def __init__(self, args):
win32serviceutil.ServiceFramework.__init__(self, args)
# Give the multiprocessing module a python interpreter to run
if sys.argv[0].endswith("exe"):
basedir = os.path.dirname(sys.argv[0])
multiprocessing.set_executable(os.path.join(basedir, "ulteo-ovd-slaveserver.exe"))
# Init the logger instance
Win32Logger.initialize("OVD", Config.log_level, None)
ConfigModule.report_error = WinReport_error
config_file = os.path.join(Platform.System.get_default_config_dir(), "slaveserver.conf")
if not Config.read(config_file):
Logger.error("invalid configuration file '%s'"%(config_file))
sys.exit(1)
if not Config.is_valid():
Logger.error("invalid config")
sys.exit(1)
Win32Logger.initialize("OVD", Config.log_level, Config.log_file)
SlaveServer.__init__(self, Communication)
self.hWaitStop = win32event.CreateEvent(None, 0, 0, None)
def __encode_multithreaded(f, data):
"""The base function that runs the given function f in multithreaded
fashion.
:param f: The function
:param data: The data
:return:
"""
import multiprocessing
import platform
number_of_threads = multiprocessing.cpu_count() / 2
if platform.system() == 'Windows':
multiprocessing.set_executable('C:/Python27/pythonw.exe')
elif platform.system() == 'Linux':
multiprocessing.set_executable('/usr/bin/python')
p = multiprocessing.Pool(number_of_threads)
number_of_chunks = len(data) // 4
chunk_per_thread = number_of_chunks / number_of_threads
split_per_char = chunk_per_thread * 4
thread_data = []
for i in range(0, len(data), split_per_char):
thread_data.append(data[i:i + split_per_char])
data = ''.join(p.map(f, thread_data))
p.close()
return data
def create_raster_providers(self, dem, texture):
dataSrcImg = None
dataSrcMnt = None
extent = self.parameters.extent
originExtent = Extent(extent[0], extent[1], extent[2], extent[3])
tileSize = self.parameters.tileSize
zoomLevel = self.parameters.zoomLevel
path = self.parameters.rastersPath
if dem is not None:
demProvider = RasterProvider(dem)
dataSrcMnt = demProvider.source
self.parameters.set_resources_dem(demProvider.httpResource)
self.providerManager.dem = demProvider
if texture is not None:
textureProvider = RasterProvider(texture)
dataSrcImg = textureProvider.source
self.parameters.set_resources_texture(textureProvider.httpResource)
self.providerManager.texture = textureProvider
if os.name == 'nt':
pythonPath = os.path.abspath(os.path.join(sys.exec_prefix, '../../bin/pythonw.exe'))
mp.set_executable(pythonPath)
sys.argv = [None]
self.clear_rasters_directory(self.parameters.rastersPath)
tiler = VTTiler(originExtent, tileSize, zoomLevel, dataSrcMnt, dataSrcImg)
self.parameters.GDALprocess = mp.Process(target=tiler.create, args=(path, self.parameters.GDALqueue))
self.parameters.GDALprocess.start()
def __init__(self, args):
win32serviceutil.ServiceFramework.__init__(self, args)
# Give the multiprocessing module a python interpreter to run
if sys.argv[0].endswith("exe"):
basedir = os.path.dirname(sys.argv[0])
multiprocessing.set_executable(os.path.join(basedir, "ulteo-ovd-slaveserver.exe"))
# Init the logger instance
Win32Logger.initialize("OVD", Config.log_level, None)
ConfigModule.report_error = WinReport_error
self.hWaitStop = win32event.CreateEvent(None, 0, 0, None)
def _Construct(self):
logger.debug('_Construct')
# Fixme this is just an example and should be set by the BCI2000
self.fbmod = 'Feedbacks.TrivialPong.TrivialPong'
self.fbclassname = 'TrivialPong'
# OnInit
import sys
import os
# needed because we run processes from within an embedded python
# interpreter
multiprocessing.set_executable(os.path.join(sys.exec_prefix, 'pythonw.exe'))
sys.argv = [""]
self.mycon, childcon = multiprocessing.Pipe()
self.feedback_proc = multiprocessing.Process(target=feedback_process_loop, args=(self.fbmod, self.fbclassname, childcon,))
self.feedback_proc.start()
# returns variables of the feedback in form of parameter lines
return [], []
def main_execute(floodmap_directory, working_directory, out_shapefile):
if arcpy.CheckExtension("Spatial") == "Available":
arcpy.AddMessage("Checking out spatial license ...")
arcpy.CheckOutExtension("Spatial")
else:
arcpy.ExecuteError("ERROR: The Spatial Analyst license is required to run this tool.")
multiprocessing.set_executable(os.path.join(sys.exec_prefix, 'pythonw.exe'))
# Overwrite pre-existing files
arcpy.env.overwriteOutput = True
arcpy.env.workspace = floodmap_directory
flood_rasters = arcpy.ListRasters()
number_of_rasters = len(flood_rasters)
mp_spatial_lock = multiprocessing.Manager().Lock()
job_combinations = []
out_shapefile_list = []
for index, flood_raster in enumerate(flood_rasters):
job_combinations.append((os.path.join(floodmap_directory, flood_raster), index, number_of_rasters, working_directory, mp_spatial_lock))
#out_shapefile_list.append(floodmap_to_shapefile((flood_raster, index, number_of_rasters, working_directory)))
arcpy.env.workspace = ""
NUM_CPUS = min(number_of_rasters, multiprocessing.cpu_count())
pool = multiprocessing.Pool(NUM_CPUS)
for output in pool.imap_unordered(floodmap_to_shapefile, job_combinations):
out_shapefile_list.append(output)
pool.close()
pool.join()
#CLEANUP
arcpy.Delete_management("in_memory")
#Merge Shapefiles
arcpy.AddMessage("Merging all flood map shapefiles ...")
arcpy.Merge_management(out_shapefile_list, out_shapefile)
#CLEANUP
for shapfile in out_shapefile_list:
arcpy.Delete_management(shapfile)
import os
import sys
import time
import win32serviceutil
import win32service
import multiprocessing
def is_frozen():
return (hasattr(sys, "frozen") # new py2exe
or hasattr(sys, "importers") # old py2exe
or imp.is_frozen("__main__")) # tools/freeze
if is_frozen():
multiprocessing.set_executable(os.path.join(
os.path.dirname(sys.executable), 'porcupineserver.exe'))
class PorcupineServerService(win32serviceutil.ServiceFramework):
_svc_name_ = 'Porcupine'
_svc_display_name_ = 'Porcupine'
_svc_description = 'Porcupine Web Application Server'
def __init__(self, *args):
win32serviceutil.ServiceFramework.__init__(self, *args)
self.controller = None
def SvcDoRun(self):
try:
if '' not in sys.path:
sys.path.insert(0, '')
def draw(op,inp,usr_selection):
# separate process so that excel is not blocked
multiprocessing.set_executable(os.path.join(sys.exec_prefix, 'pythonw.exe'))
p = multiprocessing.Process(target=f, args=(op,inp,usr_selection))
p.start()
"""Handle a list of `CartogramFeature`."""
import functools
import math
import multiprocessing
import os.path
import platform
import sys
from qgis.core import QgsGeometry, QgsProcessingFeedback
from .cartogramfeature import CartogramFeature
if platform.system() == "Windows":
sys.argv = [os.path.abspath(__file__)]
multiprocessing.set_executable(os.path.join(sys.exec_prefix,
"pythonw.exe"))
elif platform.system() == "Darwin":
sys.argv = [os.path.abspath(__file__)]
multiprocessing.set_executable(
os.path.join(sys.exec_prefix, "bin", "python3"))
# monkey-patch functools for older Python versions
# (e.g. installed with QGIS 3.16 on MacOS)
if "cache" not in dir(functools):
def _cache(user_function):
return functools.lru_cache(maxsize=None)(user_function)
functools.cache = _cache
def integrate(ftable, integratorid="std", msLevel=None, showProgress=True, n_cpus=-1,
min_size_for_parallel_execution=500, post_fixes=None):
""" integrates features in ftable.
returns processed table. ``ftable`` is not changed inplace.
The peak integrator corresponding to the integratorId is
defined in ``algorithm_configs.py`` or ``local_configs.py``
n_cpus <= 0 has special meaning:
n_cpus = 0 means "use all cpu cores"
n_cpus = -1 means "use all but one cpu cores", etc
"""
needed_columns = ["mzmin", "mzmax", "rtmin", "rtmax", "peakmap"]
if post_fixes is None:
post_fixes = ftable.supportedPostfixes(needed_columns)
if not post_fixes:
raise Exception("is no feature table")
else:
col_names = ftable.getColNames()
missing = []
for post_fix in post_fixes:
for name in needed_columns:
if name + post_fix not in col_names:
missing.append(name + post_fix)
if missing:
raise ValueError("column name(s) %s missing" % (", ".join(missing)))
if sys.platform == "win32":
# if subprocesses use python.exe a console window pops up for each
# subprocess. this is quite ugly..
import os.path
multiprocessing.set_executable(os.path.join(
os.path.dirname(sys.executable),
"pythonw.exe")
)
import time
from ..core.data_types import Table
started = time.time()
messages, n_cpus = check_num_cpus(n_cpus, len(ftable), min_size_for_parallel_execution)
if showProgress:
print
if messages:
print "\n".join(messages)
print "integrate table using", n_cpus, "processes"
print
if n_cpus == 1:
__, result = _integrate((0, ftable, post_fixes, integratorid, msLevel, showProgress,))
else:
pool = multiprocessing.Pool(n_cpus)
args = []
all_pms = []
for i in range(n_cpus):
partial = ftable[i::n_cpus]
show_progress = (i == 0) # only first process prints progress status
args.append(
(i, partial, post_fixes, integratorid, msLevel, show_progress))
all_pms.append(partial.peakmap.values)
# map_async() avoids bug of map() when trying to stop jobs using ^C
results = pool.map_async(_integrate, args).get()
results.sort() # sorts by first entry which is the index of the partial table
tables = [t for (i, t) in results]
# as peakmaps are serialized/unserialized for paralell execution, lots of duplicate
# peakmaps come back after. we reset those columns to their state before spreading
# them:
for t, pms in zip(tables, all_pms):
t.replaceColumn("peakmap", pms, type_=ftable.getColType("peakmap"),
format_=ftable.getColFormat("peakmap"))
# at least needed on win, else worker processes accumulate:
pool.close()
tables = [t for t in tables if len(t) > 0]
result = Table.stackTables(tables)
if showProgress:
needed = time.time() - started
minutes = int(needed) / 60
seconds = needed - minutes * 60
print
if minutes:
print "needed %d minutes and %.1f seconds" % (minutes, seconds)
else:
print "needed %.1f seconds" % seconds
return result
def integrate(ftable, integratorid="std", msLevel=None, showProgress=True, n_cpus=-1,
min_size_for_parallel_execution=500):
""" integrates features in ftable.
returns processed table. ``ftable`` is not changed inplace.
The peak integrator corresponding to the integratorId is
defined in ``algorithm_configs.py`` or ``local_configs.py``
n_cpus <= 0 has special meaning:
n_cpus = 0 means "use all cpu cores"
n_cpus = -1 means "use all but one cpu cores", etc
"""
import sys
import multiprocessing
if sys.platform == "win32":
# if subprocesses use python.exe a console window pops up for each
# subprocess. this is quite ugly..
import os.path
multiprocessing.set_executable(os.path.join(
os.path.dirname(sys.executable),
"pythonw.exe")
)
import time
from ..core.data_types.table import Table
started = time.time()
messages = []
if multiprocessing.current_process().daemon and n_cpus != 1:
messages.append("WARNING: you choose n_cpus = %d but integrate already runs inside a "
"daemon process which is not allowed. therefore set n_cpus = 1" % n_cpus)
n_cpus = 1
if n_cpus < 0:
n_cpus = multiprocessing.cpu_count() + n_cpus
if n_cpus <= 0:
messages.append("WARNING: you requested to use %d cores, "
"we use single core instead !" % n_cpus)
n_cpus = 1
if n_cpus > 1 and len(ftable) < min_size_for_parallel_execution:
messages.append("INFO: as the table has les thann %d rows, we switch to one cpu mode"
% min_size_for_parallel_execution)
n_cpus = 1
elif n_cpus > multiprocessing.cpu_count():
messages.append("WARNING: more processes demanded than available cpu cores, this might be "
"inefficient")
if showProgress:
print
if messages:
print "\n".join(messages)
print "integrate table using", n_cpus, "processes"
print
if n_cpus == 1:
result = _integrate((ftable, integratorid, msLevel, showProgress))
else:
pool = multiprocessing.Pool(n_cpus)
args = []
all_pms = []
for i in range(n_cpus):
subt = ftable[i::n_cpus]
show_progress = (i == 0) # only first process prints progress status
args.append((subt, integratorid, msLevel, show_progress))
all_pms.append(subt.peakmap.values)
# map_async() avoids bug of map() when trying to stop jobs using ^C
tables = pool.map_async(_integrate, args).get()
# as peakmaps are serialized/unserialized for paralell execution, lots of duplicate
# peakmaps come back after. we reset those columns to their state before spreading
# them:
for t, pms in zip(tables, all_pms):
t.replaceColumn("peakmap", pms)
pool.close()
tables = [t for t in tables if len(t) > 0]
result = Table.mergeTables(tables)
if showProgress:
needed = time.time() - started
minutes = int(needed) / 60
seconds = needed - minutes * 60
print
if minutes:
print "needed %d minutes and %.1f seconds" % (minutes, seconds)
else:
print "needed %.1f seconds" % seconds
return result
def _main():
import multiprocessing as _mp
import threading
import time
import bpy
_mp.set_executable(bpy.app.binary_path_python)
# import logging
# logger = _mp.log_to_stderr()
# logger.setLevel(logging.INFO)
global _engine_, _data_, _width_, _height_, _mmap_size_, _mmap_
_mmap_name = "blender/barnold/ipr/pid-%d" % id(_engine_)
if platform.system() == "Darwin" or "Linux":
_mmap_ = mmap.mmap(-1, 64 * 1024 * 1024) # 64Mb
if platform.system() == "Windows":
_mmap_ = mmap.mmap(-1, 64 * 1024 * 1024, _mmap_name) # 64Mb
state = _mp.Value('i', 0)
redraw_event = _mp.Event()
def tag_redraw():
while redraw_event.wait() and state.value != ABORT:
redraw_event.clear()
e = _engine_()
if e is not None:
e.tag_redraw()
del e
def _mmap_size(opts):
global _mmap_
m = max(_width_, _height_)
if m > 300:
c = 900 / (m + 600)
w = int(_width_ * c)
h = int(_height_ * c)
else:
w = _width_
h = _height_
if platform.system() == "Darwin" or "Linux":
_mmap_ = mmap.mmap(-1, w * h * 4 * 4)
if platform.system() == "Windows":
_mmap_ = mmap.mmap(-1, w * h * 4 * 4, _mmap_name)
opts['xres'] = ('INT', w)
opts['yres'] = ('INT', h)
return w, h
_mmap_size_ = _mmap_size(_data_['options'])
pout, pin = _mp.Pipe(False)
def update(width, height, data):
global _width_, _height_, _mmap_size_
if _width_ != width or _height_ != height:
_width_ = width
_height_ = height
_mmap_size_ = _mmap_size(data.setdefault('options', {}))
data['mmap_size'] = _mmap_size_
if data:
#print(">>> update [%f]" % time.clock())
pin.send(data)
return _mmap_size_, numpy.frombuffer(_mmap_, dtype=numpy.float32)
redraw_thread = threading.Thread(target=tag_redraw)
process = _mp.Process(target=_worker,
args=(_data_, pout, redraw_event, _mmap_size_,
_mmap_name, state))
def stop():
print(">>> stop [%f]: ABORT" % time.clock())
state.value = ABORT
print(">>> stop [%f]: close data" % time.clock())
pin.send(None)
pin.close()
print(">>> stop [%f]: set event" % time.clock())
redraw_event.set()
print(">>> stop [%f]: join" % time.clock(), redraw_thread)
redraw_thread.join()
print(">>> stop [%f]:" % time.clock(), redraw_thread)
print(">>> stop [%f]: join" % time.clock(), process)
process.join(5)
if process.is_alive():
print(">>> stop [%f]: terminate" % time.clock(), process)
process.terminate()
print(">>> stop [%f]:" % time.clock(), process)
redraw_thread.start()
process.start()
return update, stop
import os
import sys
import time
import win32serviceutil
import win32service
import win32event
import win32evtlogutil
import win32console
import servicemanager
# Give the multiprocessing module a python interpreter to run
import multiprocessing
executable = os.path.join(os.path.dirname(sys.executable), 'u2.exe')
multiprocessing.set_executable(executable)
del executable
BASE_PROCESS_WAIT_TIME = 3
class logger(object):
def __init__(self,out):
self.out = out
def write(self,message):
if 'Traceback' in message:
self.out('\n' + message)
class ServiceLauncher(win32serviceutil.ServiceFramework):
_svc_name_ = 'U2 Service'
_svc_display_name_ ='U2 Service'
def __init__(self, args):
win32serviceutil.ServiceFramework.__init__(self, args)
def mp_handler():
for item in clipList:
print("here is the list: " + item)
try:
# Create a list of object IDs for clipper polygons
arcpy.AddMessage("Creating Polygon OID list...")
print("Creating Polygon OID list...")
clipperDescObj = arcpy.Describe(clipper)
field = clipperDescObj.OIDFieldName
idList = []
with arcpy.da.SearchCursor(clipper, [field]) as cursor:
for row in cursor:
id = row[0]
idList.append(id)
arcpy.AddMessage("There are " + str(len(idList)) +
" object IDs (polygons) to process.")
print("There are " + str(len(idList)) +
" object IDs (polygons) to process.")
# Create a task list with parameter tuples for each call of the worker function. Tuples consist of the clippper, tobeclipped, field, and oid values.
jobs = []
for item in clipList:
tobeclipped = Path + "\\" + item
for id in idList:
jobs.append(
(clipper, tobeclipped, field, id, outFolder)
) # adds tuples of the parameters that need to be given to the worker function to the jobs list
arcpy.AddMessage("Job list has " + str(len(jobs)) + " elements.")
print("Job list has " + str(len(jobs)) + " elements.")
# Create and run multiprocessing pool.
multiprocessing.set_executable(
os.path.join(get_install_path(), 'pythonw.exe')
) # make sure Python environment is used for running processes, even when this is run as a script tool
arcpy.AddMessage("Sending to pool")
print("Sending to pool")
cpuNum = multiprocessing.cpu_count(
) # determine number of cores to use
print("there are: " + str(cpuNum) + " cpu cores on this machine")
with multiprocessing.Pool(
processes=cpuNum) as pool: # Create the pool object
res = pool.starmap(
worker, jobs
) # run jobs in job list; res is a list with return values of the worker function
# If an error has occurred report it
failed = res.count(
False
) # count how many times False appears in the list with the return values
if failed > 0:
arcpy.AddError("{} workers failed!".format(failed))
print("{} workers failed!".format(failed))
arcpy.AddMessage("Finished multiprocessing!")
except arcpy.ExecuteError:
# Geoprocessor threw an error
arcpy.AddError(arcpy.GetMessages(2))
print("Execute Error:", arcpy.ExecuteError)
except Exception as e:
# Capture all other errors
arcpy.AddError(str(e))
print("Exception:", e)
# Get list of shapefiles in the output folder
list_layers = glob.glob(outFolder + "\\" + "*.shp")
# Call the function to add clipped shapefiles to open project
add_layers(outFolder, list_layers)
# Print out total processing time
arcpy.AddMessage("--- %s seconds ---" % (time.time() - start_time))
from PyQt5.QtWidgets import QApplication
QApplication.addLibraryPath(str(os.path.dirname(os.path.abspath( __file__ ))) + "/qt_plugins/")
elif system().startswith("Windows"):
ib = (hasattr(sys, "frozen") or # new py2exe
hasattr(sys, "importers") # old py2exe
or imp.is_frozen("__main__")) # tools/freeze
from PyQt5.QtWidgets import QApplication
if ib:
QApplication.addLibraryPath(str(os.path.dirname(os.path.abspath( __file__ ))) + "\\qt_plugins\\")
else:
QApplication.addLibraryPath("c:\\Python34\\Lib\\site-packages\\PyQt5\\plugins")
import numpy
from multiprocessing import freeze_support
if system() == "Windows" and (hasattr(sys, "frozen") # new py2exe
or hasattr(sys, "importers") # old py2exe
or imp.is_frozen("__main__")): # tools/freeze
from multiprocessing import set_executable
executable = os.path.join(os.path.dirname(sys.executable), 'artisan.exe')
set_executable(executable)
del executable
if __name__ == '__main__':
freeze_support()
with numpy.errstate(invalid='ignore'):
main.app.exec_()
def integrate(ftable,
integratorid="std",
msLevel=None,
showProgress=True,
n_cpus=-1,
min_size_for_parallel_execution=500):
""" integrates features in ftable.
returns processed table. ``ftable`` is not changed inplace.
The peak integrator corresponding to the integratorId is
defined in ``algorithm_configs.py`` or ``local_configs.py``
n_cpus <= 0 has special meaning:
n_cpus = 0 means "use all cpu cores"
n_cpus = -1 means "use all but one cpu cores", etc
"""
from ..core.data_types.table import Table, PeakMap
assert isinstance(ftable, Table)
neededColumns = ["mzmin", "mzmax", "rtmin", "rtmax", "peakmap"]
supportedPostfixes = ftable.supportedPostfixes(neededColumns)
if not supportedPostfixes:
raise Exception("is no feature table")
import sys
import multiprocessing
if sys.platform == "win32":
# if subprocesses use python.exe a console window pops up for each
# subprocess. this is quite ugly..
import os.path
multiprocessing.set_executable(
os.path.join(os.path.dirname(sys.executable), "pythonw.exe"))
import time
started = time.time()
messages = []
if multiprocessing.current_process().daemon and n_cpus != 1:
messages.append(
"WARNING: you choose n_cpus = %d but integrate already runs inside a "
"daemon process which is not allowed. therefore set n_cpus = 1" %
n_cpus)
n_cpus = 1
if n_cpus < 0:
n_cpus = multiprocessing.cpu_count() + n_cpus
if n_cpus <= 0:
messages.append("WARNING: you requested to use %d cores, "
"we use single core instead !" % n_cpus)
n_cpus = 1
if n_cpus > 1 and len(ftable) < min_size_for_parallel_execution:
messages.append(
"INFO: as the table has les thann %d rows, we switch to one cpu mode"
% min_size_for_parallel_execution)
n_cpus = 1
elif n_cpus > multiprocessing.cpu_count():
messages.append(
"WARNING: more processes demanded than available cpu cores, this might be "
"inefficient")
if showProgress:
print
if messages:
print "\n".join(messages)
print "integrate table using", n_cpus, "processes"
print
if n_cpus == 1:
result = _integrate((
ftable,
supportedPostfixes,
integratorid,
msLevel,
showProgress,
))
else:
pool = multiprocessing.Pool(n_cpus)
args = []
all_pms = []
for i in range(n_cpus):
subt = ftable[i::n_cpus]
show_progress = (i == 0
) # only first process prints progress status
args.append((subt, supportedPostfixes, integratorid, msLevel,
show_progress))
all_pms.append(subt.peakmap.values)
# map_async() avoids bug of map() when trying to stop jobs using ^C
tables = pool.map_async(_integrate, args).get()
# as peakmaps are serialized/unserialized for paralell execution, lots of duplicate
# peakmaps come back after. we reset those columns to their state before spreading
# them:
for t, pms in zip(tables, all_pms):
t.replaceColumn("peakmap",
pms,
type_=ftable.getColType("peakmap"),
format_=ftable.getColFormat("peakmap"))
# at least needed on win, else worker processes accumulate:
pool.close()
tables = [t for t in tables if len(t) > 0]
result = Table.stackTables(tables)
if showProgress:
needed = time.time() - started
minutes = int(needed) / 60
seconds = needed - minutes * 60
print
if minutes:
print "needed %d minutes and %.1f seconds" % (minutes, seconds)
else:
print "needed %.1f seconds" % seconds
return result
def action(self, action, **kwargs):
"""
Call the action method for each resource of the ResourceSet.
Handle parallel or serialized execution plans.
"""
tags = kwargs.get("tags", set())
xtags = kwargs.get("xtags", set())
xtypes = kwargs.get("xtypes")
types = kwargs.get("types")
if self.parallel:
# verify we can actually do parallel processing, fallback to serialized
try:
from multiprocessing import Process
if Env.sysname == "Windows":
from multiprocessing import set_executable
set_executable(os.path.join(sys.exec_prefix,
'pythonw.exe'))
except:
self.parallel = False
resources = self.action_resources(action, tags, xtags, xtypes, types)
barrier = None
if not self.svc.options.dry_run and \
self.parallel and len(resources) > 1 and \
action not in ["presync", "postsync"]:
procs = {}
for resource in resources:
if not resource.can_rollback and action == "rollback":
continue
if resource.skip or resource.is_disabled():
continue
proc = Process(target=self.action_job,
args=(
resource,
action,
))
proc.start()
resource.log.info("action %s started in child process %d" %
(action, proc.pid))
procs[resource.rid] = proc
if self.svc.options.upto and resource.rid == self.svc.options.upto:
barrier = "reached 'up to %s' barrier" % resource.rid
break
if self.svc.options.downto and resource.rid == self.svc.options.downto:
barrier = "reached 'down to %s' barrier" % resource.rid
break
for proc in procs.values():
proc.join()
err = []
for resource in resources:
if resource.rid not in procs:
continue
proc = procs[resource.rid]
if proc.exitcode == 1 and not resource.optional:
err.append(resource.rid)
elif proc.exitcode == 2:
# can_rollback resource property is lost with the thread
# the action_job tells us what to do with it through its exitcode
resource.can_rollback = True
if len(err) > 0:
raise ex.Error("%s non-optional resources jobs returned "
"with error" % ",".join(err))
else:
if self.svc.options.dry_run and \
self.parallel and len(resources) > 1 and \
action not in ["presync", "postsync"]:
self.log.info("entering parallel subset")
for resource in resources:
try:
resource.action(action)
except ex.AbortAction as exc:
msg = str(exc)
if msg != "":
resource.log.warning(msg)
resource.log.warning("abort action on resource set")
break
except ex.ContinueAction as exc:
msg = str(exc)
if msg != "":
resource.log.info(msg)
resource.log.info("continue action on resource set")
except ex.Error as exc:
msg = str(exc)
if msg != "":
resource.log.error(msg)
# prevent re-logging
exc.value = ""
raise exc
if self.svc.options.upto and resource.rid == self.svc.options.upto:
barrier = "reached 'up to %s' barrier" % resource.rid
break
if self.svc.options.downto and resource.rid == self.svc.options.downto:
barrier = "reached 'down to %s' barrier" % resource.rid
break
if barrier:
raise ex.EndAction(barrier)
import site
QApplication.addLibraryPath(
os.path.dirname(site.getsitepackages()[0]) +
"/PyQt4/qt_plugins")
except:
pass
from artisanlib import main
import numpy
from multiprocessing import freeze_support
if system() == "Windows" and (hasattr(sys, "frozen") # new py2exe
or hasattr(sys, "importers") # old py2exe
or imp.is_frozen("__main__")): # tools/freeze
from multiprocessing import set_executable
executable = os.path.join(os.path.dirname(sys.executable), 'artisan.exe')
set_executable(executable)
del executable
if __name__ == '__main__':
freeze_support()
if os.environ.get('TRAVIS'):
# Hack to exit inside Travis CI
# Ideally we would use pytest-qt.
import threading
t = threading.Timer(30, lambda: os._exit(0))
t.start()
main.main()
# EOF
import os
os.environ["OMP_NUM_THREADS"] = "1"
os.environ["MKL_NUM_THREADS"] = "1"
os.environ["OPENBLAS_NUM_THREADS"] = "1"
import sys
import multiprocessing
from libertem import api
import numpy as np
# Since the interpreter is embedded, we have to set the Python executable.
# Otherwise we'd spawn new instances of Digital Micrograph instead of workers.
multiprocessing.set_executable(os.path.join(sys.exec_prefix, 'pythonw.exe'))
if __name__ == "__main__":
with api.Context() as ctx:
ds = ctx.load(
"raw",
path=
("C:/Users/weber/Nextcloud/Projects/Open Pixelated STEM framework/"
"Data/EMPAD/scan_11_x256_y256.raw"),
dtype="float32",
scan_size=(256, 256),
detector_size_raw=(130, 128),
crop_detector_to=(128, 128),
)
DM.DoEvents()
sum_analysis = ctx.create_sum_analysis(dataset=ds)
import arcpy
import os
import sys
import json
import re
import orientedimagerytools as oitools
from numpy.linalg import inv
import numpy as np
from datetime import datetime
import multiprocessing
import concurrent.futures
from concurrent.futures import ProcessPoolExecutor
import math
multiprocessing.set_executable(
os.path.join(os.path.dirname(sys.executable),
r"Python\envs\arcgispro-py3\pythonw.exe"))
def __init__(self, nametype):
self._name = nametype
def main(oicPath, oicParas, inputParams, defValues, log=None):
try:
outPathSRS = arcpy.Describe(oicPath).spatialReference
rasterPath = oicParas['RasterPath']
cameraFile = oicParas['Drone2Map Camera File']
imageDetailsFile = oicParas['Drone2Map Image List']
imageryType = oicParas['Imagery Type']
inputwkid = oicParas['Input Images SRS (WKID)']
def main(input_network, travel_mode, cutoff, time_of_day,
selected_impedance_function, origins_i_input, i_id_field,
search_tolerance_i, search_criteria_i, search_query_i,
destinations_j_input, j_id_field, o_j_field, search_tolerance_j,
search_criteria_j, search_query_j, batch_size_factor, output_dir,
output_gdb, del_i_eq_j, join_back_i):
# --- check opportunities_j field type compatibility ---
o_j_field_type = field_type_x(destinations_j_input, o_j_field)
if o_j_field_type == "TEXT":
raise Exception(str(o_j_field) + " field type is text")
# --- setup workspace ---
arcpy.env.workspace = workspace_setup(output_dir, output_gdb)
arcpy.env.scratchWorkspace = scratchWorkspace_setup(output_dir, output_gdb)
# --- setup batching ---
batch_size = batch_size_f(origins_i_input, batch_size_factor)
# --- pre-process origins ---
origins_i = preprocess_x(input_fc=origins_i_input,
input_type="origins_i",
id_field=i_id_field,
o_j_field=None,
input_network=input_network,
search_tolerance=search_tolerance_i,
search_criteria=search_criteria_i,
search_query=search_query_i,
travel_mode=travel_mode,
batch_size=batch_size)
#print(origins_i)
origins_i_dict = create_dict(origins_i,
key_field="i_id_text",
value_field="i_id")
# ----- destinations -----
destinations_j = preprocess_x(input_fc=destinations_j_input,
input_type="destinations_j",
id_field=j_id_field,
o_j_field=o_j_field,
input_network=input_network,
search_tolerance=search_tolerance_j,
search_criteria=search_criteria_j,
search_query=search_query_j,
travel_mode=travel_mode,
batch_size=None)
#print(destinations_j)
o_j_dict = create_dict(destinations_j,
key_field="j_id_text",
value_field="o_j")
# worker iterator
batch_list = list_unique(os.path.join(arcpy.env.workspace + "/origins_i"),
"batch_id")
jobs = []
# adds tuples of the parameters that need to be given to the worker function to the jobs list
for batch_id in batch_list:
jobs.append(
(batch_id, arcpy.env.scratchWorkspace, origins_i, destinations_j,
input_network, travel_mode, cutoff, time_of_day,
selected_impedance_function, o_j_dict, del_i_eq_j))
# multiprocessing
multiprocessing.set_executable(os.path.join(sys.exec_prefix,
'pythonw.exe'))
arcpy.AddMessage("Sending batch to multiprocessing pool...")
pool = multiprocessing.Pool(
processes=cpu_count(multiprocessing.cpu_count()))
result = pool.map(access_multi, jobs)
pool.close()
pool.join()
arcpy.AddMessage("Multiprocessing complete, merging results...")
access_output = arcpy.management.Merge(
result, arcpy.env.workspace + "/output_" + output_gdb)
# add back original i_id
turbo_joiner(target_fc=access_output,
target_id_field='OriginName',
join_fc=origins_i,
join_id_field='i_id_text',
join_value_field='i_id')
if join_back_i == "true":
# join accessibility output back to origins input
join_fields = [
"SUM_Ai_" + f_field for f_field in selected_impedance_function
]
join_fields.insert(0, "FREQUENCY")
arcpy.AddMessage("Joining accessibility output to origins_i...")
arcpy.management.JoinField(origins_i_input, i_id_field, access_output,
"i_id", join_fields)
# ----- clean up: this deletes the workers directory. comment-out if you want to keep -----
arcpy.management.Delete(arcpy.env.scratchWorkspace)
def _main():
import multiprocessing as _mp
import threading
import time
import bpy
_mp.set_executable(bpy.app.binary_path_python)
#import logging
#logger = _mp.log_to_stderr()
#logger.setLevel(logging.INFO)
global _engine_, _data_, _width_, _height_, _mmap_size_, _mmap_
_mmap_name = "blender/barnold/ipr/pid-%d" % id(_engine_)
_mmap_ = mmap.mmap(-1, 64 * 1024 * 1024, _mmap_name) # 64Mb
state = _mp.Value('i', 0)
redraw_event = _mp.Event()
def tag_redraw():
while redraw_event.wait() and state.value != ABORT:
redraw_event.clear()
e = _engine_()
if e is not None:
e.tag_redraw()
del e
def _mmap_size(opts):
global _mmap_
m = max(_width_, _height_)
if m > 300:
c = 900 / (m + 600)
w = int(_width_ * c)
h = int(_height_ * c)
else:
w = _width_
h = _height_
_mmap_ = mmap.mmap(-1, w * h * 4 * 4, _mmap_name)
opts['xres'] = ('INT', w)
opts['yres'] = ('INT', h)
return w, h
_mmap_size_ = _mmap_size(_data_['options'])
pout, pin = _mp.Pipe(False)
def update(width, height, data):
global _width_, _height_, _mmap_size_
if _width_ != width or _height_ != height:
_width_ = width
_height_ = height
_mmap_size_ = _mmap_size(data.setdefault('options', {}))
data['mmap_size'] = _mmap_size_
if data:
#print(">>> update [%f]" % time.clock())
pin.send(data)
return _mmap_size_, numpy.frombuffer(_mmap_, dtype=numpy.float32)
redraw_thread = threading.Thread(target=tag_redraw)
process = _mp.Process(target=_worker, args=(
_data_, pout, redraw_event, _mmap_size_, _mmap_name, state
))
def stop():
print(">>> stop [%f]: ABORT" % time.clock())
state.value = ABORT
print(">>> stop [%f]: close data" % time.clock())
pin.send(None)
pin.close()
print(">>> stop [%f]: set event" % time.clock())
redraw_event.set()
print(">>> stop [%f]: join" % time.clock(), redraw_thread)
redraw_thread.join()
print(">>> stop [%f]:" % time.clock(), redraw_thread)
print(">>> stop [%f]: join" % time.clock(), process)
process.join(5)
if process.is_alive():
print(">>> stop [%f]: terminate" % time.clock(), process)
process.terminate()
print(">>> stop [%f]:" % time.clock(), process)
redraw_thread.start()
process.start()
return update, stop
import os, sys, math, time, multiprocessing, json
from functools import partial
import numpy as np
from qgis.core import QgsVectorLayer
from qgis.PyQt.QtCore import QVariant
import processing
from qgis.core import *
from PyQt5.QtGui import QFont
from osgeo import ogr
t1 = time.time()
#Set recurrsion depth limit to avoid error at a later stage
sys.setrecursionlimit(10000)
path = os.path.abspath(os.path.join(sys.exec_prefix, '../../bin/pythonw.exe'))
multiprocessing.set_executable(path)
sys.argv = [ None ]
def getPythonPath():
path = os.__file__.split('\\')
path.pop()
path.pop()
path = '\\'.join(path)
return(path)
"""
The imported shapefile lines comes as tuple, whereas
the export requires list, this finction converts tuple
inside lines to list
"""
def tupleToList(line):
import multiprocessing as mp
import sys, os
from multiprocessing import Process
print("I'm in main module")
# OSGeo4W does not bundle python in exec_prefix for python
path = os.path.abspath(os.path.join(sys.exec_prefix, '../../bin/pythonw.exe'))
mp.set_executable(path)
print("Setting executable path to {:s}".format(path))
sys.argv = [ None ] # '../tst.py' __file__
mgr = mp.Manager()
print("I'm past Manager()")