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Copy pathgenerate_training_data_v2.py
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215 lines (180 loc) · 8.88 KB
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import sys
#remove the original mantid path
popList = []
for i in range(len(sys.path))[::-1]:
if 'antid' in sys.path[i]:
sys.path.pop(i)
import socket
if 'sns' in socket.gethostname():
sys.path.append('/SNS/users/ntv/mantid/mantid/release/bin')
#sys.path.append('/SNS/users/ntv/workspace/mantid/release/bin')
else:
#sys.path.append('/home/ntv/mantid/mantid/bin/')
sys.path.append('/home/ntv/workspace/mantid/release/bin/')
import matplotlib.pyplot as plt
plt.ion()
#if '../' not in sys.path: sys.path.append('../')
import numpy as np
from scipy.optimize import curve_fit
from mantid.simpleapi import *
from mantid.kernel import V3D
import ICCFitTools as ICCFT
import BVGFitTools as BVGFT
import pickle
from scipy.ndimage import convolve, rotate
reload(ICCFT)
reload(BVGFT)
import pandas as pd
from tqdm import tqdm
import glob
import os
import ICConvoluted as ICC
import mltools
peakNumbersToGet = [15]
#beta lac july 2018 second xtal
peaksFile = '/home/ntv/mandi_preprocessing/beta_lac_july2018/beta_lac_july2018_secondxtal.integrate'
UBFile = '/home/ntv/mandi_preprocessing/beta_lac_july2018/beta_lac_july2018_secondxtal.mat'
DetCalFile = '/home/ntv/mandi_preprocessing/MANDI_June2018.DetCal'
workDir = '/SNS/users/ntv/dropbox/' #End with '/'
nxsTemplate = '/SNS/MANDI/IPTS-8776/nexus/MANDI_%i.nxs.h5'
dQPixel=0.003
q_frame = 'lab'
pplmin_frac=0.9; pplmax_frac=1.1; mindtBinWidth=15; maxdtBinWidth=50
moderatorFile = '/home/ntv/integrate/bl11_moderatorCoefficients_2018.dat'
# Some parameters
peakToGet = 3 #Arbitrary - just has to be less than the number of peaks
padeCoefficients = ICCFT.getModeratorCoefficients(moderatorFile)
removeEdges = False
importPeaks = True
fractionForTesting = 0.1
for ws in mtd.getObjectNames():
if mtd[ws].getComment() == '%s'%peaksFile:
print ' using already loaded peaks file'
importPeaks = False
peaks_ws = mtd[ws]
if importPeaks:
peaks_ws = LoadIsawPeaks(Filename = peaksFile)
peaks_ws.setComment(peaksFile)
#baseDirectory = '/data/peaks_tf_halfRot_strongOnly_allSets_limitedNoise/'
baseDirectory = '/data/peaks_tf_mltoolstest_limitedNoise_0p025_cutoff_0p5MaxNoise/'
if len(sys.argv) == 1:
runNumbersToAdd = range(9113,9117+1)
cleanDirectories = True
else:
runNumbersToAdd = map(int,sys.argv[1:])
if 9113 in runNumbersToAdd:
cleanDirectories = True
else:
cleanDirectories = False
print('Will generate data from runs %s'%(str(runNumbersToAdd)))
if not os.path.exists(baseDirectory):
print('Creating path %s'%(baseDirectory))
os.mkdir(baseDirectory)
for pathType in ['train/', 'train_solution/', 'test/', 'test_solution/']:
if not os.path.exists(baseDirectory+pathType):
print('Creating path %s'%(baseDirectory+pathType))
os.mkdir(baseDirectory+pathType)
if cleanDirectories:
# Clean the output directories
fileList = glob.glob(baseDirectory+'train/*pkl')
fileList += glob.glob(baseDirectory+'train_solution/*pkl')
fileList += glob.glob(baseDirectory+'test/*pkl')
fileList += glob.glob(baseDirectory+'test_solution/*pkl')
print 'Removing %i files'%len(fileList)
for fileName in fileList:
try:
os.remove(fileName)
except:
print('Could not remove %s'%fileName)
LoadIsawUB(InputWorkspace=peaks_ws, FileName=UBFile)
UBMatrix = peaks_ws.sample().getOrientedLattice().getUB()
dQ = np.abs(ICCFT.getDQFracHKL(UBMatrix, frac=0.5))
dQ[dQ>0.2]=0.2
qMask = ICCFT.getHKLMask(UBMatrix, frac=0.25, dQPixel=dQPixel, dQ=dQ)
peak = peaks_ws.getPeak(peakToGet)
SetInstrumentParameter(Workspace='peaks_ws', ParameterName='fitConvolvedPeak', ParameterType='Bool', Value='False')
SetInstrumentParameter(Workspace='peaks_ws', ParameterName='sigX0Scale', ParameterType='Number', Value='1.0')
SetInstrumentParameter(Workspace='peaks_ws', ParameterName='sigY0Scale', ParameterType='Number', Value='1.0')
SetInstrumentParameter(Workspace='peaks_ws', ParameterName='numDetRows', ParameterType='Number', Value='255')
SetInstrumentParameter(Workspace='peaks_ws', ParameterName='numDetCols', ParameterType='Number', Value='255')
SetInstrumentParameter(Workspace='peaks_ws', ParameterName='numBinsTheta', ParameterType='Number', Value='50')
SetInstrumentParameter(Workspace='peaks_ws', ParameterName='numBinsPhi', ParameterType='Number', Value='50')
SetInstrumentParameter(Workspace='peaks_ws', ParameterName='fracHKL', ParameterType='Number', Value='0.4')
SetInstrumentParameter(Workspace='peaks_ws', ParameterName='dQPixel', ParameterType='Number', Value='0.003')
SetInstrumentParameter(Workspace='peaks_ws', ParameterName='mindtBinWidth', ParameterType='Number', Value='5.0')
SetInstrumentParameter(Workspace='peaks_ws', ParameterName='maxdtBinWidth', ParameterType='Number', Value='50.0')
SetInstrumentParameter(Workspace='peaks_ws', ParameterName='peakMaskSize', ParameterType='Number', Value='5')
SetInstrumentParameter(Workspace='peaks_ws', ParameterName='iccKConv', ParameterType='String', Value='100.0 140.0 120.0')
dQPixel = peaks_ws.getInstrument().getNumberParameter("dQPixel")[0]
instrumentName = peaks_ws.getInstrument().getFullName()
mindtBinWidth = peaks_ws.getInstrument().getNumberParameter("minDTBinWidth")[0]
maxdtBinWidth = peaks_ws.getInstrument().getNumberParameter("maxDTBinWidth")[0]
nTheta = peaks_ws.getInstrument().getIntParameter("numBinsTheta")[0]
nPhi = peaks_ws.getInstrument().getIntParameter("numBinsPhi")[0]
iccFitDict = ICCFT.parseConstraints(peaks_ws)
strongPeakParams = pickle.load(open('/home/ntv/integrate/strongPeaksParams_betalac_july2018_secondxtal.pkl','rb'))
df = pd.read_pickle('/home/ntv/Desktop/beta_lac_highres_df.pkl')
numBad = 0
print('Starting to generate output....')
pickle.dump(qMask, open(baseDirectory+'qMask.pkl', 'wb'))
paramList = []
peakThreshold = 0.025
for runNumber in runNumbersToAdd:
print(' Starting run %i'%(runNumber))
goodIDX = (df['chiSq'] < 5.0) & (df['chiSq'] > 0.50) & (df['chiSq3d']<4) #& (df['notOutlier']) & (df['Intens3d'] > -1.*np.inf)
dEdge = 1
edgeIDX = (df['Row'] <= dEdge) | (df['Row'] >= 255-dEdge) | (df['Col'] <= dEdge) | (df['Col'] >= 255-dEdge)
goodIDX = goodIDX & ~edgeIDX
strongIDX = goodIDX & (df['IntensEll']>200)&(df['RunNumber']==runNumber)
strongPeakNumbers = df[strongIDX]['PeakNumber'].values
numStrongPeaks = len(strongPeakNumbers)
peakNumbersToGet = strongPeakNumbers
#Reload MDdata if need to for this run
importFlag = True
for ws in mtd.getObjectNames():
if mtd[ws].getComment() == 'BSGETBOX%i'%runNumber:
print ' Using already loaded MDdata'
MDdata = mtd[ws]
importFlag = False
break
if importFlag:
try:
fileName = nxsTemplate%runNumber
except:
fileName = nxsTemplate.format(0, runNumber)
MDdata = ICCFT.getSample(runNumber, DetCalFile, workDir, fileName, q_frame=q_frame)
MDdata.setComment('BSGETBOX%i'%runNumber)
for fitNumber, peakToGet in enumerate(tqdm(peakNumbersToGet)):
try:
peakDict = {}
peak = peaks_ws.getPeak(peakToGet);
box = ICCFT.getBoxFracHKL(peak, peaks_ws, MDdata, UBMatrix, peakToGet, dQ, dQPixel=dQPixel, q_frame=q_frame);
Y3D = mltools.reconstructY3D(box, df, peak, peakToGet)
# Set the simulated peaks
reload(mltools)
n_simulated, Y_simulated, peakDict = mltools.generateTrainingPeak(peak, box, Y3D, peakDict,
UBMatrix, rebinHKL=False, addNoise=True, peakThreshold=peakThreshold,
qMask=qMask, noiseScaleFactor=0.5)
peakIDX = Y_simulated/Y_simulated.max() > peakThreshold;
# Record a few extra things so we can analyze the training peaks if we want
peakDict['PeakNumber'] = peakToGet
peakDict['Intens'] = peak.getIntensity()
peakDict['SigIng'] = peak.getSigmaIntensity()
peakDict['theta'] = peak.getScattering()*0.5
peakDict['numVoxelsSimulated'] = peakIDX.sum()
peakDict['numVoxelRaw'] = (Y3D/Y3D.max() > peakThreshold).sum()
paramList.append(peakDict)
#Write the answer
if np.random.rand() > fractionForTesting:
pickle.dump(n_simulated, open(baseDirectory+'train/%i.pkl'%peakToGet,'wb'));
pickle.dump(peakIDX, open(baseDirectory+'train_solution/%i.pkl'%peakToGet,'wb'));
else:
pickle.dump(n_simulated, open(baseDirectory+'test/%i.pkl'%peakToGet,'wb'));
pickle.dump(peakIDX, open(baseDirectory+'test_solution/%i.pkl'%peakToGet,'wb'));
except KeyboardInterrupt:
raise
except:
#raise
print('Error generating training set for peak %i'%peakToGet)
numBad += 1
pickle.dump(paramList, open(baseDirectory+'simulated_peak_params_%i.pkl'%runNumber, 'wb'))