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f648fa7f2db64201644eb5a37143ea7885e9852d
vliz-be-opsci/pykg2tbl
pykg2tbl/service.py
[ "MIT" ]
Python
query
QueryResult
def query(self, sparql:str) -> QueryResult: """ function that queries data with the given sparql :param sparql: sparql statement logic for querying data. """ pass
function that queries data with the given sparql :param sparql: sparql statement logic for querying data.
function that queries data with the given sparql
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def query(self, sparql:str) -> QueryResult: pass
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function that queries data with the given sparql
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[ "\"\"\"\n function that queries data with the given sparql\n \n :param sparql: sparql statement logic for querying data.\n \"\"\"" ]
[ { "param": "self", "type": null }, { "param": "sparql", "type": "str" } ]
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f648fa7f2db64201644eb5a37143ea7885e9852d
vliz-be-opsci/pykg2tbl
pykg2tbl/service.py
[ "MIT" ]
Python
build_sparql_query
null
def build_sparql_query(self, name: str, **variables): """ Builds the named sparql query by applying the provided params :param name: Name of the query. :param variables: Dict of all the variables to give to the template to make the sparql query. :type name: str ...
Builds the named sparql query by applying the provided params :param name: Name of the query. :param variables: Dict of all the variables to give to the template to make the sparql query. :type name: str
Builds the named sparql query by applying the provided params
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def build_sparql_query(self, name: str, **variables): pass
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Builds the named sparql query by applying the provided params
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[ "\"\"\"\n Builds the named sparql query by applying the provided params\n\n :param name: Name of the query.\n :param variables: Dict of all the variables to give to the template to make the sparql query.\n \n :type name: str\n \"\"\"" ]
[ { "param": "self", "type": null }, { "param": "name", "type": "str" } ]
{ "returns": [], "raises": [], "params": [ { "identifier": "self", "type": null, "docstring": null, "docstring_tokens": [], "default": null, "is_optional": null }, { "identifier": "name", "type": "str", "docstring": "Name of the query.", "doc...
f648fa7f2db64201644eb5a37143ea7885e9852d
vliz-be-opsci/pykg2tbl
pykg2tbl/service.py
[ "MIT" ]
Python
variables_in_query
null
def variables_in_query(self, name:str): """ Return the set of all the variable names applicable to the named query :param name: [Name of the query.] :type name: str :return: the set of all variables applicable to the named query. :rtype: set """...
Return the set of all the variable names applicable to the named query :param name: [Name of the query.] :type name: str :return: the set of all variables applicable to the named query. :rtype: set
Return the set of all the variable names applicable to the named query
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def variables_in_query(self, name:str): pass
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Return the set of all the variable names applicable to the named query
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[ "\"\"\"\n Return the set of all the variable names applicable to the named query\n\n :param name: [Name of the query.]\n :type name: str\n \n :return: the set of all variables applicable to the named query.\n :rtype: set\n \n \"\"\"" ]
[ { "param": "self", "type": null }, { "param": "name", "type": "str" } ]
{ "returns": [ { "docstring": "the set of all variables applicable to the named query.", "docstring_tokens": [ "the", "set", "of", "all", "variables", "applicable", "to", "the", "named", "query", "." ], ...
b114dc9329e66464a6d403a42d5ca6275e1cfc8b
vliz-be-opsci/pykg2tbl
pykg2tbl/__main__.py
[ "MIT" ]
Python
main
null
def main(sysargs = None): """ The main entry point to this module. """ print('sysargs=', sysargs) args = get_arg_parser().parse_args(sysargs) if sysargs is not None and len(sysargs) > 0 else get_arg_parser().parse_args() enable_logging(args) log.info("The args passed to %s are: %s." % (sys....
The main entry point to this module.
The main entry point to this module.
[ "The", "main", "entry", "point", "to", "this", "module", "." ]
def main(sysargs = None): print('sysargs=', sysargs) args = get_arg_parser().parse_args(sysargs) if sysargs is not None and len(sysargs) > 0 else get_arg_parser().parse_args() enable_logging(args) log.info("The args passed to %s are: %s." % (sys.argv[0], args)) log.debug("Performing service") pe...
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The main entry point to this module.
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[ "\"\"\"\n The main entry point to this module.\n\n \"\"\"" ]
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fab7d96e97c82fa673ee33de83014c313e7ae30d
vliz-be-opsci/pykg2tbl
pykg2tbl/j2/jinja_sparql_builder.py
[ "MIT" ]
Python
variables_in_query
set
def variables_in_query(self, name:str) -> set: """ The set of variables to make this template work :param name: name of the template to inspect :returns: set of variable-names :rtype: set of str """ template_name = name templates_env = self._templ...
The set of variables to make this template work :param name: name of the template to inspect :returns: set of variable-names :rtype: set of str
The set of variables to make this template work
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def variables_in_query(self, name:str) -> set: template_name = name templates_env = self._templates_env log.debug(f"name template: {template_name}") template_source = templates_env.loader.get_source(templates_env, template_name) log.debug(f"template source = {template_source}") ...
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The set of variables to make this template work
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[ "\"\"\"\n The set of variables to make this template work\n \n :param name: name of the template to inspect\n :returns: set of variable-names\n :rtype: set of str\n \"\"\"" ]
[ { "param": "self", "type": null }, { "param": "name", "type": "str" } ]
{ "returns": [ { "docstring": "set of variable-names", "docstring_tokens": [ "set", "of", "variable", "-", "names" ], "type": "set of str" } ], "raises": [], "params": [ { "identifier": "self", "type": null, "docstring...
e0836c2aad189c99bd4dabb09aae5f1a55ec5260
igor-simoes/nameko-prometheus
src/nameko_prometheus/dependencies.py
[ "Apache-2.0" ]
Python
expose_metrics
Response
def expose_metrics(self, request: Request) -> Response: """ Returns metrics as a HTTP response in Prometheus text format. """ if "name" not in request.args: logger.debug( "Registry name(s) not found in query string, using global registry" ) ...
Returns metrics as a HTTP response in Prometheus text format.
Returns metrics as a HTTP response in Prometheus text format.
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def expose_metrics(self, request: Request) -> Response: if "name" not in request.args: logger.debug( "Registry name(s) not found in query string, using global registry" ) registry = REGISTRY else: names = request.args.getlist("name") ...
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Returns metrics as a HTTP response in Prometheus text format.
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[ "\"\"\"\n Returns metrics as a HTTP response in Prometheus text format.\n \"\"\"" ]
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e0836c2aad189c99bd4dabb09aae5f1a55ec5260
igor-simoes/nameko-prometheus
src/nameko_prometheus/dependencies.py
[ "Apache-2.0" ]
Python
worker_setup
None
def worker_setup(self, worker_ctx: WorkerContext) -> None: """ Called before service worker starts. """ self.worker_starts[worker_ctx] = time.perf_counter()
Called before service worker starts.
Called before service worker starts.
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def worker_setup(self, worker_ctx: WorkerContext) -> None: self.worker_starts[worker_ctx] = time.perf_counter()
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Called before service worker starts.
[ "Called", "before", "service", "worker", "starts", "." ]
[ "\"\"\"\n Called before service worker starts.\n \"\"\"" ]
[ { "param": "self", "type": null }, { "param": "worker_ctx", "type": "WorkerContext" } ]
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e0836c2aad189c99bd4dabb09aae5f1a55ec5260
igor-simoes/nameko-prometheus
src/nameko_prometheus/dependencies.py
[ "Apache-2.0" ]
Python
worker_result
None
def worker_result( self, worker_ctx: WorkerContext, result=None, exc_info=None ) -> None: """ Called after service worker completes. At this point the default metrics such as worker latency are observed, regardless of whether the worker finished successfully or raised an ...
Called after service worker completes. At this point the default metrics such as worker latency are observed, regardless of whether the worker finished successfully or raised an exception.
Called after service worker completes. At this point the default metrics such as worker latency are observed, regardless of whether the worker finished successfully or raised an exception.
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def worker_result( self, worker_ctx: WorkerContext, result=None, exc_info=None ) -> None: try: start = self.worker_starts.pop(worker_ctx) except KeyError: logger.warning("No worker_ctx in request start dictionary") return worker_summary = WorkerSum...
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Called after service worker completes.
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[ "\"\"\"\n Called after service worker completes.\n\n At this point the default metrics such as worker latency are observed,\n regardless of whether the worker finished successfully or raised an\n exception.\n \"\"\"" ]
[ { "param": "self", "type": null }, { "param": "worker_ctx", "type": "WorkerContext" }, { "param": "result", "type": null }, { "param": "exc_info", "type": null } ]
{ "returns": [], "raises": [], "params": [ { "identifier": "self", "type": null, "docstring": null, "docstring_tokens": [], "default": null, "is_optional": null }, { "identifier": "worker_ctx", "type": "WorkerContext", "docstring": null, "doc...
52f83d42f2e2ae0f16ba9480def027d71d6c82f7
delthas/bliss
python/bliss/bl_song.py
[ "MIT" ]
Python
decode
null
def decode(self, filename): """ Decode an audio file and load it into this `bl_song` object. Do not run any analysis on it. Params: - filename is the path to the file to load. """ filename_char = ffi.new("char[]", filename.encode("utf-8")) lib.bl_audi...
Decode an audio file and load it into this `bl_song` object. Do not run any analysis on it. Params: - filename is the path to the file to load.
Decode an audio file and load it into this `bl_song` object. Do not run any analysis on it. filename is the path to the file to load.
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def decode(self, filename): filename_char = ffi.new("char[]", filename.encode("utf-8")) lib.bl_audio_decode(filename_char, self._c_struct)
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Decode an audio file and load it into this `bl_song` object.
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[ "\"\"\"\n Decode an audio file and load it into this `bl_song` object. Do not run\n any analysis on it.\n\n Params:\n - filename is the path to the file to load.\n \"\"\"" ]
[ { "param": "self", "type": null }, { "param": "filename", "type": null } ]
{ "returns": [], "raises": [], "params": [ { "identifier": "self", "type": null, "docstring": null, "docstring_tokens": [], "default": null, "is_optional": null }, { "identifier": "filename", "type": null, "docstring": null, "docstring_tokens...
52f83d42f2e2ae0f16ba9480def027d71d6c82f7
delthas/bliss
python/bliss/bl_song.py
[ "MIT" ]
Python
analyze
null
def analyze(self, filename): """ Load and analyze an audio file, putting it in a `bl_song` object. Params: - filename is the path to the file to load and analyze. """ filename_char = ffi.new("char[]", filename.encode("utf-8")) lib.bl_analyze(filename_char, se...
Load and analyze an audio file, putting it in a `bl_song` object. Params: - filename is the path to the file to load and analyze.
Load and analyze an audio file, putting it in a `bl_song` object. Params: filename is the path to the file to load and analyze.
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def analyze(self, filename): filename_char = ffi.new("char[]", filename.encode("utf-8")) lib.bl_analyze(filename_char, self._c_struct)
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Load and analyze an audio file, putting it in a `bl_song` object.
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[ "\"\"\"\n Load and analyze an audio file, putting it in a `bl_song` object.\n\n Params:\n - filename is the path to the file to load and analyze.\n \"\"\"" ]
[ { "param": "self", "type": null }, { "param": "filename", "type": null } ]
{ "returns": [], "raises": [], "params": [ { "identifier": "self", "type": null, "docstring": null, "docstring_tokens": [], "default": null, "is_optional": null }, { "identifier": "filename", "type": null, "docstring": null, "docstring_tokens...
52f83d42f2e2ae0f16ba9480def027d71d6c82f7
delthas/bliss
python/bliss/bl_song.py
[ "MIT" ]
Python
envelope_analysis
<not_specific>
def envelope_analysis(self): """ Run an envelope analysis on a previously loaded file. Returns a {tempo, attack} dict, which is a direct mapping of `struct envelope_result_s`. Also updates the object data members. """ result = ffi.new("struct envelope_result_s *") ...
Run an envelope analysis on a previously loaded file. Returns a {tempo, attack} dict, which is a direct mapping of `struct envelope_result_s`. Also updates the object data members.
Run an envelope analysis on a previously loaded file. Returns a {tempo, attack} dict, which is a direct mapping of `struct envelope_result_s`. Also updates the object data members.
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def envelope_analysis(self): result = ffi.new("struct envelope_result_s *") lib.bl_envelope_sort(self._c_struct, result) return { "tempo": (result.tempo), "attack": result.attack }
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Run an envelope analysis on a previously loaded file.
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[ { "param": "self", "type": null } ]
{ "returns": [], "raises": [], "params": [ { "identifier": "self", "type": null, "docstring": null, "docstring_tokens": [], "default": null, "is_optional": null } ], "outlier_params": [], "others": [] }
52f83d42f2e2ae0f16ba9480def027d71d6c82f7
delthas/bliss
python/bliss/bl_song.py
[ "MIT" ]
Python
amplitude_analysis
null
def amplitude_analysis(self): """ Run an amplitude analysis on a previously loaded file. Returns a the score obtained. Also updates the object data members. """ lib.bl_amplitude_sort(self._c_struct)
Run an amplitude analysis on a previously loaded file. Returns a the score obtained. Also updates the object data members.
Run an amplitude analysis on a previously loaded file. Returns a the score obtained. Also updates the object data members.
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def amplitude_analysis(self): lib.bl_amplitude_sort(self._c_struct)
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Run an amplitude analysis on a previously loaded file.
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[ "\"\"\"\n Run an amplitude analysis on a previously loaded file.\n\n Returns a the score obtained. Also updates the object data members.\n \"\"\"" ]
[ { "param": "self", "type": null } ]
{ "returns": [], "raises": [], "params": [ { "identifier": "self", "type": null, "docstring": null, "docstring_tokens": [], "default": null, "is_optional": null } ], "outlier_params": [], "others": [] }
52f83d42f2e2ae0f16ba9480def027d71d6c82f7
delthas/bliss
python/bliss/bl_song.py
[ "MIT" ]
Python
frequency_analysis
null
def frequency_analysis(self): """ Run a frequency analysis on a previously loaded file. Returns a the score obtained. Also updates the object data members. """ lib.bl_frequency_sort(self._c_struct)
Run a frequency analysis on a previously loaded file. Returns a the score obtained. Also updates the object data members.
Run a frequency analysis on a previously loaded file. Returns a the score obtained. Also updates the object data members.
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def frequency_analysis(self): lib.bl_frequency_sort(self._c_struct)
[ "def", "frequency_analysis", "(", "self", ")", ":", "lib", ".", "bl_frequency_sort", "(", "self", ".", "_c_struct", ")" ]
Run a frequency analysis on a previously loaded file.
[ "Run", "a", "frequency", "analysis", "on", "a", "previously", "loaded", "file", "." ]
[ "\"\"\"\n Run a frequency analysis on a previously loaded file.\n\n Returns a the score obtained. Also updates the object data members.\n \"\"\"" ]
[ { "param": "self", "type": null } ]
{ "returns": [], "raises": [], "params": [ { "identifier": "self", "type": null, "docstring": null, "docstring_tokens": [], "default": null, "is_optional": null } ], "outlier_params": [], "others": [] }
52f83d42f2e2ae0f16ba9480def027d71d6c82f7
delthas/bliss
python/bliss/bl_song.py
[ "MIT" ]
Python
free
null
def free(self): """ Free dynamically allocated data in the underlying C struct (artist, genre, etc). Must be called at deletion to prevent memory leaks. """ for k in list(self._keepalive): del(self._keepalive[k]) self.set(k, ffi.NULL) lib.bl_free_s...
Free dynamically allocated data in the underlying C struct (artist, genre, etc). Must be called at deletion to prevent memory leaks.
Free dynamically allocated data in the underlying C struct (artist, genre, etc). Must be called at deletion to prevent memory leaks.
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def free(self): for k in list(self._keepalive): del(self._keepalive[k]) self.set(k, ffi.NULL) lib.bl_free_song(self._c_struct)
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Free dynamically allocated data in the underlying C struct (artist, genre, etc).
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[ "\"\"\"\n Free dynamically allocated data in the underlying C struct (artist,\n genre, etc). Must be called at deletion to prevent memory leaks.\n \"\"\"" ]
[ { "param": "self", "type": null } ]
{ "returns": [], "raises": [], "params": [ { "identifier": "self", "type": null, "docstring": null, "docstring_tokens": [], "default": null, "is_optional": null } ], "outlier_params": [], "others": [] }
c6db54089fceb4490051f9054354f831fe620144
delthas/bliss
python/bliss/version.py
[ "MIT" ]
Python
version
<not_specific>
def version(): """ Wrapper around `bl_version` function which returns the current version. """ return lib.bl_version()
Wrapper around `bl_version` function which returns the current version.
Wrapper around `bl_version` function which returns the current version.
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def version(): return lib.bl_version()
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Wrapper around `bl_version` function which returns the current version.
[ "Wrapper", "around", "`", "bl_version", "`", "function", "which", "returns", "the", "current", "version", "." ]
[ "\"\"\"\n Wrapper around `bl_version` function which returns the current version.\n \"\"\"" ]
[]
{ "returns": [], "raises": [], "params": [], "outlier_params": [], "others": [] }
8b773bd7c74d11891c8e2fb6d1677b9f9f0f8393
delthas/bliss
python/buildtools/pkgconfig.py
[ "MIT" ]
Python
_compare_versions
<not_specific>
def _compare_versions(v1, v2): """ Compare two version strings and return -1, 0 or 1 depending on the equality of the subset of matching version numbers. The implementation is taken from the top answer at http://stackoverflow.com/a/1714190/997768. """ def normalize(v): return [int(x...
Compare two version strings and return -1, 0 or 1 depending on the equality of the subset of matching version numbers. The implementation is taken from the top answer at http://stackoverflow.com/a/1714190/997768.
Compare two version strings and return -1, 0 or 1 depending on the equality of the subset of matching version numbers.
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def _compare_versions(v1, v2): def normalize(v): return [int(x) for x in re.sub(r'(\.0+)*$', '', v).split(".")] n1 = normalize(v1) n2 = normalize(v2) return (n1 > n2) - (n1 < n2)
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Compare two version strings and return -1, 0 or 1 depending on the equality of the subset of matching version numbers.
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[ "\"\"\"\n Compare two version strings and return -1, 0 or 1 depending on the equality\n of the subset of matching version numbers.\n\n The implementation is taken from the top answer at\n http://stackoverflow.com/a/1714190/997768.\n \"\"\"" ]
[ { "param": "v1", "type": null }, { "param": "v2", "type": null } ]
{ "returns": [], "raises": [], "params": [ { "identifier": "v1", "type": null, "docstring": null, "docstring_tokens": [], "default": null, "is_optional": null }, { "identifier": "v2", "type": null, "docstring": null, "docstring_tokens": [], ...
8b773bd7c74d11891c8e2fb6d1677b9f9f0f8393
delthas/bliss
python/buildtools/pkgconfig.py
[ "MIT" ]
Python
installed
<not_specific>
def installed(package, version): """ Check if the package meets the required version. The version specifier consists of an optional comparator (one of =, ==, >, <, >=, <=) and an arbitrarily long version number separated by dots. The should be as you would expect, e.g. for an installed version '0.1...
Check if the package meets the required version. The version specifier consists of an optional comparator (one of =, ==, >, <, >=, <=) and an arbitrarily long version number separated by dots. The should be as you would expect, e.g. for an installed version '0.1.2' of package 'foo': >>> insta...
Check if the package meets the required version.
[ "Check", "if", "the", "package", "meets", "the", "required", "version", "." ]
def installed(package, version): if not exists(package): return False number, comparator = _split_version_specifier(version) modversion = _query(package, '--modversion') try: result = _compare_versions(modversion, number) except ValueError: msg = "{0} is not a correct version...
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Check if the package meets the required version.
[ "Check", "if", "the", "package", "meets", "the", "required", "version", "." ]
[ "\"\"\"\n Check if the package meets the required version.\n\n The version specifier consists of an optional comparator (one of =, ==, >,\n <, >=, <=) and an arbitrarily long version number separated by dots. The\n should be as you would expect, e.g. for an installed version '0.1.2' of\n package 'foo...
[ { "param": "package", "type": null }, { "param": "version", "type": null } ]
{ "returns": [], "raises": [], "params": [ { "identifier": "package", "type": null, "docstring": null, "docstring_tokens": [], "default": null, "is_optional": null }, { "identifier": "version", "type": null, "docstring": null, "docstring_toke...
8b773bd7c74d11891c8e2fb6d1677b9f9f0f8393
delthas/bliss
python/buildtools/pkgconfig.py
[ "MIT" ]
Python
parse
<not_specific>
def parse(packages): """ Parse the output from pkg-config about the passed package or packages. Builds a dictionary containing the 'libraries', the 'library_dirs', the 'include_dirs', and the 'define_macros' that are presented by pkg-config. *package* is a string with space-delimited package names....
Parse the output from pkg-config about the passed package or packages. Builds a dictionary containing the 'libraries', the 'library_dirs', the 'include_dirs', and the 'define_macros' that are presented by pkg-config. *package* is a string with space-delimited package names.
Parse the output from pkg-config about the passed package or packages.
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def parse(packages): def parse_package(package): result = collections.defaultdict(set) out = _query(package, '--cflags --libs') out = out.replace('\\"', '') for token in out.split(): key = _PARSE_MAP.get(token[:2]) if key: result[key].add(token...
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Parse the output from pkg-config about the passed package or packages.
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[ "\"\"\"\n Parse the output from pkg-config about the passed package or packages.\n\n Builds a dictionary containing the 'libraries', the 'library_dirs',\n the 'include_dirs', and the 'define_macros' that are presented by\n pkg-config. *package* is a string with space-delimited package names.\n \"\"\"...
[ { "param": "packages", "type": null } ]
{ "returns": [], "raises": [], "params": [ { "identifier": "packages", "type": null, "docstring": null, "docstring_tokens": [], "default": null, "is_optional": null } ], "outlier_params": [], "others": [] }
e8c2a89bcd641ddc60aa8ce77f8649453c1b5e66
pavelzimin/microsoft_malware
src/models/train_model.py
[ "MIT" ]
Python
data_split
<not_specific>
def data_split(df, y_col, to_drop=[], random_state=None, hold1_size=.1, hold2_size=.1, hold3_size=.1): """ Splits the dataframe into the train set and 3 hold-out sets. Drops columns to drop and the target variable from the DataFrame df. Then the rows are reshuffled and split into 4 groups: train set and 3 hold...
Splits the dataframe into the train set and 3 hold-out sets. Drops columns to drop and the target variable from the DataFrame df. Then the rows are reshuffled and split into 4 groups: train set and 3 hold-out sets. Args: df: pandas DataFrame with the data. y_col: the name of the column with t...
Splits the dataframe into the train set and 3 hold-out sets. Drops columns to drop and the target variable from the DataFrame df. Then the rows are reshuffled and split into 4 groups: train set and 3 hold-out sets.
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def data_split(df, y_col, to_drop=[], random_state=None, hold1_size=.1, hold2_size=.1, hold3_size=.1): df_filtered = df.drop(columns=to_drop) rows = list(df_filtered.index) if random_state is not None: random.seed(random_state) random.shuffle(rows) length = len(rows) train_rows = rows[:i...
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Splits the dataframe into the train set and 3 hold-out sets.
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[ "\"\"\" Splits the dataframe into the train set and 3 hold-out sets.\n\n Drops columns to drop and the target variable from the DataFrame df. Then the rows are reshuffled and split into 4 groups: train set and 3 hold-out sets.\n\n Args:\n df: pandas DataFrame with the data.\n y_col: the name of ...
[ { "param": "df", "type": null }, { "param": "y_col", "type": null }, { "param": "to_drop", "type": null }, { "param": "random_state", "type": null }, { "param": "hold1_size", "type": null }, { "param": "hold2_size", "type": null }, { "param...
{ "returns": [ { "docstring": "A tuple of length 9 containing train set, 3 hold-out sets split of inputs and a list of column labels.", "docstring_tokens": [ "A", "tuple", "of", "length", "9", "containing", "train", "set", "3", ...
e8c2a89bcd641ddc60aa8ce77f8649453c1b5e66
pavelzimin/microsoft_malware
src/models/train_model.py
[ "MIT" ]
Python
preproc
<not_specific>
def preproc(X_train, X_val, cat_cols, cols_to_keep): """ Preprocesses training and validation sets ready for the neural network training. For each categorical column, the function remaps the values to the integer values and adds a one-dimensional numpy array of with mapped values to the output list. Other ...
Preprocesses training and validation sets ready for the neural network training. For each categorical column, the function remaps the values to the integer values and adds a one-dimensional numpy array of with mapped values to the output list. Other columns are treated as numeric and added as numpy array ...
Preprocesses training and validation sets ready for the neural network training. For each categorical column, the function remaps the values to the integer values and adds a one-dimensional numpy array of with mapped values to the output list. Other columns are treated as numeric and added as numpy array as the last el...
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def preproc(X_train, X_val, cat_cols, cols_to_keep): other_cols = [not c in cat_cols for c in cols_to_keep] input_list_train = [] input_list_val = [] for c in cat_cols: el_index = cols_to_keep.index(c) raw_vals = np.unique(np.concatenate((X_train, X_val), axis=0)[:, el_index]) ra...
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Preprocesses training and validation sets ready for the neural network training.
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[ "\"\"\" Preprocesses training and validation sets ready for the neural network training.\n\n For each categorical column, the function remaps the values to the integer values and adds a one-dimensional\n numpy array of with mapped values to the output list. Other columns are treated as numeric and added as nu...
[ { "param": "X_train", "type": null }, { "param": "X_val", "type": null }, { "param": "cat_cols", "type": null }, { "param": "cols_to_keep", "type": null } ]
{ "returns": [ { "docstring": "a list with preprocessed data ready for an entity embedding neural network model.", "docstring_tokens": [ "a", "list", "with", "preprocessed", "data", "ready", "for", "an", "entity", "embeddi...
e8c2a89bcd641ddc60aa8ce77f8649453c1b5e66
pavelzimin/microsoft_malware
src/models/train_model.py
[ "MIT" ]
Python
build_embedding_network
<not_specific>
def build_embedding_network(X_train, X_val, cat_cols, cols_to_keep, n_num=100, n=60, d=False, verbose=False): """ Builds a neural network model with entity embedding for categorical variables. The function builds the neural network, for which it creates entity embedding for each categorical feature specified ...
Builds a neural network model with entity embedding for categorical variables. The function builds the neural network, for which it creates entity embedding for each categorical feature specified in cat_cols argument. Numerical features are projected ot a dense layer. Entity embedding with the numerical f...
Builds a neural network model with entity embedding for categorical variables. The function builds the neural network, for which it creates entity embedding for each categorical feature specified in cat_cols argument. Numerical features are projected ot a dense layer. Entity embedding with the numerical features projec...
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def build_embedding_network(X_train, X_val, cat_cols, cols_to_keep, n_num=100, n=60, d=False, verbose=False): inputs = [] embeddings = [] for categorical_var in cat_cols: if verbose: print("------------------------------------------------------------------") print("for catego...
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Builds a neural network model with entity embedding for categorical variables.
[ "Builds", "a", "neural", "network", "model", "with", "entity", "embedding", "for", "categorical", "variables", "." ]
[ "\"\"\" Builds a neural network model with entity embedding for categorical variables.\n\n The function builds the neural network, for which it creates entity embedding for each categorical feature specified\n in cat_cols argument. Numerical features are projected ot a dense layer. Entity embedding with the n...
[ { "param": "X_train", "type": null }, { "param": "X_val", "type": null }, { "param": "cat_cols", "type": null }, { "param": "cols_to_keep", "type": null }, { "param": "n_num", "type": null }, { "param": "n", "type": null }, { "param": "d", ...
{ "returns": [ { "docstring": "neural network model.", "docstring_tokens": [ "neural", "network", "model", "." ], "type": null } ], "raises": [], "params": [ { "identifier": "X_train", "type": null, "docstring": "training set ...
e8c2a89bcd641ddc60aa8ce77f8649453c1b5e66
pavelzimin/microsoft_malware
src/models/train_model.py
[ "MIT" ]
Python
build_embedding_network_3
<not_specific>
def build_embedding_network_3(X_train, X_val, cat_cols, cols_to_keep, n_num=120, n1=150, n2=50, d=False, lr=0.001, verbose=False): """Builds a neural network model with entity embedding for categorical variables. The function builds the neural network, for which it creates entity embedding for each categorical...
Builds a neural network model with entity embedding for categorical variables. The function builds the neural network, for which it creates entity embedding for each categorical feature specified in cat_cols argument. Numerical features are projected ot a dense layer. Entity embeddings are concatenated with ...
Builds a neural network model with entity embedding for categorical variables. The function builds the neural network, for which it creates entity embedding for each categorical feature specified in cat_cols argument. Numerical features are projected ot a dense layer. Entity embeddings are concatenated with layer numer...
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def build_embedding_network_3(X_train, X_val, cat_cols, cols_to_keep, n_num=120, n1=150, n2=50, d=False, lr=0.001, verbose=False): inputs = [] embeddings = [] for categorical_var in cat_cols: if verbose: print("------------------------------------------------------------------") ...
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Builds a neural network model with entity embedding for categorical variables.
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[ "\"\"\"Builds a neural network model with entity embedding for categorical variables.\n\n The function builds the neural network, for which it creates entity embedding for each categorical feature specified\n in cat_cols argument. Numerical features are projected ot a dense layer. Entity embeddings are concat...
[ { "param": "X_train", "type": null }, { "param": "X_val", "type": null }, { "param": "cat_cols", "type": null }, { "param": "cols_to_keep", "type": null }, { "param": "n_num", "type": null }, { "param": "n1", "type": null }, { "param": "n2"...
{ "returns": [ { "docstring": "neural network model.", "docstring_tokens": [ "neural", "network", "model", "." ], "type": null } ], "raises": [], "params": [ { "identifier": "X_train", "type": null, "docstring": "training set ...
e8c2a89bcd641ddc60aa8ce77f8649453c1b5e66
pavelzimin/microsoft_malware
src/models/train_model.py
[ "MIT" ]
Python
grid_search
<not_specific>
def grid_search(estimator, param_grid, X_train, y_train, X_test, y_test, batch_size=10000, nn=False): """ Performs grid search over parameter grid. Function iterates over the combinations of parameters in the parameter grid. Trains the estimator on the X_train. Evaluation is done on both the training set a...
Performs grid search over parameter grid. Function iterates over the combinations of parameters in the parameter grid. Trains the estimator on the X_train. Evaluation is done on both the training set and validation set. The parameters reported are ROC AUC score calculated on the training and test sets. ...
Performs grid search over parameter grid. Function iterates over the combinations of parameters in the parameter grid. Trains the estimator on the X_train. Evaluation is done on both the training set and validation set. The parameters reported are ROC AUC score calculated on the training and test sets.
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def grid_search(estimator, param_grid, X_train, y_train, X_test, y_test, batch_size=10000, nn=False): out = pd.DataFrame() for g in ParameterGrid(param_grid): estimator.set_params(**g) if nn: print('Fitting with params:', g) early_stopping_monitor = EarlyStopping(patience...
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Performs grid search over parameter grid.
[ "Performs", "grid", "search", "over", "parameter", "grid", "." ]
[ "\"\"\" Performs grid search over parameter grid.\n\n Function iterates over the combinations of parameters in the parameter grid. Trains the estimator on the X_train.\n Evaluation is done on both the training set and validation set. The parameters reported are ROC AUC score calculated\n on the training an...
[ { "param": "estimator", "type": null }, { "param": "param_grid", "type": null }, { "param": "X_train", "type": null }, { "param": "y_train", "type": null }, { "param": "X_test", "type": null }, { "param": "y_test", "type": null }, { "param"...
{ "returns": [ { "docstring": "a pandas DataFrame with the parameter combinations and the corresponding model evaluation metrics.", "docstring_tokens": [ "a", "pandas", "DataFrame", "with", "the", "parameter", "combinations", "and", ...
e8c2a89bcd641ddc60aa8ce77f8649453c1b5e66
pavelzimin/microsoft_malware
src/models/train_model.py
[ "MIT" ]
Python
fit_GBC
null
def fit_GBC(alg, X, y, X_valid, y_valid, X_cols, printFeatureImportance=True): """ Fits the Gradient Boosting on the training set, evaluates the ROC AUC score on the training and validation set. Plots the feature importance plot. :param alg: Gradient Boosting Classifier model :param X: training set inp...
Fits the Gradient Boosting on the training set, evaluates the ROC AUC score on the training and validation set. Plots the feature importance plot. :param alg: Gradient Boosting Classifier model :param X: training set input variables :param y: training set target variable :param X_valid: validation...
Fits the Gradient Boosting on the training set, evaluates the ROC AUC score on the training and validation set. Plots the feature importance plot.
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def fit_GBC(alg, X, y, X_valid, y_valid, X_cols, printFeatureImportance=True): alg.fit(X, y) y_predictions = alg.predict(X) y_predprob = alg.predict_proba(X)[:, 1] y_valid_predprob = alg.predict_proba(X_valid)[:, 1] print("\nModel Report") print("Accuracy : %.4g" % accuracy_score(y, y_prediction...
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Fits the Gradient Boosting on the training set, evaluates the ROC AUC score on the training and validation set.
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[ "\"\"\" Fits the Gradient Boosting on the training set, evaluates the ROC AUC score on the training and validation set.\n Plots the feature importance plot.\n\n :param alg: Gradient Boosting Classifier model\n :param X: training set input variables\n :param y: training set target variable\n :param X_...
[ { "param": "alg", "type": null }, { "param": "X", "type": null }, { "param": "y", "type": null }, { "param": "X_valid", "type": null }, { "param": "y_valid", "type": null }, { "param": "X_cols", "type": null }, { "param": "printFeatureImpor...
{ "returns": [], "raises": [], "params": [ { "identifier": "alg", "type": null, "docstring": "Gradient Boosting Classifier model", "docstring_tokens": [ "Gradient", "Boosting", "Classifier", "model" ], "default": null, "is_optional": nu...
efeab87f92935ede096a42feec187c8a37e79062
simeoncarstens/ensemble_hic
ensemble_hic/backbone_prior.py
[ "Unlicense", "MIT" ]
Python
_single_structure_log_prob
<not_specific>
def _single_structure_log_prob(self, structure, ll, ul): """Evaluates log-probability for a single structure :param structure: coordinates of a single structure :type structure: :class:`numpy.ndarray` :param ll: lower distance limits for consecutive beads :type ll: :class:`nump...
Evaluates log-probability for a single structure :param structure: coordinates of a single structure :type structure: :class:`numpy.ndarray` :param ll: lower distance limits for consecutive beads :type ll: :class:`numpy.ndarray` :param ul: upper distance limits for consecutive...
Evaluates log-probability for a single structure
[ "Evaluates", "log", "-", "probability", "for", "a", "single", "structure" ]
def _single_structure_log_prob(self, structure, ll, ul): x = structure.reshape(-1, 3) k_bb = self['k_bb'].value d = np.sqrt(np.sum((x[1:] - x[:-1]) ** 2, 1)) u_viols = d > ul l_viols = d < ll delta = ul - ll return -0.5 * k_bb * ( np.sum((d[u_viols] - ul[u_viols]...
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Evaluates log-probability for a single structure
[ "Evaluates", "log", "-", "probability", "for", "a", "single", "structure" ]
[ "\"\"\"Evaluates log-probability for a single structure\n\n :param structure: coordinates of a single structure\n :type structure: :class:`numpy.ndarray`\n\n :param ll: lower distance limits for consecutive beads\n :type ll: :class:`numpy.ndarray`\n\n :param ul: upper distance lim...
[ { "param": "self", "type": null }, { "param": "structure", "type": null }, { "param": "ll", "type": null }, { "param": "ul", "type": null } ]
{ "returns": [ { "docstring": null, "docstring_tokens": [ "None" ], "type": "float" } ], "raises": [], "params": [ { "identifier": "self", "type": null, "docstring": null, "docstring_tokens": [], "default": null, "is_optional": null...
efeab87f92935ede096a42feec187c8a37e79062
simeoncarstens/ensemble_hic
ensemble_hic/backbone_prior.py
[ "Unlicense", "MIT" ]
Python
_single_structure_gradient
<not_specific>
def _single_structure_gradient(self, structure, ll, ul): """Evaluates gradient of energy for a single structure :param structure: coordinates of a single structure :type structure: :class:`numpy.ndarray` :param ll: lower distance limits for consecutive beads. This wi...
Evaluates gradient of energy for a single structure :param structure: coordinates of a single structure :type structure: :class:`numpy.ndarray` :param ll: lower distance limits for consecutive beads. This will have length # of beads - 1 :type ll: :class:`numpy.ndarra...
Evaluates gradient of energy for a single structure
[ "Evaluates", "gradient", "of", "energy", "for", "a", "single", "structure" ]
def _single_structure_gradient(self, structure, ll, ul): return backbone_prior_gradient(structure.ravel(), ll, ul, self['k_bb'].value)
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Evaluates gradient of energy for a single structure
[ "Evaluates", "gradient", "of", "energy", "for", "a", "single", "structure" ]
[ "\"\"\"Evaluates gradient of energy for a single structure\n\n :param structure: coordinates of a single structure\n :type structure: :class:`numpy.ndarray`\n\n :param ll: lower distance limits for consecutive beads.\n This will have length # of beads - 1\n :type ll: :c...
[ { "param": "self", "type": null }, { "param": "structure", "type": null }, { "param": "ll", "type": null }, { "param": "ul", "type": null } ]
{ "returns": [ { "docstring": null, "docstring_tokens": [ "None" ], "type": ":class:`numpy.ndarray`" } ], "raises": [], "params": [ { "identifier": "self", "type": null, "docstring": null, "docstring_tokens": [], "default": null, "i...
efeab87f92935ede096a42feec187c8a37e79062
simeoncarstens/ensemble_hic
ensemble_hic/backbone_prior.py
[ "Unlicense", "MIT" ]
Python
_evaluate_log_prob
<not_specific>
def _evaluate_log_prob(self, structures): """Evaluates log-probability of a structure ensemble :param structures: coordinates of structure ensemble :type structures: :class:`numpy.ndarray` :returns: log-probability of the structure ensemble :rtype: float """ lo...
Evaluates log-probability of a structure ensemble :param structures: coordinates of structure ensemble :type structures: :class:`numpy.ndarray` :returns: log-probability of the structure ensemble :rtype: float
Evaluates log-probability of a structure ensemble
[ "Evaluates", "log", "-", "probability", "of", "a", "structure", "ensemble" ]
def _evaluate_log_prob(self, structures): log_prob = self._single_structure_log_prob X = structures.reshape(self.n_structures, -1, 3) mr = self._mol_ranges ll, ul = self.lower_limits, self.upper_limits def ss_lp(x): return np.sum([log_prob(x[mr[i]:mr[i+1]], ll[i], ul[...
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Evaluates log-probability of a structure ensemble
[ "Evaluates", "log", "-", "probability", "of", "a", "structure", "ensemble" ]
[ "\"\"\"Evaluates log-probability of a structure ensemble\n\n :param structures: coordinates of structure ensemble\n :type structures: :class:`numpy.ndarray`\n\n :returns: log-probability of the structure ensemble\n :rtype: float\n \"\"\"" ]
[ { "param": "self", "type": null }, { "param": "structures", "type": null } ]
{ "returns": [ { "docstring": "log-probability of the structure ensemble", "docstring_tokens": [ "log", "-", "probability", "of", "the", "structure", "ensemble" ], "type": "float" } ], "raises": [], "params": [ { "...
efeab87f92935ede096a42feec187c8a37e79062
simeoncarstens/ensemble_hic
ensemble_hic/backbone_prior.py
[ "Unlicense", "MIT" ]
Python
_evaluate_gradient
<not_specific>
def _evaluate_gradient(self, structures): """Evaluates gradient of energy of a structure ensemble :param structures: coordinates of structure ensemble :type structures: :class:`numpy.ndarray` :returns: flattened gradient vector :rtype: :class:`numpy.ndarray` """ ...
Evaluates gradient of energy of a structure ensemble :param structures: coordinates of structure ensemble :type structures: :class:`numpy.ndarray` :returns: flattened gradient vector :rtype: :class:`numpy.ndarray`
Evaluates gradient of energy of a structure ensemble
[ "Evaluates", "gradient", "of", "energy", "of", "a", "structure", "ensemble" ]
def _evaluate_gradient(self, structures): grad = self._single_structure_gradient X = structures.reshape(self.n_structures, -1, 3) mr = self._mol_ranges ll, ul = self.lower_limits, self.upper_limits def ss_grad(x): return np.concatenate([grad(x[mr[i]:mr[i+1]], ll[i], u...
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Evaluates gradient of energy of a structure ensemble
[ "Evaluates", "gradient", "of", "energy", "of", "a", "structure", "ensemble" ]
[ "\"\"\"Evaluates gradient of energy of a structure ensemble\n\n :param structures: coordinates of structure ensemble\n :type structures: :class:`numpy.ndarray`\n\n :returns: flattened gradient vector\n :rtype: :class:`numpy.ndarray`\n \"\"\"" ]
[ { "param": "self", "type": null }, { "param": "structures", "type": null } ]
{ "returns": [ { "docstring": "flattened gradient vector", "docstring_tokens": [ "flattened", "gradient", "vector" ], "type": ":class:`numpy.ndarray`" } ], "raises": [], "params": [ { "identifier": "self", "type": null, "docstring": n...
efeab87f92935ede096a42feec187c8a37e79062
simeoncarstens/ensemble_hic
ensemble_hic/backbone_prior.py
[ "Unlicense", "MIT" ]
Python
clone
<not_specific>
def clone(self): """Returns a copy of an instance of this class :returns: copy of this object :rtype: :class:`.BackbonePrior` """ copy = self.__class__(self.name, self.lower_limits, self.upper_limits, ...
Returns a copy of an instance of this class :returns: copy of this object :rtype: :class:`.BackbonePrior`
Returns a copy of an instance of this class
[ "Returns", "a", "copy", "of", "an", "instance", "of", "this", "class" ]
def clone(self): copy = self.__class__(self.name, self.lower_limits, self.upper_limits, self['k_bb'].value, self.n_structures, self._mol_ranges) copy.fix...
[ "def", "clone", "(", "self", ")", ":", "copy", "=", "self", ".", "__class__", "(", "self", ".", "name", ",", "self", ".", "lower_limits", ",", "self", ".", "upper_limits", ",", "self", "[", "'k_bb'", "]", ".", "value", ",", "self", ".", "n_structures...
Returns a copy of an instance of this class
[ "Returns", "a", "copy", "of", "an", "instance", "of", "this", "class" ]
[ "\"\"\"Returns a copy of an instance of this class\n\n :returns: copy of this object\n :rtype: :class:`.BackbonePrior`\n \"\"\"" ]
[ { "param": "self", "type": null } ]
{ "returns": [ { "docstring": "copy of this object", "docstring_tokens": [ "copy", "of", "this", "object" ], "type": ":class:`.BackbonePrior`" } ], "raises": [], "params": [ { "identifier": "self", "type": null, "docstring": n...
947b7b6d31202f72b7f363efcfb1e81c9dcfb65a
simeoncarstens/ensemble_hic
ensemble_hic/rog_prior.py
[ "Unlicense", "MIT" ]
Python
_single_structure_log_prob
<not_specific>
def _single_structure_log_prob(self, structure): """ Evaluates log-probability for a single structure :param structure: coordinates of a single structure :type structure: :class:`numpy.ndarray` :returns: log-probability :rtype: float """ X = structure.re...
Evaluates log-probability for a single structure :param structure: coordinates of a single structure :type structure: :class:`numpy.ndarray` :returns: log-probability :rtype: float
Evaluates log-probability for a single structure
[ "Evaluates", "log", "-", "probability", "for", "a", "single", "structure" ]
def _single_structure_log_prob(self, structure): X = structure.reshape(-1,3) rg = radius_of_gyration(X) return -0.5 * self['k_rog'].value * (self['rog'].value - rg) ** 2
[ "def", "_single_structure_log_prob", "(", "self", ",", "structure", ")", ":", "X", "=", "structure", ".", "reshape", "(", "-", "1", ",", "3", ")", "rg", "=", "radius_of_gyration", "(", "X", ")", "return", "-", "0.5", "*", "self", "[", "'k_rog'", "]", ...
Evaluates log-probability for a single structure
[ "Evaluates", "log", "-", "probability", "for", "a", "single", "structure" ]
[ "\"\"\"\n Evaluates log-probability for a single structure\n\n :param structure: coordinates of a single structure\n :type structure: :class:`numpy.ndarray`\n\n :returns: log-probability\n :rtype: float\n \"\"\"" ]
[ { "param": "self", "type": null }, { "param": "structure", "type": null } ]
{ "returns": [ { "docstring": null, "docstring_tokens": [ "None" ], "type": "float" } ], "raises": [], "params": [ { "identifier": "self", "type": null, "docstring": null, "docstring_tokens": [], "default": null, "is_optional": null...
947b7b6d31202f72b7f363efcfb1e81c9dcfb65a
simeoncarstens/ensemble_hic
ensemble_hic/rog_prior.py
[ "Unlicense", "MIT" ]
Python
_single_structure_gradient
<not_specific>
def _single_structure_gradient(self, structure): """ Evaluates the negative log-probability gradient for a single structure :param structure: coordinates of a single structure :type structure: :class:`numpy.ndarray` :returns: gradient vector :rtype: :class:`num...
Evaluates the negative log-probability gradient for a single structure :param structure: coordinates of a single structure :type structure: :class:`numpy.ndarray` :returns: gradient vector :rtype: :class:`numpy.ndarray`
Evaluates the negative log-probability gradient for a single structure
[ "Evaluates", "the", "negative", "log", "-", "probability", "gradient", "for", "a", "single", "structure" ]
def _single_structure_gradient(self, structure): X = structure.reshape(-1,3) r_gyr = radius_of_gyration(X) k = self['k_rog'].value target_rog = self['rog'].value return -k * (target_rog - r_gyr) * (X - X.mean(0)).ravel() / r_gyr / len(X)
[ "def", "_single_structure_gradient", "(", "self", ",", "structure", ")", ":", "X", "=", "structure", ".", "reshape", "(", "-", "1", ",", "3", ")", "r_gyr", "=", "radius_of_gyration", "(", "X", ")", "k", "=", "self", "[", "'k_rog'", "]", ".", "value", ...
Evaluates the negative log-probability gradient for a single structure
[ "Evaluates", "the", "negative", "log", "-", "probability", "gradient", "for", "a", "single", "structure" ]
[ "\"\"\"\n Evaluates the negative log-probability gradient \n for a single structure\n\n :param structure: coordinates of a single structure\n :type structure: :class:`numpy.ndarray`\n\n :returns: gradient vector\n :rtype: :class:`numpy.ndarray`\n \"\"\"" ]
[ { "param": "self", "type": null }, { "param": "structure", "type": null } ]
{ "returns": [ { "docstring": null, "docstring_tokens": [ "None" ], "type": ":class:`numpy.ndarray`" } ], "raises": [], "params": [ { "identifier": "self", "type": null, "docstring": null, "docstring_tokens": [], "default": null, "i...
b661328466a8d56969a18e1af128dd6c589d1058
simeoncarstens/ensemble_hic
ensemble_hic/analysis_functions.py
[ "Unlicense", "MIT" ]
Python
load_samples
<not_specific>
def load_samples(samples_folder, n_replicas, n_samples, dump_interval, burnin, interval=1): """Loads full results of a Replica Exchange simulation. :param samples_folder: directory in which samples are stored :type samples_folder: str ending with a slash ("/") :param n_replicas: n...
Loads full results of a Replica Exchange simulation. :param samples_folder: directory in which samples are stored :type samples_folder: str ending with a slash ("/") :param n_replicas: number of replicas :type n_replicas: int :param n_samples: number of samples :type n_samples: int :...
Loads full results of a Replica Exchange simulation.
[ "Loads", "full", "results", "of", "a", "Replica", "Exchange", "simulation", "." ]
def load_samples(samples_folder, n_replicas, n_samples, dump_interval, burnin, interval=1): samples = [] for i in xrange(1, n_replicas + 1): samples.append(load_sr_samples(samples_folder, i, n_samples, dump_interval, burnin, interval)) return n...
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Loads full results of a Replica Exchange simulation.
[ "Loads", "full", "results", "of", "a", "Replica", "Exchange", "simulation", "." ]
[ "\"\"\"Loads full results of a Replica Exchange\n simulation.\n\n :param samples_folder: directory in which samples are stored\n :type samples_folder: str ending with a slash (\"/\")\n\n :param n_replicas: number of replicas\n :type n_replicas: int\n\n :param n_samples: number of samples\n :typ...
[ { "param": "samples_folder", "type": null }, { "param": "n_replicas", "type": null }, { "param": "n_samples", "type": null }, { "param": "dump_interval", "type": null }, { "param": "burnin", "type": null }, { "param": "interval", "type": null } ]
{ "returns": [ { "docstring": "a two-dimensional array of MCMC samples with the first axis being\nthe replicas and the second axis the samples for a given replica", "docstring_tokens": [ "a", "two", "-", "dimensional", "array", "of", "MCMC", ...
b661328466a8d56969a18e1af128dd6c589d1058
simeoncarstens/ensemble_hic
ensemble_hic/analysis_functions.py
[ "Unlicense", "MIT" ]
Python
load_sr_samples
<not_specific>
def load_sr_samples(samples_folder, replica_id, n_samples, dump_interval, burnin, interval=1): """Loads results for a single replica resulting from a Replica Exchange simulation. :param samples_folder: directory in which samples are stored :type samples_folder: str ending with a sla...
Loads results for a single replica resulting from a Replica Exchange simulation. :param samples_folder: directory in which samples are stored :type samples_folder: str ending with a slash ("/") :param replica_id: number of replica of interest, 1-based indexing :type replica_id: int :param n_s...
Loads results for a single replica resulting from a Replica Exchange simulation.
[ "Loads", "results", "for", "a", "single", "replica", "resulting", "from", "a", "Replica", "Exchange", "simulation", "." ]
def load_sr_samples(samples_folder, replica_id, n_samples, dump_interval, burnin, interval=1): samples = [] for j in xrange((burnin / dump_interval) * dump_interval, n_samples - dump_interval, dump_interval): path = samples_folder + 'samples_replica{}_{}-{}.pickle...
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Loads results for a single replica resulting from a Replica Exchange simulation.
[ "Loads", "results", "for", "a", "single", "replica", "resulting", "from", "a", "Replica", "Exchange", "simulation", "." ]
[ "\"\"\"Loads results for a single replica resulting from a Replica Exchange\n simulation.\n\n :param samples_folder: directory in which samples are stored\n :type samples_folder: str ending with a slash (\"/\")\n\n :param replica_id: number of replica of interest, 1-based indexing\n :type replica_id:...
[ { "param": "samples_folder", "type": null }, { "param": "replica_id", "type": null }, { "param": "n_samples", "type": null }, { "param": "dump_interval", "type": null }, { "param": "burnin", "type": null }, { "param": "interval", "type": null } ]
{ "returns": [ { "docstring": "an array of MCMC samples", "docstring_tokens": [ "an", "array", "of", "MCMC", "samples" ], "type": ":class:`numpy.ndarray`" } ], "raises": [], "params": [ { "identifier": "samples_folder", "typ...
b661328466a8d56969a18e1af128dd6c589d1058
simeoncarstens/ensemble_hic
ensemble_hic/analysis_functions.py
[ "Unlicense", "MIT" ]
Python
write_ensemble
null
def write_ensemble(X, filename, mol_ranges=None, center=True): """Writes a structure ensemble to a PDB file. :param X: coordinates of a structure ensemble :type X: :class:`numpy.ndarray` :param filename: file name of output PDB file :type filename: str :param mol_ranges: if writing structures...
Writes a structure ensemble to a PDB file. :param X: coordinates of a structure ensemble :type X: :class:`numpy.ndarray` :param filename: file name of output PDB file :type filename: str :param mol_ranges: if writing structures consisting of several molecules, this specifie...
Writes a structure ensemble to a PDB file.
[ "Writes", "a", "structure", "ensemble", "to", "a", "PDB", "file", "." ]
def write_ensemble(X, filename, mol_ranges=None, center=True): from csb.bio.structure import Atom, ProteinResidue, Chain, Structure, Ensemble from csb.bio.sequence import ProteinAlphabet if center: X -= X.mean(1)[:,None,:] if mol_ranges is None: mol_ranges = np.array([0, X.shape[1]]) ...
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Writes a structure ensemble to a PDB file.
[ "Writes", "a", "structure", "ensemble", "to", "a", "PDB", "file", "." ]
[ "\"\"\"Writes a structure ensemble to a PDB file.\n\n :param X: coordinates of a structure ensemble\n :type X: :class:`numpy.ndarray`\n\n :param filename: file name of output PDB file\n :type filename: str\n\n :param mol_ranges: if writing structures consisting of several molecules, this\n ...
[ { "param": "X", "type": null }, { "param": "filename", "type": null }, { "param": "mol_ranges", "type": null }, { "param": "center", "type": null } ]
{ "returns": [], "raises": [], "params": [ { "identifier": "X", "type": null, "docstring": "coordinates of a structure ensemble", "docstring_tokens": [ "coordinates", "of", "a", "structure", "ensemble" ], "default": null, "is_op...
b661328466a8d56969a18e1af128dd6c589d1058
simeoncarstens/ensemble_hic
ensemble_hic/analysis_functions.py
[ "Unlicense", "MIT" ]
Python
write_VMD_script
null
def write_VMD_script(ensemble_pdb_file, bead_radii, output_file): """Writes a VMD script to show structures This writes a VMD script loading a structure ensemble PDB file, setting bead radii to given values and showing the structures as a chain of beads. :param ensemble_pdb_file: path to PDB file ...
Writes a VMD script to show structures This writes a VMD script loading a structure ensemble PDB file, setting bead radii to given values and showing the structures as a chain of beads. :param ensemble_pdb_file: path to PDB file :type ensemble_pdb_file: str :param bead_radii: bead radii :type...
Writes a VMD script to show structures This writes a VMD script loading a structure ensemble PDB file, setting bead radii to given values and showing the structures as a chain of beads.
[ "Writes", "a", "VMD", "script", "to", "show", "structures", "This", "writes", "a", "VMD", "script", "loading", "a", "structure", "ensemble", "PDB", "file", "setting", "bead", "radii", "to", "given", "values", "and", "showing", "the", "structures", "as", "a",...
def write_VMD_script(ensemble_pdb_file, bead_radii, output_file): lines = ['color Display Background white', 'menu main on', 'menu graphics on', 'mol load pdb {}'.format(ensemble_pdb_file), 'mol color Index', 'mol delrep 0 0', 'mol repres...
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Writes a VMD script to show structures This writes a VMD script loading a structure ensemble PDB file, setting bead radii to given values and showing the structures as a chain of beads.
[ "Writes", "a", "VMD", "script", "to", "show", "structures", "This", "writes", "a", "VMD", "script", "loading", "a", "structure", "ensemble", "PDB", "file", "setting", "bead", "radii", "to", "given", "values", "and", "showing", "the", "structures", "as", "a",...
[ "\"\"\"Writes a VMD script to show structures\n\n This writes a VMD script loading a structure ensemble PDB file, setting\n bead radii to given values and showing the structures as a chain of beads.\n\n :param ensemble_pdb_file: path to PDB file\n :type ensemble_pdb_file: str\n\n :param bead_radii: b...
[ { "param": "ensemble_pdb_file", "type": null }, { "param": "bead_radii", "type": null }, { "param": "output_file", "type": null } ]
{ "returns": [], "raises": [], "params": [ { "identifier": "ensemble_pdb_file", "type": null, "docstring": "path to PDB file", "docstring_tokens": [ "path", "to", "PDB", "file" ], "default": null, "is_optional": null }, { ...
b661328466a8d56969a18e1af128dd6c589d1058
simeoncarstens/ensemble_hic
ensemble_hic/analysis_functions.py
[ "Unlicense", "MIT" ]
Python
write_pymol_script
null
def write_pymol_script(ensemble_pdb_file, bead_radii, output_file, repr='spheres', grid=False): """Writes a PyMol script to show structures This writes a PyMol script loading a structure ensemble PDB file, setting bead radii to given values and showing the structures as a chain of be...
Writes a PyMol script to show structures This writes a PyMol script loading a structure ensemble PDB file, setting bead radii to given values and showing the structures as a chain of beads. .. warning:: I'm not sure whether this works (I mostly use VMD) :param ensemble_pdb_file: path to PDB file :...
Writes a PyMol script to show structures This writes a PyMol script loading a structure ensemble PDB file, setting bead radii to given values and showing the structures as a chain of beads. warning:: I'm not sure whether this works (I mostly use VMD)
[ "Writes", "a", "PyMol", "script", "to", "show", "structures", "This", "writes", "a", "PyMol", "script", "loading", "a", "structure", "ensemble", "PDB", "file", "setting", "bead", "radii", "to", "given", "values", "and", "showing", "the", "structures", "as", ...
def write_pymol_script(ensemble_pdb_file, bead_radii, output_file, repr='spheres', grid=False): epf = ensemble_pdb_file fname = epf[-epf[::-1].find('/'):epf.find('.pdb')] lines = ['load {}'.format(ensemble_pdb_file), 'hide all', 'util.chainbow', ...
[ "def", "write_pymol_script", "(", "ensemble_pdb_file", ",", "bead_radii", ",", "output_file", ",", "repr", "=", "'spheres'", ",", "grid", "=", "False", ")", ":", "epf", "=", "ensemble_pdb_file", "fname", "=", "epf", "[", "-", "epf", "[", ":", ":", "-", "...
Writes a PyMol script to show structures This writes a PyMol script loading a structure ensemble PDB file, setting bead radii to given values and showing the structures as a chain of beads.
[ "Writes", "a", "PyMol", "script", "to", "show", "structures", "This", "writes", "a", "PyMol", "script", "loading", "a", "structure", "ensemble", "PDB", "file", "setting", "bead", "radii", "to", "given", "values", "and", "showing", "the", "structures", "as", ...
[ "\"\"\"Writes a PyMol script to show structures\n\n This writes a PyMol script loading a structure ensemble PDB file, setting\n bead radii to given values and showing the structures as a chain of beads.\n .. warning:: I'm not sure whether this works (I mostly use VMD)\n\n :param ensemble_pdb_file: path ...
[ { "param": "ensemble_pdb_file", "type": null }, { "param": "bead_radii", "type": null }, { "param": "output_file", "type": null }, { "param": "repr", "type": null }, { "param": "grid", "type": null } ]
{ "returns": [], "raises": [], "params": [ { "identifier": "ensemble_pdb_file", "type": null, "docstring": "path to PDB file", "docstring_tokens": [ "path", "to", "PDB", "file" ], "default": null, "is_optional": null }, { ...
b661328466a8d56969a18e1af128dd6c589d1058
simeoncarstens/ensemble_hic
ensemble_hic/analysis_functions.py
[ "Unlicense", "MIT" ]
Python
load_samples_from_cfg
<not_specific>
def load_samples_from_cfg(config_file, burnin=35000): """Loads results of a simulation using a config file This returns posterior samples from a simulation given a config file. :param config_file: path to config file :type config_file: str :param burnin: number of MCMC samples to be discarded as ...
Loads results of a simulation using a config file This returns posterior samples from a simulation given a config file. :param config_file: path to config file :type config_file: str :param burnin: number of MCMC samples to be discarded as burnin :type burnin: int :returns: posterior samples...
Loads results of a simulation using a config file This returns posterior samples from a simulation given a config file.
[ "Loads", "results", "of", "a", "simulation", "using", "a", "config", "file", "This", "returns", "posterior", "samples", "from", "a", "simulation", "given", "a", "config", "file", "." ]
def load_samples_from_cfg(config_file, burnin=35000): from .setup_functions import parse_config_file cfg = parse_config_file(config_file) output_folder = cfg['general']['output_folder'] n_beads = int(cfg['general']['n_beads']) n_structures = int(cfg['general']['n_structures']) n_samples = int(cf...
[ "def", "load_samples_from_cfg", "(", "config_file", ",", "burnin", "=", "35000", ")", ":", "from", ".", "setup_functions", "import", "parse_config_file", "cfg", "=", "parse_config_file", "(", "config_file", ")", "output_folder", "=", "cfg", "[", "'general'", "]", ...
Loads results of a simulation using a config file This returns posterior samples from a simulation given a config file.
[ "Loads", "results", "of", "a", "simulation", "using", "a", "config", "file", "This", "returns", "posterior", "samples", "from", "a", "simulation", "given", "a", "config", "file", "." ]
[ "\"\"\"Loads results of a simulation using a config file\n\n This returns posterior samples from a simulation given a config file.\n\n :param config_file: path to config file\n :type config_file: str\n\n :param burnin: number of MCMC samples to be discarded as burnin\n :type burnin: int\n\n :retur...
[ { "param": "config_file", "type": null }, { "param": "burnin", "type": null } ]
{ "returns": [ { "docstring": null, "docstring_tokens": [ "None" ], "type": ":class:`numpy.ndarray`" } ], "raises": [], "params": [ { "identifier": "config_file", "type": null, "docstring": "path to config file", "docstring_tokens": [ "...
b661328466a8d56969a18e1af128dd6c589d1058
simeoncarstens/ensemble_hic
ensemble_hic/analysis_functions.py
[ "Unlicense", "MIT" ]
Python
load_samples_from_cfg_auto
<not_specific>
def load_samples_from_cfg_auto(config_file, burnin=35000): """Loads results of a simulation using a config file This returns posterior samples from a simulation given a config file and automatically determines the number of actually drawn samples, i.e., it ignores to the n_samples setting in the config...
Loads results of a simulation using a config file This returns posterior samples from a simulation given a config file and automatically determines the number of actually drawn samples, i.e., it ignores to the n_samples setting in the config file. :param config_file: path to config file :type conf...
Loads results of a simulation using a config file This returns posterior samples from a simulation given a config file and automatically determines the number of actually drawn samples, i.e., it ignores to the n_samples setting in the config file.
[ "Loads", "results", "of", "a", "simulation", "using", "a", "config", "file", "This", "returns", "posterior", "samples", "from", "a", "simulation", "given", "a", "config", "file", "and", "automatically", "determines", "the", "number", "of", "actually", "drawn", ...
def load_samples_from_cfg_auto(config_file, burnin=35000): import os from .setup_functions import parse_config_file cfg = parse_config_file(config_file) output_folder = cfg['general']['output_folder'] n_structures = int(cfg['general']['n_structures']) n_replicas = int(cfg['replica']['n_replicas'...
[ "def", "load_samples_from_cfg_auto", "(", "config_file", ",", "burnin", "=", "35000", ")", ":", "import", "os", "from", ".", "setup_functions", "import", "parse_config_file", "cfg", "=", "parse_config_file", "(", "config_file", ")", "output_folder", "=", "cfg", "[...
Loads results of a simulation using a config file This returns posterior samples from a simulation given a config file and automatically determines the number of actually drawn samples, i.e., it ignores to the n_samples setting in the config file.
[ "Loads", "results", "of", "a", "simulation", "using", "a", "config", "file", "This", "returns", "posterior", "samples", "from", "a", "simulation", "given", "a", "config", "file", "and", "automatically", "determines", "the", "number", "of", "actually", "drawn", ...
[ "\"\"\"Loads results of a simulation using a config file\n\n This returns posterior samples from a simulation given a config file\n and automatically determines the number of actually drawn samples,\n i.e., it ignores to the n_samples setting in the config file.\n\n :param config_file: path to config fi...
[ { "param": "config_file", "type": null }, { "param": "burnin", "type": null } ]
{ "returns": [ { "docstring": null, "docstring_tokens": [ "None" ], "type": ":class:`numpy.ndarray`" } ], "raises": [], "params": [ { "identifier": "config_file", "type": null, "docstring": "path to config file", "docstring_tokens": [ "...
b661328466a8d56969a18e1af128dd6c589d1058
simeoncarstens/ensemble_hic
ensemble_hic/analysis_functions.py
[ "Unlicense", "MIT" ]
Python
load_ensemble_from_pdb
<not_specific>
def load_ensemble_from_pdb(filename): """Loads a structure ensemble from a PDB file :param filename: file name of PDB file :type filename: str :returns: atom coordinates of structure ensemble :rtype: :class:`numpy.ndarray` """ if False: ## Insanely slow from csb.bio.io.wwpd...
Loads a structure ensemble from a PDB file :param filename: file name of PDB file :type filename: str :returns: atom coordinates of structure ensemble :rtype: :class:`numpy.ndarray`
Loads a structure ensemble from a PDB file
[ "Loads", "a", "structure", "ensemble", "from", "a", "PDB", "file" ]
def load_ensemble_from_pdb(filename): if False: from csb.bio.io.wwpdb import StructureParser ensemble = StructureParser(filename).parse_models() return np.array([m.get_coordinates(['CA']) for m in ensemble]) else: ip = open(filename) lines = ip.readlines() ip.clos...
[ "def", "load_ensemble_from_pdb", "(", "filename", ")", ":", "if", "False", ":", "from", "csb", ".", "bio", ".", "io", ".", "wwpdb", "import", "StructureParser", "ensemble", "=", "StructureParser", "(", "filename", ")", ".", "parse_models", "(", ")", "return"...
Loads a structure ensemble from a PDB file
[ "Loads", "a", "structure", "ensemble", "from", "a", "PDB", "file" ]
[ "\"\"\"Loads a structure ensemble from a PDB file\n\n :param filename: file name of PDB file\n :type filename: str\n\n :returns: atom coordinates of structure ensemble\n :rtype: :class:`numpy.ndarray`\n \"\"\"", "## Insanely slow", "## Hacky" ]
[ { "param": "filename", "type": null } ]
{ "returns": [ { "docstring": "atom coordinates of structure ensemble", "docstring_tokens": [ "atom", "coordinates", "of", "structure", "ensemble" ], "type": ":class:`numpy.ndarray`" } ], "raises": [], "params": [ { "identifier": ...
b661328466a8d56969a18e1af128dd6c589d1058
simeoncarstens/ensemble_hic
ensemble_hic/analysis_functions.py
[ "Unlicense", "MIT" ]
Python
calculate_DOS
<not_specific>
def calculate_DOS(config_file, n_samples, subsamples_fraction, burnin, n_iter=100000, tol=1e-10, save_output=True, output_suffix=''): """Calculates the density of states (DOS) using non-parametric histogram reweighting (WHAM). :param config_file: Configuration file :type config_file: ...
Calculates the density of states (DOS) using non-parametric histogram reweighting (WHAM). :param config_file: Configuration file :type config_file: str :param n_samples: number of samples the simulation ran :type n_samples: int :param subsamples_fraction: faction of samples (after burnin) to ...
Calculates the density of states (DOS) using non-parametric histogram reweighting (WHAM).
[ "Calculates", "the", "density", "of", "states", "(", "DOS", ")", "using", "non", "-", "parametric", "histogram", "reweighting", "(", "WHAM", ")", "." ]
def calculate_DOS(config_file, n_samples, subsamples_fraction, burnin, n_iter=100000, tol=1e-10, save_output=True, output_suffix=''): from ensemble_hic.wham import PyWHAM as WHAM, DOS from ensemble_hic.setup_functions import parse_config_file, make_posterior from ensemble_hic.analysis_func...
[ "def", "calculate_DOS", "(", "config_file", ",", "n_samples", ",", "subsamples_fraction", ",", "burnin", ",", "n_iter", "=", "100000", ",", "tol", "=", "1e-10", ",", "save_output", "=", "True", ",", "output_suffix", "=", "''", ")", ":", "from", "ensemble_hic...
Calculates the density of states (DOS) using non-parametric histogram reweighting (WHAM).
[ "Calculates", "the", "density", "of", "states", "(", "DOS", ")", "using", "non", "-", "parametric", "histogram", "reweighting", "(", "WHAM", ")", "." ]
[ "\"\"\"Calculates the density of states (DOS) using non-parametric\n histogram reweighting (WHAM).\n\n :param config_file: Configuration file\n :type config_file: str\n\n :param n_samples: number of samples the simulation ran\n :type n_samples: int\n\n :param subsamples_fraction: faction of sample...
[ { "param": "config_file", "type": null }, { "param": "n_samples", "type": null }, { "param": "subsamples_fraction", "type": null }, { "param": "burnin", "type": null }, { "param": "n_iter", "type": null }, { "param": "tol", "type": null }, { ...
{ "returns": [ { "docstring": null, "docstring_tokens": [ "None" ], "type": "DOS" } ], "raises": [], "params": [ { "identifier": "config_file", "type": null, "docstring": null, "docstring_tokens": [ "None" ], "default": null...
b661328466a8d56969a18e1af128dd6c589d1058
simeoncarstens/ensemble_hic
ensemble_hic/analysis_functions.py
[ "Unlicense", "MIT" ]
Python
calculate_evidence
<not_specific>
def calculate_evidence(dos): """Calculates the evidence from a DOS object :param dos: DOS object (output from calculate_DOS) :type dos: DOS :returns: log-evidence (without additive constants stemming from likelihood normalization) :rtype: float """ from csb.numeric import...
Calculates the evidence from a DOS object :param dos: DOS object (output from calculate_DOS) :type dos: DOS :returns: log-evidence (without additive constants stemming from likelihood normalization) :rtype: float
Calculates the evidence from a DOS object
[ "Calculates", "the", "evidence", "from", "a", "DOS", "object" ]
def calculate_evidence(dos): from csb.numeric import log_sum_exp return log_sum_exp(-dos.E.sum(1) + dos.s) - \ log_sum_exp(-dos.E[:,1] + dos.s)
[ "def", "calculate_evidence", "(", "dos", ")", ":", "from", "csb", ".", "numeric", "import", "log_sum_exp", "return", "log_sum_exp", "(", "-", "dos", ".", "E", ".", "sum", "(", "1", ")", "+", "dos", ".", "s", ")", "-", "log_sum_exp", "(", "-", "dos", ...
Calculates the evidence from a DOS object
[ "Calculates", "the", "evidence", "from", "a", "DOS", "object" ]
[ "\"\"\"Calculates the evidence from a DOS object\n\n :param dos: DOS object (output from calculate_DOS)\n :type dos: DOS\n :returns: log-evidence (without additive constants stemming from likelihood\n normalization)\n :rtype: float\n \"\"\"" ]
[ { "param": "dos", "type": null } ]
{ "returns": [ { "docstring": "log-evidence (without additive constants stemming from likelihood\nnormalization)", "docstring_tokens": [ "log", "-", "evidence", "(", "without", "additive", "constants", "stemming", "from", ...
6f930be028b0200b19f12bf245f86e58961672cb
simeoncarstens/ensemble_hic
ensemble_hic/forcefields.py
[ "Unlicense", "MIT" ]
Python
energy
null
def energy(self, structure): """ Evaluates the potentital energy of a structure :param structure: coordinates of a structure :type structure: :class:`numpy.ndarray` :returns: potential energy of a structure :rtype: float """ pass
Evaluates the potentital energy of a structure :param structure: coordinates of a structure :type structure: :class:`numpy.ndarray` :returns: potential energy of a structure :rtype: float
Evaluates the potentital energy of a structure
[ "Evaluates", "the", "potentital", "energy", "of", "a", "structure" ]
def energy(self, structure): pass
[ "def", "energy", "(", "self", ",", "structure", ")", ":", "pass" ]
Evaluates the potentital energy of a structure
[ "Evaluates", "the", "potentital", "energy", "of", "a", "structure" ]
[ "\"\"\"\n Evaluates the potentital energy of a structure\n\n :param structure: coordinates of a structure\n :type structure: :class:`numpy.ndarray`\n\n :returns: potential energy of a structure\n :rtype: float\n \"\"\"" ]
[ { "param": "self", "type": null }, { "param": "structure", "type": null } ]
{ "returns": [ { "docstring": "potential energy of a structure", "docstring_tokens": [ "potential", "energy", "of", "a", "structure" ], "type": "float" } ], "raises": [], "params": [ { "identifier": "self", "type": null, ...
6f930be028b0200b19f12bf245f86e58961672cb
simeoncarstens/ensemble_hic
ensemble_hic/forcefields.py
[ "Unlicense", "MIT" ]
Python
gradient
null
def gradient(self, structure): """ Evaluates the energy gradient for a structure :param structure: coordinates of a structure :type structure: :class:`numpy.ndarray` :returns: gradient vector :rtype: :class:`numpy.ndarray` """ pass
Evaluates the energy gradient for a structure :param structure: coordinates of a structure :type structure: :class:`numpy.ndarray` :returns: gradient vector :rtype: :class:`numpy.ndarray`
Evaluates the energy gradient for a structure
[ "Evaluates", "the", "energy", "gradient", "for", "a", "structure" ]
def gradient(self, structure): pass
[ "def", "gradient", "(", "self", ",", "structure", ")", ":", "pass" ]
Evaluates the energy gradient for a structure
[ "Evaluates", "the", "energy", "gradient", "for", "a", "structure" ]
[ "\"\"\"\n Evaluates the energy gradient for a structure\n\n :param structure: coordinates of a structure\n :type structure: :class:`numpy.ndarray`\n\n :returns: gradient vector\n :rtype: :class:`numpy.ndarray`\n \"\"\"" ]
[ { "param": "self", "type": null }, { "param": "structure", "type": null } ]
{ "returns": [ { "docstring": null, "docstring_tokens": [ "None" ], "type": ":class:`numpy.ndarray`" } ], "raises": [], "params": [ { "identifier": "self", "type": null, "docstring": null, "docstring_tokens": [], "default": null, "i...
6f930be028b0200b19f12bf245f86e58961672cb
simeoncarstens/ensemble_hic
ensemble_hic/forcefields.py
[ "Unlicense", "MIT" ]
Python
energy
<not_specific>
def energy(self, structure): """ Cython implementation of the potential energy :param structure: coordinates of a structure :type structure: :class:`numpy.ndarray` :returns: potential energy of a structure :rtype: float """ from ensemble_hic.forcefield_c...
Cython implementation of the potential energy :param structure: coordinates of a structure :type structure: :class:`numpy.ndarray` :returns: potential energy of a structure :rtype: float
Cython implementation of the potential energy
[ "Cython", "implementation", "of", "the", "potential", "energy" ]
def energy(self, structure): from ensemble_hic.forcefield_c import forcefield_energy E = forcefield_energy(structure, self.bead_radii, self.bead_radii2, self.force_constant) return E
[ "def", "energy", "(", "self", ",", "structure", ")", ":", "from", "ensemble_hic", ".", "forcefield_c", "import", "forcefield_energy", "E", "=", "forcefield_energy", "(", "structure", ",", "self", ".", "bead_radii", ",", "self", ".", "bead_radii2", ",", "self",...
Cython implementation of the potential energy
[ "Cython", "implementation", "of", "the", "potential", "energy" ]
[ "\"\"\"\n Cython implementation of the potential energy\n\n :param structure: coordinates of a structure\n :type structure: :class:`numpy.ndarray`\n\n :returns: potential energy of a structure\n :rtype: float\n \"\"\"" ]
[ { "param": "self", "type": null }, { "param": "structure", "type": null } ]
{ "returns": [ { "docstring": "potential energy of a structure", "docstring_tokens": [ "potential", "energy", "of", "a", "structure" ], "type": "float" } ], "raises": [], "params": [ { "identifier": "self", "type": null, ...
6f930be028b0200b19f12bf245f86e58961672cb
simeoncarstens/ensemble_hic
ensemble_hic/forcefields.py
[ "Unlicense", "MIT" ]
Python
gradient
<not_specific>
def gradient(self, structure): """ Cython implementation of the energy gradient :param structure: coordinates of a structure :type structure: :class:`numpy.ndarray` :returns: gradient vector :rtype: :class:`numpy.ndarray` """ from ensemble_hic.fo...
Cython implementation of the energy gradient :param structure: coordinates of a structure :type structure: :class:`numpy.ndarray` :returns: gradient vector :rtype: :class:`numpy.ndarray`
Cython implementation of the energy gradient
[ "Cython", "implementation", "of", "the", "energy", "gradient" ]
def gradient(self, structure): from ensemble_hic.forcefield_c import forcefield_gradient grad = forcefield_gradient(structure, self.bead_radii, self.bead_radii2, self.force_constant) return grad
[ "def", "gradient", "(", "self", ",", "structure", ")", ":", "from", "ensemble_hic", ".", "forcefield_c", "import", "forcefield_gradient", "grad", "=", "forcefield_gradient", "(", "structure", ",", "self", ".", "bead_radii", ",", "self", ".", "bead_radii2", ",", ...
Cython implementation of the energy gradient
[ "Cython", "implementation", "of", "the", "energy", "gradient" ]
[ "\"\"\"\n Cython implementation of the energy gradient\n\n :param structure: coordinates of a structure\n :type structure: :class:`numpy.ndarray`\n\n :returns: gradient vector\n :rtype: :class:`numpy.ndarray`\n \"\"\"" ]
[ { "param": "self", "type": null }, { "param": "structure", "type": null } ]
{ "returns": [ { "docstring": null, "docstring_tokens": [ "None" ], "type": ":class:`numpy.ndarray`" } ], "raises": [], "params": [ { "identifier": "self", "type": null, "docstring": null, "docstring_tokens": [], "default": null, "i...
71ecec5bb58b628560315f589ef8a5549774b0b7
simeoncarstens/ensemble_hic
ensemble_hic/nblist.py
[ "Unlicense", "MIT" ]
Python
cellsize
null
def cellsize(): """ Edge length of the cubic cells. """ pass
Edge length of the cubic cells.
Edge length of the cubic cells.
[ "Edge", "length", "of", "the", "cubic", "cells", "." ]
def cellsize(): pass
[ "def", "cellsize", "(", ")", ":", "pass" ]
Edge length of the cubic cells.
[ "Edge", "length", "of", "the", "cubic", "cells", "." ]
[ "\"\"\"\n Edge length of the cubic cells.\n \"\"\"" ]
[]
{ "returns": [], "raises": [], "params": [], "outlier_params": [], "others": [] }
71ecec5bb58b628560315f589ef8a5549774b0b7
simeoncarstens/ensemble_hic
ensemble_hic/nblist.py
[ "Unlicense", "MIT" ]
Python
n_cells
null
def n_cells(): """ Number of cubic cells in each spatial direction such that the total number of cells is 'n_cells^3'. """ pass
Number of cubic cells in each spatial direction such that the total number of cells is 'n_cells^3'.
Number of cubic cells in each spatial direction such that the total number of cells is 'n_cells^3'.
[ "Number", "of", "cubic", "cells", "in", "each", "spatial", "direction", "such", "that", "the", "total", "number", "of", "cells", "is", "'", "n_cells^3", "'", "." ]
def n_cells(): pass
[ "def", "n_cells", "(", ")", ":", "pass" ]
Number of cubic cells in each spatial direction such that the total number of cells is 'n_cells^3'.
[ "Number", "of", "cubic", "cells", "in", "each", "spatial", "direction", "such", "that", "the", "total", "number", "of", "cells", "is", "'", "n_cells^3", "'", "." ]
[ "\"\"\"\n Number of cubic cells in each spatial direction such that the\n total number of cells is 'n_cells^3'.\n \"\"\"" ]
[]
{ "returns": [], "raises": [], "params": [], "outlier_params": [], "others": [] }
71ecec5bb58b628560315f589ef8a5549774b0b7
simeoncarstens/ensemble_hic
ensemble_hic/nblist.py
[ "Unlicense", "MIT" ]
Python
n_per_cell
null
def n_per_cell(): """ Maximum number of particles that fits into a cell. """ pass
Maximum number of particles that fits into a cell.
Maximum number of particles that fits into a cell.
[ "Maximum", "number", "of", "particles", "that", "fits", "into", "a", "cell", "." ]
def n_per_cell(): pass
[ "def", "n_per_cell", "(", ")", ":", "pass" ]
Maximum number of particles that fits into a cell.
[ "Maximum", "number", "of", "particles", "that", "fits", "into", "a", "cell", "." ]
[ "\"\"\"\n Maximum number of particles that fits into a cell. \n \"\"\"" ]
[]
{ "returns": [], "raises": [], "params": [], "outlier_params": [], "others": [] }
71ecec5bb58b628560315f589ef8a5549774b0b7
simeoncarstens/ensemble_hic
ensemble_hic/nblist.py
[ "Unlicense", "MIT" ]
Python
update
null
def update(self, universe, update_box=True): """ Update the neighbor list. Parameters ---------- universe : Universe containing all particles whose pairwise interactions will be evaluated. update_box : boolean By toggling the flag, we can ...
Update the neighbor list. Parameters ---------- universe : Universe containing all particles whose pairwise interactions will be evaluated. update_box : boolean By toggling the flag, we can switch off the adaption of the cell grid (i.e....
Update the neighbor list. Parameters universe : Universe containing all particles whose pairwise interactions will be evaluated. update_box : boolean By toggling the flag, we can switch off the adaption of the cell grid
[ "Update", "the", "neighbor", "list", ".", "Parameters", "universe", ":", "Universe", "containing", "all", "particles", "whose", "pairwise", "interactions", "will", "be", "evaluated", ".", "update_box", ":", "boolean", "By", "toggling", "the", "flag", "we", "can"...
def update(self, universe, update_box=True): self.ctype.update(universe.coords, int(update_box))
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Update the neighbor list.
[ "Update", "the", "neighbor", "list", "." ]
[ "\"\"\"\n Update the neighbor list.\n\n Parameters\n ----------\n\n universe :\n Universe containing all particles whose pairwise interactions\n will be evaluated.\n\n update_box : boolean\n By toggling the flag, we can switch off the adaption of the\n ...
[ { "param": "self", "type": null }, { "param": "universe", "type": null }, { "param": "update_box", "type": null } ]
{ "returns": [], "raises": [], "params": [ { "identifier": "self", "type": null, "docstring": null, "docstring_tokens": [], "default": null, "is_optional": null }, { "identifier": "universe", "type": null, "docstring": null, "docstring_tokens...
c0e6fb6fdeb419f4456ff38cda990830605dba2c
simeoncarstens/ensemble_hic
data/nora2012/make_processed_files.py
[ "Unlicense", "MIT" ]
Python
parse_5C_file
<not_specific>
def parse_5C_file(filename): """ Reads the raw 5C data file and returns reverse restriction fragments, forward restriction fragments, and a matrix of shape (# forward fragments + 2, # reverse fragments + 2). First two rows are start / end genomic coordinates of reverse restriction fragments, fir...
Reads the raw 5C data file and returns reverse restriction fragments, forward restriction fragments, and a matrix of shape (# forward fragments + 2, # reverse fragments + 2). First two rows are start / end genomic coordinates of reverse restriction fragments, first two columns are start / end genom...
Reads the raw 5C data file and returns reverse restriction fragments, forward restriction fragments, and a matrix of shape (# forward fragments + 2, # reverse fragments + 2). First two rows are start / end genomic coordinates of reverse restriction fragments, first two columns are start / end genomic coordinates of for...
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def parse_5C_file(filename): data = open(filename).readlines() data = data[7:] data = [y.split('\t') for y in data] data = np.array(data) rev_fragments = [x[x.find('chrX:')+5:] for x in data[0]] rev_fragments = [x.split('-') for x in rev_fragments] rev_fragments = [(int(x[0]), int(x[1])) for...
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Reads the raw 5C data file and returns reverse restriction fragments, forward restriction fragments, and a matrix of shape (# forward fragments + 2, # reverse fragments + 2).
[ "Reads", "the", "raw", "5C", "data", "file", "and", "returns", "reverse", "restriction", "fragments", "forward", "restriction", "fragments", "and", "a", "matrix", "of", "shape", "(", "#", "forward", "fragments", "+", "2", "#", "reverse", "fragments", "+", "2...
[ "\"\"\"\n Reads the raw 5C data file and returns reverse restriction fragments,\n forward restriction fragments, and a matrix of shape\n (# forward fragments + 2, # reverse fragments + 2).\n First two rows are start / end genomic coordinates of reverse restriction\n fragments, first two columns are s...
[ { "param": "filename", "type": null } ]
{ "returns": [], "raises": [], "params": [ { "identifier": "filename", "type": null, "docstring": null, "docstring_tokens": [], "default": null, "is_optional": null } ], "outlier_params": [], "others": [] }
c0e6fb6fdeb419f4456ff38cda990830605dba2c
simeoncarstens/ensemble_hic
data/nora2012/make_processed_files.py
[ "Unlicense", "MIT" ]
Python
extract_region
<not_specific>
def extract_region(matrix, region_start, region_end): """ Extracts a region from a matrix produced by parse_5C_file. Returns the reverse and forward restriction fragments in the region and the part of the matrix covered by the region """ land = np.logical_and region_row_mask = land(matrix[:,...
Extracts a region from a matrix produced by parse_5C_file. Returns the reverse and forward restriction fragments in the region and the part of the matrix covered by the region
Extracts a region from a matrix produced by parse_5C_file. Returns the reverse and forward restriction fragments in the region and the part of the matrix covered by the region
[ "Extracts", "a", "region", "from", "a", "matrix", "produced", "by", "parse_5C_file", ".", "Returns", "the", "reverse", "and", "forward", "restriction", "fragments", "in", "the", "region", "and", "the", "part", "of", "the", "matrix", "covered", "by", "the", "...
def extract_region(matrix, region_start, region_end): land = np.logical_and region_row_mask = land(matrix[:,0] >= region_start, matrix[:,1] <= region_end) region_col_mask = land(matrix[0,:] >= region_start, matrix[1,:] <= region_end) region = matrix[region_row_mask] region = region[:,region_col_mask...
[ "def", "extract_region", "(", "matrix", ",", "region_start", ",", "region_end", ")", ":", "land", "=", "np", ".", "logical_and", "region_row_mask", "=", "land", "(", "matrix", "[", ":", ",", "0", "]", ">=", "region_start", ",", "matrix", "[", ":", ",", ...
Extracts a region from a matrix produced by parse_5C_file.
[ "Extracts", "a", "region", "from", "a", "matrix", "produced", "by", "parse_5C_file", "." ]
[ "\"\"\"\n Extracts a region from a matrix produced by parse_5C_file.\n Returns the reverse and forward restriction fragments in the region\n and the part of the matrix covered by the region\n \"\"\"" ]
[ { "param": "matrix", "type": null }, { "param": "region_start", "type": null }, { "param": "region_end", "type": null } ]
{ "returns": [], "raises": [], "params": [ { "identifier": "matrix", "type": null, "docstring": null, "docstring_tokens": [], "default": null, "is_optional": null }, { "identifier": "region_start", "type": null, "docstring": null, "docstring_...
c0e6fb6fdeb419f4456ff38cda990830605dba2c
simeoncarstens/ensemble_hic
data/nora2012/make_processed_files.py
[ "Unlicense", "MIT" ]
Python
calculate_bead_lims
<not_specific>
def calculate_bead_lims(bead_size, region_revs, region_fors): """ Divides a region on a chromosome (or rather, the part of it covered by complete restriction fragments) into segments of equal, given length and one last segment which is smaller than the others such that the segments completely cover ...
Divides a region on a chromosome (or rather, the part of it covered by complete restriction fragments) into segments of equal, given length and one last segment which is smaller than the others such that the segments completely cover the region. These segments will be represented by spherical beads lat...
Divides a region on a chromosome (or rather, the part of it covered by complete restriction fragments) into segments of equal, given length and one last segment which is smaller than the others such that the segments completely cover the region. These segments will be represented by spherical beads later. Returns the l...
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def calculate_bead_lims(bead_size, region_revs, region_fors): region_length = np.max((region_fors[-1,1], region_revs[1,-1])) \ - np.min((region_fors[0,0], region_revs[0,0])) n_beads = int(round(region_length / bead_size)) + 1 bead_lims = [np.min((region_fors[0,0], region_revs[0,0])) + ...
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Divides a region on a chromosome (or rather, the part of it covered by complete restriction fragments) into segments of equal, given length and one last segment which is smaller than the others such that the segments completely cover the region.
[ "Divides", "a", "region", "on", "a", "chromosome", "(", "or", "rather", "the", "part", "of", "it", "covered", "by", "complete", "restriction", "fragments", ")", "into", "segments", "of", "equal", "given", "length", "and", "one", "last", "segment", "which", ...
[ "\"\"\"\n Divides a region on a chromosome (or rather, the part of it covered by complete\n restriction fragments) into segments of equal, given length and one last\n segment which is smaller than the others such that the segments completely\n cover the region. These segments will be represented by sphe...
[ { "param": "bead_size", "type": null }, { "param": "region_revs", "type": null }, { "param": "region_fors", "type": null } ]
{ "returns": [], "raises": [], "params": [ { "identifier": "bead_size", "type": null, "docstring": null, "docstring_tokens": [], "default": null, "is_optional": null }, { "identifier": "region_revs", "type": null, "docstring": null, "docstrin...
c0e6fb6fdeb419f4456ff38cda990830605dba2c
simeoncarstens/ensemble_hic
data/nora2012/make_processed_files.py
[ "Unlicense", "MIT" ]
Python
calculate_mappings
<not_specific>
def calculate_mappings(region_revs, region_fors, bead_lims): """ Calculates a mapping assigning a bead to each restriction fragment. If one restriction fragment spans several beads, it will have the center bead (or center - 1 for even number of beads) assigned. Returns the mappings for reverse and f...
Calculates a mapping assigning a bead to each restriction fragment. If one restriction fragment spans several beads, it will have the center bead (or center - 1 for even number of beads) assigned. Returns the mappings for reverse and forward restriction fragments
Calculates a mapping assigning a bead to each restriction fragment. If one restriction fragment spans several beads, it will have the center bead (or center - 1 for even number of beads) assigned. Returns the mappings for reverse and forward restriction fragments
[ "Calculates", "a", "mapping", "assigning", "a", "bead", "to", "each", "restriction", "fragment", ".", "If", "one", "restriction", "fragment", "spans", "several", "beads", "it", "will", "have", "the", "center", "bead", "(", "or", "center", "-", "1", "for", ...
def calculate_mappings(region_revs, region_fors, bead_lims): region_revs = region_revs.T mappings = [] for rfs in (region_revs, region_fors): mapping = [] for b, e in rfs: mapping.append((np.where(bead_lims <= b)[0][-1], np.where(bead_lims <= e)[0]...
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Calculates a mapping assigning a bead to each restriction fragment.
[ "Calculates", "a", "mapping", "assigning", "a", "bead", "to", "each", "restriction", "fragment", "." ]
[ "\"\"\"\n Calculates a mapping assigning a bead to each restriction fragment.\n If one restriction fragment spans several beads, it will have the center\n bead (or center - 1 for even number of beads) assigned.\n Returns the mappings for reverse and forward restriction fragments\n \"\"\"" ]
[ { "param": "region_revs", "type": null }, { "param": "region_fors", "type": null }, { "param": "bead_lims", "type": null } ]
{ "returns": [], "raises": [], "params": [ { "identifier": "region_revs", "type": null, "docstring": null, "docstring_tokens": [], "default": null, "is_optional": null }, { "identifier": "region_fors", "type": null, "docstring": null, "docstr...
c0e6fb6fdeb419f4456ff38cda990830605dba2c
simeoncarstens/ensemble_hic
data/nora2012/make_processed_files.py
[ "Unlicense", "MIT" ]
Python
build_cmatrix
<not_specific>
def build_cmatrix(rev_mapping, for_mapping, region, n_beads): """ Builds a square contact frequency matrix of shape (n_beads, n_beads). Contacts from restriction fragments mapping to the same bead are summed. A zero in this matrix means either that there was no data collected or that the number of c...
Builds a square contact frequency matrix of shape (n_beads, n_beads). Contacts from restriction fragments mapping to the same bead are summed. A zero in this matrix means either that there was no data collected or that the number of counts is in fact zero. Later, we ignore zero-valued entries in th...
Builds a square contact frequency matrix of shape (n_beads, n_beads). Contacts from restriction fragments mapping to the same bead are summed. A zero in this matrix means either that there was no data collected or that the number of counts is in fact zero. Later, we ignore zero-valued entries in the matrix. Return squa...
[ "Builds", "a", "square", "contact", "frequency", "matrix", "of", "shape", "(", "n_beads", "n_beads", ")", ".", "Contacts", "from", "restriction", "fragments", "mapping", "to", "the", "same", "bead", "are", "summed", ".", "A", "zero", "in", "this", "matrix", ...
def build_cmatrix(rev_mapping, for_mapping, region, n_beads): contmatrix = np.zeros((n_beads, n_beads)) cmatrix = np.zeros((n_beads, n_beads)) for i in range(n_beads): contributing_fors = np.where(for_mapping == i)[0] for j in range(n_beads): contributing_revs = np.where(rev_mapp...
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Builds a square contact frequency matrix of shape (n_beads, n_beads).
[ "Builds", "a", "square", "contact", "frequency", "matrix", "of", "shape", "(", "n_beads", "n_beads", ")", "." ]
[ "\"\"\"\n Builds a square contact frequency matrix of shape (n_beads, n_beads).\n Contacts from restriction fragments mapping to the same bead are summed.\n A zero in this matrix means either that there was no data collected or that\n the number of counts is in fact zero. Later, we ignore zero-valued\n ...
[ { "param": "rev_mapping", "type": null }, { "param": "for_mapping", "type": null }, { "param": "region", "type": null }, { "param": "n_beads", "type": null } ]
{ "returns": [], "raises": [], "params": [ { "identifier": "rev_mapping", "type": null, "docstring": null, "docstring_tokens": [], "default": null, "is_optional": null }, { "identifier": "for_mapping", "type": null, "docstring": null, "docstr...
c0e6fb6fdeb419f4456ff38cda990830605dba2c
simeoncarstens/ensemble_hic
data/nora2012/make_processed_files.py
[ "Unlicense", "MIT" ]
Python
write_cmatrix
null
def write_cmatrix(cmatrix, filename): """ Writes a square contact frequency matrix to a file, which will be the input for our structure calculation code. """ with open(filename, 'w') as opf: for i in range(len(cmatrix)): for j in range(i+1, len(cmatrix)): opf.writ...
Writes a square contact frequency matrix to a file, which will be the input for our structure calculation code.
Writes a square contact frequency matrix to a file, which will be the input for our structure calculation code.
[ "Writes", "a", "square", "contact", "frequency", "matrix", "to", "a", "file", "which", "will", "be", "the", "input", "for", "our", "structure", "calculation", "code", "." ]
def write_cmatrix(cmatrix, filename): with open(filename, 'w') as opf: for i in range(len(cmatrix)): for j in range(i+1, len(cmatrix)): opf.write('{}\t{}\t{}\n'.format(i, j, int(cmatrix[i,j])))
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Writes a square contact frequency matrix to a file, which will be the input for our structure calculation code.
[ "Writes", "a", "square", "contact", "frequency", "matrix", "to", "a", "file", "which", "will", "be", "the", "input", "for", "our", "structure", "calculation", "code", "." ]
[ "\"\"\"\n Writes a square contact frequency matrix to a file, which will be the\n input for our structure calculation code.\n \"\"\"" ]
[ { "param": "cmatrix", "type": null }, { "param": "filename", "type": null } ]
{ "returns": [], "raises": [], "params": [ { "identifier": "cmatrix", "type": null, "docstring": null, "docstring_tokens": [], "default": null, "is_optional": null }, { "identifier": "filename", "type": null, "docstring": null, "docstring_tok...
3e14ec227451c537d6b85079d3c368bb0f878886
simeoncarstens/ensemble_hic
ensemble_hic/npsamplers.py
[ "Unlicense", "MIT" ]
Python
_calculate_shape
null
def _calculate_shape(self): """ Calculates the shape of the Gamma distribution :returns: shape of Gamma distribution :rtype: float > 0 """ pass
Calculates the shape of the Gamma distribution :returns: shape of Gamma distribution :rtype: float > 0
Calculates the shape of the Gamma distribution
[ "Calculates", "the", "shape", "of", "the", "Gamma", "distribution" ]
def _calculate_shape(self): pass
[ "def", "_calculate_shape", "(", "self", ")", ":", "pass" ]
Calculates the shape of the Gamma distribution
[ "Calculates", "the", "shape", "of", "the", "Gamma", "distribution" ]
[ "\"\"\"\n Calculates the shape of the Gamma distribution\n\n :returns: shape of Gamma distribution\n :rtype: float > 0\n \"\"\"" ]
[ { "param": "self", "type": null } ]
{ "returns": [ { "docstring": "shape of Gamma distribution", "docstring_tokens": [ "shape", "of", "Gamma", "distribution" ], "type": "float > 0" } ], "raises": [], "params": [ { "identifier": "self", "type": null, "docstring":...
3e14ec227451c537d6b85079d3c368bb0f878886
simeoncarstens/ensemble_hic
ensemble_hic/npsamplers.py
[ "Unlicense", "MIT" ]
Python
_calculate_rate
null
def _calculate_rate(self): """ Calculates the rate of the Gamma distribution :returns: rate of Gamma distribution :rtype: float > 0 """ pass
Calculates the rate of the Gamma distribution :returns: rate of Gamma distribution :rtype: float > 0
Calculates the rate of the Gamma distribution
[ "Calculates", "the", "rate", "of", "the", "Gamma", "distribution" ]
def _calculate_rate(self): pass
[ "def", "_calculate_rate", "(", "self", ")", ":", "pass" ]
Calculates the rate of the Gamma distribution
[ "Calculates", "the", "rate", "of", "the", "Gamma", "distribution" ]
[ "\"\"\"\n Calculates the rate of the Gamma distribution\n\n :returns: rate of Gamma distribution\n :rtype: float > 0\n \"\"\"" ]
[ { "param": "self", "type": null } ]
{ "returns": [ { "docstring": "rate of Gamma distribution", "docstring_tokens": [ "rate", "of", "Gamma", "distribution" ], "type": "float > 0" } ], "raises": [], "params": [ { "identifier": "self", "type": null, "docstring": n...
3e14ec227451c537d6b85079d3c368bb0f878886
simeoncarstens/ensemble_hic
ensemble_hic/npsamplers.py
[ "Unlicense", "MIT" ]
Python
sample
<not_specific>
def sample(self, state=42): """ Draws a sample from the Gamma distribution specified by a rate and a scale parameter :returns: a sample :rtype: float """ rate = self._calculate_rate() shape = self._calculate_shape() sample = np.random.gamm...
Draws a sample from the Gamma distribution specified by a rate and a scale parameter :returns: a sample :rtype: float
Draws a sample from the Gamma distribution specified by a rate and a scale parameter
[ "Draws", "a", "sample", "from", "the", "Gamma", "distribution", "specified", "by", "a", "rate", "and", "a", "scale", "parameter" ]
def sample(self, state=42): rate = self._calculate_rate() shape = self._calculate_shape() sample = np.random.gamma(shape) / rate if sample == 0.0: sample += 1e-10 self.state = sample return self.state
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Draws a sample from the Gamma distribution specified by a rate and a scale parameter
[ "Draws", "a", "sample", "from", "the", "Gamma", "distribution", "specified", "by", "a", "rate", "and", "a", "scale", "parameter" ]
[ "\"\"\"\n Draws a sample from the Gamma distribution specified\n by a rate and a scale parameter\n\n :returns: a sample\n :rtype: float\n \"\"\"" ]
[ { "param": "self", "type": null }, { "param": "state", "type": null } ]
{ "returns": [ { "docstring": null, "docstring_tokens": [ "None" ], "type": "float" } ], "raises": [], "params": [ { "identifier": "self", "type": null, "docstring": null, "docstring_tokens": [], "default": null, "is_optional": null...
3e14ec227451c537d6b85079d3c368bb0f878886
simeoncarstens/ensemble_hic
ensemble_hic/npsamplers.py
[ "Unlicense", "MIT" ]
Python
_get_prior
<not_specific>
def _get_prior(self): """ Retrieves the prior distribution object associated with the scaling factor variable :returns: prior distribution object :rtype: :class:`.NormGammaPrior` """ prior = filter(lambda p: 'norm' in p.variables, self.pdf.priors.values())[0] ...
Retrieves the prior distribution object associated with the scaling factor variable :returns: prior distribution object :rtype: :class:`.NormGammaPrior`
Retrieves the prior distribution object associated with the scaling factor variable
[ "Retrieves", "the", "prior", "distribution", "object", "associated", "with", "the", "scaling", "factor", "variable" ]
def _get_prior(self): prior = filter(lambda p: 'norm' in p.variables, self.pdf.priors.values())[0] return prior
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Retrieves the prior distribution object associated with the scaling factor variable
[ "Retrieves", "the", "prior", "distribution", "object", "associated", "with", "the", "scaling", "factor", "variable" ]
[ "\"\"\"\n Retrieves the prior distribution object associated with the\n scaling factor variable\n\n :returns: prior distribution object\n :rtype: :class:`.NormGammaPrior`\n \"\"\"" ]
[ { "param": "self", "type": null } ]
{ "returns": [ { "docstring": "prior distribution object", "docstring_tokens": [ "prior", "distribution", "object" ], "type": ":class:`.NormGammaPrior`" } ], "raises": [], "params": [ { "identifier": "self", "type": null, "docstring":...
3e14ec227451c537d6b85079d3c368bb0f878886
simeoncarstens/ensemble_hic
ensemble_hic/npsamplers.py
[ "Unlicense", "MIT" ]
Python
_check_gamma_prior
<not_specific>
def _check_gamma_prior(self, prior): """ Checks whether retrieved prior distribution is in fact a Gamma distribution :param prior: a prior distribution object :type prior: :class:`binf.pdf.priors.AbstractPrior` :returns: isn't this self-documenting?? :rtype: boo...
Checks whether retrieved prior distribution is in fact a Gamma distribution :param prior: a prior distribution object :type prior: :class:`binf.pdf.priors.AbstractPrior` :returns: isn't this self-documenting?? :rtype: bool
Checks whether retrieved prior distribution is in fact a Gamma distribution
[ "Checks", "whether", "retrieved", "prior", "distribution", "is", "in", "fact", "a", "Gamma", "distribution" ]
def _check_gamma_prior(self, prior): from .gamma_prior import GammaPrior return isinstance(prior, GammaPrior)
[ "def", "_check_gamma_prior", "(", "self", ",", "prior", ")", ":", "from", ".", "gamma_prior", "import", "GammaPrior", "return", "isinstance", "(", "prior", ",", "GammaPrior", ")" ]
Checks whether retrieved prior distribution is in fact a Gamma distribution
[ "Checks", "whether", "retrieved", "prior", "distribution", "is", "in", "fact", "a", "Gamma", "distribution" ]
[ "\"\"\"\n Checks whether retrieved prior distribution is in fact a Gamma\n distribution\n\n :param prior: a prior distribution object\n :type prior: :class:`binf.pdf.priors.AbstractPrior`\n\n :returns: isn't this self-documenting??\n :rtype: bool\n \"\"\"" ]
[ { "param": "self", "type": null }, { "param": "prior", "type": null } ]
{ "returns": [ { "docstring": null, "docstring_tokens": [ "None" ], "type": "bool" } ], "raises": [], "params": [ { "identifier": "self", "type": null, "docstring": null, "docstring_tokens": [], "default": null, "is_optional": null ...
6851afd593e7fd26e8097ce8f62d3135acfdb5c0
simeoncarstens/ensemble_hic
ensemble_hic/setup_functions.py
[ "Unlicense", "MIT" ]
Python
parse_config_file
<not_specific>
def parse_config_file(config_file): """ Parses a config file consisting of several sections. I think I adapted this from the ConfigParser docs. :param config_file: config file name :type config_file: str :returns: a nested dictionary with sections and section content :rtype: dict of dicts ...
Parses a config file consisting of several sections. I think I adapted this from the ConfigParser docs. :param config_file: config file name :type config_file: str :returns: a nested dictionary with sections and section content :rtype: dict of dicts
Parses a config file consisting of several sections. I think I adapted this from the ConfigParser docs.
[ "Parses", "a", "config", "file", "consisting", "of", "several", "sections", ".", "I", "think", "I", "adapted", "this", "from", "the", "ConfigParser", "docs", "." ]
def parse_config_file(config_file): import ConfigParser config = ConfigParser.ConfigParser() config.read(config_file) def config_section_map(section): dict1 = {} options = config.options(section) for option in options: try: dict1[option] = config.get(s...
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Parses a config file consisting of several sections.
[ "Parses", "a", "config", "file", "consisting", "of", "several", "sections", "." ]
[ "\"\"\"\n Parses a config file consisting of several sections.\n I think I adapted this from the ConfigParser docs.\n\n :param config_file: config file name\n :type config_file: str\n\n :returns: a nested dictionary with sections and section content\n :rtype: dict of dicts\n \"\"\"" ]
[ { "param": "config_file", "type": null } ]
{ "returns": [ { "docstring": "a nested dictionary with sections and section content", "docstring_tokens": [ "a", "nested", "dictionary", "with", "sections", "and", "section", "content" ], "type": "dict of dicts" } ], ...
6851afd593e7fd26e8097ce8f62d3135acfdb5c0
simeoncarstens/ensemble_hic
ensemble_hic/setup_functions.py
[ "Unlicense", "MIT" ]
Python
make_norm_prior
<not_specific>
def make_norm_prior(norm_prior_settings, likelihood, n_structures): """ Makes the Gamma prior object for the scaling parameter Shape and rate of the Gamma distribution are set to rather broad values depending on the average number of counts in the data :param norm_prior_settings: settings for the ...
Makes the Gamma prior object for the scaling parameter Shape and rate of the Gamma distribution are set to rather broad values depending on the average number of counts in the data :param norm_prior_settings: settings for the scaling factor prior as specified in a conf...
Makes the Gamma prior object for the scaling parameter Shape and rate of the Gamma distribution are set to rather broad values depending on the average number of counts in the data
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def make_norm_prior(norm_prior_settings, likelihood, n_structures): from .gamma_prior import NormGammaPrior shape = norm_prior_settings['shape'] rate = norm_prior_settings['rate'] if shape == rate == 'auto': rate = 1.0 / n_structures dp = likelihood.forward_model.data_points[:,2] ...
[ "def", "make_norm_prior", "(", "norm_prior_settings", ",", "likelihood", ",", "n_structures", ")", ":", "from", ".", "gamma_prior", "import", "NormGammaPrior", "shape", "=", "norm_prior_settings", "[", "'shape'", "]", "rate", "=", "norm_prior_settings", "[", "'rate'...
Makes the Gamma prior object for the scaling parameter Shape and rate of the Gamma distribution are set to rather broad values depending on the average number of counts in the data
[ "Makes", "the", "Gamma", "prior", "object", "for", "the", "scaling", "parameter", "Shape", "and", "rate", "of", "the", "Gamma", "distribution", "are", "set", "to", "rather", "broad", "values", "depending", "on", "the", "average", "number", "of", "counts", "i...
[ "\"\"\"\n Makes the Gamma prior object for the scaling parameter\n\n Shape and rate of the Gamma distribution are set to rather broad\n values depending on the average number of counts in the data\n\n :param norm_prior_settings: settings for the scaling factor prior\n as s...
[ { "param": "norm_prior_settings", "type": null }, { "param": "likelihood", "type": null }, { "param": "n_structures", "type": null } ]
{ "returns": [ { "docstring": "a scaling factor prior object", "docstring_tokens": [ "a", "scaling", "factor", "prior", "object" ], "type": ":class:`.NormGammaPrior`" } ], "raises": [], "params": [ { "identifier": "norm_prior_sett...
6851afd593e7fd26e8097ce8f62d3135acfdb5c0
simeoncarstens/ensemble_hic
ensemble_hic/setup_functions.py
[ "Unlicense", "MIT" ]
Python
expspace
<not_specific>
def expspace(min, max, a, N): """ Helper function which creates an array of exponentially spaced values I use this to create temperature schedules for replica exchange simulations. :param min: minimum value :type min: float :param max: maximum value :type max: float :param a...
Helper function which creates an array of exponentially spaced values I use this to create temperature schedules for replica exchange simulations. :param min: minimum value :type min: float :param max: maximum value :type max: float :param a: rate parameter :type a: float ...
Helper function which creates an array of exponentially spaced values I use this to create temperature schedules for replica exchange simulations.
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def expspace(min, max, a, N): g = lambda n: (max - min) / (np.exp(a*(N-1.0)) - 1.0) * (np.exp(a*(n-1.0)) - 1.0) + float(min) return np.array(map(g, np.arange(1, N+1)))
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Helper function which creates an array of exponentially spaced values I use this to create temperature schedules for replica exchange simulations.
[ "Helper", "function", "which", "creates", "an", "array", "of", "exponentially", "spaced", "values", "I", "use", "this", "to", "create", "temperature", "schedules", "for", "replica", "exchange", "simulations", "." ]
[ "\"\"\"\n Helper function which creates an array of exponentially spaced values\n\n I use this to create temperature schedules for \n replica exchange simulations.\n \n :param min: minimum value\n :type min: float\n\n :param max: maximum value\n :type max: float\n\n :param a: rate paramet...
[ { "param": "min", "type": null }, { "param": "max", "type": null }, { "param": "a", "type": null }, { "param": "N", "type": null } ]
{ "returns": [ { "docstring": "array of exponentially spaced numbers", "docstring_tokens": [ "array", "of", "exponentially", "spaced", "numbers" ], "type": ":class:`numpy.ndarray`" } ], "raises": [], "params": [ { "identifier": "m...
6851afd593e7fd26e8097ce8f62d3135acfdb5c0
simeoncarstens/ensemble_hic
ensemble_hic/setup_functions.py
[ "Unlicense", "MIT" ]
Python
make_replica_schedule
<not_specific>
def make_replica_schedule(replica_params, n_replicas): """ Makes a replica exchange schedule from settings specified in a config file. You can either have a linear or an exponential schedule and a separate prior annealing chain or not. You can also load a schedule from a Python pickle. It has t...
Makes a replica exchange schedule from settings specified in a config file. You can either have a linear or an exponential schedule and a separate prior annealing chain or not. You can also load a schedule from a Python pickle. It has to be a dict with the keys being the tempered parameters an...
Makes a replica exchange schedule from settings specified in a config file. You can either have a linear or an exponential schedule and a separate prior annealing chain or not. You can also load a schedule from a Python pickle. It has to be a dict with the keys being the tempered parameters and the values the schedule...
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def make_replica_schedule(replica_params, n_replicas): l_min = float(replica_params['lambda_min']) l_max = float(replica_params['lambda_max']) b_min = float(replica_params['beta_min']) b_max = float(replica_params['beta_max']) if replica_params['schedule'] == 'linear': if replica_params['sep...
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Makes a replica exchange schedule from settings specified in a config file.
[ "Makes", "a", "replica", "exchange", "schedule", "from", "settings", "specified", "in", "a", "config", "file", "." ]
[ "\"\"\"\n Makes a replica exchange schedule from settings specified in\n a config file.\n\n You can either have a linear or an exponential schedule\n and a separate prior annealing chain or not. You can also\n load a schedule from a Python pickle. It has to be a\n dict with the keys being the temp...
[ { "param": "replica_params", "type": null }, { "param": "n_replicas", "type": null } ]
{ "returns": [ { "docstring": "a replica exchange schedule", "docstring_tokens": [ "a", "replica", "exchange", "schedule" ], "type": "dict, e.g., {'beta': np.array([0, 0.33, 0.66, 1.0])}" } ], "raises": [], "params": [ { "identifier": "re...
6851afd593e7fd26e8097ce8f62d3135acfdb5c0
simeoncarstens/ensemble_hic
ensemble_hic/setup_functions.py
[ "Unlicense", "MIT" ]
Python
make_subsamplers
<not_specific>
def make_subsamplers(posterior, initial_state, structures_hmc_params): """ Makes a dictionary of (possibly MCMC) samplers for all variables :param posterior: posterior distribution you want to sample :type posterior: :class:`binf.pdf.posteriors.Posterior :param initial_state: ...
Makes a dictionary of (possibly MCMC) samplers for all variables :param posterior: posterior distribution you want to sample :type posterior: :class:`binf.pdf.posteriors.Posterior :param initial_state: intial state :type initial_state: :class:`binf.samplers.BinfState` :param structures_hmc_p...
Makes a dictionary of (possibly MCMC) samplers for all variables
[ "Makes", "a", "dictionary", "of", "(", "possibly", "MCMC", ")", "samplers", "for", "all", "variables" ]
def make_subsamplers(posterior, initial_state, structures_hmc_params): from binf.samplers.hmc import HMCSampler p = posterior variables = initial_state.keys() structures_tl = int(structures_hmc_params['trajectory_length']) structures_timestep = float(structures_hmc_params['times...
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Makes a dictionary of (possibly MCMC) samplers for all variables
[ "Makes", "a", "dictionary", "of", "(", "possibly", "MCMC", ")", "samplers", "for", "all", "variables" ]
[ "\"\"\"\n Makes a dictionary of (possibly MCMC) samplers for all variables\n\n :param posterior: posterior distribution you want to sample\n :type posterior: :class:`binf.pdf.posteriors.Posterior\n\n :param initial_state: intial state\n :type initial_state: :class:`binf.samplers.BinfState`\n\n :pa...
[ { "param": "posterior", "type": null }, { "param": "initial_state", "type": null }, { "param": "structures_hmc_params", "type": null } ]
{ "returns": [ { "docstring": "a dictionary with the keys being the variables and\nthe values the corresponding samplers over which\na Gibbs sampler eventually will iterate", "docstring_tokens": [ "a", "dictionary", "with", "the", "keys", "being", ...
6851afd593e7fd26e8097ce8f62d3135acfdb5c0
simeoncarstens/ensemble_hic
ensemble_hic/setup_functions.py
[ "Unlicense", "MIT" ]
Python
make_elongated_structures
<not_specific>
def make_elongated_structures(bead_radii, n_structures): """ Makes a set of fully elongated structures :param bead_radii: bead radii for each bead :type bead_radii: :class:`numpy.ndarray` :param n_structures: number of ensemble members :type n_structures: int :returns: a population of...
Makes a set of fully elongated structures :param bead_radii: bead radii for each bead :type bead_radii: :class:`numpy.ndarray` :param n_structures: number of ensemble members :type n_structures: int :returns: a population of fully elongated structures :rtype: :class:`numpy.ndarray` ...
Makes a set of fully elongated structures
[ "Makes", "a", "set", "of", "fully", "elongated", "structures" ]
def make_elongated_structures(bead_radii, n_structures): X = [bead_radii[0]] for i in range(len(bead_radii) -1): X.append(X[-1] + bead_radii[i+1] + bead_radii[i]) X = np.array(X) - np.mean(X) X = np.array([X, np.zeros(len(bead_radii)), np.zeros(len(bead_radii))]).T[None,:] ...
[ "def", "make_elongated_structures", "(", "bead_radii", ",", "n_structures", ")", ":", "X", "=", "[", "bead_radii", "[", "0", "]", "]", "for", "i", "in", "range", "(", "len", "(", "bead_radii", ")", "-", "1", ")", ":", "X", ".", "append", "(", "X", ...
Makes a set of fully elongated structures
[ "Makes", "a", "set", "of", "fully", "elongated", "structures" ]
[ "\"\"\"\n Makes a set of fully elongated structures\n\n :param bead_radii: bead radii for each bead\n :type bead_radii: :class:`numpy.ndarray`\n\n :param n_structures: number of ensemble members\n :type n_structures: int\n \n :returns: a population of fully elongated structures\n :rtype: :cl...
[ { "param": "bead_radii", "type": null }, { "param": "n_structures", "type": null } ]
{ "returns": [ { "docstring": "a population of fully elongated structures", "docstring_tokens": [ "a", "population", "of", "fully", "elongated", "structures" ], "type": ":class:`numpy.ndarray`" } ], "raises": [], "params": [ { ...
6851afd593e7fd26e8097ce8f62d3135acfdb5c0
simeoncarstens/ensemble_hic
ensemble_hic/setup_functions.py
[ "Unlicense", "MIT" ]
Python
make_random_structures
<not_specific>
def make_random_structures(bead_radii, n_structures): """ Makes a set of random structures with bead positions drawn from a normal distribution :param bead_radii: bead radii for each bead :type bead_radii: :class:`numpy.ndarray` :param n_structures: number of ensemble members :type n_struc...
Makes a set of random structures with bead positions drawn from a normal distribution :param bead_radii: bead radii for each bead :type bead_radii: :class:`numpy.ndarray` :param n_structures: number of ensemble members :type n_structures: int :returns: a population of random structures ...
Makes a set of random structures with bead positions drawn from a normal distribution
[ "Makes", "a", "set", "of", "random", "structures", "with", "bead", "positions", "drawn", "from", "a", "normal", "distribution" ]
def make_random_structures(bead_radii, n_structures): d = bead_radii.mean() * len(bead_radii) ** 0.333 X = np.random.normal(scale=d, size=(n_structures, len(bead_radii), 3)) return X.ravel()
[ "def", "make_random_structures", "(", "bead_radii", ",", "n_structures", ")", ":", "d", "=", "bead_radii", ".", "mean", "(", ")", "*", "len", "(", "bead_radii", ")", "**", "0.333", "X", "=", "np", ".", "random", ".", "normal", "(", "scale", "=", "d", ...
Makes a set of random structures with bead positions drawn from a normal distribution
[ "Makes", "a", "set", "of", "random", "structures", "with", "bead", "positions", "drawn", "from", "a", "normal", "distribution" ]
[ "\"\"\"\n Makes a set of random structures with bead positions drawn\n from a normal distribution\n\n :param bead_radii: bead radii for each bead\n :type bead_radii: :class:`numpy.ndarray`\n\n :param n_structures: number of ensemble members\n :type n_structures: int\n\n :returns: a population o...
[ { "param": "bead_radii", "type": null }, { "param": "n_structures", "type": null } ]
{ "returns": [ { "docstring": "a population of random structures", "docstring_tokens": [ "a", "population", "of", "random", "structures" ], "type": ":class:`numpy.ndarray`" } ], "raises": [], "params": [ { "identifier": "bead_radi...
6851afd593e7fd26e8097ce8f62d3135acfdb5c0
simeoncarstens/ensemble_hic
ensemble_hic/setup_functions.py
[ "Unlicense", "MIT" ]
Python
make_conditional_posterior
<not_specific>
def make_conditional_posterior(posterior, settings): """ Conditions the posterior on the fixed variables :param posterior: full posterior distribution :type posterior: :class:`binf.pdf.posteriors.Posterior` :param settings: simulation settings as specified in a config file ...
Conditions the posterior on the fixed variables :param posterior: full posterior distribution :type posterior: :class:`binf.pdf.posteriors.Posterior` :param settings: simulation settings as specified in a config file :type settings: dict of dicts :returns: a copy of the ...
Conditions the posterior on the fixed variables
[ "Conditions", "the", "posterior", "on", "the", "fixed", "variables" ]
def make_conditional_posterior(posterior, settings): variables = settings['general']['variables'].split(',') variables = [x.strip() for x in variables] p = posterior if not 'norm' in variables: return p.conditional_factory(norm=settings['initial_state']['norm']) else: return p
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Conditions the posterior on the fixed variables
[ "Conditions", "the", "posterior", "on", "the", "fixed", "variables" ]
[ "\"\"\"\n Conditions the posterior on the fixed variables\n\n :param posterior: full posterior distribution\n :type posterior: :class:`binf.pdf.posteriors.Posterior`\n\n :param settings: simulation settings as specified in a\n config file\n :type settings: dict of dicts\n\n :re...
[ { "param": "posterior", "type": null }, { "param": "settings", "type": null } ]
{ "returns": [ { "docstring": "a copy of the input posterior distribution, but with\nsome variables set to values specified in settings", "docstring_tokens": [ "a", "copy", "of", "the", "input", "posterior", "distribution", "but", ...
6851afd593e7fd26e8097ce8f62d3135acfdb5c0
simeoncarstens/ensemble_hic
ensemble_hic/setup_functions.py
[ "Unlicense", "MIT" ]
Python
make_backbone_prior
<not_specific>
def make_backbone_prior(bead_radii, backbone_prior_params, n_beads, n_structures): """ Makes the default backbone prior object. :param bead_radii: list of bead radii :type bead_radii: :class:`numpy.ndarray` :param backbone_prior_params: settings for the backbone prior as ...
Makes the default backbone prior object. :param bead_radii: list of bead radii :type bead_radii: :class:`numpy.ndarray` :param backbone_prior_params: settings for the backbone prior as specified in a config file :type backbone_prior_params: dict :param n_bea...
Makes the default backbone prior object.
[ "Makes", "the", "default", "backbone", "prior", "object", "." ]
def make_backbone_prior(bead_radii, backbone_prior_params, n_beads, n_structures): from .backbone_prior import BackbonePrior if 'mol_ranges' in backbone_prior_params: mol_ranges = backbone_prior_params['mol_ranges'] else: mol_ranges = None if mol_ranges is None: ...
[ "def", "make_backbone_prior", "(", "bead_radii", ",", "backbone_prior_params", ",", "n_beads", ",", "n_structures", ")", ":", "from", ".", "backbone_prior", "import", "BackbonePrior", "if", "'mol_ranges'", "in", "backbone_prior_params", ":", "mol_ranges", "=", "backbo...
Makes the default backbone prior object.
[ "Makes", "the", "default", "backbone", "prior", "object", "." ]
[ "\"\"\"\n Makes the default backbone prior object.\n\n :param bead_radii: list of bead radii\n :type bead_radii: :class:`numpy.ndarray`\n\n :param backbone_prior_params: settings for the backbone prior as\n specified in a config file\n :type backbone_prior_params: dic...
[ { "param": "bead_radii", "type": null }, { "param": "backbone_prior_params", "type": null }, { "param": "n_beads", "type": null }, { "param": "n_structures", "type": null } ]
{ "returns": [ { "docstring": "the backbone prior object with parameters set as given\nin the settings", "docstring_tokens": [ "the", "backbone", "prior", "object", "with", "parameters", "set", "as", "given", "in", ...
6851afd593e7fd26e8097ce8f62d3135acfdb5c0
simeoncarstens/ensemble_hic
ensemble_hic/setup_functions.py
[ "Unlicense", "MIT" ]
Python
make_priors
<not_specific>
def make_priors(nonbonded_prior_params, backbone_prior_params, sphere_prior_params, n_beads, n_structures): """ Sets up all structural prior distributions :param nonbonded_prior_params: settings for the non-bonded prior as specified in a config file :t...
Sets up all structural prior distributions :param nonbonded_prior_params: settings for the non-bonded prior as specified in a config file :type nonbonded_prior_params: dict :param backbone_prior_params: settings for the backbone prior ...
Sets up all structural prior distributions
[ "Sets", "up", "all", "structural", "prior", "distributions" ]
def make_priors(nonbonded_prior_params, backbone_prior_params, sphere_prior_params, n_beads, n_structures): nb_params = nonbonded_prior_params try: bead_radius = float(nb_params['bead_radii']) bead_radii = np.ones(n_beads) * bead_radius except: bead_radii = np.loadtxt...
[ "def", "make_priors", "(", "nonbonded_prior_params", ",", "backbone_prior_params", ",", "sphere_prior_params", ",", "n_beads", ",", "n_structures", ")", ":", "nb_params", "=", "nonbonded_prior_params", "try", ":", "bead_radius", "=", "float", "(", "nb_params", "[", ...
Sets up all structural prior distributions
[ "Sets", "up", "all", "structural", "prior", "distributions" ]
[ "\"\"\"\n Sets up all structural prior distributions\n\n :param nonbonded_prior_params: settings for the non-bonded prior\n as specified in a config file\n :type nonbonded_prior_params: dict\n\n :param backbone_prior_params: settings for the backbone prior\n ...
[ { "param": "nonbonded_prior_params", "type": null }, { "param": "backbone_prior_params", "type": null }, { "param": "sphere_prior_params", "type": null }, { "param": "n_beads", "type": null }, { "param": "n_structures", "type": null } ]
{ "returns": [ { "docstring": "a dictionary with keys being the names of the\nstructural prior distributions and values\nthe prior objects themselves", "docstring_tokens": [ "a", "dictionary", "with", "keys", "being", "the", "names", "of"...
6851afd593e7fd26e8097ce8f62d3135acfdb5c0
simeoncarstens/ensemble_hic
ensemble_hic/setup_functions.py
[ "Unlicense", "MIT" ]
Python
make_nonbonded_prior
<not_specific>
def make_nonbonded_prior(nb_params, bead_radii, n_structures): """ Makes the default non-bonded structural prior object. This will either be a Boltzmann-like distribution or a Tsallis ensemble (currently not really supported). :param nonbonded_prior_params: settings for the non-bonded prior as ...
Makes the default non-bonded structural prior object. This will either be a Boltzmann-like distribution or a Tsallis ensemble (currently not really supported). :param nonbonded_prior_params: settings for the non-bonded prior as specified in a config file :type n...
Makes the default non-bonded structural prior object. This will either be a Boltzmann-like distribution or a Tsallis ensemble (currently not really supported).
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def make_nonbonded_prior(nb_params, bead_radii, n_structures): from .forcefields import NBLForceField as ForceField forcefield = ForceField(bead_radii, float(nb_params['force_constant'])) if not 'ensemble' in nb_params or nb_params['ensemble'] == 'boltzmann': from .nonbonded_prior import BoltzmannNo...
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Makes the default non-bonded structural prior object.
[ "Makes", "the", "default", "non", "-", "bonded", "structural", "prior", "object", "." ]
[ "\"\"\"\n Makes the default non-bonded structural prior object.\n\n This will either be a Boltzmann-like distribution or a\n Tsallis ensemble (currently not really supported).\n\n :param nonbonded_prior_params: settings for the non-bonded prior as\n specified in a confi...
[ { "param": "nb_params", "type": null }, { "param": "bead_radii", "type": null }, { "param": "n_structures", "type": null } ]
{ "returns": [ { "docstring": "the non-bonded prior object with parameters set as given\nin the settings", "docstring_tokens": [ "the", "non", "-", "bonded", "prior", "object", "with", "parameters", "set", "as", "g...
6851afd593e7fd26e8097ce8f62d3135acfdb5c0
simeoncarstens/ensemble_hic
ensemble_hic/setup_functions.py
[ "Unlicense", "MIT" ]
Python
make_sphere_prior
<not_specific>
def make_sphere_prior(sphere_prior_params, bead_radii, n_structures): """ Makes a sphere structural prior object. This is a Boltzmann-like distribution with a potential energy harmonically restraining all beads to stay within a sphere of a given radius. :param sphere_prior_params: settings for...
Makes a sphere structural prior object. This is a Boltzmann-like distribution with a potential energy harmonically restraining all beads to stay within a sphere of a given radius. :param sphere_prior_params: settings for the sphere prior as specified in a config fi...
Makes a sphere structural prior object. This is a Boltzmann-like distribution with a potential energy harmonically restraining all beads to stay within a sphere of a given radius.
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def make_sphere_prior(sphere_prior_params, bead_radii, n_structures): from .sphere_prior import SpherePrior radius = sphere_prior_params['radius'] if radius == 'auto': radius = 2 * bead_radii.mean() * len(bead_radii) ** (1 / 3.0) else: radius = float(radius) SP = SpherePrior('sphere_...
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Makes a sphere structural prior object.
[ "Makes", "a", "sphere", "structural", "prior", "object", "." ]
[ "\"\"\"\n Makes a sphere structural prior object.\n\n This is a Boltzmann-like distribution with a potential energy\n harmonically restraining all beads to stay within a sphere\n of a given radius.\n\n :param sphere_prior_params: settings for the sphere prior as\n speci...
[ { "param": "sphere_prior_params", "type": null }, { "param": "bead_radii", "type": null }, { "param": "n_structures", "type": null } ]
{ "returns": [ { "docstring": "the sphere prior object with parameters set as given\nin the settings", "docstring_tokens": [ "the", "sphere", "prior", "object", "with", "parameters", "set", "as", "given", "in", "th...
6851afd593e7fd26e8097ce8f62d3135acfdb5c0
simeoncarstens/ensemble_hic
ensemble_hic/setup_functions.py
[ "Unlicense", "MIT" ]
Python
make_likelihood
<not_specific>
def make_likelihood(forward_model_params, error_model, data_filtering_params, data_file, n_structures, bead_radii): """ Sets up a likelihood object from settings parsed from a config file :param forward_model_params: settings for the forward model as ...
Sets up a likelihood object from settings parsed from a config file :param forward_model_params: settings for the forward model as specified in a config file :type forward_model_params: dict :param error_model: a string telling which error model to use. ...
Sets up a likelihood object from settings parsed from a config file
[ "Sets", "up", "a", "likelihood", "object", "from", "settings", "parsed", "from", "a", "config", "file" ]
def make_likelihood(forward_model_params, error_model, data_filtering_params, data_file, n_structures, bead_radii): from .forward_models import EnsembleContactsFWM from .likelihoods import Likelihood data = parse_data(data_file, data_filtering_params) cd_factor = float(forward_model_...
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Sets up a likelihood object from settings parsed from a config file
[ "Sets", "up", "a", "likelihood", "object", "from", "settings", "parsed", "from", "a", "config", "file" ]
[ "\"\"\"\n Sets up a likelihood object from settings parsed from a config\n file\n\n :param forward_model_params: settings for the forward model as\n specified in a config file\n :type forward_model_params: dict\n\n :param error_model: a string telling which error model...
[ { "param": "forward_model_params", "type": null }, { "param": "error_model", "type": null }, { "param": "data_filtering_params", "type": null }, { "param": "data_file", "type": null }, { "param": "n_structures", "type": null }, { "param": "bead_radii",...
{ "returns": [ { "docstring": "the ready-to-use likelihood object", "docstring_tokens": [ "the", "ready", "-", "to", "-", "use", "likelihood", "object" ], "type": ":class:`.Likelihood`" } ], "raises": [], "params": [...
5ced9d1d1f81ee69e52e19f8d852eb97c2cf36db
simeoncarstens/ensemble_hic
ensemble_hic/forward_models.py
[ "Unlicense", "MIT" ]
Python
_evaluate
<not_specific>
def _evaluate(self, structures, smooth_steepness, norm): """ Evaluates the forward model, i.e., back-calculates contact data from a structure ensemble and other (nuisance) parameters :param structures: coordinates of structure ensemble :type structures: :class:`numpy.ndarray` ...
Evaluates the forward model, i.e., back-calculates contact data from a structure ensemble and other (nuisance) parameters :param structures: coordinates of structure ensemble :type structures: :class:`numpy.ndarray` :param smooth_steepness: determines the steepness of the smoo...
Evaluates the forward model, i.e., back-calculates contact data from a structure ensemble and other (nuisance) parameters
[ "Evaluates", "the", "forward", "model", "i", ".", "e", ".", "back", "-", "calculates", "contact", "data", "from", "a", "structure", "ensemble", "and", "other", "(", "nuisance", ")", "parameters" ]
def _evaluate(self, structures, smooth_steepness, norm): X = structures.reshape(self.n_structures, -1, 3) return ensemble_contacts_evaluate(X, norm, self['contact_distances'].value, ...
[ "def", "_evaluate", "(", "self", ",", "structures", ",", "smooth_steepness", ",", "norm", ")", ":", "X", "=", "structures", ".", "reshape", "(", "self", ".", "n_structures", ",", "-", "1", ",", "3", ")", "return", "ensemble_contacts_evaluate", "(", "X", ...
Evaluates the forward model, i.e., back-calculates contact data from a structure ensemble and other (nuisance) parameters
[ "Evaluates", "the", "forward", "model", "i", ".", "e", ".", "back", "-", "calculates", "contact", "data", "from", "a", "structure", "ensemble", "and", "other", "(", "nuisance", ")", "parameters" ]
[ "\"\"\"\n Evaluates the forward model, i.e., back-calculates contact\n data from a structure ensemble and other (nuisance) parameters\n\n :param structures: coordinates of structure ensemble\n :type structures: :class:`numpy.ndarray`\n\n :param smooth_steepness: determines the ste...
[ { "param": "self", "type": null }, { "param": "structures", "type": null }, { "param": "smooth_steepness", "type": null }, { "param": "norm", "type": null } ]
{ "returns": [ { "docstring": "back-calculated contact frequency data", "docstring_tokens": [ "back", "-", "calculated", "contact", "frequency", "data" ], "type": ":class:`numpy.ndarray`" } ], "raises": [], "params": [ { "...
5ced9d1d1f81ee69e52e19f8d852eb97c2cf36db
simeoncarstens/ensemble_hic
ensemble_hic/forward_models.py
[ "Unlicense", "MIT" ]
Python
_evaluate_jacobi_matrix
null
def _evaluate_jacobi_matrix(self, structures, smooth_steepness, norm): """ In theory, this evaluates the Jacobian matrix of the forward model, but I usually hardcode the multiplication of this with the error model gradient in Cython (see :module:`.likelihoods_c`) """ ...
In theory, this evaluates the Jacobian matrix of the forward model, but I usually hardcode the multiplication of this with the error model gradient in Cython (see :module:`.likelihoods_c`)
In theory, this evaluates the Jacobian matrix of the forward model, but I usually hardcode the multiplication of this with the error model gradient in Cython
[ "In", "theory", "this", "evaluates", "the", "Jacobian", "matrix", "of", "the", "forward", "model", "but", "I", "usually", "hardcode", "the", "multiplication", "of", "this", "with", "the", "error", "model", "gradient", "in", "Cython" ]
def _evaluate_jacobi_matrix(self, structures, smooth_steepness, norm): raise NotImplementedError("Use fast likelihood gradients in " + "likelihoods_c.pyx instead!")
[ "def", "_evaluate_jacobi_matrix", "(", "self", ",", "structures", ",", "smooth_steepness", ",", "norm", ")", ":", "raise", "NotImplementedError", "(", "\"Use fast likelihood gradients in \"", "+", "\"likelihoods_c.pyx instead!\"", ")" ]
In theory, this evaluates the Jacobian matrix of the forward model, but I usually hardcode the multiplication of this with the error model gradient in Cython (see :module:`.likelihoods_c`)
[ "In", "theory", "this", "evaluates", "the", "Jacobian", "matrix", "of", "the", "forward", "model", "but", "I", "usually", "hardcode", "the", "multiplication", "of", "this", "with", "the", "error", "model", "gradient", "in", "Cython", "(", "see", ":", "module...
[ "\"\"\"\n In theory, this evaluates the Jacobian matrix of the forward model,\n but I usually hardcode the multiplication of this with the error\n model gradient in Cython (see :module:`.likelihoods_c`)\n \"\"\"" ]
[ { "param": "self", "type": null }, { "param": "structures", "type": null }, { "param": "smooth_steepness", "type": null }, { "param": "norm", "type": null } ]
{ "returns": [], "raises": [], "params": [ { "identifier": "self", "type": null, "docstring": null, "docstring_tokens": [], "default": null, "is_optional": null }, { "identifier": "structures", "type": null, "docstring": null, "docstring_toke...
47c0bd129deab907a4dc865040fa74b921a1929b
simeoncarstens/ensemble_hic
ensemble_hic/nonbonded_prior.py
[ "Unlicense", "MIT" ]
Python
_register_ensemble_parameters
null
def _register_ensemble_parameters(self, **parameters): """ Register parameters of the statistical ensemble, for example the inverse temperature in case of a Boltzmann ensemble """ pass
Register parameters of the statistical ensemble, for example the inverse temperature in case of a Boltzmann ensemble
Register parameters of the statistical ensemble, for example the inverse temperature in case of a Boltzmann ensemble
[ "Register", "parameters", "of", "the", "statistical", "ensemble", "for", "example", "the", "inverse", "temperature", "in", "case", "of", "a", "Boltzmann", "ensemble" ]
def _register_ensemble_parameters(self, **parameters): pass
[ "def", "_register_ensemble_parameters", "(", "self", ",", "**", "parameters", ")", ":", "pass" ]
Register parameters of the statistical ensemble, for example the inverse temperature in case of a Boltzmann ensemble
[ "Register", "parameters", "of", "the", "statistical", "ensemble", "for", "example", "the", "inverse", "temperature", "in", "case", "of", "a", "Boltzmann", "ensemble" ]
[ "\"\"\"\n Register parameters of the statistical ensemble, for example\n the inverse temperature in case of a Boltzmann ensemble\n \"\"\"" ]
[ { "param": "self", "type": null } ]
{ "returns": [], "raises": [], "params": [ { "identifier": "self", "type": null, "docstring": null, "docstring_tokens": [], "default": null, "is_optional": null } ], "outlier_params": [], "others": [] }
47c0bd129deab907a4dc865040fa74b921a1929b
simeoncarstens/ensemble_hic
ensemble_hic/nonbonded_prior.py
[ "Unlicense", "MIT" ]
Python
_forcefield_gradient
<not_specific>
def _forcefield_gradient(self, structure): """ Evaluates the gradient of the force field :param structure: coordinates of structure ensemble :type structure: :class:`numpy.ndarray` :returns: gradient vector :rtype: :class:`numpy.ndarray` """ return self...
Evaluates the gradient of the force field :param structure: coordinates of structure ensemble :type structure: :class:`numpy.ndarray` :returns: gradient vector :rtype: :class:`numpy.ndarray`
Evaluates the gradient of the force field
[ "Evaluates", "the", "gradient", "of", "the", "force", "field" ]
def _forcefield_gradient(self, structure): return self.forcefield.gradient(structure)
[ "def", "_forcefield_gradient", "(", "self", ",", "structure", ")", ":", "return", "self", ".", "forcefield", ".", "gradient", "(", "structure", ")" ]
Evaluates the gradient of the force field
[ "Evaluates", "the", "gradient", "of", "the", "force", "field" ]
[ "\"\"\"\n Evaluates the gradient of the force field\n\n :param structure: coordinates of structure ensemble\n :type structure: :class:`numpy.ndarray`\n\n :returns: gradient vector\n :rtype: :class:`numpy.ndarray`\n \"\"\"" ]
[ { "param": "self", "type": null }, { "param": "structure", "type": null } ]
{ "returns": [ { "docstring": null, "docstring_tokens": [ "None" ], "type": ":class:`numpy.ndarray`" } ], "raises": [], "params": [ { "identifier": "self", "type": null, "docstring": null, "docstring_tokens": [], "default": null, "i...
47c0bd129deab907a4dc865040fa74b921a1929b
simeoncarstens/ensemble_hic
ensemble_hic/nonbonded_prior.py
[ "Unlicense", "MIT" ]
Python
_forcefield_energy
<not_specific>
def _forcefield_energy(self, structure): """ Evaluates the energy of the force field :param structure: coordinates of structure ensemble :type structure: :class:`numpy.ndarray` :returns: force field energy :rtype: float """ return self.forcefield.energy...
Evaluates the energy of the force field :param structure: coordinates of structure ensemble :type structure: :class:`numpy.ndarray` :returns: force field energy :rtype: float
Evaluates the energy of the force field
[ "Evaluates", "the", "energy", "of", "the", "force", "field" ]
def _forcefield_energy(self, structure): return self.forcefield.energy(structure)
[ "def", "_forcefield_energy", "(", "self", ",", "structure", ")", ":", "return", "self", ".", "forcefield", ".", "energy", "(", "structure", ")" ]
Evaluates the energy of the force field
[ "Evaluates", "the", "energy", "of", "the", "force", "field" ]
[ "\"\"\"\n Evaluates the energy of the force field\n\n :param structure: coordinates of structure ensemble\n :type structure: :class:`numpy.ndarray`\n\n :returns: force field energy\n :rtype: float\n \"\"\"" ]
[ { "param": "self", "type": null }, { "param": "structure", "type": null } ]
{ "returns": [ { "docstring": "force field energy", "docstring_tokens": [ "force", "field", "energy" ], "type": "float" } ], "raises": [], "params": [ { "identifier": "self", "type": null, "docstring": null, "docstring_tokens": ...
47c0bd129deab907a4dc865040fa74b921a1929b
simeoncarstens/ensemble_hic
ensemble_hic/nonbonded_prior.py
[ "Unlicense", "MIT" ]
Python
_log_ensemble_gradient
null
def _log_ensemble_gradient(self, E): """ Derivative of the statistical ensemble w.r.t. the system energy. Should be called log_ensemble_derivative or sth. like that. :param E: system energy calculated by a force field object :type E: float :returns: derivative w.r.t. t...
Derivative of the statistical ensemble w.r.t. the system energy. Should be called log_ensemble_derivative or sth. like that. :param E: system energy calculated by a force field object :type E: float :returns: derivative w.r.t. the energy :rtype: float
Derivative of the statistical ensemble w.r.t. the system energy. Should be called log_ensemble_derivative or sth. like that.
[ "Derivative", "of", "the", "statistical", "ensemble", "w", ".", "r", ".", "t", ".", "the", "system", "energy", ".", "Should", "be", "called", "log_ensemble_derivative", "or", "sth", ".", "like", "that", "." ]
def _log_ensemble_gradient(self, E): pass
[ "def", "_log_ensemble_gradient", "(", "self", ",", "E", ")", ":", "pass" ]
Derivative of the statistical ensemble w.r.t.
[ "Derivative", "of", "the", "statistical", "ensemble", "w", ".", "r", ".", "t", "." ]
[ "\"\"\"\n Derivative of the statistical ensemble w.r.t. the system energy.\n\n Should be called log_ensemble_derivative or sth. like that.\n\n :param E: system energy calculated by a force field object\n :type E: float\n\n :returns: derivative w.r.t. the energy\n :rtype: fl...
[ { "param": "self", "type": null }, { "param": "E", "type": null } ]
{ "returns": [ { "docstring": "derivative w.r.t. the energy", "docstring_tokens": [ "derivative", "w", ".", "r", ".", "t", ".", "the", "energy" ], "type": "float" } ], "raises": [], "params": [ { "i...
47c0bd129deab907a4dc865040fa74b921a1929b
simeoncarstens/ensemble_hic
ensemble_hic/nonbonded_prior.py
[ "Unlicense", "MIT" ]
Python
_log_ensemble
null
def _log_ensemble(self, E): """ The logarithm of the statistical ensemble, for example, -beta * E in case of a Boltzmann ensemble :param E: system energy calculated by a force field object :type E: float """ pass
The logarithm of the statistical ensemble, for example, -beta * E in case of a Boltzmann ensemble :param E: system energy calculated by a force field object :type E: float
The logarithm of the statistical ensemble, for example, beta * E in case of a Boltzmann ensemble
[ "The", "logarithm", "of", "the", "statistical", "ensemble", "for", "example", "beta", "*", "E", "in", "case", "of", "a", "Boltzmann", "ensemble" ]
def _log_ensemble(self, E): pass
[ "def", "_log_ensemble", "(", "self", ",", "E", ")", ":", "pass" ]
The logarithm of the statistical ensemble, for example, beta * E in case of a Boltzmann ensemble
[ "The", "logarithm", "of", "the", "statistical", "ensemble", "for", "example", "beta", "*", "E", "in", "case", "of", "a", "Boltzmann", "ensemble" ]
[ "\"\"\"\n The logarithm of the statistical ensemble, for example,\n -beta * E in case of a Boltzmann ensemble\n\n :param E: system energy calculated by a force field object\n :type E: float\n \"\"\"" ]
[ { "param": "self", "type": null }, { "param": "E", "type": null } ]
{ "returns": [], "raises": [], "params": [ { "identifier": "self", "type": null, "docstring": null, "docstring_tokens": [], "default": null, "is_optional": null }, { "identifier": "E", "type": null, "docstring": "system energy calculated by a force...
09d646a41ffc0c9373d66e9994c2e1dd73c61375
simeoncarstens/ensemble_hic
ensemble_hic/error_models.py
[ "Unlicense", "MIT" ]
Python
_evaluate_log_prob
<not_specific>
def _evaluate_log_prob(self, mock_data): """ Evaluates the log-probability of the data given the mock data :param mock_data: back-calculated count / frequency data :type mock_data: :class:`numpy.ndarray` :returns: log-probablity of the data :rtype: float ...
Evaluates the log-probability of the data given the mock data :param mock_data: back-calculated count / frequency data :type mock_data: :class:`numpy.ndarray` :returns: log-probablity of the data :rtype: float
Evaluates the log-probability of the data given the mock data
[ "Evaluates", "the", "log", "-", "probability", "of", "the", "data", "given", "the", "mock", "data" ]
def _evaluate_log_prob(self, mock_data): d_counts = self.data return -mock_data.sum() + numpy.sum(d_counts * numpy.log(mock_data))
[ "def", "_evaluate_log_prob", "(", "self", ",", "mock_data", ")", ":", "d_counts", "=", "self", ".", "data", "return", "-", "mock_data", ".", "sum", "(", ")", "+", "numpy", ".", "sum", "(", "d_counts", "*", "numpy", ".", "log", "(", "mock_data", ")", ...
Evaluates the log-probability of the data given the mock data
[ "Evaluates", "the", "log", "-", "probability", "of", "the", "data", "given", "the", "mock", "data" ]
[ "\"\"\"\n Evaluates the log-probability of the data given the mock data\n \n :param mock_data: back-calculated count / frequency data\n :type mock_data: :class:`numpy.ndarray`\n\n :returns: log-probablity of the data\n :rtype: float\n \"\"\"" ]
[ { "param": "self", "type": null }, { "param": "mock_data", "type": null } ]
{ "returns": [ { "docstring": "log-probablity of the data", "docstring_tokens": [ "log", "-", "probablity", "of", "the", "data" ], "type": "float" } ], "raises": [], "params": [ { "identifier": "self", "type": null, ...
09d646a41ffc0c9373d66e9994c2e1dd73c61375
simeoncarstens/ensemble_hic
ensemble_hic/error_models.py
[ "Unlicense", "MIT" ]
Python
_evaluate_gradient
null
def _evaluate_gradient(self, **variables): """ In theory, this evaluates the gradient of the negative log-probability, but I usually hardcode the multiplication of this with the forward model Jacobian in Cython (see :mod:`.likelihoods_c`) """ pass
In theory, this evaluates the gradient of the negative log-probability, but I usually hardcode the multiplication of this with the forward model Jacobian in Cython (see :mod:`.likelihoods_c`)
In theory, this evaluates the gradient of the negative log-probability, but I usually hardcode the multiplication of this with the forward model Jacobian in Cython
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def _evaluate_gradient(self, **variables): pass
[ "def", "_evaluate_gradient", "(", "self", ",", "**", "variables", ")", ":", "pass" ]
In theory, this evaluates the gradient of the negative log-probability, but I usually hardcode the multiplication of this with the forward model Jacobian in Cython (see :mod:`.likelihoods_c`)
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[ "\"\"\"\n In theory, this evaluates the gradient of the negative log-probability,\n but I usually hardcode the multiplication of this with the forward\n model Jacobian in Cython (see :mod:`.likelihoods_c`)\n \"\"\"" ]
[ { "param": "self", "type": null } ]
{ "returns": [], "raises": [], "params": [ { "identifier": "self", "type": null, "docstring": null, "docstring_tokens": [], "default": null, "is_optional": null } ], "outlier_params": [], "others": [] }
09d646a41ffc0c9373d66e9994c2e1dd73c61375
simeoncarstens/ensemble_hic
ensemble_hic/error_models.py
[ "Unlicense", "MIT" ]
Python
clone
<not_specific>
def clone(self): """Returns a copy of an instance of this class :returns: copy of this object :rtype: :class:`.PoissonEM` """ copy = self.__class__(self.name, self.data) copy.set_fixed_variables_from_pdf(self) return copy
Returns a copy of an instance of this class :returns: copy of this object :rtype: :class:`.PoissonEM`
Returns a copy of an instance of this class
[ "Returns", "a", "copy", "of", "an", "instance", "of", "this", "class" ]
def clone(self): copy = self.__class__(self.name, self.data) copy.set_fixed_variables_from_pdf(self) return copy
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Returns a copy of an instance of this class
[ "Returns", "a", "copy", "of", "an", "instance", "of", "this", "class" ]
[ "\"\"\"Returns a copy of an instance of this class\n\n :returns: copy of this object\n :rtype: :class:`.PoissonEM`\n \"\"\"" ]
[ { "param": "self", "type": null } ]
{ "returns": [ { "docstring": "copy of this object", "docstring_tokens": [ "copy", "of", "this", "object" ], "type": ":class:`.PoissonEM`" } ], "raises": [], "params": [ { "identifier": "self", "type": null, "docstring": null,...
26f7d04e91d9cdbcfb50d1c58492611364984734
GFZ-Centre-for-Early-Warning/modelprop
modelprop.py
[ "Apache-2.0" ]
Python
_check_taxonomies
<not_specific>
def _check_taxonomies(self,selected): ''' check if the taxonomies in the list "selected" are contained in the metadata ''' if (self.metadata): return(set(selected) <= set(self.metadata['taxonomies'])) else: print("_check_taxonomies: metadata are n...
check if the taxonomies in the list "selected" are contained in the metadata
check if the taxonomies in the list "selected" are contained in the metadata
[ "check", "if", "the", "taxonomies", "in", "the", "list", "\"", "selected", "\"", "are", "contained", "in", "the", "metadata" ]
def _check_taxonomies(self,selected): if (self.metadata): return(set(selected) <= set(self.metadata['taxonomies'])) else: print("_check_taxonomies: metadata are not defined.") return(False)
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check if the taxonomies in the list "selected" are contained in the metadata
[ "check", "if", "the", "taxonomies", "in", "the", "list", "\"", "selected", "\"", "are", "contained", "in", "the", "metadata" ]
[ "'''\n check if the taxonomies in the list \"selected\" are \n contained in the metadata\n '''" ]
[ { "param": "self", "type": null }, { "param": "selected", "type": null } ]
{ "returns": [], "raises": [], "params": [ { "identifier": "self", "type": null, "docstring": null, "docstring_tokens": [], "default": null, "is_optional": null }, { "identifier": "selected", "type": null, "docstring": null, "docstring_tokens...
26f7d04e91d9cdbcfb50d1c58492611364984734
GFZ-Centre-for-Early-Warning/modelprop
modelprop.py
[ "Apache-2.0" ]
Python
_read_schema
<not_specific>
def _read_schema(self, input_file): ''' read fragility/vulnerability model from a json file. the file contains two dictionaries: 1) 'meta' includes information (metadata) on the schema, the list of taxonomies and damage states 2) 'data' provides the mean and log. std ...
read fragility/vulnerability model from a json file. the file contains two dictionaries: 1) 'meta' includes information (metadata) on the schema, the list of taxonomies and damage states 2) 'data' provides the mean and log. std deviation of the lognormal distribut...
read fragility/vulnerability model from a json file. the file contains two dictionaries: 1) 'meta' includes information (metadata) on the schema, the list of taxonomies and damage states 2) 'data' provides the mean and log. std deviation of the lognormal distribution encoding the fragility / vulnerability descriptions ...
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def _read_schema(self, input_file): with open(input_file,'r') as f: parsed = json.load(f) self.metadata = parsed['meta'] self.data = pd.DataFrame(parsed['data']) return(0)
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read fragility/vulnerability model from a json file.
[ "read", "fragility", "/", "vulnerability", "model", "from", "a", "json", "file", "." ]
[ "'''\n read fragility/vulnerability model from a json file.\n the file contains two dictionaries: \n 1) 'meta' includes information (metadata) on the schema, the list of taxonomies and\n damage states\n 2) 'data' provides the mean and log. std deviation of the lognormal\n ...
[ { "param": "self", "type": null }, { "param": "input_file", "type": null } ]
{ "returns": [], "raises": [], "params": [ { "identifier": "self", "type": null, "docstring": null, "docstring_tokens": [], "default": null, "is_optional": null }, { "identifier": "input_file", "type": null, "docstring": null, "docstring_toke...
26f7d04e91d9cdbcfb50d1c58492611364984734
GFZ-Centre-for-Early-Warning/modelprop
modelprop.py
[ "Apache-2.0" ]
Python
_write_schema
<not_specific>
def _write_schema(self, metadata, data, output_file): ''' write fragility/vulnerability schema to a json file. the file contains two dictionaries: 1) 'meta' includes information (metadata) on the schema, the list of taxonomies and damage states 2) 'data' provides the ...
write fragility/vulnerability schema to a json file. the file contains two dictionaries: 1) 'meta' includes information (metadata) on the schema, the list of taxonomies and damage states 2) 'data' provides the mean and log. std deviation of the lognormal distribut...
write fragility/vulnerability schema to a json file. the file contains two dictionaries: 1) 'meta' includes information (metadata) on the schema, the list of taxonomies and damage states 2) 'data' provides the mean and log. std deviation of the lognormal distribution encoding the fragility / vulnerability descriptions ...
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def _write_schema(self, metadata, data, output_file): if ((metadata is not None) and (data is not None)): modict = {} modict['meta'] = metadata modict['data'] = data.to_dict(orient='records') with open(output_file,'w') as f: json.dump(modict,f, ind...
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write fragility/vulnerability schema to a json file.
[ "write", "fragility", "/", "vulnerability", "schema", "to", "a", "json", "file", "." ]
[ "'''\n write fragility/vulnerability schema to a json file.\n the file contains two dictionaries: \n 1) 'meta' includes information (metadata) on the schema, the list of taxonomies and\n damage states\n 2) 'data' provides the mean and log. std deviation of the lognormal\n ...
[ { "param": "self", "type": null }, { "param": "metadata", "type": null }, { "param": "data", "type": null }, { "param": "output_file", "type": null } ]
{ "returns": [], "raises": [], "params": [ { "identifier": "self", "type": null, "docstring": null, "docstring_tokens": [], "default": null, "is_optional": null }, { "identifier": "metadata", "type": null, "docstring": null, "docstring_tokens...
26f7d04e91d9cdbcfb50d1c58492611364984734
GFZ-Centre-for-Early-Warning/modelprop
modelprop.py
[ "Apache-2.0" ]
Python
_queryModel
<not_specific>
def _queryModel(self): ''' extract a part of the model by doing a query on the selected taxonomies (selectedtaxonomies) ''' if (self.selectedtaxonomies): if (self._check_taxonomies(self.selectedtaxonomies)): self.query_result_metadata = self.metadata....
extract a part of the model by doing a query on the selected taxonomies (selectedtaxonomies)
extract a part of the model by doing a query on the selected taxonomies (selectedtaxonomies)
[ "extract", "a", "part", "of", "the", "model", "by", "doing", "a", "query", "on", "the", "selected", "taxonomies", "(", "selectedtaxonomies", ")" ]
def _queryModel(self): if (self.selectedtaxonomies): if (self._check_taxonomies(self.selectedtaxonomies)): self.query_result_metadata = self.metadata.copy() self.query_result_metadata['taxonomies']=self.selectedtaxonomies self.query_result_data = self....
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extract a part of the model by doing a query on the selected taxonomies (selectedtaxonomies)
[ "extract", "a", "part", "of", "the", "model", "by", "doing", "a", "query", "on", "the", "selected", "taxonomies", "(", "selectedtaxonomies", ")" ]
[ "'''\n extract a part of the model by doing a query on the \n selected taxonomies (selectedtaxonomies)\n '''" ]
[ { "param": "self", "type": null } ]
{ "returns": [], "raises": [], "params": [ { "identifier": "self", "type": null, "docstring": null, "docstring_tokens": [], "default": null, "is_optional": null } ], "outlier_params": [], "others": [] }
26f7d04e91d9cdbcfb50d1c58492611364984734
GFZ-Centre-for-Early-Warning/modelprop
modelprop.py
[ "Apache-2.0" ]
Python
_exportGeoJson
<not_specific>
def _exportGeoJson(self, dataframe, filename): ''' Export geopandas dataframe as GeoJson file ''' # file has to be first deleted # because driver does not support overwrite ! try: os.remove(filename) except OSError: pass dataframe...
Export geopandas dataframe as GeoJson file
Export geopandas dataframe as GeoJson file
[ "Export", "geopandas", "dataframe", "as", "GeoJson", "file" ]
def _exportGeoJson(self, dataframe, filename): try: os.remove(filename) except OSError: pass dataframe.to_file(filename, driver='GeoJSON') return (0)
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Export geopandas dataframe as GeoJson file
[ "Export", "geopandas", "dataframe", "as", "GeoJson", "file" ]
[ "'''\n Export geopandas dataframe as GeoJson file\n '''", "# file has to be first deleted", "# because driver does not support overwrite ! " ]
[ { "param": "self", "type": null }, { "param": "dataframe", "type": null }, { "param": "filename", "type": null } ]
{ "returns": [], "raises": [], "params": [ { "identifier": "self", "type": null, "docstring": null, "docstring_tokens": [], "default": null, "is_optional": null }, { "identifier": "dataframe", "type": null, "docstring": null, "docstring_token...
26f7d04e91d9cdbcfb50d1c58492611364984734
GFZ-Centre-for-Early-Warning/modelprop
modelprop.py
[ "Apache-2.0" ]
Python
_exportNrml05
<not_specific>
def _exportNrml05(self, dataframe, filename, metadata, dicts,taxonomies): ''' Export geopandas dataframe as nrml file ''' xml_string = nrml.write_nrml05_expo(dataframe,metadata,dicts,taxonomies,filename) return (0)
Export geopandas dataframe as nrml file
Export geopandas dataframe as nrml file
[ "Export", "geopandas", "dataframe", "as", "nrml", "file" ]
def _exportNrml05(self, dataframe, filename, metadata, dicts,taxonomies): xml_string = nrml.write_nrml05_expo(dataframe,metadata,dicts,taxonomies,filename) return (0)
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Export geopandas dataframe as nrml file
[ "Export", "geopandas", "dataframe", "as", "nrml", "file" ]
[ "'''\n Export geopandas dataframe as nrml file\n '''" ]
[ { "param": "self", "type": null }, { "param": "dataframe", "type": null }, { "param": "filename", "type": null }, { "param": "metadata", "type": null }, { "param": "dicts", "type": null }, { "param": "taxonomies", "type": null } ]
{ "returns": [], "raises": [], "params": [ { "identifier": "self", "type": null, "docstring": null, "docstring_tokens": [], "default": null, "is_optional": null }, { "identifier": "dataframe", "type": null, "docstring": null, "docstring_token...
26f7d04e91d9cdbcfb50d1c58492611364984734
GFZ-Centre-for-Early-Warning/modelprop
modelprop.py
[ "Apache-2.0" ]
Python
_write_outputs
null
def _write_outputs(self): ''' Export query result as nrml and geojson files ''' output_geojson = os.path.join(self.path_outfile,self.out_file_geojson) self._write_schema(self.query_result_metadata, self.query_result_data,output_geojson) #output_xml = os.path.join(self.pat...
Export query result as nrml and geojson files
Export query result as nrml and geojson files
[ "Export", "query", "result", "as", "nrml", "and", "geojson", "files" ]
def _write_outputs(self): output_geojson = os.path.join(self.path_outfile,self.out_file_geojson) self._write_schema(self.query_result_metadata, self.query_result_data,output_geojson)
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Export query result as nrml and geojson files
[ "Export", "query", "result", "as", "nrml", "and", "geojson", "files" ]
[ "'''\n Export query result as nrml and geojson files\n '''", "#output_xml = os.path.join(self.path_outfile,self.out_file_xml)", "#self._exportNrml05(self.query_result, output_xml, self.metadata, ", "# self.dicts,self.taxonomies)" ]
[ { "param": "self", "type": null } ]
{ "returns": [], "raises": [], "params": [ { "identifier": "self", "type": null, "docstring": null, "docstring_tokens": [], "default": null, "is_optional": null } ], "outlier_params": [], "others": [] }
26f7d04e91d9cdbcfb50d1c58492611364984734
GFZ-Centre-for-Early-Warning/modelprop
modelprop.py
[ "Apache-2.0" ]
Python
run
<not_specific>
def run(self): ''' Method to: - load the fragility model from a file (json) - query the model based on a list of taxonomies - write the output(s) ''' if (self._check_schema()): foldername = os.path.join(self.folder,"schemas/{}".format(self.schema)) ...
Method to: - load the fragility model from a file (json) - query the model based on a list of taxonomies - write the output(s)
Method to: load the fragility model from a file (json) query the model based on a list of taxonomies write the output(s)
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def run(self): if (self._check_schema()): foldername = os.path.join(self.folder,"schemas/{}".format(self.schema)) self.path_infile = foldername self.in_file = "{}_struct.json".format(self.schema) else: raise Exception ("schema {} not supported".format(self...
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Method to: load the fragility model from a file (json) query the model based on a list of taxonomies write the output(s)
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[ "'''\n Method to:\n - load the fragility model from a file (json)\n - query the model based on a list of taxonomies\n - write the output(s)\n '''", "#read model from file ", "#query", "#write outputs" ]
[ { "param": "self", "type": null } ]
{ "returns": [], "raises": [], "params": [ { "identifier": "self", "type": null, "docstring": null, "docstring_tokens": [], "default": null, "is_optional": null } ], "outlier_params": [], "others": [] }
26f7d04e91d9cdbcfb50d1c58492611364984734
GFZ-Centre-for-Early-Warning/modelprop
modelprop.py
[ "Apache-2.0" ]
Python
create_with_arg_parser
<not_specific>
def create_with_arg_parser(cls): ''' Creates an arg parser and uses that to create the Main class ''' arg_parser = argparse.ArgumentParser( description='''Program to query a fragility/vulnerability model from a database/file''' ) arg_parser.add_arg...
Creates an arg parser and uses that to create the Main class
Creates an arg parser and uses that to create the Main class
[ "Creates", "an", "arg", "parser", "and", "uses", "that", "to", "create", "the", "Main", "class" ]
def create_with_arg_parser(cls): arg_parser = argparse.ArgumentParser( description='''Program to query a fragility/vulnerability model from a database/file''' ) arg_parser.add_argument( 'schema', help='Exposure/Vulnerability Schema', ty...
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Creates an arg parser and uses that to create the Main class
[ "Creates", "an", "arg", "parser", "and", "uses", "that", "to", "create", "the", "Main", "class" ]
[ "'''\n Creates an arg parser and uses that to create the Main class\n '''", "#narg='?'," ]
[ { "param": "cls", "type": null } ]
{ "returns": [], "raises": [], "params": [ { "identifier": "cls", "type": null, "docstring": null, "docstring_tokens": [], "default": null, "is_optional": null } ], "outlier_params": [], "others": [] }
0241574d799369fc14e09032783d19ff00d9da10
niosus/homework_checker
homework_checker/core/tests/test_task.py
[ "Apache-2.0" ]
Python
__sanitize_results
dict
def __sanitize_results(results: dict) -> dict: """Sanitize the outputs of the tasks.""" sanitized_results = {} for key, value in results.items(): sanitized_results[tools.remove_number_from_name(key)] = value return sanitized_results
Sanitize the outputs of the tasks.
Sanitize the outputs of the tasks.
[ "Sanitize", "the", "outputs", "of", "the", "tasks", "." ]
def __sanitize_results(results: dict) -> dict: sanitized_results = {} for key, value in results.items(): sanitized_results[tools.remove_number_from_name(key)] = value return sanitized_results
[ "def", "__sanitize_results", "(", "results", ":", "dict", ")", "->", "dict", ":", "sanitized_results", "=", "{", "}", "for", "key", ",", "value", "in", "results", ".", "items", "(", ")", ":", "sanitized_results", "[", "tools", ".", "remove_number_from_name",...
Sanitize the outputs of the tasks.
[ "Sanitize", "the", "outputs", "of", "the", "tasks", "." ]
[ "\"\"\"Sanitize the outputs of the tasks.\"\"\"" ]
[ { "param": "results", "type": "dict" } ]
{ "returns": [], "raises": [], "params": [ { "identifier": "results", "type": "dict", "docstring": null, "docstring_tokens": [], "default": null, "is_optional": null } ], "outlier_params": [], "others": [] }
f3c4cfa84ed004344c6121f5eb4a493249f46418
niosus/homework_checker
homework_checker/core/tasks.py
[ "Apache-2.0" ]
Python
from_yaml_node
Optional[Task]
def from_yaml_node( task_node: dict, student_hw_folder: Path, job_file: Path ) -> Optional[Task]: """Create an Task appropriate for the language.""" student_task_folder = student_hw_folder / task_node[Tags.FOLDER_TAG] if not student_task_folder.exists(): log.warning("Fold...
Create an Task appropriate for the language.
Create an Task appropriate for the language.
[ "Create", "an", "Task", "appropriate", "for", "the", "language", "." ]
def from_yaml_node( task_node: dict, student_hw_folder: Path, job_file: Path ) -> Optional[Task]: student_task_folder = student_hw_folder / task_node[Tags.FOLDER_TAG] if not student_task_folder.exists(): log.warning("Folder '%s' does not exist. Skipping.", student_task_folder) ...
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Create an Task appropriate for the language.
[ "Create", "an", "Task", "appropriate", "for", "the", "language", "." ]
[ "\"\"\"Create an Task appropriate for the language.\"\"\"" ]
[ { "param": "task_node", "type": "dict" }, { "param": "student_hw_folder", "type": "Path" }, { "param": "job_file", "type": "Path" } ]
{ "returns": [], "raises": [], "params": [ { "identifier": "task_node", "type": "dict", "docstring": null, "docstring_tokens": [], "default": null, "is_optional": null }, { "identifier": "student_hw_folder", "type": "Path", "docstring": null, ...
f3c4cfa84ed004344c6121f5eb4a493249f46418
niosus/homework_checker
homework_checker/core/tasks.py
[ "Apache-2.0" ]
Python
check
Task.ResultDictType
def check(self: Task) -> Task.ResultDictType: """Iterate over the tests and check them.""" # Generate empty results. results: Task.ResultDictType = {} def run_all_tests( test_node: dict, executable_folder: Path ) -> Task.ResultDictType: """Run all tests i...
Iterate over the tests and check them.
Iterate over the tests and check them.
[ "Iterate", "over", "the", "tests", "and", "check", "them", "." ]
def check(self: Task) -> Task.ResultDictType: results: Task.ResultDictType = {} def run_all_tests( test_node: dict, executable_folder: Path ) -> Task.ResultDictType: results: Task.ResultDictType = {} if Tags.INJECT_FOLDER_TAG not in test_node: ...
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Iterate over the tests and check them.
[ "Iterate", "over", "the", "tests", "and", "check", "them", "." ]
[ "\"\"\"Iterate over the tests and check them.\"\"\"", "# Generate empty results.", "\"\"\"Run all tests in the task.\"\"\"", "# There is no need to rebuild the code. We can just run our tests.", "# There are folders to inject, so we will have to rebuild with the newly", "# injected folders. We do it in a ...
[ { "param": "self", "type": "Task" } ]
{ "returns": [], "raises": [], "params": [ { "identifier": "self", "type": "Task", "docstring": null, "docstring_tokens": [], "default": null, "is_optional": null } ], "outlier_params": [], "others": [] }
f3c4cfa84ed004344c6121f5eb4a493249f46418
niosus/homework_checker
homework_checker/core/tasks.py
[ "Apache-2.0" ]
Python
__inject_folders
null
def __inject_folders(folders_to_inject: List[Task.Injection]): """Inject all folders overwriting existing folders in case of conflict.""" for injection in folders_to_inject: if injection.destination.exists(): rmtree(injection.destination) copytree(injection.source...
Inject all folders overwriting existing folders in case of conflict.
Inject all folders overwriting existing folders in case of conflict.
[ "Inject", "all", "folders", "overwriting", "existing", "folders", "in", "case", "of", "conflict", "." ]
def __inject_folders(folders_to_inject: List[Task.Injection]): for injection in folders_to_inject: if injection.destination.exists(): rmtree(injection.destination) copytree(injection.source, injection.destination)
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Inject all folders overwriting existing folders in case of conflict.
[ "Inject", "all", "folders", "overwriting", "existing", "folders", "in", "case", "of", "conflict", "." ]
[ "\"\"\"Inject all folders overwriting existing folders in case of conflict.\"\"\"" ]
[ { "param": "folders_to_inject", "type": "List[Task.Injection]" } ]
{ "returns": [], "raises": [], "params": [ { "identifier": "folders_to_inject", "type": "List[Task.Injection]", "docstring": null, "docstring_tokens": [], "default": null, "is_optional": null } ], "outlier_params": [], "others": [] }
f3c4cfa84ed004344c6121f5eb4a493249f46418
niosus/homework_checker
homework_checker/core/tasks.py
[ "Apache-2.0" ]
Python
_code_style_errors
Optional[tools.CmdResult]
def _code_style_errors(self: CppTask) -> Optional[tools.CmdResult]: """Check if code conforms to Google Style.""" command = ( "cpplint --counting=detailed " + "--filter=-legal,-readability/todo," + "-build/include_order,-runtime/threadsafe_fn," + "-runtime...
Check if code conforms to Google Style.
Check if code conforms to Google Style.
[ "Check", "if", "code", "conforms", "to", "Google", "Style", "." ]
def _code_style_errors(self: CppTask) -> Optional[tools.CmdResult]: command = ( "cpplint --counting=detailed " + "--filter=-legal,-readability/todo," + "-build/include_order,-runtime/threadsafe_fn," + "-runtime/arrays" + ' $( find . -name "*.h" -o -nam...
[ "def", "_code_style_errors", "(", "self", ":", "CppTask", ")", "->", "Optional", "[", "tools", ".", "CmdResult", "]", ":", "command", "=", "(", "\"cpplint --counting=detailed \"", "+", "\"--filter=-legal,-readability/todo,\"", "+", "\"-build/include_order,-runtime/threads...
Check if code conforms to Google Style.
[ "Check", "if", "code", "conforms", "to", "Google", "Style", "." ]
[ "\"\"\"Check if code conforms to Google Style.\"\"\"" ]
[ { "param": "self", "type": "CppTask" } ]
{ "returns": [], "raises": [], "params": [ { "identifier": "self", "type": "CppTask", "docstring": null, "docstring_tokens": [], "default": null, "is_optional": null } ], "outlier_params": [], "others": [] }
85e5f25e687a3bf64dce7990c378a34266dcba0b
niosus/homework_checker
homework_checker/core/tools.py
[ "Apache-2.0" ]
Python
remove_number_from_name
str
def remove_number_from_name(name: str) -> str: """Add a number before a string.""" if NUMBER_SPLIT_TAG not in name: return name return name.split(NUMBER_SPLIT_TAG)[1]
Add a number before a string.
Add a number before a string.
[ "Add", "a", "number", "before", "a", "string", "." ]
def remove_number_from_name(name: str) -> str: if NUMBER_SPLIT_TAG not in name: return name return name.split(NUMBER_SPLIT_TAG)[1]
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Add a number before a string.
[ "Add", "a", "number", "before", "a", "string", "." ]
[ "\"\"\"Add a number before a string.\"\"\"" ]
[ { "param": "name", "type": "str" } ]
{ "returns": [], "raises": [], "params": [ { "identifier": "name", "type": "str", "docstring": null, "docstring_tokens": [], "default": null, "is_optional": null } ], "outlier_params": [], "others": [] }
85e5f25e687a3bf64dce7990c378a34266dcba0b
niosus/homework_checker
homework_checker/core/tools.py
[ "Apache-2.0" ]
Python
expand_if_needed
Path
def expand_if_needed(input_path: Path) -> Path: """Expand the path if it is not absolute.""" if input_path.is_absolute(): return input_path new_path = input_path.expanduser() if new_path.is_absolute(): # This path needed user expansion. Now that the user home directory is # expan...
Expand the path if it is not absolute.
Expand the path if it is not absolute.
[ "Expand", "the", "path", "if", "it", "is", "not", "absolute", "." ]
def expand_if_needed(input_path: Path) -> Path: if input_path.is_absolute(): return input_path new_path = input_path.expanduser() if new_path.is_absolute(): return new_path return Path.cwd() / new_path
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Expand the path if it is not absolute.
[ "Expand", "the", "path", "if", "it", "is", "not", "absolute", "." ]
[ "\"\"\"Expand the path if it is not absolute.\"\"\"", "# This path needed user expansion. Now that the user home directory is", "# expanded this is a full absolute path.", "# The user could not be expanded, so we assume it is just another relative", "# path to the current working directory." ]
[ { "param": "input_path", "type": "Path" } ]
{ "returns": [], "raises": [], "params": [ { "identifier": "input_path", "type": "Path", "docstring": null, "docstring_tokens": [], "default": null, "is_optional": null } ], "outlier_params": [], "others": [] }
85e5f25e687a3bf64dce7990c378a34266dcba0b
niosus/homework_checker
homework_checker/core/tools.py
[ "Apache-2.0" ]
Python
convert_to
Union[Tuple[Optional[str], str], Tuple[Optional[float], str]]
def convert_to( output_type: str, value: Any ) -> Union[Tuple[Optional[str], str], Tuple[Optional[float], str]]: """Convert the value to a specified type.""" if not value: return None, "No value. Cannot convert {} to '{}'.".format(value, output_type) try: if output_type == OutputTags.STR...
Convert the value to a specified type.
Convert the value to a specified type.
[ "Convert", "the", "value", "to", "a", "specified", "type", "." ]
def convert_to( output_type: str, value: Any ) -> Union[Tuple[Optional[str], str], Tuple[Optional[float], str]]: if not value: return None, "No value. Cannot convert {} to '{}'.".format(value, output_type) try: if output_type == OutputTags.STRING: return str(value).strip(), "OK" ...
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Convert the value to a specified type.
[ "Convert", "the", "value", "to", "a", "specified", "type", "." ]
[ "\"\"\"Convert the value to a specified type.\"\"\"" ]
[ { "param": "output_type", "type": "str" }, { "param": "value", "type": "Any" } ]
{ "returns": [], "raises": [], "params": [ { "identifier": "output_type", "type": "str", "docstring": null, "docstring_tokens": [], "default": null, "is_optional": null }, { "identifier": "value", "type": "Any", "docstring": null, "docstring_...