def calcDecayWidthFull(processId):
'''
Calculate the decay width to a given process, defined by processFAID in FeynArts input format.
Calculates the decay width with LoopTools.
'''
# Check if the temporary results folder exists (normally at this point, it should not) and if so, delete it
if os.path.exists("Temp" + os.sep + "Results"):
delPath = "Temp" + os.sep + "Results"
rmtree(delPath)
os.makedirs("Temp" + os.sep + "Results") # Recreate the results folder
# Create the result directory
CommonFunctions.create_dir_if_not_exist("Results")
CommonFunctions.create_dir_if_not_exist("Results" + os.sep + processId)
# Get a list of parameter files
parameterList = os.listdir("Parameters" + os.sep + processId)
# Modify the parameter names so that they contain the processId as well
for i in range(0, len(parameterList)):
parameterList[i] = processId + "PROCESSSEPARATOR" + parameterList[i]
# Get the number of cores of the system (TODO: hyperthreading issue? Actually slowing down?)
numberCores = multiprocessing.cpu_count()
# Calculate all 1PI contributions in parallel
for _ in multiprocessing.Pool(numberCores).imap_unordered(
calcDecayWidthLT, parameterList):
pass
# Get the list of all results files
resultsFiles = os.listdir("Temp" + os.sep + "Results")
# Convert all result files and store them in the correct directory
resultsFilesComplete = ''
for i in range(0, len(resultsFiles)):
# Create the file name
filename = "Temp" + os.sep + "Results" + os.sep + resultsFiles[i]
# Replace the newline character in each file with a proper newline
fileHandler = open(filename, "r")
convertedFile = ''
convertedFileToAll = ''
for line in fileHandler:
# Convert the literal newlines to actual ones
convertedFile += line.replace('\\n', '\n')
# Skip the first line in all other files than the first, since it contains only the key which is already present
if (i < 1):
numberOfLinebreaks = len(line.split('\\n'))
convertedFileToAll += (line.replace(
'\\n', '\n', numberOfLinebreaks - 2)).replace('\\n', '')
else:
numberOfLinebreaks = len(line.split('\\n'))
convertedFileToAll += (((line.split('\\n', 1))[1]).replace(
'\\n', '\n', numberOfLinebreaks - 3)).replace('\\n', '')
fileHandler.close()
# Store the results file in the correct directory
fileHandler = open(
"Results" + os.sep + processId + os.sep + resultsFiles[i], "w+")
fileHandler.write(convertedFile)
fileHandler.close()
# Store the content of all files in a single variable
resultsFilesComplete += convertedFileToAll
# Save the complete result file
filenameAddendum = (resultsFiles[i].split('_'))[0] + '_' + (
resultsFiles[i].split('_'))[1] + '.txt'
fileHandler = open(
"Results" + os.sep + processId + os.sep + filenameAddendum, "w+")
fileHandler.write(resultsFilesComplete)
fileHandler.close()
# Remove the temporary files
delPath = "Temp"
rmtree(delPath)
createFolders = CommonFunctions.queryBoolean(
"Do you want to create all necessary folders?")
calcLagrangian = CommonFunctions.queryBoolean(
"Do you want to calculate the generic 2HDM Lagrangian?")
calcSelfEnergies = CommonFunctions.queryBoolean(
"Do you want to calculate the 2HDM Self-Energies?")
calcTadpoles = CommonFunctions.queryBoolean(
"Do you want to calculate the 2HDM Tadpoles?")
calcProcDep = CommonFunctions.queryBoolean(
"Do you want to calculate the vertex corrections for the process-dependent definition of alpha and beta?"
)
#Create all folders
if createFolders:
CommonFunctions.create_dir_if_not_exist(
"BuildingBlocks"
) # Contains all calculated Self-Energies, Generic Counterterms and the 2HDM Lagrangian
CommonFunctions.create_dir_if_not_exist("BuildingBlocks" + os.sep +
"SelfEnergiesDerivatives")
CommonFunctions.create_dir_if_not_exist("BuildingBlocks" + os.sep +
"SelfEnergies")
CommonFunctions.create_dir_if_not_exist("BuildingBlocks" + os.sep +
"SelfEnergies" + os.sep +
"Alternative")
CommonFunctions.create_dir_if_not_exist("BuildingBlocks" + os.sep +
"SelfEnergies" + os.sep + "Usual")
CommonFunctions.create_dir_if_not_exist("BuildingBlocks" + os.sep +
"Tadpoles")
CommonFunctions.create_dir_if_not_exist("BuildingBlocks" + os.sep +
"Lagrangian")
CommonFunctions.create_dir_if_not_exist("BuildingBlocks" + os.sep +
processString = processString[:-1]
# Get the symmetry factor (two identical outgoing particles: 2!)
if processQuery[2][0] == processQuery[2][1]:
symmetryFactor = 2
else:
symmetryFactor = 1
print('\nThe process {0} -> {1} has valid syntax.\n'.format(
incomingForm, outgoingForm))
processId = incomingForm + "to" + outgoingForm # Unique process id in the form AABBtoXXYY
processToMathematica = incomingFAForm + "to" + outgoingFAForm # Same process id, but in the input format for FeynArts
# Create a unique dir for the process
CommonFunctions.create_dir_if_not_exist("BuildingBlocks" + os.sep +
"Processes" + os.sep +
processId)
CommonFunctions.create_dir_if_not_exist("BuildingBlocks" + os.sep +
"Processes" + os.sep +
processId + os.sep +
"TreeLevel")
CommonFunctions.create_dir_if_not_exist("BuildingBlocks" + os.sep +
"Processes" + os.sep +
processId + os.sep +
"VertexCorrections")
CommonFunctions.create_dir_if_not_exist("BuildingBlocks" + os.sep +
"Processes" + os.sep +
processId + os.sep +
"VertexTadpoles")
# Print the process information to a text file
