def validate(directory,
classifierType,
mtStep,
mtWin,
stStep,
stWin,
num_threads=mp.cpu_count()):
birds = []
for root, dirs, files in os.walk(os.path.join(directory, 'Training')):
for bird in dirs:
birds.append(bird)
break
current_dir = os.getcwd()
model_dir = os.path.join(current_dir, 'random_forest_model')
#directory = directory + 'Training'
parameters = list(
itertools.product(classifierType, mtStep, mtWin, stStep, stWin))
#Gets rid of invalid sets of parameters
parameters_temp = deepcopy(parameters)
for p in parameters:
if p[1] > p[2] or p[3] > p[4] or p[4] >= p[2]:
parameters_temp.remove(p)
model = 'x'.join([p[0], str(p[1]), str(p[2]), str(p[3]), str(p[4])])
if os.path.isfile(os.path.join(model_dir, model)):
parameters_temp.remove(p)
parameters = parameters_temp
verifier = partial(train_and_verify, directory=directory, birds=birds)
pros = Pool(num_threads)
pros.map(verifier, parameters)
def noise_removal_dir(self, rootdir):
num_threads = self.num_threads
if not os.path.exists(rootdir):
raise Exception(rootdir + " not found!")
for root, dirs, files in os.walk(rootdir):
parent, folder_name = os.path.split(root)
if folder_name == 'activity' or folder_name == 'noise' or '_clean' in folder_name:
shutil.rmtree(root)
num_samples_processed = 0
wav_files = []
for root, dirs, files in os.walk(rootdir):
for file in files:
if file.endswith('.wav'):
wav_files.append(os.path.join(root, file))
num_samples_processed += 1
if not num_threads:
self.noise_removal(os.path.join(root,file))
print "Now beginning preprocessing for: ", num_samples_processed, " samples."
if num_threads:
pros = Pool(num_threads)
pros.map(self.noise_removal, wav_files)
print "Preprocessing complete!\n"
def run_posterior_grid(tree_files, alpha, wishart_df):
#true_trees= [tree_generation_laboratory.load_tree(tree_file) for tree_file in tree_files]
summaries = [
summary.s_posterior(),
summary.s_variable('mhr', output='double_missing'),
summary.s_no_admixes(),
summary.s_average_branch_length(),
summary.s_total_branch_length(),
summary.s_basic_tree_statistics(
Rtree_operations.get_number_of_ghost_populations,
'ghost_pops',
output='integer'),
summary.s_basic_tree_statistics(
Rtree_operations.get_max_distance_to_root, 'max_root'),
summary.s_basic_tree_statistics(
Rtree_operations.get_min_distance_to_root, 'min_root'),
summary.s_basic_tree_statistics(
Rtree_operations.get_average_distance_to_root, 'average_root'),
summary.s_basic_tree_statistics(
tree_statistics.unique_identifier_and_branch_lengths,
'tree',
output='string'),
summary.s_variable('proposal_type', output='string'),
summary.s_variable('sliding_regraft_adap_param',
output='double_missing'),
summary.s_variable('rescale_adap_param', output='double_missing'),
summary.s_likelihood(),
summary.s_prior()
]
def f(x):
unsuffixed_filename = '.'.join(x.split('.')[:-1])
true_tree = tree_generation_laboratory.identifier_to_tree_clean_wrapper(
tree_generation_laboratory.load_tree(x))
s_tree = Rtree_operations.create_trivial_tree(
Rtree_operations.get_no_leaves(true_tree))
simulation_sanity.test_posterior_model(
true_tree,
s_tree,
100,
summaries=summaries,
thinning_coef=30,
wishart_df=wishart_df,
resimulate_regrafted_branch_length=alpha,
filename=unsuffixed_filename + '-results.csv')
from pathos.multiprocessing import Pool
p = Pool(len(tree_files))
p.map(f, tree_files)
def calc_distances_between_nodes(self):
"""
Use the dtw algorithm to calculate the distance between nodes.
"""
from fastdtw import fastdtw
from pathos.multiprocessing import Pool
# decide use which algo to use
if self.opt1 == True:
self.distance_calc_func = self.distance_opt1_func
else:
self.distance_calc_func = self.distance_func
dtws = []
if self.opt2:
depth = 0
for node in self.nodes:
if node in self.degree_list:
if depth in self.degree_list[node]:
degree = self.degree_list[node][depth]
if args.opt1:
degree = degree[0][0]
else:
degree = degree[0]
if degree not in self.degree2nodes:
self.degree2nodes[degree] = []
if node not in self.node2degree:
self.node2degree[node] = degree
self.degree2nodes[degree].append(node)
# select the log(n) node to select data
degree_keys = self.degree2nodes.keys()
degree_keys = np.array(list(degree_keys), dtype='int')
self.degrees_sorted = list(np.sort(degree_keys))
selected_nbh_nums = 2 * math.log(self.graph.num_nodes - 1, 2)
self.selected_nbh_nums = selected_nbh_nums
pool = Pool(10)
dtws = pool.map(self.calc_node_with_neighbor_dtw_opt2, self.nodes)
pool.close()
pool.join()
else:
src_indices = range(0, self.graph.num_nodes - 2)
pool = Pool(10)
dtws = pool.map(self.calc_node_with_neighbor_dtw, src_indices)
pool.close()
pool.join()
print('calc the dtw done.')
for dtw in dtws:
self.distance.update(dtw)
def create_initial_population(self):
"""Create members of the first population randomly."""
for _ in range(self.pop_size):
individual = Particle(self.chromosome_size, self.fitness_function)
if not self.pool:
individual.calculate_fitness()
self.add_individual_to_pop(individual)
if self.pool:
p = Pool(self.pool_size)
manager = Manager()
lock = manager.Lock()
counter = manager.Value('i', 0)
def pool_function(inside_lock, inside_counter, inside_member):
inside_lock.acquire()
inside_counter.value += 1
inside_lock.release()
fitness_value = inside_member.calculate_fitness(
gpu=inside_counter.value % 4)
return fitness_value
func = partial(pool_function, lock, counter)
fitness_values = p.map(func, self.current_population[:])
for value, member in zip(fitness_values,
self.current_population[:]):
member.fitness = value
p.terminate()
def _filter_biology(self):
# 3.3.3.1 todo: parallel
# Helper method, used to execute in parallel
def __process_input(memory):
# BCF for every memory is stored in the tail of the cultural group
bcf = memory.get_tail_knowledge()
distance = abs(
(bcf.get_biology() + self.internal_state.get_biology()) / 2.0 -
self.desired_state.get_biology())
return distance, memory
# Init thread's pool, with the determined processor number
pool = Pool(DetectSystem().cpu_count())
# Parallel execution
__temp_result = pool.map(__process_input, self.inputs)
# Calculate the minimum distance
__min_result = min(__temp_result, key=lambda t: t[0])
# Extract the memory from the tuple
best_biology = __min_result[1]
#best_biology = self.inputs[0]
#bcf = best_biology.get_tail_knowledge()
#min_distance = abs((bcf.get_biology() + self.internal_state.get_biology())/2.0 - self.desired_state.get_biology())
#for memory in self.inputs:
# BCF for every memory is stored in the tail of the cultural group
# bcf = memory.get_tail_knowledge()
# distance = abs((bcf.get_biology() + self.internal_state.get_biology())/2.0 - self.desired_state.get_biology())
# if distance < min_distance:
# best_biology = memory
# min_distance = distance
return best_biology
def _filter_feelings(self):
# 3.3.3.3 todo: parallel
# Helper method, used to execute in parallel
def __process_input(memory):
# BCF for every memory is stored in the tail of the cultural group
bcf = memory.get_tail_knowledge()
feeling = bcf.get_feelings()
return feeling, memory
# Init thread's pool, with the determined processor number
pool = Pool(DetectSystem().cpu_count())
# Parallel execution
__temp_result = pool.map(__process_input, self.inputs)
# Calculate the maximum feeling
__max_result = max(__temp_result, key=lambda t: t[0])
# Extract the memory from the tuple
best_feelings = __max_result[1]
# best_feelings = self.inputs[0]
# bcf = best_feelings.get_tail_knowledge()
# max = bcf.get_feelings()
#
# for memory in self.inputs:
# # BCF for every memory is stored in the tail of the cultural group
# bcf = memory.get_tail_knowledge()
# if bcf.get_feelings() > max:
# best_feelings = memory
# max = bcf.get_feelings()
return best_feelings
def multiproc_map(self, func):
from pathos.multiprocessing import Pool
pool = Pool()
result = List(pool.map(func, self))
pool.close()
pool.join()
return result
def learn(self, knowledge):
# If there is no capacity in neuron list, double size
if self._index_ready_to_learn == (len(self.neuron_list) - 1):
new_list = []
# Fill neuron list with nre RelNeuron instances
# 3.2.2.2 todo: parallel
# Detect system and determine threads number to use
detect_system = DetectSystem()
# Init thread's pool, with the determined threads number
pool = Pool(detect_system.cpu_count())
new_list = pool.map(lambda index: RelNeuron(),
range(len(self.neuron_list)))
#for index in range(len(self.neuron_list)):
# new_list.append(RelNeuron())
self.neuron_list = self.neuron_list + new_list
# Check for neurons that already have given knowledge ids
for index in range(self._index_ready_to_learn):
if self.neuron_list[index].has_ids(knowledge.get_h_id(),
knowledge.get_s_id()):
return False
# If there are no neurons with given pair of ids, learn
self.neuron_list[self._index_ready_to_learn].learn(knowledge)
self._index_ready_to_learn += 1
return True
def apply_by_multiprocessing(df, func, **kwargs):
workers = kwargs.pop('workers')
pool = Pool(processes=workers)
result = pool.map(_apply_df, [(d, func, kwargs)
for d in np.array_split(df, workers)])
pool.close()
return pd.concat(list(result))
def searchn(x, pred, n):
import multiprocessing
from pathos.multiprocessing import Pool
nworkers = int(multiprocessing.cpu_count() * 0.75)
pool = Pool(processes=nworkers)
def searcher(args):
return search(*args)
return pool.map(searcher, [(x, pred)] * n)
def retrieve_exact_memory(self, trigger):
# Use bbcc protocol
self.bum()
# 3.2.7.1 TODO: parallel
# Init thread's pool, with the determined processor number
pool = Pool(DetectSystem().cpu_count())
# Parallel execution
__temp = pool.map(lambda index: self.bip(trigger[index]),
range(len(trigger) - 1))
return self.group_list[self.check(trigger[len(trigger) - 1])]
def cluster(self):
"""
Perform clustering on each image.
Returns
-------
A list of tuples (w, z), one for each image. w is the final cluster
centers, z are the fuzzy, weighted membership values for each pixel.
"""
pool = Pool()
return pool.map(self.__csFCM, self.__images)
def classify(self):
directory = self.directory
num_threads = self.num_threads
wav_files = []
for file in os.listdir(directory):
if file.endswith('.wav') or file.endswith('.WAV'):
file = os.path.join(directory, file)
wav_files.append(file)
if not num_threads:
self.classFile(file)
if num_threads:
try:
pros = Pool(num_threads)
pros.map(self.classFile, wav_files)
except cPickle.PicklingError:
for wfile in wav_files:
self.classFile(wfile)
if os.path.exists(os.path.join(directory, "noise")):
shutil.rmtree(os.path.join(directory, "noise"))
if os.path.exists(os.path.join(directory, "activity")):
shutil.rmtree(os.path.join(directory, "activity"))
def create_histograms(self):
logger.debug('--->Systematics::create_histograms:')
# collect ROOT objects
self._root_objects_holder = RootObjects(self._output_file)
if self._num_threads == 1:
for systematic in self._systematics:
logger.debug("---->Create ROOT objects for systematic %s.",
systematic.name)
if logger.getEffectiveLevel() == 10: print '---->Systematics::create_histograms: systematic', systematic.process, systematic._process.estimation_method._friend_directories
systematic.create_root_objects()
else:
logger.debug("Create ROOT objects for all systematics.")
from pathos.multiprocessing import Pool
pool = Pool(processes=self._num_threads)
systematics_new = pool.map(systematic_create_root_objects,
[s for s in self._systematics])
pool.close()
pool.join()
del pool
# Because the new objects have different addresses in memory,
# the result objects have to be copied.
for i_sys in range(len(systematics_new)):
self._systematics[i_sys] = systematics_new[i_sys]
logger.debug('-->Create root holders')
for systematic in self._systematics:
if self._find_unique_objects:
self._root_objects_holder.add_unique(systematic.root_objects)
else:
self._root_objects_holder.add(systematic.root_objects)
# self._root_objects_holder.check_duplicates() # TODO: Implement this if needed
# produce ROOT objects (in parallel)
logger.debug("Produce ROOT objects using the %s backend.",
self._backend)
logger.debug('-->Produce root with' + self._backend + 'backend')
if self._backend == "classic":
self._root_objects_holder.produce_classic(self._num_threads)
elif self._backend == "tdf":
self._root_objects_holder.produce_tdf(self._num_threads)
else:
logger.fatal("Backend %s is not implemented.", self._backend)
raise Exception
# set duplicates to the produced ROOT objects
logger.debug('--># set duplicates to the produced ROOT objects')
if self._find_unique_objects:
self._root_objects_holder.set_duplicates()
def resize(self):
new_list = []
# Fill neuron list with memories
# 3.2.5.2 todo: parallel
# Init thread's pool, with the determined processor number
pool = Pool(DetectSystem().cpu_count())
# Parallel execution
new_list = pool.map(lambda index: CulturalGroup(),
range(len(self.group_list)))
# for index in range(len(self.group_list)):
# new_list.append(CulturalGroup())
self.group_list = self.group_list + new_list
def __init__(self, group_count=1):
self.group_list = []
# 3.2.5.1 todo: parallel
# Init thread's pool, with the determined processor number
pool = Pool(DetectSystem().cpu_count())
# Parallel execution
self.group_list = pool.map(lambda index: CulturalGroup(),
range(group_count))
#for index in range(group_count):
# self.group_list.append(CulturalGroup())
self._index_ready_to_learn = 0
self._clack = False
self._recognized_indexes = []
def json_to_metadata_chunks(args,file_chunks = []):
# Open the json file, and split the reading of the file among worker threads
results = []
if args.json_metadata == None:
return None
num_proc = len(file_chunks)
print (file_chunks, file=sys.stderr)
pool = Pool(processes = num_proc)
with open(args.json_metadata) as json_metadata_file:
results = [pool.map(process_json_line,json_metadata_file, chunk) for index, chunk in enumerate(file_chunks)]
#objs = [p.get() for p in results]
return merge_exact_duplicates(results)
def json_to_metadata_chunks(args,file_chunks = []):
# Open the json file, and split the reading of the file among worker threads
results = []
if args.json_metadata == None:
return None
num_proc = len(file_chunks)
print (file_chunks, file=sys.stderr)
pool = Pool(processes = num_proc)
with open(args.json_metadata) as json_metadata_file:
results = [pool.map(process_json_line,json_metadata_file, chunk) for index, chunk in enumerate(file_chunks)]
#objs = [p.get() for p in results]
return merge_exact_duplicates(results)
def test_prior_model_several_chains(start_trees,
sim_length=100000,
summaries=None,
thinning_coef=1):
posterior = initialize_prior_as_posterior()
if summaries is None:
summaries = [
s_variable('posterior'),
s_variable('mhr'),
s_no_admixes()
]
proposal = basic_meta_proposal()
sample_verbose_scheme = {summary.name: (1, 0) for summary in summaries}
p = Pool(len(start_trees))
def func(nstart_tree):
n, start_tree = nstart_tree
final_tree, final_posterior, results, _ = basic_chain(
start_tree,
summaries,
posterior,
proposal,
post=None,
N=sim_length,
sample_verbose_scheme=sample_verbose_scheme,
overall_thinning=int(thinning_coef + sim_length / 60000),
i_start_from=0,
temperature=1.0,
proposal_update=None,
check_trees=True)
save_to_csv(results,
summaries,
filename='results_' + str(n + 1) + 'csv',
origin_layer=(n + 1, 1))
p.map(func, enumerate(start_trees))
def get_sight_rels(self, s_id):
# List of sight relations
sight_rels = []
# 3.2.2.3 todo: parallel
# Detect system and create threads pool
pool = Pool(DetectSystem().cpu_count())
sight_rels = pool.map(
lambda index: self.neuron_list[index].get_knowledge()
if self.neuron_list[index].recognize_sight(s_id) else None,
range(self._index_ready_to_learn))
sight_rels = filter(None, sight_rels)
#for index in range(self._index_ready_to_learn):
# if self.neuron_list[index].recognize_sight(s_id):
# sight_rels.append(self.neuron_list[index].get_knowledge())
return sight_rels
def solve_parallel(nSolns, T, Nc, v, nJobs=None, **kwargs):
"""
Run solve() in parallel
"""
if nJobs is None:
nJobs = cpu_count()
assert nJobs > 0
def wrapped_solve(i):
rng = np.random.RandomState()
return solve(T, Nc, v, rng=rng, **kwargs)
p = Pool(nJobs)
Solutions = p.map(wrapped_solve, list(range(nSolns)))
p.close()
return Solutions
def __init__(self):
# Desired state
self.desired_state = InternalState()
self.desired_state.set_state([0.5,1,1])
# Initial internal state
self.internal_state = InternalState([0.5,0.5,0.5])
# Decision by prediction network
self.decision_prediction_block = DecisionByPredictionBlock()
self.decision_prediction_block.set_desired_state(self.desired_state)
self.decision_prediction_block.set_internal_state(self.internal_state)
# DEFAULT TRAINING, IT CAN LATER BE OVERRIDEN
# Create a random training set so that the net can learn the relation prediction = (ei + choice.bcf)/2
# We require a minimum of 18 points
training_set = []
# 3.2.4.1 todo: parallelize
# Helper method, used to execute in parallel
def __generate_training(index):
ei = [random.random(), random.random(), random.random()]
choice_bcf = [random.random(), random.random(), random.random()]
prediction = [ei_j / 2.0 + choice_bcf_j / 2.0 for ei_j, choice_bcf_j in zip(ei, choice_bcf)]
return ei + choice_bcf, prediction
# Init thread's pool, with the determined processor number
pool = Pool(DetectSystem().cpu_count())
# Parallel execution
training_set = pool.map(__generate_training, range(20))
# for index in range(20):
# ei = [random.random(), random.random(), random.random()]
# choice_bcf = [random.random(), random.random(), random.random()]
# prediction = [ei_j / 2.0 + choice_bcf_j / 2.0 for ei_j, choice_bcf_j in zip(ei, choice_bcf)]
# training_set.append((ei + choice_bcf, prediction))
# Remodel predictive net
self.decision_prediction_block.remodel_predictive_net(training_set)
self._inputs = None
self._new_inputs = False
self.decision = None
self._last_decision_type = None
self._last_selected_input = None
self._last_decision_internal_state = None
def apply_parallel(data: List[Any], func: Callable) -> List[Any]:
"""
Apply function to list of elements.
Automatically determines the chunk size.
"""
cpu_cores = cpu_count()
try:
chunk_size = ceil(len(data) / cpu_cores)
pool = Pool(cpu_cores)
transformed_data = pool.map(func,
chunked(data, chunk_size),
chunksize=1)
finally:
pool.close()
pool.join()
return transformed_data
def __init__(self, neuron_count):
# Create neuron list
self.neuron_list = []
# Fill neuron list with nre RelNeuron instances
# 3.2.2.1 todo: parallel
# Detect system and determine threads number to use
detect_system = DetectSystem()
# Init thread's pool, with the determined threads number
pool = Pool(detect_system.cpu_count())
self.neuron_list = pool.map(lambda index: RelNeuron(),
range(neuron_count))
#for index in range(neuron_count):
# self.neuron_list.append(RelNeuron())
# Index of ready to learn neuron
self._index_ready_to_learn = 0
def process_batch(df, directory, engine, num_cores = 12):
p = Pool(num_cores)
try:
success = pd.Series(p.map(lambda i: write_indexes_to_table(df.loc[i, 'file_name'], df.loc[i, 'document'],\
df.loc[i, 'form_type'], directory, engine),\
range(df.shape[0])), ignore_index = True)
p.close()
num_success = success.sum()
return(num_success)
except Exception as e:
print(e)
p.close()
return(None)
def random_walk_structual_sim(self):
"""
According to struct distance to walk the path
"""
from pathos.multiprocessing import Pool
print('start process struc2vec random walk.')
walks_process_ids = [i for i in range(0, self.num_walks)]
pool = Pool(10)
walks = pool.map(self.executor_random_walk, walks_process_ids)
pool.close()
pool.join()
#save the final walk result
file_result = open(args.tag + "_walk_path", "w")
for walk in walks:
for walk_node in walk:
walk_node_str = " ".join([str(node) for node in walk_node])
file_result.write(walk_node_str + "\n")
file_result.close()
print('process struc2vec random walk done.')
def get_output_memory(self):
self.unconscious_block.set_internal_state(self.internal_state)
self.unconscious_block.set_desired_state(self.desired_state)
self.unconscious_block.set_inputs(self.input_memories)
self.unconscious_output = self.unconscious_block.get_outputs()
self.conscious_block.set_desired_state(self.desired_state)
self.conscious_block.set_internal_state(self.internal_state)
conscious_inputs = []
# 3.2.6.1 todo: parallel
# Init thread's pool, with the determined processor number
pool = Pool(DetectSystem().cpu_count())
# Parallel execution
conscious_inputs = pool.map(lambda memory: memory.get_tail_knowledge(), self.unconscious_output)
# for memory in self.unconscious_output:
# conscious_inputs.append(memory.get_tail_knowledge())
self.conscious_block.set_inputs(conscious_inputs)
conscious_output_index = self.conscious_block.get_decision()
self.conscious_output = self.unconscious_output[conscious_output_index]
return self.conscious_output
class MultiProcessorEvaluator(Evaluator):
def __init__(self, evaluator, mp_num_cpus):
"""A multiprocessing evaluator
Args:
evaluator(function): Evaluation function.
mp_num_cpus(int): Number of CPUs
"""
self.pool = Pool(mp_num_cpus)
self.evaluator = evaluator
self.__name__ = self.__class__.__name__
def evaluate(self, candidates, args):
"""
Values in args will be ignored and not passed to the evaluator to avoid unnecessary pickling in inspyred.
"""
results = self.pool.map(self.evaluator, candidates)
return results
def __call__(self, candidates, args):
return self.evaluate(candidates, args)
def run(self):
outputProject=self.args['render']['project']
outputOwner = self.args['render']['owner']
statetablefile = self.args['statetableFile']
rootdir = self.args['projectDirectory']
df = pd.read_csv(statetablefile)
ribbons = df.groupby('ribbon')
k=0
pool = Pool(self.args['pool_size'])
for ribnum,ribbon in ribbons:
mydf = ribbon.groupby('ch_name')
for channum,chan in mydf:
outputStack = self.args['outputStackPrefix'] + '_%s'%(channum)
self.logger.info("creating tilespecs and cmds....")
tilespecpaths,mipmap_args = make_tilespec_from_statetable(chan,rootdir,outputProject,outputOwner,outputStack,0,65000)
self.logger.info("importing tilespecs into render....")
self.logger.info("creating downsampled images ...")
results=pool.map(create_mipmap_from_tuple,mipmap_args)
#groups = [(subprocess.Popen(cmd,\
# stdout=subprocess.PIPE) for cmd in cmds)] \
# * self.args['pool_size'] # itertools' grouper recipe
#for processes in izip_longest(*groups): # run len(processes) == limit at a time
# for p in filter(None, processes):
# p.wait()
self.logger.info("uploading to render ...")
if k==0:
#renderapi.stack.delete_stack(outputStack,owner=outputOwner,
#project=outputProject,render=self.render)
renderapi.stack.create_stack(outputStack,owner=outputOwner, cycleNumber=1, cycleStepNumber=1,
project=outputProject,verbose=False,render=self.render)
print k
self.logger.info(tilespecpaths)
renderapi.client.import_jsonfiles_parallel(outputStack,tilespecpaths,render=self.render)
k+=1
def __call__(self, with_mp=False):
cm = self.scatm.cmodel
scat = self.scatm.smodel
cgeo = np.pi * np.power( self.dist.a * c.micron2cm(), 2 )
# Test for graphite case
if cm.cmtype == 'Graphite':
if np.size(self.dist.a) > 1:
for i in range( np.size(self.dist.a) ):
self.qsca_pe[:,i] = scat.Qsca( self.E, a=self.dist.a[i], cm=cmi.CmGraphite(size=cm.size, orient='perp') )
self.qsca_pa[:,i] = scat.Qsca( self.E, a=self.dist.a[i], cm=cmi.CmGraphite(size=cm.size, orient='para') )
else:
self.qsca_pe = scat.Qsca( self.E, a=self.dist.a, cm=cmi.CmGraphite(size=cm.size, orient='perp') )
self.qsca_pa = scat.Qsca( self.E, a=self.dist.a, cm=cmi.CmGraphite(size=cm.size, orient='para') )
self.qsca = ( self.qsca_pa + 2.0 * self.qsca_pe ) / 3.0
else:
if np.size(self.dist.a) > 1:
if with_mp:
pool = Pool(processes=2)
self.qsca = np.array(pool.map(self._one_scatter,self.dist.a)).T
else:
for i in range( np.size(self.dist.a) ):
self.qsca[:,i] = self._one_scatter(self.dist.a[i])
else:
self.qsca = scat.Qsca( self.E, a=self.dist.a, cm=cm )
if np.size(self.dist.a) == 1:
kappa = self.dist.nd * self.qsca * cgeo / self.dist.md
else:
kappa = np.array([])
for j in range( np.size(self.E) ):
kappa = np.append( kappa, \
c.intz( self.dist.a, self.dist.nd * self.qsca[j,:] * cgeo ) / self.dist.md )
self.kappa = kappa
def evaluation(self, batches, programs):
def loss_fn(pred, target_idx):
return -torch.log(torch.nn.functional.softmax(pred)[target_idx])
def train_validate(program, loss_fn, batches):
ind = tush.Tush(program)
ind.stage_two(batches['train'], loss_fn)
results = ind.stage_three(validation_batch=batches['validation'],
loss_fn=loss_fn)
return results
for prog in programs:
logging.debug(prog)
a = lambda x: train_validate(x, loss_fn, batches)['accuracy']
if self.parallel == 'True':
p = Pool(len(programs))
accuracy = p.map(a, programs)
else:
accuracy = map(a, programs)
return accuracy
def calculate_centroids(self, p=None):
"""
Perform integration to find centroid at all turns up to N. Multiprocessing pool used to calculate independent
turn values.
Will automatically use `integrate_first_order` or `integrate_second_order` if appropriate.
Args:
p: Specify number of processes for pool. If not given then `cpu_count` is used.
Returns:
array of floats
"""
if p:
pool_size = p
else:
pool_size = cpu_count()
pool = Pool(pool_size)
# attempt to speed things up by spreading out difficult integration values at the end of range
# appeared to not work
# x = []
# for i in range(cpu_count()):
# x += range(N)[i::4]
if len(self.mu) == 1:
integration_function = self.integrate_first_order
elif len(self.mu) == 2:
integration_function = self.integrate_second_order
else:
integration_function = self.integrate_any_order
x = range(self.N)
results = pool.map(integration_function, x)
pool.close()
return results
from collections import Counter
import glob
type = ['night','day','*']
for t in type:
f = glob.glob('lhsgroup/*_gps.'+t)
lf = len(f)
print 'nfiles',lf
def readme(x):
return ['-'.join(set(i.strip().split('-'))) for i in tuple(open(x))]
batch = pool.map(readme,f)
l = []
for i in batch:
l.extend(i)
print len(l)
print 'save collections'
with open('lhs_'+t+'.txt','w') as f:
items = Counter(l).items()
items = sorted(items,key=lambda x:x[1],reverse=True)
# pool = Pool(NUM_WORKERS)
# args = [1 for i in range(NUM_SURR)]
# results = pool.map(_corrs_surrs, args)
# pool.close()
# pool.join()
# with open("NCEP-SAT-annual-phase-fluc-%dFTsurrs.bin" % NUM_SURR, "wb") as f:
# cPickle.dump({'data': index_correlations, 'surrs' : results}, f, protocol = cPickle.HIGHEST_PROTOCOL)
def _corrs_surrs_ind(args):
index_surr = DataField()
index_surr.data = get_single_FT_surrogate(index_data.data)
index_correlations_surrs = get_corrs(net, index_surr)
return index_correlations_surrs
pool = Pool(NUM_WORKERS)
args = [1 for i in range(NUM_SURR)]
results = pool.map(_corrs_surrs_ind, args)
pool.close()
pool.join()
with open("ECAD-SAT-annual-phase-fluc-%dFTsurrs-from-indices.bin" % NUM_SURR, "wb") as f:
cPickle.dump({'data': index_correlations, 'surrs' : results}, f, protocol = cPickle.HIGHEST_PROTOCOL)
def multiPESIS(ojf,lb,ub,ki,b,fnames):
def f(fn):
return PESIS(ojf,lb,ub,ki,b,fn)
p = Pool(nproc)
return p.map(f,fnames)
add_me = adder(5) pinner = pickle.dumps(add_me) p_add_me = pickle.loads(pinner) assert add_me(10) == p_add_me(10) # pickle fails for lambda functions squ = lambda x:x**2 # test the pickle-ability of inner function psqu = pickle.dumps(squ) p_squ = pickle.loads(psqu) assert squ(10) == p_squ(10) # if pickle works, then multiprocessing should too print "Evaluate 10 items on 2 proc:" pool.ncpus = 2 p_res = pool.map(add_me, range(10)) print pool print '%s' % p_res print '' # if pickle works, then multiprocessing should too print "Evaluate 10 items on 4 proc:" pool.ncpus = 4 p2res = pool.map(squ, range(10)) print pool print '%s' % p2res print '' # end of file
to_do_periods = np.arange(2,15.5,0.5)
net = ScaleSpecificNetwork('/Users/nikola/work-ui/data/NCEP/air.mon.mean.levels.nc',
'air', date(1950,1,1), date(2014,1,1), None, None,
level = 0, dataset="NCEP", sampling='monthly', anom=False)
synchronization = {}
for period in to_do_periods:
print("running for %.1f period..." % (period))
_, nao_ph, sg_nao, a_nao = load_NAOindex_wavelet_phase(date(1950,1,1), date(2014,1,1), period, anom=False)
_, nino_ph, sg_nino, a_nino = load_nino34_wavelet_phase(date(1950,1,1), date(2014,1,1), period, anom=False)
_, sunspots_ph, sg_sunspots, a_sunspots = load_sunspot_number_phase(date(1950,1,1), date(2014,1,1), period, anom=False)
_, pdo_ph, sg_pdo, a_pdo = load_pdo_phase(date(1950,1,1), date(2014,1,1), period, anom=False)
pool = Pool(WORKERS)
net.wavelet(period, period_unit='y', cut=2, pool=pool)
args = [(net.phase[:, i, j], i, j, nao_ph, nino_ph, sunspots_ph, pdo_ph) for i in range(net.lats.shape[0]) for j in range(net.lons.shape[0])]
result = pool.map(_compute_MI_synch, args)
synchs = np.zeros((4, net.lats.shape[0], net.lons.shape[0]))
synchs_surrs = np.zeros((NUM_SURRS, 4, net.lats.shape[0], net.lons.shape[0]))
for i, j, naos, ninos, suns, pdos in result:
synchs[0, i, j] = naos
synchs[1, i, j] = ninos
synchs[2, i, j] = suns
synchs[3, i, j] = pdos
for surr in range(NUM_SURRS):
sg_nao.construct_fourier_surrogates(algorithm='FT')
sg_nao.add_seasonality(a_nao[0], a_nao[1], a_nao[2])
sg_nao.wavelet(period, period_unit="y", cut=2)
sg_nino.construct_fourier_surrogates(algorithm='FT')
sg_nino.add_seasonality(a_nino[0], a_nino[1], a_nino[2])
sg_nino.wavelet(period, period_unit="y", cut=2)
sg_sunspots.construct_fourier_surrogates(algorithm='FT')
def multiPESVS(ojf,lb,ub,ki,s,b,cfn,lsl,lsu,fnames):
def f(fn):
return PESVS(ojf,lb,ub,ki,s,b,cfn,lsl,lsu,fn)
p = Pool(nproc)
return p.map(f,fnames)