = 'nif-db.crbs.ucsd.edu' cxn [ 'database' ] = 'disco_crawler' cxn [ 'port' ] = '5432' cxn [ 'user' ] = config . get_config ( ) [ 'user' ] [ 'disco' ] cxn [ 'password' ] = config . get_config ( ) [ 'keys' ] [ cxn [ 'user' ] ] self . dataset . setFileAccessUrl ( 'jdbc:postgresql://' + cxn [ 'host' ] + ':' + cxn [ 'port' ] + '/' + cxn [ 'database' ] , is_object_literal = True ) # process the tables # self.fetch_from_pgdb(self.tables,cxn,100) #for testing self . fetch_from_pgdb ( self . tables , cxn ) self . get_files ( is_dl_forced ) # FIXME: Everything needed for data provenance? fstat = os . stat ( '/' . join ( ( self . rawdir , 'dvp.pr_nlx_157874_1' ) ) ) filedate = datetime . utcfromtimestamp ( fstat [ ST_CTIME ] ) . strftime ( "%Y-%m-%d" ) self . dataset . setVersion ( filedate ) return | connection details for DISCO | 332 | 5 |
250,244 | def parse ( self , limit = None ) : if limit is not None : LOG . info ( "Only parsing first %s rows of each file" , limit ) if self . test_only : self . test_mode = True LOG . info ( "Parsing files..." ) self . _process_nlx_157874_1_view ( '/' . join ( ( self . rawdir , 'dvp.pr_nlx_157874_1' ) ) , limit ) self . _map_eom_terms ( '/' . join ( ( self . rawdir , self . files [ 'map' ] [ 'file' ] ) ) , limit ) LOG . info ( "Finished parsing." ) # since it's so small, # we default to copying the entire graph to the test set self . testgraph = self . graph return | Over ride Source . parse inherited via PostgreSQLSource | 183 | 13 |
250,245 | def _process_gxd_genotype_view ( self , limit = None ) : line_counter = 0 if self . test_mode : graph = self . testgraph else : graph = self . graph geno = Genotype ( graph ) model = Model ( graph ) raw = '/' . join ( ( self . rawdir , 'gxd_genotype_view' ) ) LOG . info ( "getting genotypes and their backgrounds" ) with open ( raw , 'r' ) as f1 : f1 . readline ( ) # read the header row; skip for line in f1 : line = line . rstrip ( "\n" ) line_counter += 1 ( genotype_key , strain_key , strain , mgiid ) = line . split ( '\t' ) if self . test_mode is True : if int ( genotype_key ) not in self . test_keys . get ( 'genotype' ) : continue if self . idhash [ 'genotype' ] . get ( genotype_key ) is None : # just in case we haven't seen it before, # catch and add the id mapping here self . idhash [ 'genotype' ] [ genotype_key ] = mgiid geno . addGenotype ( mgiid , None ) # the label is elsewhere... # need to add the MGI label as a synonym # if it's in the hash, # assume that the individual was created elsewhere strain_id = self . idhash [ 'strain' ] . get ( strain_key ) background_type = self . globaltt [ 'genomic_background' ] if strain_id is None or int ( strain_key ) < 0 : if strain_id is None : # some of the strains don't have public identifiers! # so we make one up, and add it to the hash strain_id = self . _makeInternalIdentifier ( 'strain' , strain_key ) self . idhash [ 'strain' ] . update ( { strain_key : strain_id } ) model . addComment ( strain_id , "strain_key:" + strain_key ) elif int ( strain_key ) < 0 : # these are ones that are unidentified/unknown. # so add instances of each. strain_id = self . _makeInternalIdentifier ( 'strain' , re . sub ( r':' , '' , str ( strain_id ) ) ) strain_id += re . sub ( r':' , '' , str ( mgiid ) ) strain_id = re . sub ( r'^_' , '_:' , strain_id ) strain_id = re . sub ( r'::' , ':' , strain_id ) model . addDescription ( strain_id , "This genomic background is unknown. " + "This is a placeholder background for " + mgiid + "." ) background_type = self . globaltt [ 'unspecified_genomic_background' ] # add it back to the idhash LOG . info ( "adding background as internal id: %s %s: %s" , strain_key , strain , strain_id ) geno . addGenomicBackgroundToGenotype ( strain_id , mgiid , background_type ) self . label_hash [ strain_id ] = strain # add BG to a hash so we can build the genotype label later self . geno_bkgd [ mgiid ] = strain_id if not self . test_mode and limit is not None and line_counter > limit : break return | This table indicates the relationship between a genotype and it s background strain . It leverages the Genotype class methods to do this . | 765 | 27 |
250,246 | def _process_gxd_genotype_summary_view ( self , limit = None ) : if self . test_mode : graph = self . testgraph else : graph = self . graph model = Model ( graph ) line_counter = 0 geno_hash = { } raw = '/' . join ( ( self . rawdir , 'gxd_genotype_summary_view' ) ) LOG . info ( "building labels for genotypes" ) with open ( raw , 'r' ) as f : f . readline ( ) # read the header row; skip for line in f : line = line . rstrip ( "\n" ) line_counter += 1 ( object_key , preferred , mgiid , subtype , short_description ) = line . split ( '\t' ) if self . test_mode is True : if int ( object_key ) not in self . test_keys . get ( 'genotype' ) : continue # add the internal genotype to mgi mapping self . idhash [ 'genotype' ] [ object_key ] = mgiid if preferred == '1' : d = re . sub ( r'\,' , '/' , short_description . strip ( ) ) if mgiid not in geno_hash : geno_hash [ mgiid ] = { 'vslcs' : [ d ] , 'subtype' : subtype , 'key' : object_key } else : vslcs = geno_hash [ mgiid ] . get ( 'vslcs' ) vslcs . append ( d ) else : pass # TODO what to do with != preferred if not self . test_mode and limit is not None and line_counter > limit : break # now, loop through the hash and add the genotypes as individuals # we add the mgi genotype as a synonym # (we generate our own label later) geno = Genotype ( graph ) for gt in geno_hash : genotype = geno_hash . get ( gt ) gvc = sorted ( genotype . get ( 'vslcs' ) ) label = '; ' . join ( gvc ) + ' [' + genotype . get ( 'subtype' ) + ']' geno . addGenotype ( gt , None ) model . addComment ( gt , self . _makeInternalIdentifier ( 'genotype' , genotype . get ( 'key' ) ) ) model . addSynonym ( gt , label . strip ( ) ) return | Add the genotype internal id to mgiid mapping to the idhashmap . Also add them as individuals to the graph . We re - format the label to put the background strain in brackets after the gvc . | 544 | 44 |
250,247 | def process_mgi_relationship_transgene_genes ( self , limit = None ) : if self . test_mode : graph = self . testgraph else : graph = self . graph LOG . info ( "getting transgene genes" ) raw = '/' . join ( ( self . rawdir , 'mgi_relationship_transgene_genes' ) ) geno = Genotype ( graph ) col = [ 'rel_key' , 'allele_key' , 'allele_id' , 'allele_label' , 'category_key' , 'category_name' , 'property_key' , 'property_name' , 'gene_num' ] with open ( raw , 'r' , encoding = "utf8" ) as csvfile : filereader = csv . reader ( csvfile , delimiter = '\t' , quotechar = '\"' ) header = next ( filereader ) if header != col : LOG . error ( 'expected columns: %s\n\tBut got:\n%s' , col , header ) for row in filereader : # rel_key, allele_key = int ( row [ col . index ( 'allele_key' ) ] ) allele_id = row [ col . index ( 'allele_id' ) ] # allele_label, # category_key, # category_name, # property_key, # property_name, gene_num = int ( row [ col . index ( 'gene_num' ) ] ) if self . test_mode and allele_key not in self . test_keys . get ( 'allele' ) and gene_num not in self . test_ids : continue gene_id = 'NCBIGene:' + str ( gene_num ) # geno.addParts(gene_id, allele_id, self.globaltt['has_variant_part']) seqalt_id = self . idhash [ 'seqalt' ] . get ( allele_key ) if seqalt_id is None : seqalt_id = allele_id geno . addSequenceDerivesFrom ( seqalt_id , gene_id ) if not self . test_mode and limit is not None and filereader . line_num > limit : break return | Here we have the relationship between MGI transgene alleles and the non - mouse gene ids that are part of them . We augment the allele with the transgene parts . | 499 | 38 |
250,248 | def _getnode ( self , curie ) : # convention is lowercase names node = None if curie [ 0 ] == '_' : if self . are_bnodes_skized is True : node = self . skolemizeBlankNode ( curie ) else : # delete the leading underscore to make it cleaner node = BNode ( re . sub ( r'^_:|^_' , '' , curie , 1 ) ) # Check if curie string is actually an IRI elif curie [ : 4 ] == 'http' or curie [ : 3 ] == 'ftp' : node = URIRef ( curie ) else : iri = RDFGraph . curie_util . get_uri ( curie ) if iri is not None : node = URIRef ( RDFGraph . curie_util . get_uri ( curie ) ) # Bind prefix map to graph prefix = curie . split ( ':' ) [ 0 ] if prefix not in self . namespace_manager . namespaces ( ) : mapped_iri = self . curie_map [ prefix ] self . bind ( prefix , Namespace ( mapped_iri ) ) else : LOG . error ( "couldn't make URI for %s" , curie ) return node | This is a wrapper for creating a URIRef or Bnode object with a given a curie or iri as a string . | 276 | 27 |
250,249 | def add_association_to_graph ( self ) : # add the basic association nodes # if rel == self.globaltt[['has disposition']: Assoc . add_association_to_graph ( self ) # anticipating trouble with onsets ranges that look like curies if self . onset is not None and self . onset != '' : self . graph . addTriple ( self . assoc_id , self . globaltt [ 'onset' ] , self . onset ) if self . frequency is not None and self . frequency != '' : self . graph . addTriple ( self . assoc_id , self . globaltt [ 'frequency' ] , self . frequency ) return | The reified relationship between a disease and a phenotype is decorated with some provenance information . This makes the assumption that both the disease and phenotype are classes . | 147 | 31 |
250,250 | def make_parent_bands ( self , band , child_bands ) : m = re . match ( r'([pq][A-H\d]+(?:\.\d+)?)' , band ) if len ( band ) > 0 : if m : p = str ( band [ 0 : len ( band ) - 1 ] ) p = re . sub ( r'\.$' , '' , p ) if p is not None : child_bands . add ( p ) self . make_parent_bands ( p , child_bands ) else : child_bands = set ( ) return child_bands | this will determine the grouping bands that it belongs to recursively 13q21 . 31 == > 13 13q 13q2 13q21 13q21 . 3 13q21 . 31 | 130 | 39 |
250,251 | def get_curie ( self , uri ) : prefix = self . get_curie_prefix ( uri ) if prefix is not None : key = self . curie_map [ prefix ] return '%s:%s' % ( prefix , uri [ len ( key ) : len ( uri ) ] ) return None | Get a CURIE from a URI | 72 | 8 |
250,252 | def get_uri ( self , curie ) : if curie is None : return None parts = curie . split ( ':' ) if len ( parts ) == 1 : if curie != '' : LOG . error ( "Not a properly formed curie: \"%s\"" , curie ) return None prefix = parts [ 0 ] if prefix in self . curie_map : return '%s%s' % ( self . curie_map . get ( prefix ) , curie [ ( curie . index ( ':' ) + 1 ) : ] ) LOG . error ( "Curie prefix not defined for %s" , curie ) return None | Get a URI from a CURIE | 141 | 8 |
250,253 | def fetch ( self , is_dl_forced = False ) : host = config . get_config ( ) [ 'dbauth' ] [ 'coriell' ] [ 'host' ] key = config . get_config ( ) [ 'dbauth' ] [ 'coriell' ] [ 'private_key' ] user = config . get_config ( ) [ 'user' ] [ 'coriell' ] passwd = config . get_config ( ) [ 'keys' ] [ user ] with pysftp . Connection ( host , username = user , password = passwd , private_key = key ) as sftp : # check to make sure each file is in there # get the remote files remote_files = sftp . listdir_attr ( ) files_by_repo = { } for attr in remote_files : # for each catalog, get the most-recent filename mch = re . match ( '(NIGMS|NIA|NHGRI|NINDS)' , attr . filename ) if mch is not None and len ( mch . groups ( ) ) > 0 : # there should just be one now files_by_repo [ mch . group ( 1 ) ] = attr # sort each array in hash, # & get the name and time of the most-recent file for each catalog for rmt in self . files : LOG . info ( "Checking on %s catalog file" , rmt ) fname = self . files [ rmt ] [ 'file' ] remotef = files_by_repo [ rmt ] target_name = '/' . join ( ( self . rawdir , fname ) ) # check if the local file is out of date, if so, download. # otherwise, skip. # we rename (for simplicity) the original file fstat = None if os . path . exists ( target_name ) : fstat = os . stat ( target_name ) LOG . info ( "Local file date: %s" , datetime . utcfromtimestamp ( fstat [ stat . ST_CTIME ] ) ) if fstat is None or remotef . st_mtime > fstat [ stat . ST_CTIME ] : if fstat is None : LOG . info ( "File does not exist locally; downloading..." ) else : LOG . info ( "New version of %s catalog available; downloading..." , rmt ) sftp . get ( remotef . filename , target_name ) LOG . info ( "Fetched remote %s -> %s" , remotef . filename , target_name ) fstat = os . stat ( target_name ) filedate = datetime . utcfromtimestamp ( remotef . st_mtime ) . strftime ( "%Y-%m-%d" ) LOG . info ( "New file date: %s" , datetime . utcfromtimestamp ( fstat [ stat . ST_CTIME ] ) ) else : LOG . info ( "File %s exists; using local copy" , fname ) filedate = datetime . utcfromtimestamp ( fstat [ stat . ST_CTIME ] ) . strftime ( "%Y-%m-%d" ) self . dataset . setFileAccessUrl ( remotef . filename , True ) self . dataset . setVersion ( filedate ) return | Here we connect to the coriell sftp server using private connection details . They dump bi - weekly files with a timestamp in the filename . For each catalog we ping the remote site and pull the most - recently updated file renaming it to our local latest . csv . | 733 | 57 |
250,254 | def _process_collection ( self , collection_id , label , page ) : # ############# BUILD THE CELL LINE REPOSITORY ############# for graph in [ self . graph , self . testgraph ] : # TODO: How to devise a label for each repository? model = Model ( graph ) reference = Reference ( graph ) repo_id = 'CoriellCollection:' + collection_id repo_label = label repo_page = page model . addIndividualToGraph ( repo_id , repo_label , self . globaltt [ 'collection' ] ) reference . addPage ( repo_id , repo_page ) return | This function will process the data supplied internally about the repository from Coriell . | 136 | 16 |
250,255 | def _process_genotypes ( self , limit ) : if self . test_mode : graph = self . testgraph else : graph = self . graph model = Model ( graph ) line_counter = 0 raw = '/' . join ( ( self . rawdir , 'genotype' ) ) LOG . info ( "building labels for genotypes" ) geno = Genotype ( graph ) fly_tax = self . globaltt [ 'Drosophila melanogaster' ] with open ( raw , 'r' ) as f : f . readline ( ) # read the header row; skip filereader = csv . reader ( f , delimiter = '\t' , quotechar = '\"' ) for line in filereader : line_counter += 1 ( genotype_num , uniquename , description , name ) = line # if self.test_mode is True: # if int(object_key) not in self.test_keys.get('genotype'): # continue # add the internal genotype to pub mapping genotype_id = 'MONARCH:FBgeno' + str ( genotype_num ) self . idhash [ 'genotype' ] [ genotype_num ] = genotype_id if description == '' : description = None if not self . test_mode and limit is not None and line_counter > limit : pass else : if self . test_mode and int ( genotype_num ) not in self . test_keys [ 'genotype' ] : continue model . addIndividualToGraph ( genotype_id , uniquename , self . globaltt [ 'intrinsic_genotype' ] , description ) # we know all genotypes are in flies # FIXME we assume here they are in melanogaster, # but that isn't necessarily true!!! # TODO should the taxon be == genomic background? geno . addTaxon ( fly_tax , genotype_id ) genotype_iid = self . _makeInternalIdentifier ( 'genotype' , genotype_num ) model . addComment ( genotype_id , genotype_iid ) if name . strip ( ) != '' : model . addSynonym ( genotype_id , name ) return | Add the genotype internal id to flybase mapping to the idhashmap . Also add them as individuals to the graph . | 477 | 25 |
250,256 | def _process_stocks ( self , limit ) : if self . test_mode : graph = self . testgraph else : graph = self . graph model = Model ( graph ) line_counter = 0 raw = '/' . join ( ( self . rawdir , 'stock' ) ) LOG . info ( "building labels for stocks" ) with open ( raw , 'r' ) as f : f . readline ( ) # read the header row; skip filereader = csv . reader ( f , delimiter = '\t' , quotechar = '\"' ) for line in filereader : line_counter += 1 ( stock_id , dbxref_id , organism_id , name , uniquename , description , type_id , is_obsolete ) = line # 2 12153979 1 2 FBst0000002 w[*]; betaTub60D[2] Kr[If-1]/CyO 10670 stock_num = stock_id stock_id = 'FlyBase:' + uniquename self . idhash [ 'stock' ] [ stock_num ] = stock_id stock_label = description organism_key = organism_id taxon = self . idhash [ 'organism' ] [ organism_key ] # from what i can tell, the dbxrefs are just more FBst, # so no added information vs uniquename if not self . test_mode and limit is not None and line_counter > limit : pass else : if self . test_mode and int ( stock_num ) not in self . test_keys [ 'strain' ] : continue # tax_label = self.label_hash[taxon] # unused # add the tax in case it hasn't been already model . addClassToGraph ( taxon ) model . addIndividualToGraph ( stock_id , stock_label , taxon ) if is_obsolete == 't' : model . addDeprecatedIndividual ( stock_id ) return | Stock definitions . Here we instantiate them as instances of the given taxon . | 422 | 16 |
250,257 | def _process_pubs ( self , limit ) : if self . test_mode : graph = self . testgraph else : graph = self . graph model = Model ( graph ) line_counter = 0 raw = '/' . join ( ( self . rawdir , 'pub' ) ) LOG . info ( "building labels for pubs" ) with open ( raw , 'r' ) as f : f . readline ( ) # read the header row; skip filereader = csv . reader ( f , delimiter = '\t' , quotechar = '\"' ) for line in filereader : ( pub_id , title , volumetitle , volume , series_name , issue , pyear , pages , miniref , type_id , is_obsolete , publisher , pubplace , uniquename ) = line # 2 12153979 1 2 FBst0000002 w[*]; betaTub60D[2] Kr[If-1]/CyO 10670 # if self.test_mode is True: # if int(object_key) not in self.test_keys.get('genotype'): # continue pub_num = pub_id pub_id = 'FlyBase:' + uniquename . strip ( ) self . idhash [ 'publication' ] [ pub_num ] = pub_id # TODO figure out the type of pub by type_id if not re . match ( r'(FBrf|multi)' , uniquename ) : continue line_counter += 1 reference = Reference ( graph , pub_id ) if title != '' : reference . setTitle ( title ) if pyear != '' : reference . setYear ( str ( pyear ) ) if miniref != '' : reference . setShortCitation ( miniref ) if not self . test_mode and limit is not None and line_counter > limit : pass else : if self . test_mode and int ( pub_num ) not in self . test_keys [ 'pub' ] : continue if is_obsolete == 't' : model . addDeprecatedIndividual ( pub_id ) else : reference . addRefToGraph ( ) return | Flybase publications . | 466 | 4 |
250,258 | def _process_environments ( self ) : if self . test_mode : graph = self . testgraph else : graph = self . graph raw = '/' . join ( ( self . rawdir , 'environment' ) ) LOG . info ( "building labels for environment" ) env_parts = { } label_map = { } env = Environment ( graph ) with open ( raw , 'r' ) as f : filereader = csv . reader ( f , delimiter = '\t' , quotechar = '\"' ) f . readline ( ) # read the header row; skip for line in filereader : ( environment_id , uniquename , description ) = line # 22 heat sensitive | tetracycline conditional environment_num = environment_id environment_internal_id = self . _makeInternalIdentifier ( 'environment' , environment_num ) if environment_num not in self . idhash [ 'environment' ] : self . idhash [ 'environment' ] [ environment_num ] = environment_internal_id environment_id = self . idhash [ 'environment' ] [ environment_num ] environment_label = uniquename if environment_label == 'unspecified' : environment_label += ' environment' env . addEnvironment ( environment_id , environment_label ) self . label_hash [ environment_id ] = environment_label # split up the environment into parts # if there's parts, then add them to the hash; # we'll match the components in a second pass components = re . split ( r'\|' , uniquename ) if len ( components ) > 1 : env_parts [ environment_id ] = components else : label_map [ environment_label ] = environment_id # ### end loop through file # build the environmental components for eid in env_parts : eid = eid . strip ( ) for e in env_parts [ eid ] : # search for the environmental component by label env_id = label_map . get ( e . strip ( ) ) env . addComponentToEnvironment ( eid , env_id ) return | There s only about 30 environments in which the phenotypes are recorded . There are no externally accessible identifiers for environments so we make anonymous nodes for now . Some of the environments are comprised of > 1 of the other environments ; we do some simple parsing to match the strings of the environmental labels to the other atomic components . | 447 | 63 |
250,259 | def _process_stock_genotype ( self , limit ) : if self . test_mode : graph = self . testgraph else : graph = self . graph raw = '/' . join ( ( self . rawdir , 'stock_genotype' ) ) LOG . info ( "processing stock genotype" ) line_counter = 0 with open ( raw , 'r' ) as f : filereader = csv . reader ( f , delimiter = '\t' , quotechar = '\"' ) f . readline ( ) # read the header row; skip for line in filereader : ( stock_genotype_id , stock_id , genotype_id ) = line stock_key = stock_id stock_id = self . idhash [ 'stock' ] [ stock_key ] genotype_key = genotype_id genotype_id = self . idhash [ 'genotype' ] [ genotype_key ] if self . test_mode and int ( genotype_key ) not in self . test_keys [ 'genotype' ] : continue graph . addTriple ( stock_id , self . globaltt [ 'has_genotype' ] , genotype_id ) line_counter += 1 if not self . test_mode and limit is not None and line_counter > limit : break return | The genotypes of the stocks . | 284 | 7 |
250,260 | def _process_dbxref ( self ) : raw = '/' . join ( ( self . rawdir , 'dbxref' ) ) LOG . info ( "processing dbxrefs" ) line_counter = 0 with open ( raw , 'r' ) as f : filereader = csv . reader ( f , delimiter = '\t' , quotechar = '\"' ) f . readline ( ) # read the header row; skip for line in filereader : ( dbxref_id , db_id , accession , version , description , url ) = line # dbxref_id db_id accession version description url # 1 2 SO:0000000 "" accession = accession . strip ( ) db_id = db_id . strip ( ) if accession != '' and db_id in self . localtt : # scrub some identifiers here mch = re . match ( r'(doi|SO|GO|FBcv|FBbt_root|FBdv|FBgn|FBdv_root|FlyBase|FBbt):' , accession ) if mch : accession = re . sub ( mch . group ( 1 ) + r'\:' , '' , accession ) elif re . match ( r'(FlyBase miscellaneous CV|cell_lineprop|relationship type|FBgn$)' , accession ) : continue elif re . match ( r'\:' , accession ) : # starts with a colon accession = re . sub ( r'\:' , '' , accession ) elif re . search ( r'\s' , accession ) : # skip anything with a space # LOG.debug( # 'dbxref %s accession has a space: %s', dbxref_id, accession) continue if re . match ( r'http' , accession ) : did = accession else : prefix = self . localtt [ db_id ] did = ':' . join ( ( prefix , accession ) ) if re . search ( r'\:' , accession ) and prefix != 'DOI' : LOG . warning ( 'id %s may be malformed; skipping' , did ) self . dbxrefs [ dbxref_id ] = { db_id : did } elif url != '' : self . dbxrefs [ dbxref_id ] = { db_id : url . strip ( ) } else : continue # the following are some special cases that we scrub if int ( db_id ) == 2 and accession . strip ( ) == 'transgenic_transposon' : # transgenic_transposable_element self . dbxrefs [ dbxref_id ] = { db_id : self . globaltt [ 'transgenic_transposable_element' ] } line_counter += 1 return | We bring in the dbxref identifiers and store them in a hashmap for lookup in other functions . Note that some dbxrefs aren t mapped to identifiers . For example 5004018 is mapped to a string endosome & imaginal disc epithelial cell | somatic clone ... In those cases there just isn t a dbxref that s used when referencing with a cvterm ; it ll just use the internal key . | 614 | 89 |
250,261 | def _process_phenotype ( self , limit ) : if self . test_mode : graph = self . testgraph else : graph = self . graph model = Model ( graph ) raw = '/' . join ( ( self . rawdir , 'phenotype' ) ) LOG . info ( "processing phenotype" ) line_counter = 0 with open ( raw , 'r' ) as f : filereader = csv . reader ( f , delimiter = '\t' , quotechar = '\"' ) f . readline ( ) # read the header row; skip for line in filereader : ( phenotype_id , uniquename , observable_id , attr_id , value , cvalue_id , assay_id ) = line # 8505 unspecified # 20142 mesothoracic leg disc | somatic clone 87719 60468 60468 60468 # 8507 sex comb | ectopic 88877 60468 60468 60468 # 8508 tarsal segment 83664 60468 60468 60468 # 18404 oocyte | oogenesis stage S9 86769 60468 60468 60468 # for now make these as phenotypic classes # will need to dbxref at some point phenotype_key = phenotype_id phenotype_id = None phenotype_internal_id = self . _makeInternalIdentifier ( 'phenotype' , phenotype_key ) phenotype_label = None self . label_hash [ phenotype_internal_id ] = uniquename cvterm_id = None if observable_id != '' and int ( observable_id ) == 60468 : # undefined - typically these are already phenotypes if cvalue_id in self . idhash [ 'cvterm' ] : cvterm_id = self . idhash [ 'cvterm' ] [ cvalue_id ] phenotype_id = self . idhash [ 'cvterm' ] [ cvalue_id ] elif observable_id in self . idhash [ 'cvterm' ] : # observations to anatomical classes cvterm_id = self . idhash [ 'cvterm' ] [ observable_id ] phenotype_id = self . idhash [ 'cvterm' ] [ observable_id ] + 'PHENOTYPE' if cvterm_id is not None and cvterm_id in self . label_hash : phenotype_label = self . label_hash [ cvterm_id ] phenotype_label += ' phenotype' self . label_hash [ phenotype_id ] = phenotype_label else : LOG . info ( 'cvtermid=%s not in label_hash' , cvterm_id ) else : LOG . info ( "No observable id or label for %s: %s" , phenotype_key , uniquename ) # TODO store this composite phenotype in some way # as a proper class definition? self . idhash [ 'phenotype' ] [ phenotype_key ] = phenotype_id # assay_id is currently only "undefined" key=60468 if not self . test_mode and limit is not None and line_counter > limit : pass else : if phenotype_id is not None : # assume that these fit into the phenotypic uberpheno # elsewhere model . addClassToGraph ( phenotype_id , phenotype_label ) line_counter += 1 return | Get the phenotypes and declare the classes . If the observable is unspecified then we assign the phenotype to the cvalue id ; otherwise we convert the phenotype into a uberpheno - style identifier simply based on the anatomical part that s affected ... that is listed as the observable_id concatenated with the literal PHENOTYPE | 719 | 67 |
250,262 | def _process_cvterm ( self ) : line_counter = 0 raw = '/' . join ( ( self . rawdir , 'cvterm' ) ) LOG . info ( "processing cvterms" ) with open ( raw , 'r' ) as f : f . readline ( ) # read the header row; skip filereader = csv . reader ( f , delimiter = '\t' , quotechar = '\"' ) for line in filereader : line_counter += 1 ( cvterm_id , cv_id , definition , dbxref_id , is_obsolete , is_relationshiptype , name ) = line # 316 6 1665919 0 0 rRNA_cleavage_snoRNA_primary_transcript # 28 5 1663309 0 0 synonym # 455 6 1665920 0 0 tmRNA # not sure the following is necessary # cv_prefixes = { # 6 : 'SO', # 20: 'FBcv', # 28: 'GO', # 29: 'GO', # 30: 'GO', # 31: 'FBcv', # not actually FBcv - I think FBbt. # 32: 'FBdv', # 37: 'GO', # these are relationships # 73: 'DOID' # } # if int(cv_id) not in cv_prefixes: # continue cvterm_key = cvterm_id cvterm_id = self . _makeInternalIdentifier ( 'cvterm' , cvterm_key ) self . label_hash [ cvterm_id ] = name self . idhash [ 'cvterm' ] [ cvterm_key ] = cvterm_id # look up the dbxref_id for the cvterm # hopefully it's one-to-one dbxrefs = self . dbxrefs . get ( dbxref_id ) if dbxrefs is not None : if len ( dbxrefs ) > 1 : LOG . info ( ">1 dbxref for this cvterm (%s: %s): %s" , str ( cvterm_id ) , name , dbxrefs . values ( ) ) elif len ( dbxrefs ) == 1 : # replace the cvterm with # the dbxref (external) identifier did = dbxrefs . popitem ( ) [ 1 ] # get the value self . idhash [ 'cvterm' ] [ cvterm_key ] = did # also add the label to the dbxref self . label_hash [ did ] = name return | CVterms are the internal identifiers for any controlled vocab or ontology term . Many are xrefd to actual ontologies . The actual external id is stored in the dbxref table which we place into the internal hashmap for lookup with the cvterm id . The name of the external term is stored in the name element of this table and we add that to the label hashmap for lookup elsewhere | 561 | 82 |
250,263 | def _process_organisms ( self , limit ) : if self . test_mode : graph = self . testgraph else : graph = self . graph model = Model ( graph ) raw = '/' . join ( ( self . rawdir , 'organism' ) ) LOG . info ( "processing organisms" ) line_counter = 0 with open ( raw , 'r' ) as f : filereader = csv . reader ( f , delimiter = '\t' , quotechar = '\"' ) f . readline ( ) # read the header row; skip for line in filereader : ( organism_id , abbreviation , genus , species , common_name , comment ) = line # 1 Dmel Drosophila melanogaster fruit fly # 2 Comp Computational result line_counter += 1 tax_internal_id = self . _makeInternalIdentifier ( 'organism' , organism_id ) tax_label = ' ' . join ( ( genus , species ) ) tax_id = tax_internal_id self . idhash [ 'organism' ] [ organism_id ] = tax_id self . label_hash [ tax_id ] = tax_label # we won't actually add the organism to the graph, # unless we actually use it therefore it is added outside of # this function if self . test_mode and int ( organism_id ) not in self . test_keys [ 'organism' ] : continue if not self . test_mode and limit is not None and line_counter > limit : pass else : model . addClassToGraph ( tax_id ) for s in [ common_name , abbreviation ] : if s is not None and s . strip ( ) != '' : model . addSynonym ( tax_id , s ) model . addComment ( tax_id , tax_internal_id ) return | The internal identifiers for the organisms in flybase | 392 | 9 |
250,264 | def _add_gene_equivalencies ( self , xrefs , gene_id , taxon ) : clique_map = self . open_and_parse_yaml ( self . resources [ 'clique_leader' ] ) if self . test_mode : graph = self . testgraph else : graph = self . graph model = Model ( graph ) filter_out = [ 'Vega' , 'IMGT/GENE-DB' , 'Araport' ] # deal with the dbxrefs # MIM:614444|HGNC:HGNC:16851|Ensembl:ENSG00000136828|HPRD:11479|Vega:OTTHUMG00000020696 for dbxref in xrefs . strip ( ) . split ( '|' ) : prefix = ':' . join ( dbxref . split ( ':' ) [ : - 1 ] ) . strip ( ) if prefix in self . localtt : prefix = self . localtt [ prefix ] dbxref_curie = ':' . join ( ( prefix , dbxref . split ( ':' ) [ - 1 ] ) ) if dbxref_curie is not None and prefix != '' : if prefix == 'HPRD' : # proteins are not == genes. model . addTriple ( gene_id , self . globaltt [ 'has gene product' ] , dbxref_curie ) continue # skip some of these for now based on curie prefix if prefix in filter_out : continue if prefix == 'ENSEMBL' : model . addXref ( gene_id , dbxref_curie ) if prefix == 'OMIM' : if DipperUtil . is_omim_disease ( dbxref_curie ) : continue try : if self . class_or_indiv . get ( gene_id ) == 'C' : model . addEquivalentClass ( gene_id , dbxref_curie ) if taxon in clique_map : if clique_map [ taxon ] == prefix : model . makeLeader ( dbxref_curie ) elif clique_map [ taxon ] == gene_id . split ( ':' ) [ 0 ] : model . makeLeader ( gene_id ) else : model . addSameIndividual ( gene_id , dbxref_curie ) except AssertionError as err : LOG . warning ( "Error parsing %s: %s" , gene_id , err ) return | Add equivalentClass and sameAs relationships | 546 | 7 |
250,265 | def _get_gene2pubmed ( self , limit ) : src_key = 'gene2pubmed' if self . test_mode : graph = self . testgraph else : graph = self . graph model = Model ( graph ) LOG . info ( "Processing Gene records" ) line_counter = 0 myfile = '/' . join ( ( self . rawdir , self . files [ src_key ] [ 'file' ] ) ) LOG . info ( "FILE: %s" , myfile ) assoc_counter = 0 col = self . files [ src_key ] [ 'columns' ] with gzip . open ( myfile , 'rb' ) as tsv : row = tsv . readline ( ) . decode ( ) . strip ( ) . split ( '\t' ) row [ 0 ] = row [ 0 ] [ 1 : ] # strip comment if col != row : LOG . info ( '%s\nExpected Headers:\t%s\nRecived Headers:\t %s\n' , src_key , col , row ) for line in tsv : line_counter += 1 # skip comments row = line . decode ( ) . strip ( ) . split ( '\t' ) if row [ 0 ] [ 0 ] == '#' : continue # (tax_num, gene_num, pubmed_num) = line.split('\t') # ## set id_filter=None in init if you don't want to have a filter # if self.id_filter is not None: # if ((self.id_filter == 'taxids' and \ # (int(tax_num) not in self.tax_ids)) # or (self.id_filter == 'geneids' and \ # (int(gene_num) not in self.gene_ids))): # continue # #### end filter gene_num = row [ col . index ( 'GeneID' ) ] . strip ( ) if self . test_mode and int ( gene_num ) not in self . gene_ids : continue tax_num = row [ col . index ( 'tax_id' ) ] . strip ( ) if not self . test_mode and tax_num not in self . tax_ids : continue pubmed_num = row [ col . index ( 'PubMed_ID' ) ] . strip ( ) if gene_num == '-' or pubmed_num == '-' : continue gene_id = ':' . join ( ( 'NCBIGene' , gene_num ) ) pubmed_id = ':' . join ( ( 'PMID' , pubmed_num ) ) if self . class_or_indiv . get ( gene_id ) == 'C' : model . addClassToGraph ( gene_id , None ) else : model . addIndividualToGraph ( gene_id , None ) # add the publication as a NamedIndividual # add type publication model . addIndividualToGraph ( pubmed_id , None , None ) reference = Reference ( graph , pubmed_id , self . globaltt [ 'journal article' ] ) reference . addRefToGraph ( ) graph . addTriple ( pubmed_id , self . globaltt [ 'is_about' ] , gene_id ) assoc_counter += 1 if not self . test_mode and limit is not None and line_counter > limit : break LOG . info ( "Processed %d pub-gene associations" , assoc_counter ) return | Loops through the gene2pubmed file and adds a simple triple to say that a given publication is_about a gene . Publications are added as NamedIndividuals . | 756 | 34 |
250,266 | def _process_all ( self , limit ) : omimids = self . _get_omim_ids ( ) LOG . info ( 'Have %i omim numbers to fetch records from their API' , len ( omimids ) ) LOG . info ( 'Have %i omim types ' , len ( self . omim_type ) ) if self . test_mode : graph = self . testgraph else : graph = self . graph geno = Genotype ( graph ) model = Model ( graph ) tax_label = 'Homo sapiens' tax_id = self . globaltt [ tax_label ] # add genome and taxon geno . addGenome ( tax_id , tax_label ) # tax label can get added elsewhere model . addClassToGraph ( tax_id , None ) # label added elsewhere includes = set ( ) includes . add ( 'all' ) self . process_entries ( omimids , self . _transform_entry , includes , graph , limit , self . globaltt ) | This takes the list of omim identifiers from the omim . txt . Z file and iteratively queries the omim api for the json - formatted data . This will create OMIM classes with the label definition and some synonyms . If an entry is removed it is added as a deprecated class . If an entry is moved it is deprecated and consider annotations are added . | 219 | 75 |
250,267 | def update ( self , key : bytes , value : bytes , node_updates : Sequence [ Hash32 ] ) : validate_is_bytes ( key ) validate_length ( key , self . _key_size ) # Path diff is the logical XOR of the updated key and this account path_diff = ( to_int ( self . key ) ^ to_int ( key ) ) # Same key (diff of 0), update the tracked value if path_diff == 0 : self . _value = value # No need to update branch else : # Find the first mismatched bit between keypaths. This is # where the branch point occurs, and we should update the # sibling node in the source branch at the branch point. # NOTE: Keys are in MSB->LSB (root->leaf) order. # Node lists are in root->leaf order. # Be sure to convert between them effectively. for bit in reversed ( range ( self . _branch_size ) ) : if path_diff & ( 1 << bit ) > 0 : branch_point = ( self . _branch_size - 1 ) - bit break # NOTE: node_updates only has to be as long as necessary # to obtain the update. This allows an optimization # of pruning updates to the maximum possible depth # that would be required to update, which may be # significantly smaller than the tree depth. if len ( node_updates ) <= branch_point : raise ValidationError ( "Updated node list is not deep enough" ) # Update sibling node in the branch where our key differs from the update self . _branch [ branch_point ] = node_updates [ branch_point ] | Merge an update for another key with the one we are tracking internally . | 354 | 15 |
250,268 | def _get ( self , key : bytes ) -> Tuple [ bytes , Tuple [ Hash32 ] ] : validate_is_bytes ( key ) validate_length ( key , self . _key_size ) branch = [ ] target_bit = 1 << ( self . depth - 1 ) path = to_int ( key ) node_hash = self . root_hash # Append the sibling node to the branch # Iterate on the parent for _ in range ( self . depth ) : node = self . db [ node_hash ] left , right = node [ : 32 ] , node [ 32 : ] if path & target_bit : branch . append ( left ) node_hash = right else : branch . append ( right ) node_hash = left target_bit >>= 1 # Value is the last hash in the chain # NOTE: Didn't do exception here for testing purposes return self . db [ node_hash ] , tuple ( branch ) | Returns db value and branch in root - > leaf order | 200 | 11 |
250,269 | def set ( self , key : bytes , value : bytes ) -> Tuple [ Hash32 ] : validate_is_bytes ( key ) validate_length ( key , self . _key_size ) validate_is_bytes ( value ) path = to_int ( key ) node = value _ , branch = self . _get ( key ) proof_update = [ ] # Keep track of proof updates target_bit = 1 # branch is in root->leaf order, so flip for sibling_node in reversed ( branch ) : # Set node_hash = keccak ( node ) proof_update . append ( node_hash ) self . db [ node_hash ] = node # Update if ( path & target_bit ) : node = sibling_node + node_hash else : node = node_hash + sibling_node target_bit <<= 1 # Finally, update root hash self . root_hash = keccak ( node ) self . db [ self . root_hash ] = node # updates need to be in root->leaf order, so flip back return tuple ( reversed ( proof_update ) ) | Returns all updated hashes in root - > leaf order | 233 | 10 |
250,270 | def delete ( self , key : bytes ) -> Tuple [ Hash32 ] : validate_is_bytes ( key ) validate_length ( key , self . _key_size ) return self . set ( key , self . _default ) | Equals to setting the value to None Returns all updated hashes in root - > leaf order | 50 | 18 |
250,271 | def next_batch ( self , n = 1 ) : if len ( self . queue ) == 0 : return [ ] batch = list ( reversed ( ( self . queue [ - n : ] ) ) ) self . queue = self . queue [ : - n ] return batch | Return the next requests that should be dispatched . | 57 | 9 |
250,272 | def schedule ( self , node_key , parent , depth , leaf_callback , is_raw = False ) : if node_key in self . _existing_nodes : self . logger . debug ( "Node %s already exists in db" % encode_hex ( node_key ) ) return if node_key in self . db : self . _existing_nodes . add ( node_key ) self . logger . debug ( "Node %s already exists in db" % encode_hex ( node_key ) ) return if parent is not None : parent . dependencies += 1 existing = self . requests . get ( node_key ) if existing is not None : self . logger . debug ( "Already requesting %s, will just update parents list" % node_key ) existing . parents . append ( parent ) return request = SyncRequest ( node_key , parent , depth , leaf_callback , is_raw ) # Requests get added to both self.queue and self.requests; the former is used to keep # track which requests should be sent next, and the latter is used to avoid scheduling a # request for a given node multiple times. self . logger . debug ( "Scheduling retrieval of %s" % encode_hex ( request . node_key ) ) self . requests [ request . node_key ] = request bisect . insort ( self . queue , request ) | Schedule a request for the node with the given key . | 294 | 12 |
250,273 | def get_children ( self , request ) : node = decode_node ( request . data ) return _get_children ( node , request . depth ) | Return all children of the node retrieved by the given request . | 32 | 12 |
250,274 | def process ( self , results ) : for node_key , data in results : request = self . requests . get ( node_key ) if request is None : # This may happen if we resend a request for a node after waiting too long, # and then eventually get two responses with it. self . logger . info ( "No SyncRequest found for %s, maybe we got more than one response for it" % encode_hex ( node_key ) ) return if request . data is not None : raise SyncRequestAlreadyProcessed ( "%s has been processed already" % request ) request . data = data if request . is_raw : self . commit ( request ) continue references , leaves = self . get_children ( request ) for depth , ref in references : self . schedule ( ref , request , depth , request . leaf_callback ) if request . leaf_callback is not None : for leaf in leaves : request . leaf_callback ( leaf , request ) if request . dependencies == 0 : self . commit ( request ) | Process request results . | 215 | 4 |
250,275 | def check_if_branch_exist ( db , root_hash , key_prefix ) : validate_is_bytes ( key_prefix ) return _check_if_branch_exist ( db , root_hash , encode_to_bin ( key_prefix ) ) | Given a key prefix return whether this prefix is the prefix of an existing key in the trie . | 59 | 20 |
250,276 | def get_branch ( db , root_hash , key ) : validate_is_bytes ( key ) return tuple ( _get_branch ( db , root_hash , encode_to_bin ( key ) ) ) | Get a long - format Merkle branch | 48 | 9 |
250,277 | def get_witness_for_key_prefix ( db , node_hash , key ) : validate_is_bytes ( key ) return tuple ( _get_witness_for_key_prefix ( db , node_hash , encode_to_bin ( key ) ) ) | Get all witness given a keypath prefix . Include | 60 | 10 |
250,278 | def encode_branch_node ( left_child_node_hash , right_child_node_hash ) : validate_is_bytes ( left_child_node_hash ) validate_length ( left_child_node_hash , 32 ) validate_is_bytes ( right_child_node_hash ) validate_length ( right_child_node_hash , 32 ) return BRANCH_TYPE_PREFIX + left_child_node_hash + right_child_node_hash | Serializes a branch node | 107 | 5 |
250,279 | def encode_leaf_node ( value ) : validate_is_bytes ( value ) if value is None or value == b'' : raise ValidationError ( "Value of leaf node can not be empty" ) return LEAF_TYPE_PREFIX + value | Serializes a leaf node | 55 | 5 |
250,280 | def batch_commit ( self , * , do_deletes = False ) : try : yield except Exception as exc : raise exc else : for key , value in self . cache . items ( ) : if value is not DELETED : self . wrapped_db [ key ] = value elif do_deletes : self . wrapped_db . pop ( key , None ) # if do_deletes is False, ignore deletes to underlying db finally : self . cache = { } | Batch and commit and end of context | 102 | 8 |
250,281 | def _prune_node ( self , node ) : if self . is_pruning : # node is mutable, so capture the key for later pruning now prune_key , node_body = self . _node_to_db_mapping ( node ) should_prune = ( node_body is not None ) else : should_prune = False yield # Prune only if no exception is raised if should_prune : del self . db [ prune_key ] | Prune the given node if context exits cleanly . | 105 | 11 |
250,282 | def _normalize_branch_node ( self , node ) : iter_node = iter ( node ) if any ( iter_node ) and any ( iter_node ) : return node if node [ 16 ] : return [ compute_leaf_key ( [ ] ) , node [ 16 ] ] sub_node_idx , sub_node_hash = next ( ( idx , v ) for idx , v in enumerate ( node [ : 16 ] ) if v ) sub_node = self . get_node ( sub_node_hash ) sub_node_type = get_node_type ( sub_node ) if sub_node_type in { NODE_TYPE_LEAF , NODE_TYPE_EXTENSION } : with self . _prune_node ( sub_node ) : new_subnode_key = encode_nibbles ( tuple ( itertools . chain ( [ sub_node_idx ] , decode_nibbles ( sub_node [ 0 ] ) , ) ) ) return [ new_subnode_key , sub_node [ 1 ] ] elif sub_node_type == NODE_TYPE_BRANCH : subnode_hash = self . _persist_node ( sub_node ) return [ encode_nibbles ( [ sub_node_idx ] ) , subnode_hash ] else : raise Exception ( "Invariant: this code block should be unreachable" ) | A branch node which is left with only a single non - blank item should be turned into either a leaf or extension node . | 313 | 25 |
250,283 | def _delete_branch_node ( self , node , trie_key ) : if not trie_key : node [ - 1 ] = BLANK_NODE return self . _normalize_branch_node ( node ) node_to_delete = self . get_node ( node [ trie_key [ 0 ] ] ) sub_node = self . _delete ( node_to_delete , trie_key [ 1 : ] ) encoded_sub_node = self . _persist_node ( sub_node ) if encoded_sub_node == node [ trie_key [ 0 ] ] : return node node [ trie_key [ 0 ] ] = encoded_sub_node if encoded_sub_node == BLANK_NODE : return self . _normalize_branch_node ( node ) return node | Delete a key from inside or underneath a branch node | 181 | 10 |
250,284 | def get ( self , key ) : validate_is_bytes ( key ) return self . _get ( self . root_hash , encode_to_bin ( key ) ) | Fetches the value with a given keypath from the given node . | 37 | 15 |
250,285 | def set ( self , key , value ) : validate_is_bytes ( key ) validate_is_bytes ( value ) self . root_hash = self . _set ( self . root_hash , encode_to_bin ( key ) , value ) | Sets the value at the given keypath from the given node | 54 | 13 |
250,286 | def _set ( self , node_hash , keypath , value , if_delete_subtrie = False ) : # Empty trie if node_hash == BLANK_HASH : if value : return self . _hash_and_save ( encode_kv_node ( keypath , self . _hash_and_save ( encode_leaf_node ( value ) ) ) ) else : return BLANK_HASH nodetype , left_child , right_child = parse_node ( self . db [ node_hash ] ) # Node is a leaf node if nodetype == LEAF_TYPE : # Keypath must match, there should be no remaining keypath if keypath : raise NodeOverrideError ( "Fail to set the value because the prefix of it's key" " is the same as existing key" ) if if_delete_subtrie : return BLANK_HASH return self . _hash_and_save ( encode_leaf_node ( value ) ) if value else BLANK_HASH # node is a key-value node elif nodetype == KV_TYPE : # Keypath too short if not keypath : if if_delete_subtrie : return BLANK_HASH else : raise NodeOverrideError ( "Fail to set the value because it's key" " is the prefix of other existing key" ) return self . _set_kv_node ( keypath , node_hash , nodetype , left_child , right_child , value , if_delete_subtrie ) # node is a branch node elif nodetype == BRANCH_TYPE : # Keypath too short if not keypath : if if_delete_subtrie : return BLANK_HASH else : raise NodeOverrideError ( "Fail to set the value because it's key" " is the prefix of other existing key" ) return self . _set_branch_node ( keypath , nodetype , left_child , right_child , value , if_delete_subtrie ) raise Exception ( "Invariant: This shouldn't ever happen" ) | If if_delete_subtrie is set to True what it will do is that it take in a keypath and traverse til the end of keypath then delete the whole subtrie of that node . | 454 | 42 |
250,287 | def delete ( self , key ) : validate_is_bytes ( key ) self . root_hash = self . _set ( self . root_hash , encode_to_bin ( key ) , b'' ) | Equals to setting the value to None | 45 | 8 |
250,288 | def delete_subtrie ( self , key ) : validate_is_bytes ( key ) self . root_hash = self . _set ( self . root_hash , encode_to_bin ( key ) , value = b'' , if_delete_subtrie = True , ) | Given a key prefix delete the whole subtrie that starts with the key prefix . | 62 | 16 |
250,289 | def _hash_and_save ( self , node ) : validate_is_bin_node ( node ) node_hash = keccak ( node ) self . db [ node_hash ] = node return node_hash | Saves a node into the database and returns its hash | 47 | 11 |
250,290 | def decode_from_bin ( input_bin ) : for chunk in partition_all ( 8 , input_bin ) : yield sum ( 2 ** exp * bit for exp , bit in enumerate ( reversed ( chunk ) ) ) | 0100000101010111010000110100100101001001 - > ASCII | 48 | 18 |
250,291 | def encode_to_bin ( value ) : for char in value : for exp in EXP : if char & exp : yield True else : yield False | ASCII - > 0100000101010111010000110100100101001001 | 31 | 19 |
250,292 | def encode_from_bin_keypath ( input_bin ) : padded_bin = bytes ( ( 4 - len ( input_bin ) ) % 4 ) + input_bin prefix = TWO_BITS [ len ( input_bin ) % 4 ] if len ( padded_bin ) % 8 == 4 : return decode_from_bin ( PREFIX_00 + prefix + padded_bin ) else : return decode_from_bin ( PREFIX_100000 + prefix + padded_bin ) | Encodes a sequence of 0s and 1s into tightly packed bytes Used in encoding key path of a KV - NODE | 105 | 26 |
250,293 | def decode_to_bin_keypath ( path ) : path = encode_to_bin ( path ) if path [ 0 ] == 1 : path = path [ 4 : ] assert path [ 0 : 2 ] == PREFIX_00 padded_len = TWO_BITS . index ( path [ 2 : 4 ] ) return path [ 4 + ( ( 4 - padded_len ) % 4 ) : ] | Decodes bytes into a sequence of 0s and 1s Used in decoding key path of a KV - NODE | 86 | 24 |
250,294 | def encode_nibbles ( nibbles ) : if is_nibbles_terminated ( nibbles ) : flag = HP_FLAG_2 else : flag = HP_FLAG_0 raw_nibbles = remove_nibbles_terminator ( nibbles ) is_odd = len ( raw_nibbles ) % 2 if is_odd : flagged_nibbles = tuple ( itertools . chain ( ( flag + 1 , ) , raw_nibbles , ) ) else : flagged_nibbles = tuple ( itertools . chain ( ( flag , 0 ) , raw_nibbles , ) ) prefixed_value = nibbles_to_bytes ( flagged_nibbles ) return prefixed_value | The Hex Prefix function | 160 | 5 |
250,295 | def decode_nibbles ( value ) : nibbles_with_flag = bytes_to_nibbles ( value ) flag = nibbles_with_flag [ 0 ] needs_terminator = flag in { HP_FLAG_2 , HP_FLAG_2 + 1 } is_odd_length = flag in { HP_FLAG_0 + 1 , HP_FLAG_2 + 1 } if is_odd_length : raw_nibbles = nibbles_with_flag [ 1 : ] else : raw_nibbles = nibbles_with_flag [ 2 : ] if needs_terminator : nibbles = add_nibbles_terminator ( raw_nibbles ) else : nibbles = raw_nibbles return nibbles | The inverse of the Hex Prefix function | 163 | 8 |
250,296 | def get_local_file ( file ) : try : with open ( file . path ) : yield file . path except NotImplementedError : _ , ext = os . path . splitext ( file . name ) with NamedTemporaryFile ( prefix = 'wagtailvideo-' , suffix = ext ) as tmp : try : file . open ( 'rb' ) for chunk in file . chunks ( ) : tmp . write ( chunk ) finally : file . close ( ) tmp . flush ( ) yield tmp . name | Get a local version of the file downloading it from the remote storage if required . The returned value should be used as a context manager to ensure any temporary files are cleaned up afterwards . | 110 | 36 |
250,297 | def rustcall ( func , * args ) : lib . semaphore_err_clear ( ) rv = func ( * args ) err = lib . semaphore_err_get_last_code ( ) if not err : return rv msg = lib . semaphore_err_get_last_message ( ) cls = exceptions_by_code . get ( err , SemaphoreError ) exc = cls ( decode_str ( msg ) ) backtrace = decode_str ( lib . semaphore_err_get_backtrace ( ) ) if backtrace : exc . rust_info = backtrace raise exc | Calls rust method and does some error handling . | 136 | 10 |
250,298 | def decode_str ( s , free = False ) : try : if s . len == 0 : return u"" return ffi . unpack ( s . data , s . len ) . decode ( "utf-8" , "replace" ) finally : if free : lib . semaphore_str_free ( ffi . addressof ( s ) ) | Decodes a SymbolicStr | 77 | 6 |
250,299 | def encode_str ( s , mutable = False ) : rv = ffi . new ( "SemaphoreStr *" ) if isinstance ( s , text_type ) : s = s . encode ( "utf-8" ) if mutable : s = bytearray ( s ) rv . data = ffi . from_buffer ( s ) rv . len = len ( s ) # we have to hold a weak reference here to ensure our string does not # get collected before the string is used. attached_refs [ rv ] = s return rv | Encodes a SemaphoreStr | 125 | 7 |
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