def writeGroupAndDatasets(h5file):
grp = H5G.create(h5file, 'A')
dtype = H5T.copy(H5T_NATIVE_FLOAT)
shape = Array[Int64]((2, 6))
dspacev = H5S.create_simple(shape.Length, shape)
dsetv = H5D.create(h5file, 'B', dtype, dspacev)
H5T.close(dtype)
dtype = H5T.copy(H5T_STD_REF_OBJ)
shape = Array[Int64]((2, ))
dspacer = H5S.create_simple(shape.Length, shape)
dsetr = H5D.create(h5file, 'R', dtype, dspacer)
oref = Array.CreateInstance(ObjectReference, 2)
oref[0] = H5R.createObjectReference(h5file, 'A')
oref[1] = H5R.createObjectReference(h5file, 'B')
nBytes = ObjectReference.SizeInBytes
data = Array.CreateInstance(Byte, oref.Length * nBytes)
for i in range(oref.Length):
Array.Copy(oref[i].ToByteArray(), 0, data, i * nBytes, nBytes)
H5D.write(dsetr, dtype, H5Array[Byte](data))
H5T.close(dtype)
H5D.close(dsetv)
H5S.close(dspacev)
H5D.close(dsetr)
H5S.close(dspacer)
return None
def rhSingleSpanNurbsCurveToCurve(rhCurve):
#get control points
ptArray, weights, knots = [], [], []
rhControlPoints = rhCurve.Points
for rhPoint in rhControlPoints:
dsPoint = rhPointToPoint(rhPoint)
ptArray.append(dsPoint)
#get weights for each point
weights.append(rhPoint.Weight)
#convert Python list to IEnumerable[]
ptArray = List[Point](ptArray)
weights = Array[float](weights)
#get degree of the curve
degree = rhCurve.Degree
#get knots of the curve
rhKnots = rhCurve.Knots
for i in rhKnots:
knots.append(i)
knots.insert(0, knots[0])
knots.insert(len(knots), knots[(len(knots) - 1)])
knots = Array[float](knots)
#create ds curve from points, weights and knots
dsNurbsCurve = NurbsCurve.ByControlPointsWeightsKnots(
ptArray, weights, knots, degree)
ptArray.Clear()
Array.Clear(weights, 0, len(weights))
Array.Clear(knots, 0, len(knots))
return dsNurbsCurve
def rhMultiSpanNurbsCurveToCurve(rhCurve): dsNurbsCurve, rhSubCurve = [], [] spanCount = rhCurve.SpanCount for i in range(0, spanCount, 1): rhCurveSubdomain = rhCurve.SpanDomain(i) rhSubCurve.append(rhCurve.ToNurbsCurve(rhCurveSubdomain)) for curve in rhSubCurve: #get control points ptArray, weights, knots = [], [], [] rhControlPoints = curve.Points for rhPoint in rhControlPoints: dsPoint = rhPointToPoint(rhPoint) ptArray.append(dsPoint) #get weights for each point weights.append(rhPoint.Weight) #convert Python list to IEnumerable[] ptArray = List[Point](ptArray) weights = Array[float](weights) #get degree of the curve degree = curve.Degree #get knots of the curve rhKnots = curve.Knots for i in rhKnots: knots.append(i) knots.insert(0, knots[0]) knots.insert(len(knots), knots[(len(knots)-1)]) knots = Array[float](knots) #create ds curve from points, weights and knots dsNurbsCurve.append(NurbsCurve.ByControlPointsWeightsKnots(ptArray, weights, knots, degree)) ptArray.Clear() Array.Clear(weights, 0, len(weights)) Array.Clear(knots, 0, len(knots)) return dsNurbsCurve del dsNurbsCurve[:]
def encode_job(self, job):
random_bytes = Array.CreateInstance(Byte, 2)
Random().NextBytes(random_bytes)
data = Encoding.UTF8.GetBytes(JavaScriptSerializer().Serialize(job))
with MemoryStream(data.Length) as initialStream:
initialStream.Write(data, 0, data.Length)
initialStream.Seek(0, SeekOrigin.Begin)
with MemoryStream() as resultStream:
with GZipStream(resultStream,
CompressionMode.Compress) as zipStream:
buffer = Array.CreateInstance(Byte, 4096)
bytesRead = initialStream.Read(buffer, 0, buffer.Length)
zipStream.Write(buffer, 0, bytesRead)
while bytesRead != 0:
bytesRead = initialStream.Read(buffer, 0,
buffer.Length)
zipStream.Write(buffer, 0, bytesRead)
result = resultStream.ToArray()
result[:2] = random_bytes
return {
Convert.ToBase64String(Guid.NewGuid().ToByteArray()).Substring(
0, 8):
Convert.ToBase64String(Guid.NewGuid().ToByteArray()),
"data":
Convert.ToBase64String(result)
}
def __init__(self, line, restLength, stiffness):
self.PPos = Array[rc.Geometry.Point3d]((line.From, line.To))
self.Move = Array.CreateInstance(rc.Geometry.Vector3d, 2)
self.Weighting = Array.CreateInstance(Double, 2)
self.RestLength = restLength
self.Stiffness = stiffness
def send_waveform(self, waveform, channel):
'''
Sends a complete waveform. All parameters need to be specified.
Input:
waveform (float[numpoints]) : waveform
channel (int) : 1 to 4, the number of the designated channel
Output:
None
'''
logging.debug(__name__ + ' : Sending waveform to instrument')
wfs = Array.CreateInstance(WaveformStruct, 1)
data = Array.CreateInstance(Double, len(waveform))
ctr = 0
for d in waveform:
data.SetValue(float(d), ctr)
ctr = ctr + 1
# Done because Python assumes all variables are references
x = wfs.GetValue(0)
x.Sample = data
markerarr = Array.CreateInstance(Double, 1)
markerarr.SetValue(0, 0)
x.Marker = markerarr
wfs.SetValue(x, 0)
if (self._device != None):
oChannel = ARBChannel()
oChannel = self._device.GetChannel(channel - 1)
res = oChannel.LoadWaveforms(wfs)
if (res.ErrorSource != 0):
return False
seq = Array.CreateInstance(GenerationSequenceStruct, 1)
# Done because Python assumes all variables are references
x = seq.GetValue(0)
x.WaveformIndex = 0
x.Repetitions = 1
seq.SetValue(x, 0)
res = oChannel.LoadGenerationSequence(
seq, TransferMode.NonReEntrant,
True) # Hack to force true boolean type passing
if (res.ErrorSource != 0):
return False
return True
else:
logging.debug(__name__ + ' : Could not get channel %s' % channel)
print "Error getting channel!"
return False
def setupDfs0():
global shePath
global dfs
global dfsDataX
global dfsDataY
global nX
global nY
global nZ
import clr
global simStart
global simStart
now = MShePy.wm.currentTime()
clr.AddReference("DHI.Mike.Install, Version=1.0.0.0, Culture=neutral, PublicKeyToken=c513450b5d0bf0bf") # "fully qualified" name required!
from DHI.Mike.Install import MikeImport, MikeProducts
MikeImport.SetupLatest()
clr.AddReference("DHI.Generic.MikeZero.DFS")
clr.AddReference("DHI.Generic.MikeZero.EUM")
clr.AddReference("System")
import System
from System import Array
from DHI.Generic.MikeZero import eumUnit, eumItem, eumQuantity
from DHI.Generic.MikeZero.DFS import DfsFactory, DfsBuilder, DfsSimpleType, DataValueType
shePath = MShePy.wm.getSheFilePath()
sheDir = os.path.dirname(shePath)
filename = os.path.join(sheDir, 'BndFluxes.dfs2')
builder = DfsBuilder.Create(filename, "MSHE SZ boundary fluxes output per layer", 0)
builder.SetDataType(1)
factory = DfsFactory()
builder.SetGeographicalProjection(factory.CreateProjectionGeoOrigin("NON-UTM", 0, 0, 0))
simStart = now
nowSys = System.DateTime(now.year, now.month, now.day, now.hour, now.minute, now.second)
# note: time unit given here has to be used in WriteItemTimeStepNext
axis = factory.CreateTemporalNonEqCalendarAxis(eumUnit.eumUsec, nowSys)
builder.SetTemporalAxis(axis)
builder.DeleteValueFloat = -1e-30
(startTime, endTime, values) = MShePy.wm.getValues(MShePy.paramTypes.SZ_X_FLO) # just for the geometry
(nX, nY, nZ) = values.shape()
(x0, y0) = MShePy.wm.gridCellToCoord(0, 0)
(x1, y1) = MShePy.wm.gridCellToCoord(1, 1)
dfsDataX = Array.CreateInstance(System.Single, nX * nY)
dfsDataY = Array.CreateInstance(System.Single, nX * nY)
for x in range(nX):
for y in range(nY):
if(not MShePy.wm.gridIsInModel(x, y)):
dfsDataX[x + y * nX] = builder.DeleteValueFloat
dfsDataY[x + y * nX] = builder.DeleteValueFloat
dx = x1 - x0 # cell size, dx == dy
axis = factory.CreateAxisEqD2(eumUnit.eumUmeter, nX, x0 - dx / 2, dx, nY, y0 - dx / 2, dx)
itemBuilder = builder.CreateDynamicItemBuilder()
itemBuilder.SetValueType(DataValueType.MeanStepBackward)
itemBuilder.SetAxis(axis)
for iz in range(nZ):
for xy in ['x', 'y']:
itemBuilder.Set('Boundary inflow layer {0}, {1}-direction'.format(iz + 1, xy), eumQuantity.Create(eumItem.eumIDischarge, eumUnit.eumUm3PerSec), DfsSimpleType.Float)
builder.AddDynamicItem(itemBuilder.GetDynamicItemInfo())
builder.CreateFile(filename)
dfs = builder.GetFile()
def writeDatasets(h5file):
dtype = H5T.copy(H5T.H5Type.NATIVE_INT)
shape = Array[Int64]((2, 9))
dspacev = H5S.create_simple(shape.Length, shape)
dsetv = H5D.create(h5file, 'MATRIX', dtype, dspacev)
data = Array.CreateInstance(Int32, shape)
data[0, 0] = data[0, 1] = data[1, 0] = 1
data[0, 2] = data[1, 1] = data[1, 2] = 2
data[0, 3] = data[0, 4] = data[1, 3] = 3
data[0, 5] = data[1, 4] = data[1, 5] = 4
data[0, 6] = data[0, 7] = data[1, 6] = 5
data[0, 8] = data[1, 7] = data[1, 8] = 6
H5D.write(dsetv, dtype, H5Array[Int32](data))
H5T.close(dtype)
dtype = H5T.copy(H5T.H5Type.STD_REF_DSETREG)
shape = Array[Int64]((2, ))
dspacer = H5S.create_simple(shape.Length, shape)
dsetr = H5D.create(h5file, 'REGION_REFERENCES', dtype, dspacer)
start = Array[Int64]((0, 3))
count = Array[Int64]((2, 3))
H5S.selectHyperslab(dspacev, H5S.SelectOperator.SET, start, count)
rr = Array.CreateInstance(RegionReference, 2)
rr[0] = H5R.createRegionReference(h5file, 'MATRIX', dspacev)
coord = Array.CreateInstance(Int64, 6)
coord[0] = coord[1] = coord[4] = 0
coord[2] = 1
coord[3] = 6
coord[5] = 8
H5S.selectNone(dspacev)
H5S.selectElements(dspacev, H5S.SelectOperator.SET, IntPtr(3), coord)
rr[1] = H5R.createRegionReference(h5file, 'MATRIX', dspacev)
nBytes = RegionReference.SizeInBytes
data = Array.CreateInstance(Byte, rr.Length * nBytes)
for i in range(rr.Length):
Array.Copy(rr[i].ToByteArray(), 0, data, i * nBytes, nBytes)
H5D.write(dsetr, dtype, H5Array[Byte](data))
H5T.close(dtype)
H5D.close(dsetv)
H5S.close(dspacev)
H5D.close(dsetr)
H5S.close(dspacer)
return None
def load_sequence(self):
# Check if sequence consists of repetitions of a subsequence
sequence = self.sequence()
if "divisors" in self.parent.optimize:
try:
N = len(sequence)
divisors = [
n for n in reversed(np.arange(2, N + 1)) if N % n == 0
]
for divisor in divisors:
sequence_arr = np.array(sequence)
reshaped_arr = sequence_arr.reshape(
divisor, int(N / divisor))
if (reshaped_arr == reshaped_arr[0]).all():
sequence = reshaped_arr[0]
break
except Exception:
pass
self.sequence = sequence
sequence_obj = Array.CreateInstance(self._api.GenerationSequenceStruct,
len(sequence))
for k, subsequence_info in enumerate(sequence):
subsequence = self._api.GenerationSequenceStruct()
# Must compare with Integral since np.int32 is not an int
if isinstance(subsequence_info, numbers.Integral):
subsequence.WaveformIndex = subsequence_info
# Set repetitions to 1 (default) if subsequence info is an int
subsequence.Repetitions = 1
elif isinstance(subsequence_info, tuple):
assert (
len(subsequence_info) == 2
), "A subsequence tuple must be of the form (WaveformIndex, Repetitions)"
subsequence.WaveformIndex = subsequence_info[0]
subsequence.Repetitions = subsequence_info[1]
else:
raise TypeError(
"A subsequence must be either an int or (int, int) tuple")
sequence_obj[k] = subsequence
# Set transfermode to USB (seems to be a fixed function)
transfer_mode = Array.CreateInstance(self._api.TransferMode, 1)
self.parent.call_dll(
self.channel_api.LoadGenerationSequence,
sequence_obj,
transfer_mode[0],
True,
msg="loading sequence",
)
def createDatasetWithCompoundType(h5file):
# component name -> (offset, size, type)
ht = { 'a_name': (0, 4, H5T_NATIVE_INT),
'b_name': (4, 4, H5T_NATIVE_FLOAT),
'c_name': (8, 8, H5T_NATIVE_DOUBLE) }
sizeof = 0
for k in ht.keys():
sizeof += ht[k][1]
dtype = H5T.create(H5T.CreateClass.COMPOUND, sizeof)
for k in ht.keys():
H5T.insert(dtype, k, ht[k][0], ht[k][2])
npoints = 10
shape = Array[Int64]((npoints,))
dspace = H5S.create_simple(shape.Length, shape)
dset = H5D.create(h5file, 'ArrayOfStructures', dtype, dspace)
# create an array of Byte
# use BitConverter to get Byte representations
shape = Array[Int64]((npoints*sizeof,))
byteArray = Array.CreateInstance(Byte, shape)
for i in range(npoints):
offset = i*sizeof
a = Int32(i)
Array.Copy(BitConverter.GetBytes(a), 0, byteArray,
offset+ht['a_name'][0], ht['a_name'][1])
b = Single(i*i)
Array.Copy(BitConverter.GetBytes(b), 0, byteArray,
offset+ht['b_name'][0], ht['b_name'][1])
c = Double(1.0/(i+1.0))
Array.Copy(BitConverter.GetBytes(c), 0, byteArray,
offset+ht['c_name'][0], ht['c_name'][1])
H5D.write(dset, dtype, H5Array[Byte](byteArray))
H5S.close(dspace)
H5T.close(dtype)
return dset
def read_frame(self, cam):
"""Reads a image from the camera, if available, and returns it.
If available, it returns
``(data, fmt, (w, h), count, queued_count, t)``, otherwise, it returns
None. See :class:`ThorCamServer`.
"""
queued_count = cam.get_NumberOfQueuedFrames()
if queued_count <= 0:
return
frame = cam.GetPendingFrameOrNull()
t = clock()
if not frame:
return
count = frame.FrameNumber
h = frame.ImageData.Height_pixels
w = frame.ImageData.Width_pixels
if self._color_processor is not None:
from Thorlabs.TSI import ColorInterfaces
demosaicked_data = Array.CreateInstance(UInt16, h * w * 3)
processed_data = Array.CreateInstance(UInt16, h * w * 3)
fmt = ColorInterfaces.ColorFormat.BGRPixel
max_pixel_val = int(2**cam.BitDepth - 1)
self._demosaic.Demosaic(w, h, Int32(0), Int32(0),
cam.ColorFilterArrayPhase, fmt,
ColorInterfaces.ColorSensorType.Bayer,
Int32(cam.BitDepth),
frame.ImageData.ImageData_monoOrBGR,
demosaicked_data)
self._color_processor.Transform48To48(demosaicked_data, fmt, 0,
max_pixel_val, 0,
max_pixel_val, 0,
max_pixel_val, 0, 0, 0,
processed_data, fmt)
pixel_fmt = 'bgr48le'
data = as_numpy_array(processed_data)
else:
pixel_fmt = 'gray16le'
data = as_numpy_array(frame.ImageData.ImageData_monoOrBGR)
# img = Image(
# plane_buffers=[data.tobytes()],
# pix_fmt=pixel_fmt, size=(w, h))
return data.tobytes(), pixel_fmt, (w, h), count, queued_count, t
def GetPhase32fImage(self) :
self.updateROI()
#Define a dotNet (C#) Single Array
buffer = Array.CreateInstance(System.Single,self.roiHeight*self.roiWidth)
self.host.GetPhase32fImage(buffer)
#copy, reshape and return buffer
return np.reshape(ru.dn2np(buffer),(self.roiHeight,self.roiWidth))
def read2FromDatasetWithCompoundType(dset):
ht = { 'c_name': (0, 8, H5T_NATIVE_DOUBLE),
'a_name': (8, 4, H5T_NATIVE_INT) }
sizeof = 0
for k in ht.keys():
sizeof += ht[k][1]
dtype = H5T.create(H5T.CreateClass.COMPOUND, sizeof)
for k in ht.keys():
H5T.insert(dtype, k, ht[k][0], ht[k][2])
dspace = H5D.getSpace(dset)
npoints = H5S.getSimpleExtentNPoints(dspace)
shape = Array[Int64]((npoints*sizeof,))
byteArray = Array.CreateInstance(Byte, shape)
H5D.read(dset, dtype, H5Array[Byte](byteArray))
print '\nField\tc\ta'
for i in range(npoints):
offset = i*sizeof
c = BitConverter.ToDouble(byteArray, offset+ht['c_name'][0])
a = BitConverter.ToInt32(byteArray, offset + ht['a_name'][0])
print '\t%.4f\t%d' % (c, a)
print ''
H5S.close(dspace)
H5T.close(dtype)
return dset
def read1FromDatasetWithCompoundType(dset):
ht = { 'b_name': (0, 4, H5T_NATIVE_FLOAT) }
sizeof = 0
for k in ht.keys():
sizeof += ht[k][1]
dtype = H5T.create(H5T.CreateClass.COMPOUND, sizeof)
for k in ht.keys():
H5T.insert(dtype, k, ht[k][0], ht[k][2])
dspace = H5D.getSpace(dset)
npoints = H5S.getSimpleExtentNPoints(dspace)
shape = Array[Int64]((npoints*sizeof,))
byteArray = Array.CreateInstance(Byte, shape)
H5D.read(dset, dtype, H5Array[Byte](byteArray))
print '\nField\tb'
for i in range(npoints):
offset = i*sizeof
b = BitConverter.ToSingle(byteArray, offset+ht['b_name'][0])
print '\t%.4f' % (b)
print ''
H5S.close(dspace)
H5T.close(dtype)
return dset
def get_hand_position_index(name):
import StudioUICharaState
from System import Array
try:
return Array.IndexOf(StudioUICharaState.handPtnAnimeName, name)
except:
return None
def readFromDatasetWithCompoundType(dset):
mtype = createMemType()
sizeof = H5T.getSize(mtype)
dspace = H5D.getSpace(dset)
npoints = H5S.getSimpleExtentNPoints(dspace)
shape = Array[Int64]((npoints * sizeof, ))
byteArray = Array.CreateInstance(Byte, shape)
H5D.read(dset, mtype, H5Array[Byte](byteArray))
ms = MemoryStream(byteArray)
reader = BinaryReader(ms)
for i in range(npoints):
if IntPtr.Size == 8:
print '%d,%s,%.2f,%.2f' % (reader.ReadInt32(
), Marshal.PtrToStringAnsi(IntPtr(
reader.ReadInt64())), reader.ReadDouble(), reader.ReadDouble())
else:
print '%d,%s,%.2f,%.2f' % (reader.ReadInt32(
), Marshal.PtrToStringAnsi(IntPtr(
reader.ReadInt32())), reader.ReadDouble(), reader.ReadDouble())
H5S.close(dspace)
H5T.close(mtype)
return None
def numpy2net(np_array):
# TODO: set reference instead of copy
x = Array.CreateInstance(Single, np_array.shape[0], np_array.shape[1])
for i1 in range(np_array.shape[0]):
for i2 in range(np_array.shape[1]):
x[i1, i2] = np_array[i1, i2]
return x
def findScalarFixedStringAttribute(dset):
info = H5O.getInfo(dset)
for i in range(info.nAttributes):
attr = H5A.openByIndex(dset, '.', H5IndexType.CRT_ORDER,
H5IterationOrder.INCREASING, Int64(i))
dtype = H5A.getType(attr)
tclass = H5T.getClass(dtype)
# ignore variable length strings
if tclass == H5T.H5TClass.STRING and not H5T.isVariableString(dtype):
mtype = H5T.getNativeType(dtype, H5T.Direction.ASCEND)
buffer = Array.CreateInstance(Byte, H5T.getSize(mtype))
H5A.read(attr, mtype, H5Array[Byte](buffer))
enc = System.Text.ASCIIEncoding()
fmt = 'Found string attribute; its index is %d , value = %s'
print fmt % (i, enc.GetString(buffer))
H5T.close(mtype)
H5T.close(dtype)
H5A.close(attr)
return None
def getIntensityImage(contrast, width, height): #Get the intensity 8bit image
if contrast == 'lambda1':
obj.SelectDisplayWL(8192)
elif contrast == 'lambda2':
obj.SelectDisplayWL(16384)
elif contrast == 'synth':
obj.SelectDisplayWL(32768)
elif contrast == 'synth_short':
obj.SelectDisplayWL(65536)
elif contrast == 'mapping':
obj.SelectDisplayWL(131072)
else:
obj.SelectDisplayWL(8192)
w = width
h = height
stride = (w / 4) * 4
if w % 4 != 0:
stride += 4
size = stride * h
bufP = Array.CreateInstance(System.Byte, size)
obj.GetIntensityImage(bufP)
floatbufP = np.zeros(size, dtype=int)
for x in range(0, size - 1):
floatbufP[x] = int(bufP[x])
out = np.reshape(floatbufP, (h, stride))
return out
def readStratumTable(vw, dal):
log.lg('norm', 'START reading stratum table')
from CruiseDAL.DataObjects import StratumDO
from CruiseDAL.DataObjects import CuttingUnitDO
for row in vw:
stratum = StratumDO(dal)
stratum.Code = str.strip(row.Stratum)
stratum.Description = row.Description
stratum.Method = row.CruzMeth if (row.CruzMeth != "PCMTRE") else "PCM"
stratum.BasalAreaFactor = getattrFloat(row, "BAF")
stratum.FixedPlotSize = getattrFloat(row, "FPSize")
stratum.Month = row.Month
stratum.Year = row.Year
stratum.Save()
log.lg('low', 'Created Record :' + str(stratum.rowID))
unitCodes = row.Units.split(',')
for c in unitCodes:
prams = Array.CreateInstance(Object, 1)
prams[0] = str.strip(c)
unit = dal.ReadSingleRow[CuttingUnitDO]('CuttingUnit',
'WHERE Code = ?', prams)
if not unit:
log.lg(
'high',
'unable to locate Cutting Unit record in Stratum table. Unit Code: '
+ c)
stratum.CuttingUnits.Add(unit)
stratum.CuttingUnits.Save()
def __init__(self, maxsize):
self._maxsize = maxsize
self._data = Array.CreateInstance(System.Byte, self._maxsize)
Random().NextBytes(self._data)
self._log = StringBuilder()
self._currentoffset = 0
self._currentlength = 0
def ArrayDiv(a, b):
out = Array.CreateInstance(float, len(a))
outstr = ''
for i in range(0, len(a)):
out[i] = a[i] / b[i]
outstr = outstr + str(round(out[i], 2)) + '\t'
return out, outstr
def run(self, py_file):
self.py_file = py_file
#use the current executing version of IPY to launch the debug process
ipy = Assembly.GetEntryAssembly().Location
cmd_line = "\"%s\" -D \"%s\"" % (ipy, py_file)
self.process = self.debugger.CreateProcess(ipy, cmd_line)
self.process.OnCreateAppDomain += self.OnCreateAppDomain
self.process.OnProcessExit += self.OnProcessExit
self.process.OnUpdateModuleSymbols += self.OnUpdateModuleSymbols
self.process.OnBreakpoint += self.OnBreakpoint
self.process.OnStepComplete += self.OnStepComplete
self.process.OnClassLoad += self.OnClassLoad
self.terminate_event = AutoResetEvent(False)
self.break_event = AutoResetEvent(False)
self.initial_breakpoint = None
self.breakpoints = []
self.source_files = dict()
handles = Array.CreateInstance(WaitHandle, 2)
handles[0] = self.terminate_event
handles[1] = self.break_event
while True:
if hasattr(self, 'active_thread'): delattr(self, 'active_thread')
if hasattr(self, 'active_appdomain'):
delattr(self, 'active_appdomain')
self.process.Continue(False)
i = WaitHandle.WaitAny(handles)
if i == 0:
break
self._input()
def WriteDataItems(self):
outputData = self.outputData
resultData = self.resultData
builder = self.builder
# Create file
builder.CreateFile(self.outFileName)
dfsfile = builder.GetFile()
times = list(resultData.TimesList)
# Write data to file
val = Array.CreateInstance(System.Single, 1)
for timeStepIndex in range(resultData.NumberOfTimeSteps):
if (timeStepIndex % self.timeStepSkippingNumber != 0):
continue
time = times[timeStepIndex].Subtract(
resultData.StartTime).TotalSeconds
for dataEntry in outputData:
dataItem = dataEntry.dataItem
elementIndex = dataEntry.elementIndex
val[0] = dataItem.GetValue(timeStepIndex, elementIndex)
dfsfile.WriteItemTimeStepNext(time, val)
dfsfile.Close()
def callback(attr, name, info, obj):
print 'Name : ' + name
dtype = H5A.getType(attr)
dspace = H5A.getSpace(attr)
rank = H5S.getSimpleExtentNDims(dspace)
dims = H5S.getSimpleExtentDims(dspace)
if rank > 0:
print 'Rank : %d' % rank
print 'Dimension sizes : ',
for i in range(rank):
print '%d' % dims[i],
print '\n'
if H5T.getClass(dtype) == H5T.H5TClass.FLOAT and H5T.getSize(dtype) == 4:
print 'Type : FLOAT'
npoints = H5S.getSimpleExtentNPoints(dspace)
buffer = Array.CreateInstance(Single, npoints)
H5A.read(attr, dtype, H5Array[Single](buffer))
print 'Values : ',
for i in range(npoints):
print '%f ' % buffer[i],
print '\n'
return H5IterationResult.SUCCESS
def test_correct_overload_selection():
"""Test correct overloading selection for common types."""
from System import (String, Double, Single,
Int16, Int32, Int64)
from System import Math
substr = String("substring")
assert substr.Substring(2) == substr.Substring.__overloads__[Int32](
Int32(2))
assert substr.Substring(2, 3) == substr.Substring.__overloads__[Int32, Int32](
Int32(2), Int32(3))
for atype, value1, value2 in zip([Double, Single, Int16, Int32, Int64],
[1.0, 1.0, 1, 1, 1],
[2.0, 0.5, 2, 0, -1]):
assert Math.Abs(atype(value1)) == Math.Abs.__overloads__[atype](atype(value1))
assert Math.Abs(value1) == Math.Abs.__overloads__[atype](atype(value1))
assert Math.Max(atype(value1),
atype(value2)) == Math.Max.__overloads__[atype, atype](
atype(value1), atype(value2))
assert Math.Max(atype(value1),
value2) == Math.Max.__overloads__[atype, atype](
atype(value1), atype(value2))
clr.AddReference("System.Runtime.InteropServices")
from System.Runtime.InteropServices import GCHandle, GCHandleType
from System import Array, Byte
cs_array = Array.CreateInstance(Byte, 1000)
handler = GCHandle.Alloc(cs_array, GCHandleType.Pinned)
def exportXls(self):
ex = Excel.ApplicationClass()
ex.Visible = True
ex.DisplayAlerts = False
workbook = ex.Workbooks.Add()
workbook.SaveAs(self.filepath)
ws = workbook.Worksheets[1]
nbr_row = len(self.lstData)
nbr_colum = len(self.lstData[0])
xlrange = ws.Range[ws.Cells(1, 1), ws.Cells(nbr_row, nbr_colum)]
a = Array.CreateInstance(object, nbr_row, nbr_colum)
for indexR, row in enumerate(self.lstData):
for indexC, value in enumerate(row):
a[indexR, indexC] = value
#copy Array in range
xlrange.Value2 = a
used_range = ws.UsedRange
for column in used_range.Columns:
column.AutoFit()
# apply style
missing = System.Type.Missing
try:
currentWs.ListObjects.Add(Excel.XlListObjectSourceType.xlSrcRange,
xlrange, missing,
Excel.XlYesNoGuess.xlGuess,
missing).Name = "WFTableStyle"
currentWs.ListObjects[
"WFTableStyle"].TableStyle = "TableStyleMedium6"
except:
pass
def dotnet_notification_parser(sender: Any, args: Any):
# Return only the UUID string representation as sender.
# Also do a conversion from System.Bytes[] to bytearray.
reader = DataReader.FromBuffer(args.CharacteristicValue)
output = Array.CreateInstance(Byte, reader.UnconsumedBufferLength)
reader.ReadBytes(output)
return func(sender.Uuid.ToString(), bytearray(output))
def capture(sender, event_args):
buffer = Array.CreateInstance(
Byte, convertedSource.WaveFormat.BytesPerSecond / 2)
while True:
read = convertedSource.Read(buffer, 0, buffer.Length)
waveWriter.Write(buffer, 0, read)
if read <= 0:
break
def _string_to_bytearr(buf):
retval = Array.CreateInstance(System.Byte, len(buf))
# pylint: disable=consider-using-enumerate
for i in range(len(buf)):
retval[i] = ord(buf[i])
return retval