def run3phase(phasesToCalculate={'v': True, 't': True, 'd': True, 's': True},
calculationType='annual', epwFile=None, tmatrixFile=None):
if phasesToCalculate['v']:
# Step1: Create the view matrix.
rfluxPara = RfluxmtxParameters()
rfluxPara.irradianceCalc = True
rfluxPara.ambientAccuracy = 0.1
rfluxPara.ambientBounces = 10
rfluxPara.ambientDivisions = 65536
rfluxPara.limitWeight = 1E-5
# step 1.1 Invert glazing surface with xform so that it faces inwards
xfrPara = XformParameters()
xfrPara.invertSurfaces = True
xfr = Xform()
xfr.xformParameters = xfrPara
xfr.radFile = 'glazing.rad'
xfr.outputFile = 'glazingI.rad'
xfr.execute()
rflux = Rfluxmtx()
rflux.sender = '-'
# This needs to be automated based on the normal of each window.
# Klems full basis sampling and the window faces +Y
recCtrlPar = rflux.ControlParameters(hemiType='kf', hemiUpDirection='+Z')
rflux.receiverFile = rflux.addControlParameters('glazingI.rad',
{'Exterior_Window': recCtrlPar})
rflux.rfluxmtxParameters = rfluxPara
rflux.pointsFile = 'indoor_points.pts'
rflux.outputMatrix = r'temp/vmatrix.vmx'
rflux.radFiles = ['room.mat', 'room.rad']
rflux.execute()
vMatrix = r'temp/vmatrix.vmx'
# Step2: Assign T matrix from precalculated XML files.
tMatrix = tmatrixFile or r'xmls/clear.xml'
if phasesToCalculate['d']:
# Step3: Create D matrix.
rfluxPara = RfluxmtxParameters()
rfluxPara.ambientAccuracy = 0.1
rfluxPara.ambientDivisions = 1024
rfluxPara.ambientBounces = 2
rfluxPara.limitWeight = 0.0000001
rflux2 = Rfluxmtx()
rflux2.samplingRaysCount = 1000
rflux2.sender = 'glazingI_m.rad'
skyFile = rflux2.defaultSkyGround(r'temp/rfluxSky.rad', skyType='r1')
rflux2.receiverFile = skyFile
rflux2.rfluxmtxParameters = rfluxPara
rflux2.radFiles = [r"room.mat",
r"room.rad"]
rflux2.outputMatrix = r"temp/dmatrix.dmx"
rflux2.execute()
dMatrix = r"temp/dmatrix.dmx"
# Step4a: Create the sky vector.
# Step4a.1: Create a sky defintion
# Step s: Creating the sky matrix
if phasesToCalculate['s']:
if calculationType == 'annual':
weaFile = Epw2wea(epwFile=epwFile or 'test.epw', outputWeaFile=r'temp/test.wea')
weaFile.execute()
gendayParam = GendaymtxParameters()
gendayParam.skyDensity = 1
genday = Gendaymtx(weaFile=r'temp/test.wea', outputName=r'temp/day.smx')
genday.gendaymtxParameters = gendayParam
genday.execute()
skyVector = r'temp/day.smx'
else:
gensk = Gensky()
gensk.monthDayHour = (11, 11, 11)
gensk.outputFile = 'temp/sky.rad'
# gensk.execute()
genskv = Genskyvec()
genskv.inputSkyFile = r'temp/sky.rad'
genskv.outputFile = r'temp/sky.vec'
genskv.skySubdivision = 1
genskv.execute()
skyVector = r'temp/sky.vec'
else:
skyVector = r'temp/sky.vec'
# Step5: Generate results
dct = Dctimestep()
dct.tmatrixFile = tMatrix
dct.vmatrixSpec = vMatrix
dct.dmatrixFile = dMatrix
dct.skyVectorFile = skyVector
dct.outputFileName = r'temp/results3p.tmp'
dct.execute()
mtx2Param = RmtxopParameters()
mtx2Param.outputFormat = 'a'
mtx2Param.combineValues = (47.4, 119.9, 11.6)
mtx2Param.transposeMatrix = True
mtx2 = Rmtxop(matrixFiles=[r'temp/results3p.tmp'], outputFile=r'temp/illuminance3p.ill')
mtx2.rmtxopParameters = mtx2Param
mtx2.execute()
return 'temp/illuminance3p.ill'
def calcDirectIlluminance(epwFile,
analemmaPath,
sunListPath,
sunMatrixPath,
materialFile,
geometryFiles,
pointsFile,
folderForCalculations,
outputIllFilePath,
HOYList=range(8760),
overWriteExistingFiles=True):
"""
Calculate direct illuminance from the Sun.
Args:
epwFile: EPW file path.
solarDiscPath:
sunListPath:
sunMatrixPath:
materialFile: A single material file.
geometryFiles: One or more geometry files.
pointsFile: A points file in Daysim compatible format.
folderForCalculations: A folder where all the intermediate files can be stored.
outputIllFilePath:
HOYList:
overWriteExistingFiles:
Returns:
"""
# a sad logging hack
statusMsg = lambda msg: "\n%s:%s\n%s\n" % (time.ctime(), msg, "*~" * 25)
# over-write warning.
def overWriteWarning(filePath,
overWriteExistingFiles=overWriteExistingFiles):
if os.path.exists(filePath):
if not overWriteExistingFiles:
raise Exception(
"The file %s already exists. Set the variable overWriteExistingFiles"
"to True to overWrite this and other files." % filePath)
else:
msg = "The file %s already existed and was overwritten" % filePath
warnings.warn(msg)
statusMsg('Generating sunpath and sunmatrix')
analemmaPath, sunListPath, sunMatrixPath = analemmacalculator(
epwFile=epwFile,
sunDiscRadPath=analemmaPath,
sunListPath=sunListPath,
solarRadiationMatrixPath=sunMatrixPath,
HOYlist=HOYList)
sceneData = [materialFile]
# Append if single, extend if multiple
if isinstance(geometryFiles, basestring):
sceneData.append(geometryFiles)
elif isinstance(geometryFiles, (tuple, list)):
sceneData.extend(geometryFiles)
octreeFile = os.path.join(folderForCalculations, 'solar.oct')
# overWriteWarning(octreeFile)
statusMsg('Creating octree')
octree = Oconv()
octree.sceneFiles = sceneData + [analemmaPath]
octree.outputFile = octreeFile
octree.execute()
statusMsg('Creating sun coefficients')
dcFile = os.path.join(folderForCalculations, 'sunCoeff.dc')
overWriteWarning(dcFile)
tmpIllFile = os.path.join(folderForCalculations, 'illum.tmp')
overWriteWarning(tmpIllFile)
rctPara = RcontribParameters()
rctPara.ambientBounces = 0
rctPara.directJitter = 0
rctPara.directCertainty = 1
rctPara.directThreshold = 0
rctPara.modFile = sunListPath
rctPara.irradianceCalc = True
rctb = Rcontrib()
rctb.octreeFile = octreeFile
rctb.outputFile = dcFile
rctb.pointsFile = pointsFile
rctb.rcontribParameters = rctPara
rctb.execute()
statusMsg('Performing matrix multiplication between the coefficients'
' and the sun matrix.')
dct = Dctimestep()
dct.daylightCoeffSpec = dcFile
dct.skyVectorFile = sunMatrixPath
dct.outputFile = tmpIllFile
dct.execute()
statusMsg(
'Transposing the matrix as per time-series and calculating illuminance.'
)
mtx2Param = RmtxopParameters()
mtx2Param.outputFormat = 'a'
mtx2Param.combineValues = (47.4, 119.9, 11.6)
mtx2Param.transposeMatrix = True
mtx2 = Rmtxop(matrixFiles=[tmpIllFile], outputFile=outputIllFilePath)
mtx2.rmtxopParameters = mtx2Param
mtx2.execute()
return outputIllFilePath
def run3phaseMulti(pointsFile,
outputIllName,
windowConfig=(),
epwFile=None,
skyFile=None,
geometryFile=None,
materialFile=None,
reuseVmtx=True,
reuseSkyVector=True,
reuseDmtx=True,
skyDescr=1,
klemsForVmtx='kf',
vmtxParam=None,
dmtxParam=None,
TransposeAnnualResults=True,
skyVectorParam=None):
"""
Notes:
1. It is assumed that the surfaces used for the vmtx are inward facing .i.e they
need not be flipped.
2. It is also assumed that the surfaces used for vmtx already have a glow modifier
assigned to them.
Args:
outputIllName: Name of the file to which the results should be written.
windowConfig: A tuple containing the windowGroupGeometry,
the direction of the surface Normal, the corresponding T matrix XML and an
option to include or exclude the results from the windowgroup in the
calculation. A typical option will be something like ('glazing.rad','+Z',
'blinds.xml',True), specifying that the radiance geometry 'glazing.rad', whose
direction normal faces +Z will be used for the calculation of that particular
V matrix. 'blinds.xml' indicates the XML file that will be used as T matrix
for that window group and True indicates that this window group will be
considered for the calculations.
epwFile: epwFile corresponding to a particular location. If epwFile and skyFile
are provided, the option for epwFile will be prioritized .i.e. the calculation
will be annual.
skyFile: An input from gensky or gendaylit for creating a point-in-time sky vector.
geometryFile: Geometry for All the files in the calculation except the ones for
the glazing.
materialFile: Materials for all the geometry described in the geometryFile input.
reuseVmtx: A boolean value for specifying if the Vmtx needs to be recalculated if
it is already present.
reuseDmtx: A boolean value for specifying if the Dmtx needs to be recalculated.
reuseSkyVector: A boolean value for specifying if sky vector needs to be recalculated.
pointsFile: The file containing the grid points that will be used for illumiance
calcuations.
skyDescr: An integer specifying the sky descretization value to be considered for
generating the sky matrix. The values (number, skypataches)corresponding to
different sky descretizations are : (1, 145),(2,577),(3,1297),(4,2305),
(5,3601),(6,5185). Higher discretizations equal higher values.
klemsForVmtx: The klems basis to be considered for sampling the vmtx. Default value
is 'kf'
vmtxParam: Calculation parameters corresponding to the V matrix. This should be
an instance of the class RfluxParameters. If not specified, a default value
will be assigned.
dmtxParam: Calculation parameters corresponding to the D matrix. This should be
an instance of the class RfluxParameters. If not specified, a default value
will be assigned.
TransposeAnnualResults: A boolean value, which if set to True, will transpose
the results of an annual calculation as per the 8760 lines format.
Returns:
"""
def createWinGroupReceivers(surfaceFile, surfaceNormal, klemsBasis):
# remove the + or - sign if specified.
surfaceNormal = surfaceNormal[-1] if len(
surfaceNormal) > 1 else surfaceNormal
hemiUp = "+Z" if surfaceNormal.lower() in "xy" else "+X"
# check if there is a glow material assigned in the file.
# retrieve the first polygon surface for assigning rfluxmtxParameters.
surfaceStringNoComments = ''
with open(surfaceFile) as surfaceData:
for lines in surfaceData:
if not lines.strip().startswith("#"):
surfaceStringNoComments += lines
surfaceStringNoComSplit = surfaceStringNoComments.split()
assert surfaceStringNoComSplit[1] == 'glow',\
'It appears that the glow material has not been applied to this surface.This' \
' is essential for the Three Phase Method. '
firstPolyPosition = surfaceStringNoComSplit.index('polygon')
surfaceName = surfaceStringNoComSplit[firstPolyPosition - 1]
rflux = Rfluxmtx()
receiverParam = rflux.ControlParameters(hemiType=klemsBasis,
hemiUpDirection=hemiUp)
receiverFile = rflux.addControlParameters(surfaceFile,
{surfaceName: receiverParam})
return receiverFile
def calcVmtx(surfaceFile, receiverFile, reuse, vmtxParam, pointsFile,
materialFile, geometryFile):
vmtxFile = os.path.join('temp',
os.path.splitext(surfaceFile)[0] + '.vmtx')
if os.path.exists(vmtxFile) and reuse:
return vmtxFile
if vmtxParam:
assert isinstance(vmtxParam, RfluxmtxParameters),\
'The input for vmtxParam must be an instance of RfluxmtxParamters. ' \
'The current input is an instance of %s' % (type(vmtxParam))
else:
vmtxParam = RfluxmtxParameters()
vmtxParam.irradianceCalc = True
vmtxParam.ambientAccuracy = 0.1
vmtxParam.ambientBounces = 10
vmtxParam.ambientDivisions = 65536
vmtxParam.limitWeight = 1E-5
rflux = Rfluxmtx()
rflux.receiverFile = receiverFile
rflux.rfluxmtxParameters = vmtxParam
rflux.pointsFile = pointsFile
rflux.sender = '-'
rflux.outputMatrix = vmtxFile
rflux.radFiles = [materialFile, geometryFile]
print(rflux.toRadString())
rflux.execute()
return vmtxFile
def calcDmtx(surfaceFile, senderFile, reuse, skyDescr, dmtxParam,
materialFile, geometryFile):
dmtxFile = os.path.join('temp',
os.path.splitext(surfaceFile)[0] + '.dmtx')
if os.path.exists(dmtxFile) and reuse:
return dmtxFile
if dmtxParam:
assert isinstance(dmtxParam, RfluxmtxParameters), \
'The input for vmtxParam must be an instance of RfluxmtxParamters. ' \
'The current input is an instance of %s' % (type(dmtxParam))
else:
dmtxParam = RfluxmtxParameters()
dmtxParam.ambientAccuracy = 0.1
dmtxParam.ambientBounces = 2
dmtxParam.ambientDivisions = 1024
dmtxParam.limitWeight = 1E-5
rflux2 = Rfluxmtx()
rflux2.samplingRaysCount = 1000
rflux2.sender = senderFile
skyFile = rflux2.defaultSkyGround(r'temp/rfluxSky.rad',
skyType="r%s" % skyDescr)
rflux2.receiverFile = skyFile
rflux2.rfluxmtxParameters = dmtxParam
rflux2.radFiles = [materialFile, geometryFile]
rflux2.outputMatrix = dmtxFile
rflux2.execute()
return dmtxFile
def calcSkyVector(skyDescr,
epwFile=None,
skyFile=None,
reuse=True,
skyVectorParam=None):
assert epwFile or skyFile,\
'Either an epwFile or a skyFile need to be provided for the skyVector to' \
'be calculated.'
if epwFile and os.path.exists(epwFile):
epwName = os.path.split(epwFile)[1]
skyMtxName = os.path.splitext(epwName)[0] + '%s.smx' % skyDescr
weaName = os.path.splitext(epwFile)[0] + '.wea'
if os.path.exists(skyMtxName) and reuse:
return skyMtxName
weaFile = Epw2wea(epwFile=epwFile, outputWeaFile=weaName)
weaFile.execute()
if skyVectorParam:
assert isinstance(skyVectorParam, GendaymtxParameters),\
'The input for skyVectorParam must be an instance of GendaymtxParameters.'
gendayParam = skyVectorParam
else:
gendayParam = GendaymtxParameters()
gendayParam.skyDensity = skyDescr
genday = Gendaymtx(weaFile=weaName, outputName=skyMtxName)
genday.gendaymtxParameters = skyVectorParam
genday.execute()
return skyMtxName
elif skyFile and os.path.exists(skyFile):
skyMtxName = os.path.splitext(skyFile)[0] + '%s.smx' % skyDescr
if os.path.exists(skyMtxName) and reuse:
return skyMtxName
genskv = Genskyvec()
genskv.inputSkyFile = skyFile
genskv.skySubdivision = skyDescr
genskv.outputFile = skyMtxName
genskv.execute()
return skyMtxName
else:
raise Exception(
'The input path for the skyFile or epwFile are not valid.')
# generate receiver surfaces for all window groups..This is not an intensive process.
receiverFiles = [
createWinGroupReceivers(win['windowSurface'], win['surfaceNormal'],
klemsForVmtx) for win in windowConfig
]
# create the skyVector.
skyVector = calcSkyVector(skyDescr=skyDescr,
epwFile=epwFile,
skyFile=skyFile,
reuse=reuseSkyVector,
skyVectorParam=skyVectorParam)
# create V and D matrices corresponding to each window Group.
matrixFilesForResult = []
resultFiles = 0
for idx, recFile in enumerate(receiverFiles):
vmtxFile = calcVmtx(windowConfig[idx]['windowSurface'],
recFile,
reuse=reuseVmtx,
vmtxParam=vmtxParam,
pointsFile=pointsFile,
materialFile=materialFile,
geometryFile=geometryFile)
dmtxFile = calcDmtx(windowConfig[idx]['windowSurface'],
senderFile=recFile,
skyDescr=skyDescr,
dmtxParam=dmtxParam,
materialFile=materialFile,
geometryFile=geometryFile,
reuse=reuseDmtx)
if windowConfig[idx]['includeInCalc']:
windowName = os.path.splitext(
windowConfig[idx]['windowSurface'])[0] + 'Res.tmp'
dctResult = os.path.join('temp', windowName)
dct = Dctimestep()
dct.dmatrixFile = dmtxFile
dct.vmatrixSpec = vmtxFile
dct.skyVectorFile = skyVector
dct.tmatrixFile = windowConfig[idx]['tMatrix']
dct.outputFileName = dctResult
dct.execute()
matrixFilesForResult.append(dctResult)
resultFiles += 1
assert resultFiles, 'None of the Window Groups were chosen for calculating the results !'
# add up values into a single tmp file
rmtxAdd = Rmtxop()
rmtxAdd.matrixFiles = matrixFilesForResult
rmtxAdd.outputFile = os.path.splitext(outputIllName)[0] + '.tmp'
rmtxAdd.execute()
# convert r g b to illuminance
rmtResParam = RmtxopParameters()
rmtResParam.combineValues = (47.4, 119.9, 11.6)
rmtResParam.outputFormat = 'a'
rmtResParam.transposeMatrix = TransposeAnnualResults
rmtxRes = Rmtxop()
rmtxRes.matrixFiles = [rmtxAdd.outputFile]
rmtxRes.outputFile = outputIllName
rmtxRes.rmtxopParameters = rmtResParam
rmtxRes.execute()
return outputIllName
def improvedDCcalc(epwFile,
materialFile,
geometryFiles,
pointsFile,
folderForCalculations,
outputIllFilePath,
reinhartPatches=1,
calcDict={
'skyVectors': True,
'DirectDCCoeff': True,
'DCCoeff': True,
'DirectSun': True
}):
"""
Args:
epwFile: Epw file path.
materialFile: Path for a single material file.
geometryFiles: One or more geometry files.
pointsFile: Path for poitns file
folderForCalculations: Folder for storing intermediate files.
outputIllFilePath:
reinhartPatches: Default is 1.
calcDict: This is useful for selectively running different parts of the simulation.
Returns:
"""
#a sad logging hack
statusMsg = lambda msg: "\n%s:%s\n%s\n" % (time.ctime(), msg, "*~" * 25)
weaFilePath = os.path.join(
folderForCalculations,
os.path.splitext(os.path.split(epwFile)[1])[0] + '.wea')
weaFile = Epw2wea(epwFile=epwFile, outputWeaFile=weaFilePath)
weaFile.execute()
#Calculate complete sky matrix.
skyMatrix = os.path.join(folderForCalculations, 'skyMatrix.mtx')
gendayParam = GendaymtxParameters()
gendayParam.skyDensity = reinhartPatches
genday = Gendaymtx(weaFile=weaFilePath, outputName=skyMatrix)
genday.gendaymtxParameters = gendayParam
if calcDict['skyVectors']:
print(genday.toRadString())
genday.execute()
#Calculate direct only matrix.
skyMatrixDirect = os.path.join(folderForCalculations,
'skyMatrixDirect.mtx')
gendayParam = GendaymtxParameters()
gendayParam.skyDensity = reinhartPatches
gendayParam.onlyDirect = True
genday = Gendaymtx(weaFile=weaFilePath, outputName=skyMatrixDirect)
genday.gendaymtxParameters = gendayParam
if calcDict['skyVectors']:
print(genday.toRadString())
genday.execute()
skyDomeFile = os.path.join(folderForCalculations, 'rfluxSky.rad')
dcCoeffMatrix = os.path.join(folderForCalculations, 'dc.mtx')
dcCoeffMatrixDirect = os.path.join(folderForCalculations, 'dcDirect.mtx')
sceneData = [materialFile]
#Append if single, extend if multiple
if isinstance(geometryFiles, basestring):
sceneData.append(geometryFiles)
elif isinstance(geometryFiles, (tuple, list)):
sceneData.extend(geometryFiles)
# Step2: Generate daylight coefficients for normal sky-matrix using rfluxmtx.
rfluxPara = RfluxmtxParameters()
rfluxPara.irradianceCalc = True
rfluxPara.ambientAccuracy = 0.1
rfluxPara.ambientDivisions = 20000
rfluxPara.ambientBounces = 5
rfluxPara.limitWeight = 1E-7
rfluxPara.ambientResolution = 10000
rflux = Rfluxmtx()
rflux.sender = '-'
skyFile = rflux.defaultSkyGround(skyDomeFile,
skyType='r%s' % reinhartPatches)
rflux.receiverFile = skyDomeFile
rflux.rfluxmtxParameters = rfluxPara
rflux.radFiles = sceneData
rflux.samplingRaysCount = 1
rflux.pointsFile = pointsFile
rflux.outputMatrix = dcCoeffMatrix
if calcDict['DCCoeff']:
rflux.execute()
tempIll = os.path.join(folderForCalculations, 'temp.ill')
ill = os.path.join(folderForCalculations, 'Illuminance.ill')
dct = Dctimestep()
dct.daylightCoeffSpec = dcCoeffMatrix
dct.skyVectorFile = skyMatrix
dct.outputFile = tempIll
if calcDict['DCCoeff']:
dct.execute()
mtx2Param = RmtxopParameters()
mtx2Param.outputFormat = 'a'
mtx2Param.combineValues = (47.4, 119.9, 11.6)
mtx2Param.transposeMatrix = True
mtx2 = Rmtxop(matrixFiles=[tempIll], outputFile=ill)
mtx2.rmtxopParameters = mtx2Param
if calcDict['DCCoeff']:
mtx2.execute()
# Step3: Generate direct daylight coefficients for normal sky-matrix using rfluxmtx.
rfluxPara = RfluxmtxParameters()
rfluxPara.irradianceCalc = True
rfluxPara.ambientAccuracy = 0.01
rfluxPara.ambientDivisions = 20000
rfluxPara.ambientBounces = 1
rfluxPara.limitWeight = 1E-7
rfluxPara.ambientResolution = 10000
rflux = Rfluxmtx()
rflux.sender = '-'
skyFile = rflux.defaultSkyGround(skyDomeFile,
skyType='r%s' % reinhartPatches)
rflux.receiverFile = skyDomeFile
rflux.rfluxmtxParameters = rfluxPara
rflux.radFiles = sceneData
rflux.samplingRaysCount = 1
rflux.pointsFile = pointsFile
rflux.outputMatrix = dcCoeffMatrixDirect
if calcDict['DirectDCCoeff']:
rflux.execute()
tempDirectIll = os.path.join(folderForCalculations, 'tempDirect.ill')
illDirect = os.path.join(folderForCalculations, 'IlluminanceDirect.ill')
dct = Dctimestep()
dct.daylightCoeffSpec = dcCoeffMatrixDirect
dct.skyVectorFile = skyMatrixDirect
dct.outputFile = tempDirectIll
if calcDict['DCCoeff']:
dct.execute()
mtx2Param = RmtxopParameters()
mtx2Param.outputFormat = 'a'
mtx2Param.combineValues = (47.4, 119.9, 11.6)
mtx2Param.transposeMatrix = True
mtx2 = Rmtxop(matrixFiles=[tempDirectIll], outputFile=illDirect)
mtx2.rmtxopParameters = mtx2Param
if calcDict['DirectDCCoeff']:
mtx2.execute()
solarDiscPath = os.path.join(folderForCalculations, 'solarDiscs.rad')
sunListPath = os.path.join(folderForCalculations, 'sunList.txt')
sunMatrixPath = os.path.join(folderForCalculations, 'sunMatrix.mtx')
#Calculate direct only ill files.
directSunIll = os.path.join(folderForCalculations, 'directSunIll.ill')
if calcDict['DirectSun']:
sunOnlyIll = calcDirectIlluminance(
epwFile=epwFile,
solarDiscPath=solarDiscPath,
sunListPath=sunListPath,
sunMatrixPath=sunMatrixPath,
materialFile=materialFile,
geometryFiles=geometryFiles,
pointsFile=pointsFile,
folderForCalculations=folderForCalculations,
outputIllFilePath=directSunIll)
#Instantiate matrices for subtraction and addition.
finalMatrix = Rmtxop()
#std. dc matrix.
dcMatrix = RmtxopMatrix()
dcMatrix.matrixFile = ill
#direct dc matrix. -1 indicates that this one is being subtracted from dc matrix.
dcDirectMatrix = RmtxopMatrix()
dcDirectMatrix.matrixFile = illDirect
dcDirectMatrix.scalarFactors = [-1]
#Sun coefficient matrix.
sunCoeffMatrix = RmtxopMatrix()
sunCoeffMatrix.matrixFile = directSunIll
#combine the matrices together. Sequence is extremely important
finalMatrix.rmtxopMatrices = [dcMatrix, dcDirectMatrix, sunCoeffMatrix]
finalMatrix.outputFile = outputIllFilePath
#Done!
finalMatrix.execute()
return outputIllFilePath
def improvedDCcalc(epwFile,
materialFile,
geometryFiles,
pointsFile,
folderForCalculations,
outputIllFilePath,
glazingGeometry=None,
reinhartPatches=1,
ambBounces=5,
ambDiv=5000,
limitWt=0.0002,
calcDict={
'skyVectors': True,
'DirectDCCoeff': True,
'DCCoeff': True,
'DirectSun': True
},
cleanUpTempFiles=True):
"""
Args:
epwFile: Epw file path.
materialFile: Path for a single material file.
geometryFiles: One or more geometry files.
pointsFile: Path for poitns file
folderForCalculations: Folder for storing intermediate files.
outputIllFilePath:
reinhartPatches: Default is 1.
calcDict: This is useful for selectively running different parts of the
simulation.
ambBounces: Ambient bounces. Defaults to 5
ambDiv: Ambient divisions. Defaults to 5000.
limitWt: Limit weight. Defaults to 0.0002
cleanUpTempFiles: Delete all the temporary files that were created during the
calculations.
Returns: The path of the illuminance file generated through the calculations.
"""
# a sad logging hack
statusMsg = lambda msg: "\n%s:%s\n%s\n" % (time.ctime(), msg, "*~" * 25)
blackMaterial = "void plastic black 0 0 5 0 0 0 0 0"
if limitWt > (1 / ambDiv):
warnings.warn(
"The value for limitWt(%s) should be set to a value equal to or "
"less (%s) which is 1/ambDiv(%s)" % (limitWt, 1 / ambDiv, ambDiv))
# crate a tempfolder inside the folderForCalculations.
tmpFolder = os.path.join(folderForCalculations, 'tmp')
if not os.path.exists(tmpFolder):
os.mkdir(tmpFolder)
weaFilePath = os.path.join(
tmpFolder,
os.path.splitext(os.path.split(epwFile)[1])[0] + '.wea')
weaFile = Epw2wea(epwFile=epwFile, outputWeaFile=weaFilePath)
weaFile.execute()
# Calculate complete sky matrix.
skyMatrix = os.path.join(tmpFolder, 'skyMatrix.mtx')
gendayParam = GendaymtxParameters()
gendayParam.skyDensity = reinhartPatches
genday = Gendaymtx(weaFile=weaFilePath, outputName=skyMatrix)
genday.gendaymtxParameters = gendayParam
if calcDict['skyVectors']:
print(genday.toRadString())
genday.execute()
# Calculate direct only matrix.
skyMatrixDirect = os.path.join(tmpFolder, 'skyMatrixDirect.mtx')
gendayParam = GendaymtxParameters()
gendayParam.skyDensity = reinhartPatches
gendayParam.onlyDirect = True
genday = Gendaymtx(weaFile=weaFilePath, outputName=skyMatrixDirect)
genday.gendaymtxParameters = gendayParam
if calcDict['skyVectors']:
print(genday.toRadString())
genday.execute()
skyDomeFile = os.path.join(tmpFolder, 'rfluxSky.rad')
dcCoeffMatrix = os.path.join(tmpFolder, 'dc.mtx')
dcCoeffMatrixDirect = os.path.join(tmpFolder, 'dcDirect.mtx')
blackMaterial = os.path.join(tmpFolder, 'black.mat')
with open(blackMaterial, 'w') as blackMat:
blackMat.write("void plastic black 0 0 5 0 0 0 0 0")
sceneData = [materialFile]
sceneDataBlack = [blackMaterial]
geometryData = []
# Append if single, extend if multiple
if isinstance(geometryFiles, basestring):
geometryData.append(geometryFiles)
elif isinstance(geometryFiles, (tuple, list)):
geometryData.extend(geometryFiles)
sceneData = sceneData + geometryData
xfrPara = XformParameters()
xfrPara.modReplace = 'black'
# Note: Xform has this thing it only works well if the paths are absolute.
blackGeometry = os.path.join(tmpFolder, 'blackGeometry.rad')
xfr = Xform()
xfr.xformParameters = xfrPara
xfr.radFile = geometryData
xfr.outputFile = blackGeometry
xfr.execute()
# Material file added in the end with the assumption that the material props for the
# glazing are defined in the material file. As Radiance parses scene data in a
# strictly linear fashion, even if the material for glazing is defined inside
# the glazing geometry, it will still be fine.
sceneDataBlack = sceneDataBlack + [blackGeometry] + [materialFile]
if isinstance(glazingGeometry, basestring):
sceneData.append(glazingGeometry)
sceneDataBlack.append(glazingGeometry)
elif isinstance(glazingGeometry, (tuple, list)):
sceneData.extend(glazingGeometry)
sceneDataBlack.extend(glazingGeometry)
# Step2: Generate daylight coefficients for normal sky-matrix using rfluxmtx.
rfluxPara = RfluxmtxParameters()
rfluxPara.irradianceCalc = True
rfluxPara.ambientDivisions = ambDiv
rfluxPara.ambientBounces = ambBounces
rfluxPara.limitWeight = limitWt
rflux = Rfluxmtx()
rflux.sender = '-'
skyFile = rflux.defaultSkyGround(skyDomeFile,
skyType='r%s' % reinhartPatches)
rflux.receiverFile = skyDomeFile
rflux.rfluxmtxParameters = rfluxPara
rflux.radFiles = sceneData
rflux.samplingRaysCount = 1
rflux.pointsFile = pointsFile
rflux.outputMatrix = dcCoeffMatrix
if calcDict['DCCoeff']:
print(rflux.toRadString())
rflux.execute()
tempIll = os.path.join(tmpFolder, 'temp.ill')
ill = os.path.join(tmpFolder, 'Illuminance.ill')
dct = Dctimestep()
dct.daylightCoeffSpec = dcCoeffMatrix
dct.skyVectorFile = skyMatrix
dct.outputFile = tempIll
if calcDict['DCCoeff']:
print(dct.toRadString())
dct.execute()
mtx2Param = RmtxopParameters()
mtx2Param.outputFormat = 'a'
mtx2Param.combineValues = (47.4, 119.9, 11.6)
mtx2Param.transposeMatrix = True
mtx2 = Rmtxop(matrixFiles=[tempIll], outputFile=ill)
mtx2.rmtxopParameters = mtx2Param
if calcDict['DCCoeff']:
mtx2.execute()
# Step3: Generate direct daylight coefficients for normal sky-matrix using rfluxmtx.
rfluxPara = RfluxmtxParameters()
rfluxPara.irradianceCalc = True
rfluxPara.ambientDivisions = ambDiv
rfluxPara.ambientBounces = 1
rfluxPara.limitWeight = limitWt
rflux = Rfluxmtx()
rflux.sender = '-'
skyFile = rflux.defaultSkyGround(skyDomeFile,
skyType='r%s' % reinhartPatches)
rflux.receiverFile = skyDomeFile
rflux.rfluxmtxParameters = rfluxPara
rflux.radFiles = sceneDataBlack
rflux.samplingRaysCount = 1
rflux.pointsFile = pointsFile
rflux.outputMatrix = dcCoeffMatrixDirect
if calcDict['DirectDCCoeff']:
rflux.execute()
tempDirectIll = os.path.join(tmpFolder, 'tempDirect.ill')
illDirect = os.path.join(tmpFolder, 'IlluminanceDirect.ill')
dct = Dctimestep()
dct.daylightCoeffSpec = dcCoeffMatrixDirect
dct.skyVectorFile = skyMatrixDirect
dct.outputFile = tempDirectIll
if calcDict['DCCoeff']:
dct.execute()
mtx2Param = RmtxopParameters()
mtx2Param.outputFormat = 'a'
mtx2Param.combineValues = (47.4, 119.9, 11.6)
mtx2Param.transposeMatrix = True
mtx2 = Rmtxop(matrixFiles=[tempDirectIll], outputFile=illDirect)
mtx2.rmtxopParameters = mtx2Param
if calcDict['DirectDCCoeff']:
mtx2.execute()
solarDiscPath = os.path.join(tmpFolder, 'solarDiscs.rad')
sunListPath = os.path.join(tmpFolder, 'sunList.txt')
sunMatrixPath = os.path.join(tmpFolder, 'sunMatrix.mtx')
# Calculate direct only ill files.
directSunIll = os.path.join(tmpFolder, 'directSunIll.ill')
if calcDict['DirectSun']:
calcDirectIlluminance(epwFile=epwFile,
solarDiscPath=solarDiscPath,
sunListPath=sunListPath,
sunMatrixPath=sunMatrixPath,
materialFile=blackMaterial,
geometryFiles=sceneDataBlack,
pointsFile=pointsFile,
folderForCalculations=folderForCalculations,
outputIllFilePath=directSunIll)
# Instantiate matrices for subtraction and addition.
finalMatrix = Rmtxop()
# std. dc matrix.
dcMatrix = RmtxopMatrix()
dcMatrix.matrixFile = ill
# direct dc matrix. -1 indicates that this one is being subtracted from dc matrix.
dcDirectMatrix = RmtxopMatrix()
dcDirectMatrix.matrixFile = illDirect
dcDirectMatrix.scalarFactors = [-1]
# Sun coefficient matrix.
sunCoeffMatrix = RmtxopMatrix()
sunCoeffMatrix.matrixFile = directSunIll
# combine the matrices together. Sequence is extremely important
finalMatrix.rmtxopMatrices = [dcMatrix, dcDirectMatrix, sunCoeffMatrix]
finalMatrix.outputFile = outputIllFilePath
# Done!
finalMatrix.execute()
return outputIllFilePath
def runDc(phasesToCalculate={
'dc': True,
's': True
},
calculationType='single',
epwFile=None,
hdrResultsFileName=None,
timeStamp=None,
skyDensity=1):
if phasesToCalculate['dc']:
# Step1: Create the view matrix.
vwrParaDim = VwraysParameters()
vwrParaDim.calcImageDim = True
vwrParaDim.xResolution = 800
vwrParaDim.yResolution = 800
vwrDim = Vwrays()
vwrDim.vwraysParameters = vwrParaDim
vwrDim.viewFile = 'viewSouth1.vf'
vwrDim.outputFile = r'temp/viewSouthDimensions.txt'
vwrDim.execute()
vwrParaSamp = VwraysParameters()
vwrParaSamp.xResolution = 800
vwrParaSamp.yResolution = 800
vwrParaSamp.samplingRaysCount = 9
vwrParaSamp.samplingRaysCount = 3
vwrParaSamp.jitter = 0.7
vwrSamp = Vwrays()
vwrSamp.vwraysParameters = vwrParaSamp
vwrSamp.viewFile = 'viewSouth1.vf'
vwrSamp.outputFile = r'temp/viewSouthRays.txt'
vwrSamp.outputDataFormat = 'f'
vwrSamp.execute()
rfluxPara = RfluxmtxParameters()
rfluxPara.ambientAccuracy = 0.1
# rfluxPara.ambientBounces = 10
# using this for a quicker run
rfluxPara.ambientBounces = 5
# rfluxPara.ambientDivisions = 65536
# using this for a quicker run
rfluxPara.ambientDivisions = 2000
# rfluxPara.limitWeight = 1E-5
rfluxPara.limitWeight = 1E-2
rflux = Rfluxmtx()
rflux.sender = '-'
groundFileFormat = 'temp/viewSouth%s.hdr' % (1 + 144 * (skyDensity**2))
# Klems full basis sampling and the window faces +Y
rflux.receiverFile = rflux.defaultSkyGround(
r'temp/rfluxSky.rad',
skyType='r1',
groundFileFormat=groundFileFormat,
skyFileFormat=r'temp/%03d.hdr')
rflux.outputDataFormat = 'fc'
rflux.verbose = True
rflux.numProcessors = 8
rflux.rfluxmtxParameters = rfluxPara
rflux.viewInfoFile = r'temp/viewSouthDimensions.txt'
rflux.viewRaysFile = r'temp/viewSouthRays.txt'
rflux.radFiles = ['room.mat', 'room.rad', 'glazing.rad']
rflux.samplingRaysCount = 9
rflux.samplingRaysCount = 3
rflux.execute()
# Step4a: Create the sky vector.
# Step4a.1: Create a sky defintion
# Step s: Creating the sky matrix
if phasesToCalculate['s']:
if calculationType == 'annual':
weaFile = Epw2wea(epwFile=epwFile or 'test.epw',
outputWeaFile=r'temp/test.wea')
weaFile.execute()
gendayParam = GendaymtxParameters()
gendayParam.skyDensity = skyDensity
genday = Gendaymtx(weaFile=r'temp/test.wea',
outputName=r'temp/day.smx')
genday.gendaymtxParameters = gendayParam
genday.execute()
skyVector = r'temp/day.smx'
else:
gensk = Gensky()
gensk.monthDayHour = timeStamp or (11, 11, 11)
gensk.outputFile = 'temp/sky.rad'
gensk.execute()
genskv = Genskyvec()
genskv.inputSkyFile = os.path.abspath(r'temp/sky.rad')
genskv.outputFile = os.path.abspath(r'temp/sky.vec')
genskv.skySubdivision = skyDensity
genskv.execute()
skyVector = r'temp/sky.vec'
else:
skyVector = r'temp/sky.vec'
# Step5: Generate results
dct = Dctimestep()
dct.daylightCoeffSpec = r'temp/%03d.hdr'
dct.skyVectorFile = skyVector
dct.outputFile = r'temp/results.hdr'
dct.execute()
return 'temp/results.txt'
def directSunCalcs(epwFile,
materialFile,
geometryFiles,
pointsFile,
calcASE=True,
calcASEptsSummary=True,
illumForASE=1000,
hoursForASE=250,
hoyForValidation=13,
repeatValidationOnly=False):
"""
Args:
epwFile: path.
materialFile: path.
geometryFiles: path(s).
pointsFile: path.
calcASE: Boolean. If set to False, only raytrace and illuminance calcs will be
performed.
calcASEptsSummary: If set to True, will produce a summary of points and the number
of hours for which they are above the value set for illumForASE. If set to
False only the direct value of ASE (as specified by LM-83-12 will be calculated.)
illumForASE: Illuminance for ASE. Has been set to a default of 1000 lux as per
LM-83-12.
hoursForASE: Hour-threshold for ASE. Has been set to a default of 250 hours as per
LM-83-12. This option is only relevant if the the calcASEptsSummary option has
been set to False. As otherwise, an entire list of hours will be produced regardless.
hoyForValidation: A value between 0 to 8759 to check the annual results against an
independent point-in-time ray-trace calc using rtrace. No validation will be
performed if this value is set to None.
repeatValidationOnly: Once the claculations have been run. Validation for more
hours can be performed by setting this to True. Default is False.
Returns: This function prints out. Does not return anything.
"""
#a sad logging hack
statusMsg = lambda msg: "\n%s:%s\n%s\n" % (time.ctime(), msg, "*~" * 25)
print(statusMsg('Starting calculations'))
sceneData = [materialFile]
#Append if single, extend if multiple
if isinstance(geometryFiles, basestring):
sceneData.append(geometryFiles)
elif isinstance(geometryFiles, (tuple, list)):
sceneData.extend(geometryFiles)
monthDateTime = [DateTime.fromHoy(idx) for idx in xrange(8760)]
epw = EPW(epwFile)
latitude, longitude = epw.location.latitude, -epw.location.longitude
meridian = -(15 * epw.location.timezone)
#Create a directory for ASE test.
dirName = 'tests/ASEtest'
if not os.path.exists(dirName):
os.mkdir(dirName)
#Defining these upfront so that this data may be used for validation without rerunning
#calcs every time
sunList = os.path.join(dirName, 'sunlist')
sunDiscRadFile = os.path.join(dirName, 'sunFile.rad')
radiationMatrix = os.path.join(dirName, 'sunRadiation.mtx')
annualResultsFile = os.path.join(dirName, 'illum.ill')
if not repeatValidationOnly:
# preCalcFiles = (sunList,sunDiscRadFile,radiationMatrix,annualResultsFile)
# for files in preCalcFiles:
# assert os.path.exists(files),'Precalculated data cannot be used as the file ' \
# '%s, which is required for calculations cannot be' \
# 'found.'
#instantiating classes before looping makes sense as it will avoid the same calls over
# and over.
genParam = GendaylitParameters()
genParam.meridian = meridian
genParam.longitude = longitude
genParam.latitude = latitude
genDay = Gendaylit()
sunValues = []
sunValuesHour = []
print(statusMsg('Calculating sun positions and radiation values'))
# We need to throw out all the warning values arising from times when sun isn't present.
# os.devnull serves that purpose.
with open(os.devnull, 'w') as warningDump:
for idx, timeStamp in enumerate(monthDateTime):
month, day, hour = timeStamp.month, timeStamp.day, timeStamp.hour + 0.5
genParam.dirNormDifHorzIrrad = (
epw.directNormalRadiation[idx],
epw.diffuseHorizontalRadiation[idx])
genDay.monthDayHour = (month, day, hour)
genDay.gendaylitParameters = genParam
gendayCmd = genDay.toRadString().split('|')[0]
#run cmd, get results in the form of a list of lines.
cmdRun = Popen(gendayCmd, stdout=PIPE, stderr=warningDump)
data = cmdRun.stdout.read().split('\n')
#clean the output by throwing out comments as well as brightness functions.
sunCurrentValue = []
for lines in data:
if not lines.strip().startswith("#"):
if "brightfunc" in lines:
break
if lines.strip():
sunCurrentValue.extend(lines.strip().split())
#If a sun definition was captured in the last for-loop, store info.
if sunCurrentValue and max(map(float, sunCurrentValue[6:9])):
sunCurrentValue[2] = 'solar%s' % (len(sunValues) + 1)
sunCurrentValue[9] = 'solar%s' % (len(sunValues) + 1)
sunValues.append(sunCurrentValue)
sunValuesHour.append(idx)
numOfSuns = len(sunValues)
print(statusMsg('Writing sun definitions to disc'))
#create list of suns.
with open(sunList, 'w') as sunList:
sunList.write("\n".join(
["solar%s" % (idx + 1) for idx in xrange(numOfSuns)]))
#create solar discs.
with open(sunDiscRadFile, 'w') as solarDiscFile:
solarDiscFile.write("\n".join([" ".join(sun)
for sun in sunValues]))
#Start creating header for the sun matrix.
fileHeader = ['#?RADIANCE']
fileHeader += ['Sun matrix created by Honeybee']
fileHeader += ['LATLONG= %s %s' % (latitude, -longitude)]
fileHeader += ['NROWS=%s' % numOfSuns]
fileHeader += ['NCOLS=8760']
fileHeader += ['NCOMP=3']
fileHeader += ['FORMAT=ascii']
#Write the matrix to file.
with open(radiationMatrix, 'w') as sunMtx:
sunMtx.write("\n".join(fileHeader) + '\n' + '\n')
for idx, sunValue in enumerate(sunValues):
sunRadList = ["0 0 0"] * 8760
sunRadList[sunValuesHour[idx]] = " ".join(sunValue[6:9])
sunMtx.write("\n".join(sunRadList) + "\n" + "\n")
#This last one is for the ground.
sunRadList = ["0 0 0"] * 8760
sunMtx.write("\n".join(sunRadList))
print(statusMsg('Starting Raytrace calculations.'))
octree = Oconv()
octree.sceneFiles = sceneData + [r'tests/ASEtest/sunFile.rad']
octree.outputFile = r'tests/ASEtest/roomSun.oct'
octree.execute()
rctPara = RcontribParameters()
rctPara.ambientBounces = 0
rctPara.directJitter = 0
rctPara.directCertainty = 1
rctPara.directThreshold = 0
rctPara.modFile = r'tests/ASEtest/sunlist'
rctPara.irradianceCalc = True
rctb = Rcontrib()
rctb.octreeFile = r'tests/ASEtest/roomSun.oct'
rctb.outputFile = r'tests/ASEtest/sunCoeff.dc'
rctb.pointsFile = pointsFile
rctb.rcontribParameters = rctPara
rctb.execute()
dct = Dctimestep()
dct.daylightCoeffSpec = r'tests/ASEtest/sunCoeff.dc'
dct.skyVectorFile = r'tests/ASEtest/sunRadiation.mtx'
dct.outputFile = r'tests/ASEtest/illum.tmp'
dct.execute()
mtx2Param = RmtxopParameters()
mtx2Param.outputFormat = 'a'
mtx2Param.combineValues = (47.4, 119.9, 11.6)
mtx2Param.transposeMatrix = True
mtx2 = Rmtxop(matrixFiles=[r'tests/ASEtest/illum.tmp'],
outputFile=annualResultsFile)
mtx2.rmtxopParameters = mtx2Param
mtx2.execute()
print(statusMsg('Finished raytrace.'))
# get points Data
pointsList = []
with open(pointsFile) as pointsData:
for lines in pointsData:
if lines.strip():
pointsList.append(map(float, lines.strip().split()[:3]))
hourlyIlluminanceValues = []
with open(annualResultsFile) as resData:
for lines in resData:
lines = lines.strip()
if lines:
try:
tempIllData = map(float, lines.split())
hourlyIlluminanceValues.append(tempIllData)
except ValueError:
pass
if calcASE:
#As per IES-LM-83-12 ASE is the percent of sensors in the analysis area that are
# found to be exposed to more than 1000lux of direct sunlight for more than 250hrs
# per year. The present script allows user to define what the lux and hour value
# should be.
sensorIllumValues = zip(*hourlyIlluminanceValues)
aseData = []
for idx, sensor in enumerate(sensorIllumValues):
x, y, z = pointsList[idx]
countAboveThreshold = len(
[val for val in sensor if val > illumForASE])
aseData.append([x, y, z, countAboveThreshold])
sensorsWithHoursAboveLimit = [
hourCount for x, y, z, hourCount in aseData
if hourCount > hoursForASE
]
percentOfSensors = len(sensorsWithHoursAboveLimit) / len(
pointsList) * 100
print(
"ASE RESULT: Percent of sensors above %sLux for more than %s hours = %s%%"
% (illumForASE, hoursForASE, percentOfSensors))
if calcASEptsSummary:
print(
"ASE RESULT: Location of sensors and # of hours above threshold of %sLux\n"
% illumForASE)
print("%12s %12s %12s %12s" % ('xCor', 'yCor', 'zCor', 'Hours'))
for x, y, z, countAboveThreshold in aseData:
print("%12.4f %12.4f %12.4f %12d" %
(x, y, z, countAboveThreshold))
#Stage 2: Check values from ASE calc against
if hoyForValidation in xrange(8760):
print(statusMsg('Starting validation calcs.'))
#Create a sky for a point in time calc.
timeStamp = monthDateTime[hoyForValidation]
month, day, hour = timeStamp.month, timeStamp.day, timeStamp.hour + 0.5
print(
"VALIDATION RESULTS: Comparing illuminancevalues for (month,day,hour):(%s, %s, %s)\n"
% (month, day, hour))
# msgString="\t\tComparing values for (month,day,hour):(%s, %s, %s)"%(month,day,hour)
# print(msgString)
# print("\t\t%s\n"%("~"*len(msgString)))
genParam = GendaylitParameters()
genParam.meridian = meridian
genParam.longitude = longitude
genParam.latitude = latitude
genDay = Gendaylit()
genParam.dirNormDifHorzIrrad = (
epw.directNormalRadiation[hoyForValidation],
epw.diffuseHorizontalRadiation[hoyForValidation])
genDay.monthDayHour = (month, day, hour)
genDay.gendaylitParameters = genParam
genDay.outputFile = r'tests/ASEtest/genday.sky'
genDay.execute()
octGenday = Oconv()
octGenday.sceneFiles = sceneData + [r'tests/ASEtest/genday.sky']
octGenday.outputFile = r'tests/ASEtest/roomSunGenday.oct'
octGenday.execute()
rtcPara = GridBasedParameters()
rtcPara.irradianceCalc = True
rtcPara.ambientBounces = 0
rtcPara.directJitter = 1
rtcPara.directCertainty = 1
rtcPara.directThreshold = 0
rtc = Rtrace()
rtc.radianceParameters = rtcPara
rtc.octreeFile = r'tests/ASEtest/roomSunGenday.oct'
rtc.pointsFile = pointsFile
rtc.outputFile = r'tests/ASEtest/rtraceTest.res'
rtc.execute()
#This is a quick hack to get values out of rtrace. I think the option to turn of header is
# nested inside.
rtraceIllValues = []
with open(r'tests/ASEtest/rtraceTest.res') as resFile:
for lines in resFile:
lines = lines.strip()
if lines:
try:
r, g, b = map(float, lines.strip().split())
r, g, b = r * 47.4, g * 119.9, b * 11.6
rtraceIllValues.append(r + g + b)
except ValueError:
pass
print("%12s %12s %12s %12s %12s %12s%%" %
('xCor', 'yCor', 'zCor', 'Annual-Ill', 'Rtrace-Ill', 'Diff'))
for point, aseVal, rtraceVal in zip(
pointsList, hourlyIlluminanceValues[hoyForValidation],
rtraceIllValues):
x, y, z = point
if rtraceVal:
diff = (rtraceVal - aseVal) / rtraceVal
aseVal, rtraceVal, diff = map(lambda x: round(x, 4),
(aseVal, rtraceVal, diff * 100))
else:
aseVal, rtraceVal, diff = 0.0, 0.0, 0.0
aseVal, rtraceVal, diff = map(lambda x: round(x, 4),
(aseVal, rtraceVal, diff * 100))
print("%12.4f %12.4f %12.4f %12.4f %12.4f %12.4f%%" %
(x, y, z, aseVal, rtraceVal, diff))
print(statusMsg('Done!'))
def run3phase(phasesToCalculate={'v':True,'t':True,'d':True,'s':True},
calculationType='annual',epwFile=None,tmatrixFile=None,
hdrResultsFileName=None,numProcessors=1,timeStamp=None):
if phasesToCalculate['v']:
# Step1: Create the view matrix.
rfluxPara = RfluxmtxParameters()
rfluxPara.ambientAccuracy = 0.1
rfluxPara.ambientBounces = 10
# using this for a quicker run
rfluxPara.ambientBounces = 5
rfluxPara.ambientDivisions = 65536
# using this for a quicker run
# rfluxPara.ad = 1000
rfluxPara.limitWeight = 1E-5
# rfluxPara.lw = 1E-2
#step 1.1 Invert glazing surface with xform so that it faces inwards
xfrPara = XformParameters()
xfrPara.invertSurfaces = True
xfr = Xform()
xfr.xformParameters = xfrPara
xfr.radFile = 'glazing.rad'
xfr.outputFile = 'glazingI.rad'
xfr.execute()
vwrParaDim = VwraysParameters()
vwrParaDim.calcImageDim = True
vwrParaDim.xResolution = 800
vwrParaDim.yResolution = 800
vwrDim = Vwrays()
vwrDim.vwraysParameters = vwrParaDim
vwrDim.viewFile = 'viewSouth1.vf'
vwrDim.outputFile = r'temp/viewSouthDimensions.txt'
vwrDim.execute()
vwrParaSamp = VwraysParameters()
vwrParaSamp.xResolution = 800
vwrParaSamp.yResolution = 800
vwrParaSamp.samplingRaysCount = 9
# vwrParaSamp.samplingRaysCount = 3
vwrParaSamp.jitter = 0.7
vwrSamp = Vwrays()
vwrSamp.vwraysParameters = vwrParaSamp
vwrSamp.viewFile = 'viewSouth1.vf'
vwrSamp.outputFile = r'temp/viewSouthRays.txt'
vwrSamp.outputDataFormat = 'f'
vwrSamp.execute()
rflux = Rfluxmtx()
rflux.sender = '-'
#Klems full basis sampling and the window faces +Y
recCtrlPar = rflux.ControlParameters(hemiType='kf',hemiUpDirection='+Z')
rflux.receiverFile = rflux.addControlParameters('glazingI.rad',
{'Exterior_Window':recCtrlPar})
rflux.outputDataFormat = 'fc'
rflux.verbose = True
rflux.rfluxmtxParameters = rfluxPara
rflux.viewInfoFile = r'temp/viewSouthDimensions.txt'
rflux.viewRaysFile = r'temp/viewSouthRays.txt'
rflux.radFiles = ['room.mat','room.rad','glazing.rad']
rflux.outputFilenameFormat = r'temp/%03d.hdr'
rflux.samplingRaysCount = 9
# rflux.samplingRaysCount = 3
rflux.numProcessors = numProcessors
rflux.execute()
vMatrix = r'temp/vmatrix.vmx'
#Step2: Assign T matrix from precalculated XML files.
tMatrix = tmatrixFile or r'xmls/clear.xml'
if phasesToCalculate['d']:
#Step3: Create D matrix.
rfluxPara = RfluxmtxParameters()
rfluxPara.ambientAccuracy = 0.1
rfluxPara.ambientDivisions = 1024
rfluxPara.ambientBounces = 2
rfluxPara.limitWeight = 0.0000001
rflux2 = Rfluxmtx()
rflux2.numProcessors = numProcessors
rflux2.samplingRaysCount = 1000
rflux2.sender = 'glazingI.rad_m'
skyFile = rflux2.defaultSkyGround(r'temp/rfluxSky.rad', skyType='r4')
rflux2.receiverFile = skyFile
rflux2.rfluxmtxParameters = rfluxPara
rflux2.radFiles = [r"room.mat",
r"room.rad",
'glazing.rad']
rflux2.outputMatrix = r"temp/dmatrix.dmx"
rflux2.execute()
dMatrix = r"temp/dmatrix.dmx"
#Step4a: Create the sky vector.
#Step4a.1: Create a sky defintion
# Step s: Creating the sky matrix
if phasesToCalculate['s']:
if calculationType == 'annual':
weaFile = Epw2wea(epwFile=epwFile or 'test.epw', outputWeaFile=r'temp/test.wea')
weaFile.execute()
gendayParam = GendaymtxParameters()
gendayParam.skyDensity = 4
genday = Gendaymtx(weaFile=r'temp/test.wea', outputName=r'temp/day.smx')
genday.gendaymtxParameters = gendayParam
genday.execute()
skyVector = r'temp/day.smx'
else:
genskPar = GenskyParameters()
gensk = Gensky()
gensk.monthDayHour = timeStamp or (11,11,11)
gensk.outputFile = 'temp/sky.rad'
gensk.execute()
genskv = Genskyvec()
genskv.inputSkyFile = r'temp/sky.rad'
genskv.outputFile = r'temp/sky.vec'
genskv.skySubdivision = 4
genskv.execute()
skyVector = r'temp/sky.vec'
else:
skyVector = r'temp/sky.vec'
# Step5: Generate results
dct = Dctimestep()
dct.tmatrixFile = tMatrix
dct.vmatrixSpec = r'temp/%03d.hdr'
dct.dmatrixFile = dMatrix
dct.skyVectorFile = skyVector
dct.outputFileName = hdrResultsFileName or r'temp/results.hdr'
dct.execute()
return 'temp/results.txt'