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WALL-E: Einmal aufräumen und zurück!

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This commit is contained in:
Sebastian Wehling-Benatelli 2016-03-30 08:14:58 +02:00
parent a2640e3126
commit d7cfd0d176
29 changed files with 1285 additions and 1105 deletions
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15
autoPyLoT.py
View File

@ -1,6 +1,7 @@
#!/usr/bin/python #!/usr/bin/python
# -*- coding: utf-8 -*- # -*- coding: utf-8 -*-
from __future__ import print_function
import os import os
import argparse import argparse
import glob import glob
@ -55,9 +56,9 @@ def autoPyLoT(inputfile):
if parameter.hasParam('datastructure'): if parameter.hasParam('datastructure'):
datastructure = DATASTRUCTURE[parameter.getParam('datastructure')]() datastructure = DATASTRUCTURE[parameter.getParam('datastructure')]()
dsfields = {'root' :parameter.getParam('rootpath'), dsfields = {'root': parameter.getParam('rootpath'),
'dpath' :parameter.getParam('datapath'), 'dpath': parameter.getParam('datapath'),
'dbase' :parameter.getParam('database')} 'dbase': parameter.getParam('database')}
exf = ['root', 'dpath', 'dbase'] exf = ['root', 'dpath', 'dbase']
@ -94,7 +95,6 @@ def autoPyLoT(inputfile):
print("!!No source parameter estimation possible!!") print("!!No source parameter estimation possible!!")
print(" !!! ") print(" !!! ")
# multiple event processing # multiple event processing
# read each event in database # read each event in database
datapath = datastructure.expandDataPath() datapath = datastructure.expandDataPath()
@ -115,7 +115,7 @@ def autoPyLoT(inputfile):
picksExport(picks, 'NLLoc', phasefile) picksExport(picks, 'NLLoc', phasefile)
# For locating the event the NLLoc-control file has to be modified! # For locating the event the NLLoc-control file has to be modified!
evID = event[string.rfind(event, "/") + 1 : len(events) - 1] evID = event[string.rfind(event, "/") + 1: len(events) - 1]
nllocout = '%s_%s' % (evID, nllocoutpatter) nllocout = '%s_%s' % (evID, nllocoutpatter)
# create comment line for NLLoc-control file # create comment line for NLLoc-control file
modifyInputFile(ctrf, nllocroot, nllocout, phasef, ttpat) modifyInputFile(ctrf, nllocroot, nllocout, phasef, ttpat)
@ -218,8 +218,8 @@ def autoPyLoT(inputfile):
# single event processing # single event processing
else: else:
data.setWFData(glob.glob(os.path.join(datapath, parameter.getParam('eventID'), '*'))) data.setWFData(glob.glob(os.path.join(datapath, parameter.getParam('eventID'), '*')))
print("Working on event "), parameter.getParam('eventID') print("Working on event {0}".format(parameter.getParam('eventID')))
print data print(data)
wfdat = data.getWFData() # all available streams wfdat = data.getWFData() # all available streams
########################################################## ##########################################################
@ -338,6 +338,7 @@ def autoPyLoT(inputfile):
************************************'''.format(version=_getVersionString()) ************************************'''.format(version=_getVersionString())
print(endsp) print(endsp)
if __name__ == "__main__": if __name__ == "__main__":
# parse arguments # parse arguments
parser = argparse.ArgumentParser( parser = argparse.ArgumentParser(

6
makePyLoT.py
View File

@ -1,5 +1,7 @@
#!/usr/bin/env python #!/usr/bin/env python
# encoding: utf-8 # encoding: utf-8
from __future__ import print_function
""" """
makePyLoT -- build and install PyLoT makePyLoT -- build and install PyLoT
@ -123,7 +125,7 @@ USAGE
except KeyboardInterrupt: except KeyboardInterrupt:
cleanUp(verbose) cleanUp(verbose)
return 0 return 0
except Exception, e: except Exception as e:
if DEBUG or TESTRUN: if DEBUG or TESTRUN:
raise e raise e
indent = len(program_name) * " " indent = len(program_name) * " "
@ -139,7 +141,7 @@ def buildPyLoT(verbosity=None):
"\n" "\n"
" Current working directory: {1}\n" " Current working directory: {1}\n"
).format(system, os.getcwd()) ).format(system, os.getcwd())
print msg print(msg)
if system.startswith(('win', 'microsoft')): if system.startswith(('win', 'microsoft')):
raise CLIError( raise CLIError(
"building on Windows system not tested yet; implementation pending") "building on Windows system not tested yet; implementation pending")

120
pylot/core/active/activeSeismoPick.py
View File

@ -4,8 +4,9 @@ import numpy as np
from pylot.core.active import seismicshot from pylot.core.active import seismicshot
from pylot.core.active.surveyUtils import cleanUp from pylot.core.active.surveyUtils import cleanUp
class Survey(object): class Survey(object):
def __init__(self, path, sourcefile, receiverfile, useDefaultParas = False): def __init__(self, path, sourcefile, receiverfile, useDefaultParas=False):
''' '''
The Survey Class contains all shots [type: seismicshot] of a survey The Survey Class contains all shots [type: seismicshot] of a survey
as well as the aquisition geometry and the topography. as well as the aquisition geometry and the topography.
@ -47,7 +48,7 @@ class Survey(object):
self.data = shot_dict self.data = shot_dict
print ("Generated Survey object for %d shots" % len(shotlist)) print ("Generated Survey object for %d shots" % len(shotlist))
print ("Total number of traces: %d \n" %self.countAllTraces()) print ("Total number of traces: %d \n" % self.countAllTraces())
def _removeAllEmptyTraces(self): def _removeAllEmptyTraces(self):
filename = 'removeEmptyTraces.out' filename = 'removeEmptyTraces.out'
@ -58,11 +59,11 @@ class Survey(object):
if count == 0: outfile = open(filename, 'w') if count == 0: outfile = open(filename, 'w')
count += 1 count += 1
outfile.writelines('shot: %s, removed empty traces: %s\n' outfile.writelines('shot: %s, removed empty traces: %s\n'
%(shot.getShotnumber(), removed)) % (shot.getShotnumber(), removed))
print ("\nremoveEmptyTraces: Finished! Removed %d traces" %count) print ("\nremoveEmptyTraces: Finished! Removed %d traces" % count)
if count > 0: if count > 0:
print ("See %s for more information " print ("See %s for more information "
"on removed traces."%(filename)) "on removed traces." % (filename))
outfile.close() outfile.close()
def _updateShots(self): def _updateShots(self):
@ -70,7 +71,8 @@ class Survey(object):
Removes traces that do not exist in the dataset for any reason. Removes traces that do not exist in the dataset for any reason.
''' '''
filename = 'updateShots.out' filename = 'updateShots.out'
count = 0; countTraces = 0 count = 0;
countTraces = 0
for shot in self.data.values(): for shot in self.data.values():
del_traceIDs = shot.updateTraceList() del_traceIDs = shot.updateTraceList()
if len(del_traceIDs) > 0: if len(del_traceIDs) > 0:
@ -79,13 +81,13 @@ class Survey(object):
countTraces += len(del_traceIDs) countTraces += len(del_traceIDs)
outfile.writelines("shot: %s, removed traceID(s) %s because " outfile.writelines("shot: %s, removed traceID(s) %s because "
"they were not found in the corresponding stream\n" "they were not found in the corresponding stream\n"
%(shot.getShotnumber(), del_traceIDs)) % (shot.getShotnumber(), del_traceIDs))
print ("\nupdateShots: Finished! Updated %d shots and removed " print ("\nupdateShots: Finished! Updated %d shots and removed "
"%d traces" %(count, countTraces)) "%d traces" % (count, countTraces))
if count > 0: if count > 0:
print ("See %s for more information " print ("See %s for more information "
"on removed traces."%(filename)) "on removed traces." % (filename))
outfile.close() outfile.close()
def setArtificialPick(self, traceID, pick): def setArtificialPick(self, traceID, pick):
@ -96,7 +98,7 @@ class Survey(object):
for shot in self.data.values(): for shot in self.data.values():
shot.setPick(traceID, pick) shot.setPick(traceID, pick)
def setParametersForShots(self, cutwindow = (0, 0.2), tmovwind = 0.3, tsignal = 0.03, tgap = 0.0007): def setParametersForShots(self, cutwindow=(0, 0.2), tmovwind=0.3, tsignal=0.03, tgap=0.0007):
if (cutwindow == (0, 0.2) and tmovwind == 0.3 and if (cutwindow == (0, 0.2) and tmovwind == 0.3 and
tsignal == 0.03 and tgap == 0.0007): tsignal == 0.03 and tgap == 0.0007):
print ("Warning: Standard values used for " print ("Warning: Standard values used for "
@ -107,12 +109,12 @@ class Survey(object):
shot.setTmovwind(tmovwind) shot.setTmovwind(tmovwind)
shot.setTsignal(tsignal) shot.setTsignal(tsignal)
shot.setTgap(tgap) shot.setTgap(tgap)
shot.setOrder(order = 4) shot.setOrder(order=4)
print ("setParametersForShots: Parameters set to:\n" print ("setParametersForShots: Parameters set to:\n"
"cutwindow = %s, tMovingWindow = %f, tsignal = %f, tgap = %f" "cutwindow = %s, tMovingWindow = %f, tsignal = %f, tgap = %f"
%(cutwindow, tmovwind, tsignal, tgap)) % (cutwindow, tmovwind, tsignal, tgap))
def setManualPicksFromFiles(self, directory = 'picks'): def setManualPicksFromFiles(self, directory='picks'):
''' '''
Read manual picks from *.pck files in a directory. Read manual picks from *.pck files in a directory.
The * must be identical with the shotnumber. The * must be identical with the shotnumber.
@ -135,7 +137,10 @@ class Survey(object):
def plotDiffs(self): def plotDiffs(self):
import matplotlib.pyplot as plt import matplotlib.pyplot as plt
diffs = []; dists = []; mpicks = []; picks = [] diffs = [];
dists = [];
mpicks = [];
picks = []
diffsDic = self.getDiffsFromManual() diffsDic = self.getDiffsFromManual()
for shot in self.data.values(): for shot in self.data.values():
for traceID in shot.getTraceIDlist(): for traceID in shot.getTraceIDlist():
@ -151,15 +156,15 @@ class Survey(object):
fig = plt.figure() fig = plt.figure()
ax = fig.add_subplot(111) ax = fig.add_subplot(111)
sc_a = ax.scatter(dists, picks, c = '0.5', s=10, edgecolors='none', label = labela, alpha = 0.3) sc_a = ax.scatter(dists, picks, c='0.5', s=10, edgecolors='none', label=labela, alpha=0.3)
sc = ax.scatter(dists, mpicks, c = diffs, s=5, edgecolors='none', label = labelm) sc = ax.scatter(dists, mpicks, c=diffs, s=5, edgecolors='none', label=labelm)
cbar = plt.colorbar(sc, fraction=0.05) cbar = plt.colorbar(sc, fraction=0.05)
cbar.set_label(labelm) cbar.set_label(labelm)
ax.set_xlabel('Distance [m]') ax.set_xlabel('Distance [m]')
ax.set_ylabel('Time [s]') ax.set_ylabel('Time [s]')
ax.text(0.5, 0.95, 'Plot of all MANUAL picks', transform=ax.transAxes, horizontalalignment='center') ax.text(0.5, 0.95, 'Plot of all MANUAL picks', transform=ax.transAxes, horizontalalignment='center')
def plotHist(self, nbins = 20, ax = None): def plotHist(self, nbins=20, ax=None):
import matplotlib.pyplot as plt import matplotlib.pyplot as plt
plt.interactive(True) plt.interactive(True)
diffs = [] diffs = []
@ -170,21 +175,23 @@ class Survey(object):
for traceID in shot.getTraceIDlist(): for traceID in shot.getTraceIDlist():
if shot.getPickFlag(traceID) == 1 and shot.getManualPickFlag(traceID) == 1: if shot.getPickFlag(traceID) == 1 and shot.getManualPickFlag(traceID) == 1:
diffs.append(self.getDiffsFromManual()[shot][traceID]) diffs.append(self.getDiffsFromManual()[shot][traceID])
hist = plt.hist(diffs, nbins, histtype = 'step', normed = True, stacked = True) hist = plt.hist(diffs, nbins, histtype='step', normed=True, stacked=True)
plt.title('Histogram of the differences between automatic and manual pick') plt.title('Histogram of the differences between automatic and manual pick')
plt.xlabel('Difference in time (auto - manual) [s]') plt.xlabel('Difference in time (auto - manual) [s]')
return diffs return diffs
def pickAllShots(self, windowsize, HosAic = 'hos', vmin = 333, vmax = 5500, folm = 0.6): def pickAllShots(self, windowsize, HosAic='hos', vmin=333, vmax=5500, folm=0.6):
''' '''
Automatically pick all traces of all shots of the survey. Automatically pick all traces of all shots of the survey.
''' '''
from datetime import datetime from datetime import datetime
starttime = datetime.now() starttime = datetime.now()
count = 0; tpicksum = starttime - starttime count = 0;
tpicksum = starttime - starttime
for shot in self.data.values(): for shot in self.data.values():
tstartpick = datetime.now(); count += 1 tstartpick = datetime.now();
count += 1
for traceID in shot.getTraceIDlist(): for traceID in shot.getTraceIDlist():
distance = shot.getDistance(traceID) # receive distance distance = shot.getDistance(traceID) # receive distance
@ -193,8 +200,8 @@ class Survey(object):
# for higher distances use a linear vmin/vmax to cut out late/early regions with high noise # for higher distances use a linear vmin/vmax to cut out late/early regions with high noise
if distance > 5.: if distance > 5.:
pwleft = distance/vmax ################## TEST pwleft = distance / vmax ################## TEST
pwright = distance/vmin pwright = distance / vmin
if pwright > cutwindow[1]: if pwright > cutwindow[1]:
pwright = cutwindow[1] pwright = cutwindow[1]
pickwin_used = (pwleft, pwright) pickwin_used = (pwleft, pwright)
@ -203,7 +210,7 @@ class Survey(object):
shot.pickTraces(traceID, windowsize, folm, HosAic) # picker shot.pickTraces(traceID, windowsize, folm, HosAic) # picker
shot.setSNR(traceID) shot.setSNR(traceID)
#if shot.getSNR(traceID)[0] < snrthreshold: # if shot.getSNR(traceID)[0] < snrthreshold:
if shot.getSNR(traceID)[0] < shot.getSNRthreshold(traceID): if shot.getSNR(traceID)[0] < shot.getSNRthreshold(traceID):
shot.removePick(traceID) shot.removePick(traceID)
@ -211,7 +218,8 @@ class Survey(object):
if shot.getSNR(traceID)[0] > 1: if shot.getSNR(traceID)[0] > 1:
shot.setEarllatepick(traceID) shot.setEarllatepick(traceID)
tpicksum += (datetime.now() - tstartpick); tpick = tpicksum/count tpicksum += (datetime.now() - tstartpick);
tpick = tpicksum / count
tremain = (tpick * (len(self.getShotDict()) - count)) tremain = (tpick * (len(self.getShotDict()) - count))
tend = datetime.now() + tremain tend = datetime.now() + tremain
progress = float(count) / float(len(self.getShotDict())) * 100 progress = float(count) / float(len(self.getShotDict())) * 100
@ -220,7 +228,7 @@ class Survey(object):
ntraces = self.countAllTraces() ntraces = self.countAllTraces()
pickedtraces = self.countAllPickedTraces() pickedtraces = self.countAllPickedTraces()
print('Picked %s / %s traces (%d %%)\n' print('Picked %s / %s traces (%d %%)\n'
%(pickedtraces, ntraces, float(pickedtraces)/float(ntraces)*100.)) % (pickedtraces, ntraces, float(pickedtraces) / float(ntraces) * 100.))
def cleanBySPE(self, maxSPE): def cleanBySPE(self, maxSPE):
for shot in self.data.values(): for shot in self.data.values():
@ -237,7 +245,7 @@ class Survey(object):
if shot.getPickFlag(traceID) == 1: if shot.getPickFlag(traceID) == 1:
spe.append(shot.getSymmetricPickError(traceID)) spe.append(shot.getSymmetricPickError(traceID))
spe.sort() spe.sort()
plt.plot(spe, label = 'SPE') plt.plot(spe, label='SPE')
plt.ylabel('Symmetric Pickerror') plt.ylabel('Symmetric Pickerror')
plt.legend() plt.legend()
@ -255,7 +263,7 @@ class Survey(object):
shot.removePick(traceID) shot.removePick(traceID)
else: else:
numpicks += 1 numpicks += 1
print('Recovered %d picks'%numpicks) print('Recovered %d picks' % numpicks)
def setArtificialPick(self, traceID, pick): def setArtificialPick(self, traceID, pick):
for shot in self.data.values(): for shot in self.data.values():
@ -271,7 +279,7 @@ class Survey(object):
def getShotlist(self): def getShotlist(self):
filename = self.getPath() + self.getSourcefile() filename = self.getPath() + self.getSourcefile()
srcfile = open(filename,'r') srcfile = open(filename, 'r')
shotlist = [] shotlist = []
for line in srcfile.readlines(): for line in srcfile.readlines():
line = line.split() line = line.split()
@ -281,7 +289,7 @@ class Survey(object):
def getReceiverlist(self): def getReceiverlist(self):
filename = self.getPath() + self.getReceiverfile() filename = self.getPath() + self.getReceiverfile()
recfile = open(filename,'r') recfile = open(filename, 'r')
reclist = [] reclist = []
for line in recfile.readlines(): for line in recfile.readlines():
line = line.split() line = line.split()
@ -318,7 +326,7 @@ class Survey(object):
pickedTraces += 1 pickedTraces += 1
info_dict[shot.getShotnumber()] = {'numtraces': numtraces, info_dict[shot.getShotnumber()] = {'numtraces': numtraces,
'picked traces': [pickedTraces, 'picked traces': [pickedTraces,
'%2.2f %%'%(float(pickedTraces) / '%2.2f %%' % (float(pickedTraces) /
float(numtraces) * 100)], float(numtraces) * 100)],
'mean SNR': np.mean(snrlist), 'mean SNR': np.mean(snrlist),
'mean distance': np.mean(dist)} 'mean distance': np.mean(dist)}
@ -330,7 +338,7 @@ class Survey(object):
if shot.getShotnumber() == shotnumber: if shot.getShotnumber() == shotnumber:
return shot return shot
def exportFMTOMO(self, directory = 'FMTOMO_export', sourcefile = 'input_sf.in', ttFileExtension = '.tt'): def exportFMTOMO(self, directory='FMTOMO_export', sourcefile='input_sf.in', ttFileExtension='.tt'):
def getAngle(distance): def getAngle(distance):
PI = np.pi PI = np.pi
R = 6371. R = 6371.
@ -339,17 +347,21 @@ class Survey(object):
count = 0 count = 0
fmtomo_factor = 1000 # transforming [m/s] -> [km/s] fmtomo_factor = 1000 # transforming [m/s] -> [km/s]
LatAll = []; LonAll = []; DepthAll = [] LatAll = [];
LonAll = [];
DepthAll = []
srcfile = open(directory + '/' + sourcefile, 'w') srcfile = open(directory + '/' + sourcefile, 'w')
srcfile.writelines('%10s\n' %len(self.data)) # number of sources srcfile.writelines('%10s\n' % len(self.data)) # number of sources
for shotnumber in self.getShotlist(): for shotnumber in self.getShotlist():
shot = self.getShotForShotnumber(shotnumber) shot = self.getShotForShotnumber(shotnumber)
ttfilename = str(shotnumber) + ttFileExtension ttfilename = str(shotnumber) + ttFileExtension
(x, y, z) = shot.getSrcLoc() # getSrcLoc returns (x, y, z) (x, y, z) = shot.getSrcLoc() # getSrcLoc returns (x, y, z)
srcfile.writelines('%10s %10s %10s\n' %(getAngle(y), getAngle(x), (-1)*z)) # lat, lon, depth srcfile.writelines('%10s %10s %10s\n' % (getAngle(y), getAngle(x), (-1) * z)) # lat, lon, depth
LatAll.append(getAngle(y)); LonAll.append(getAngle(x)); DepthAll.append((-1)*z) LatAll.append(getAngle(y));
srcfile.writelines('%10s\n' %1) # LonAll.append(getAngle(x));
srcfile.writelines('%10s %10s %10s\n' %(1, 1, ttfilename)) DepthAll.append((-1) * z)
srcfile.writelines('%10s\n' % 1) #
srcfile.writelines('%10s %10s %10s\n' % (1, 1, ttfilename))
ttfile = open(directory + '/' + ttfilename, 'w') ttfile = open(directory + '/' + ttfilename, 'w')
traceIDlist = shot.getTraceIDlist() traceIDlist = shot.getTraceIDlist()
traceIDlist.sort() traceIDlist.sort()
@ -359,8 +371,10 @@ class Survey(object):
pick = shot.getPick(traceID) * fmtomo_factor pick = shot.getPick(traceID) * fmtomo_factor
delta = shot.getSymmetricPickError(traceID) * fmtomo_factor delta = shot.getSymmetricPickError(traceID) * fmtomo_factor
(x, y, z) = shot.getRecLoc(traceID) (x, y, z) = shot.getRecLoc(traceID)
ttfile.writelines('%20s %20s %20s %10s %10s\n' %(getAngle(y), getAngle(x), (-1)*z, pick, delta)) ttfile.writelines('%20s %20s %20s %10s %10s\n' % (getAngle(y), getAngle(x), (-1) * z, pick, delta))
LatAll.append(getAngle(y)); LonAll.append(getAngle(x)); DepthAll.append((-1)*z) LatAll.append(getAngle(y));
LonAll.append(getAngle(x));
DepthAll.append((-1) * z)
count += 1 count += 1
ttfile.close() ttfile.close()
srcfile.close() srcfile.close()
@ -393,7 +407,7 @@ class Survey(object):
count += 1 count += 1
return count return count
def plotAllShots(self, rows = 3, columns = 4, mode = '3d'): def plotAllShots(self, rows=3, columns=4, mode='3d'):
''' '''
Plots all shots as Matrices with the color corresponding to the traveltime for each receiver. Plots all shots as Matrices with the color corresponding to the traveltime for each receiver.
IMPORTANT NOTE: Topography (z - coordinate) is not considered in the diagrams! IMPORTANT NOTE: Topography (z - coordinate) is not considered in the diagrams!
@ -408,8 +422,8 @@ class Survey(object):
figPerSubplot = columns * rows figPerSubplot = columns * rows
index = 1 index = 1
#shotnames = [] # shotnames = []
#shotnumbers = [] # shotnumbers = []
# for shot in self.data.values(): # for shot in self.data.values():
# shotnames.append(shot.getShotname()) # shotnames.append(shot.getShotname())
@ -419,24 +433,24 @@ class Survey(object):
for shotnumber in self.getShotlist(): for shotnumber in self.getShotlist():
if index <= figPerSubplot: if index <= figPerSubplot:
#ax = fig.add_subplot(3,3,i, projection = '3d', title = 'shot:' # ax = fig.add_subplot(3,3,i, projection = '3d', title = 'shot:'
#+str(shot_dict[shotnumber].getShotnumber()), xlabel = 'X', ylabel = 'Y', zlabel = 'traveltime') # +str(shot_dict[shotnumber].getShotnumber()), xlabel = 'X', ylabel = 'Y', zlabel = 'traveltime')
#shot_dict[shotnumber].plot3dttc(ax = ax, plotpicks = True) # shot_dict[shotnumber].plot3dttc(ax = ax, plotpicks = True)
ax = fig.add_subplot(rows, columns, index) ax = fig.add_subplot(rows, columns, index)
if mode == '3d': if mode == '3d':
self.getShot(shotnumber).matshow(ax = ax, colorbar = False, annotations = True, legend = False) self.getShot(shotnumber).matshow(ax=ax, colorbar=False, annotations=True, legend=False)
elif mode == '2d': elif mode == '2d':
self.getShot(shotnumber).plot2dttc(ax) self.getShot(shotnumber).plot2dttc(ax)
self.getShot(shotnumber).plotmanual2dttc(ax) self.getShot(shotnumber).plotmanual2dttc(ax)
index += 1 index += 1
if index > figPerSubplot: if index > figPerSubplot:
fig.subplots_adjust(left = 0, bottom = 0, right = 1, top = 1, wspace = 0, hspace = 0) fig.subplots_adjust(left=0, bottom=0, right=1, top=1, wspace=0, hspace=0)
fig = plt.figure() fig = plt.figure()
index = 1 index = 1
fig.subplots_adjust(left = 0, bottom = 0, right = 1, top = 1, wspace = 0, hspace = 0) fig.subplots_adjust(left=0, bottom=0, right=1, top=1, wspace=0, hspace=0)
def plotAllPicks(self, plotRemoved = False, colorByVal = 'log10SNR', ax = None, cbar = None, refreshPlot = False): def plotAllPicks(self, plotRemoved=False, colorByVal='log10SNR', ax=None, cbar=None, refreshPlot=False):
''' '''
Plots all picks over the distance between source and receiver. Returns (ax, region). Plots all picks over the distance between source and receiver. Returns (ax, region).
Picks can be checked and removed by using region class (pylot.core.active.surveyPlotTools.regions) Picks can be checked and removed by using region class (pylot.core.active.surveyPlotTools.regions)
@ -501,7 +515,7 @@ class Survey(object):
ax.legend() ax.legend()
return ax return ax
def createPlot(self, dist, pick, inkByVal, label, ax = None, cbar = None): def createPlot(self, dist, pick, inkByVal, label, ax=None, cbar=None):
import matplotlib.pyplot as plt import matplotlib.pyplot as plt
plt.interactive(True) plt.interactive(True)
cm = plt.cm.jet cm = plt.cm.jet
@ -532,13 +546,13 @@ class Survey(object):
progress)) progress))
sys.stdout.flush() sys.stdout.flush()
def saveSurvey(self, filename = 'survey.pickle'): def saveSurvey(self, filename='survey.pickle'):
import cPickle import cPickle
cleanUp(self) cleanUp(self)
outfile = open(filename, 'wb') outfile = open(filename, 'wb')
cPickle.dump(self, outfile, -1) cPickle.dump(self, outfile, -1)
print('saved Survey to file %s'%(filename)) print('saved Survey to file %s' % (filename))
@staticmethod @staticmethod
def from_pickle(filename): def from_pickle(filename):

71
pylot/core/active/fmtomo2vtk.py
View File

@ -1,13 +1,15 @@
# -*- coding: utf-8 -*- # -*- coding: utf-8 -*-
import numpy as np import numpy as np
def vgrids2VTK(inputfile = 'vgrids.in', outputfile = 'vgrids.vtk', absOrRel = 'abs', inputfileref = 'vgridsref.in'):
def vgrids2VTK(inputfile='vgrids.in', outputfile='vgrids.vtk', absOrRel='abs', inputfileref='vgridsref.in'):
''' '''
Generate a vtk-file readable by e.g. paraview from FMTOMO output vgrids.in Generate a vtk-file readable by e.g. paraview from FMTOMO output vgrids.in
:param: absOrRel, can be "abs" or "rel" for absolute or relative velocities. if "rel" inputfileref must be given :param: absOrRel, can be "abs" or "rel" for absolute or relative velocities. if "rel" inputfileref must be given
:type: str :type: str
''' '''
def getDistance(angle): def getDistance(angle):
PI = np.pi PI = np.pi
R = 6371. R = 6371.
@ -23,7 +25,7 @@ def vgrids2VTK(inputfile = 'vgrids.in', outputfile = 'vgrids.vtk', absOrRel = 'a
nPhi = int(vglines[1].split()[2]) nPhi = int(vglines[1].split()[2])
print('readNumberOf Points: Awaiting %d grid points in %s' print('readNumberOf Points: Awaiting %d grid points in %s'
%(nR*nTheta*nPhi, filename)) % (nR * nTheta * nPhi, filename))
fin.close() fin.close()
return nR, nTheta, nPhi return nR, nTheta, nPhi
@ -53,7 +55,8 @@ def vgrids2VTK(inputfile = 'vgrids.in', outputfile = 'vgrids.vtk', absOrRel = 'a
''' '''
Reads in velocity from vgrids file and returns a list containing all values in the same order Reads in velocity from vgrids file and returns a list containing all values in the same order
''' '''
vel = []; count = 0 vel = [];
count = 0
fin = open(filename, 'r') fin = open(filename, 'r')
vglines = fin.readlines() vglines = fin.readlines()
@ -62,7 +65,7 @@ def vgrids2VTK(inputfile = 'vgrids.in', outputfile = 'vgrids.vtk', absOrRel = 'a
if count > 4: if count > 4:
vel.append(float(line.split()[0])) vel.append(float(line.split()[0]))
print("Read %d points out of file: %s" %(count - 4, filename)) print("Read %d points out of file: %s" % (count - 4, filename))
return vel return vel
R = 6371. # earth radius R = 6371. # earth radius
@ -74,7 +77,9 @@ def vgrids2VTK(inputfile = 'vgrids.in', outputfile = 'vgrids.vtk', absOrRel = 'a
sR, sTheta, sPhi = readStartpoints(inputfile) sR, sTheta, sPhi = readStartpoints(inputfile)
vel = readVelocity(inputfile) vel = readVelocity(inputfile)
nX = nPhi; nY = nTheta; nZ = nR nX = nPhi;
nY = nTheta;
nZ = nR
sZ = sR - R sZ = sR - R
sX = getDistance(np.rad2deg(sPhi)) sX = getDistance(np.rad2deg(sPhi))
@ -94,28 +99,28 @@ def vgrids2VTK(inputfile = 'vgrids.in', outputfile = 'vgrids.vtk', absOrRel = 'a
outfile.writelines('ASCII\n') outfile.writelines('ASCII\n')
outfile.writelines('DATASET STRUCTURED_POINTS\n') outfile.writelines('DATASET STRUCTURED_POINTS\n')
outfile.writelines('DIMENSIONS %d %d %d\n' %(nX, nY, nZ)) outfile.writelines('DIMENSIONS %d %d %d\n' % (nX, nY, nZ))
outfile.writelines('ORIGIN %f %f %f\n' %(sX, sY, sZ)) outfile.writelines('ORIGIN %f %f %f\n' % (sX, sY, sZ))
outfile.writelines('SPACING %f %f %f\n' %(dX, dY, dZ)) outfile.writelines('SPACING %f %f %f\n' % (dX, dY, dZ))
outfile.writelines('POINT_DATA %15d\n' %(nPoints)) outfile.writelines('POINT_DATA %15d\n' % (nPoints))
if absOrRel == 'abs': if absOrRel == 'abs':
outfile.writelines('SCALARS velocity float %d\n' %(1)) outfile.writelines('SCALARS velocity float %d\n' % (1))
elif absOrRel == 'rel': elif absOrRel == 'rel':
outfile.writelines('SCALARS velChangePercent float %d\n' %(1)) outfile.writelines('SCALARS velChangePercent float %d\n' % (1))
outfile.writelines('LOOKUP_TABLE default\n') outfile.writelines('LOOKUP_TABLE default\n')
# write velocity # write velocity
if absOrRel == 'abs': if absOrRel == 'abs':
print("Writing velocity values to VTK file...") print("Writing velocity values to VTK file...")
for velocity in vel: for velocity in vel:
outfile.writelines('%10f\n' %velocity) outfile.writelines('%10f\n' % velocity)
elif absOrRel == 'rel': elif absOrRel == 'rel':
velref = readVelocity(inputfileref) velref = readVelocity(inputfileref)
if not len(velref) == len(vel): if not len(velref) == len(vel):
print('ERROR: Number of gridpoints mismatch for %s and %s'%(inputfile, inputfileref)) print('ERROR: Number of gridpoints mismatch for %s and %s' % (inputfile, inputfileref))
return return
#velrel = [((vel - velref) / velref * 100) for vel, velref in zip(vel, velref)] # velrel = [((vel - velref) / velref * 100) for vel, velref in zip(vel, velref)]
velrel = [] velrel = []
for velocities in zip(vel, velref): for velocities in zip(vel, velref):
v, vref = velocities v, vref = velocities
@ -126,18 +131,19 @@ def vgrids2VTK(inputfile = 'vgrids.in', outputfile = 'vgrids.vtk', absOrRel = 'a
nR_ref, nTheta_ref, nPhi_ref = readNumberOfPoints(inputfileref) nR_ref, nTheta_ref, nPhi_ref = readNumberOfPoints(inputfileref)
if not nR_ref == nR and nTheta_ref == nTheta and nPhi_ref == nPhi: if not nR_ref == nR and nTheta_ref == nTheta and nPhi_ref == nPhi:
print('ERROR: Dimension mismatch of grids %s and %s'%(inputfile, inputfileref)) print('ERROR: Dimension mismatch of grids %s and %s' % (inputfile, inputfileref))
return return
print("Writing velocity values to VTK file...") print("Writing velocity values to VTK file...")
for velocity in velrel: for velocity in velrel:
outfile.writelines('%10f\n' %velocity) outfile.writelines('%10f\n' % velocity)
print('Pertubations: min: %s, max: %s'%(min(velrel), max(velrel))) print('Pertubations: min: %s, max: %s' % (min(velrel), max(velrel)))
outfile.close() outfile.close()
print("Wrote velocity grid for %d points to file: %s" %(nPoints, outputfile)) print("Wrote velocity grid for %d points to file: %s" % (nPoints, outputfile))
return return
def rays2VTK(fnin, fdirout = './vtk_files/', nthPoint = 50):
def rays2VTK(fnin, fdirout='./vtk_files/', nthPoint=50):
''' '''
Writes VTK file(s) for FMTOMO rays from rays.dat. There is one file created for each ray. Writes VTK file(s) for FMTOMO rays from rays.dat. There is one file created for each ray.
@ -147,6 +153,7 @@ def rays2VTK(fnin, fdirout = './vtk_files/', nthPoint = 50):
:param: nthPoint, plot every nth point of the ray :param: nthPoint, plot every nth point of the ray
:type: integer :type: integer
''' '''
def getDistance(angle): def getDistance(angle):
PI = np.pi PI = np.pi
R = 6371. R = 6371.
@ -169,7 +176,7 @@ def rays2VTK(fnin, fdirout = './vtk_files/', nthPoint = 50):
shotnumber = int(firstline.split()[1]) shotnumber = int(firstline.split()[1])
rayValid = int(firstline.split()[4]) # is zero if the ray is invalid rayValid = int(firstline.split()[4]) # is zero if the ray is invalid
if rayValid == 0: if rayValid == 0:
print('Invalid ray number %d for shot number %d'%(raynumber, shotnumber)) print('Invalid ray number %d for shot number %d' % (raynumber, shotnumber))
continue continue
nRayPoints = int(infile.readline().split()[0]) nRayPoints = int(infile.readline().split()[0])
if not shotnumber in rays.keys(): if not shotnumber in rays.keys():
@ -178,14 +185,15 @@ def rays2VTK(fnin, fdirout = './vtk_files/', nthPoint = 50):
for index in range(nRayPoints): for index in range(nRayPoints):
if index % nthPoint is 0 or index == (nRayPoints - 1): if index % nthPoint is 0 or index == (nRayPoints - 1):
rad, lat, lon = infile.readline().split() rad, lat, lon = infile.readline().split()
rays[shotnumber][raynumber].append([getDistance(np.rad2deg(float(lon))), getDistance(np.rad2deg(float(lat))), float(rad) - R]) rays[shotnumber][raynumber].append(
[getDistance(np.rad2deg(float(lon))), getDistance(np.rad2deg(float(lat))), float(rad) - R])
else: else:
dummy = infile.readline() dummy = infile.readline()
infile.close() infile.close()
for shotnumber in rays.keys(): for shotnumber in rays.keys():
fnameout = fdirout + 'rays%03d.vtk'%(shotnumber) fnameout = fdirout + 'rays%03d.vtk' % (shotnumber)
outfile = open(fnameout, 'w') outfile = open(fnameout, 'w')
nPoints = 0 nPoints = 0
@ -194,31 +202,31 @@ def rays2VTK(fnin, fdirout = './vtk_files/', nthPoint = 50):
nPoints += 1 nPoints += 1
# write header # write header
#print("Writing header for VTK file...") # print("Writing header for VTK file...")
print("Writing shot %d to file %s" %(shotnumber, fnameout)) print("Writing shot %d to file %s" % (shotnumber, fnameout))
outfile.writelines('# vtk DataFile Version 3.1\n') outfile.writelines('# vtk DataFile Version 3.1\n')
outfile.writelines('FMTOMO rays\n') outfile.writelines('FMTOMO rays\n')
outfile.writelines('ASCII\n') outfile.writelines('ASCII\n')
outfile.writelines('DATASET POLYDATA\n') outfile.writelines('DATASET POLYDATA\n')
outfile.writelines('POINTS %15d float\n' %(nPoints)) outfile.writelines('POINTS %15d float\n' % (nPoints))
# write coordinates # write coordinates
#print("Writing coordinates to VTK file...") # print("Writing coordinates to VTK file...")
for raynumber in rays[shotnumber].keys(): for raynumber in rays[shotnumber].keys():
for raypoint in rays[shotnumber][raynumber]: for raypoint in rays[shotnumber][raynumber]:
outfile.writelines('%10f %10f %10f \n' %(raypoint[0], raypoint[1], raypoint[2])) outfile.writelines('%10f %10f %10f \n' % (raypoint[0], raypoint[1], raypoint[2]))
outfile.writelines('LINES %15d %15d\n' %(len(rays[shotnumber]), len(rays[shotnumber]) + nPoints)) outfile.writelines('LINES %15d %15d\n' % (len(rays[shotnumber]), len(rays[shotnumber]) + nPoints))
# write indices # write indices
#print("Writing indices to VTK file...") # print("Writing indices to VTK file...")
count = 0 count = 0
for raynumber in rays[shotnumber].keys(): for raynumber in rays[shotnumber].keys():
outfile.writelines('%d ' %(len(rays[shotnumber][raynumber]))) outfile.writelines('%d ' % (len(rays[shotnumber][raynumber])))
for index in range(len(rays[shotnumber][raynumber])): for index in range(len(rays[shotnumber][raynumber])):
outfile.writelines('%d ' %(count)) outfile.writelines('%d ' % (count))
count += 1 count += 1
outfile.writelines('\n') outfile.writelines('\n')
@ -233,4 +241,3 @@ def rays2VTK(fnin, fdirout = './vtk_files/', nthPoint = 50):
# outfile.close() # outfile.close()
# print("Wrote velocity grid for %d points to file: %s" %(nPoints, outputfile)) # print("Wrote velocity grid for %d points to file: %s" %(nPoints, outputfile))

136
pylot/core/active/fmtomoUtils.py
View File

@ -2,7 +2,8 @@
import sys import sys
import numpy as np import numpy as np
def vgrids2VTK(inputfile = 'vgrids.in', outputfile = 'vgrids.vtk', absOrRel = 'abs', inputfileref = 'vgridsref.in'):
def vgrids2VTK(inputfile='vgrids.in', outputfile='vgrids.vtk', absOrRel='abs', inputfileref='vgridsref.in'):
''' '''
Generate a vtk-file readable by e.g. paraview from FMTOMO output vgrids.in Generate a vtk-file readable by e.g. paraview from FMTOMO output vgrids.in
''' '''
@ -19,7 +20,9 @@ def vgrids2VTK(inputfile = 'vgrids.in', outputfile = 'vgrids.vtk', absOrRel = 'a
nPoints = nR * nTheta * nPhi nPoints = nR * nTheta * nPhi
nX = nPhi; nY = nTheta; nZ = nR nX = nPhi;
nY = nTheta;
nZ = nR
sZ = sR - R sZ = sR - R
sX = _getDistance(sPhi) sX = _getDistance(sPhi)
@ -36,29 +39,29 @@ def vgrids2VTK(inputfile = 'vgrids.in', outputfile = 'vgrids.vtk', absOrRel = 'a
outfile.writelines('ASCII\n') outfile.writelines('ASCII\n')
outfile.writelines('DATASET STRUCTURED_POINTS\n') outfile.writelines('DATASET STRUCTURED_POINTS\n')
outfile.writelines('DIMENSIONS %d %d %d\n' %(nX, nY, nZ)) outfile.writelines('DIMENSIONS %d %d %d\n' % (nX, nY, nZ))
outfile.writelines('ORIGIN %f %f %f\n' %(sX, sY, sZ)) outfile.writelines('ORIGIN %f %f %f\n' % (sX, sY, sZ))
outfile.writelines('SPACING %f %f %f\n' %(dX, dY, dZ)) outfile.writelines('SPACING %f %f %f\n' % (dX, dY, dZ))
outfile.writelines('POINT_DATA %15d\n' %(nPoints)) outfile.writelines('POINT_DATA %15d\n' % (nPoints))
if absOrRel == 'abs': if absOrRel == 'abs':
outfile.writelines('SCALARS velocity float %d\n' %(1)) outfile.writelines('SCALARS velocity float %d\n' % (1))
elif absOrRel == 'rel': elif absOrRel == 'rel':
outfile.writelines('SCALARS velChangePercent float %d\n' %(1)) outfile.writelines('SCALARS velChangePercent float %d\n' % (1))
outfile.writelines('LOOKUP_TABLE default\n') outfile.writelines('LOOKUP_TABLE default\n')
# write velocity # write velocity
if absOrRel == 'abs': if absOrRel == 'abs':
print("Writing velocity values to VTK file...") print("Writing velocity values to VTK file...")
for velocity in vel: for velocity in vel:
outfile.writelines('%10f\n' %velocity) outfile.writelines('%10f\n' % velocity)
elif absOrRel == 'rel': elif absOrRel == 'rel':
nref, dref, sref, velref = _readVgrid(inputfileref) nref, dref, sref, velref = _readVgrid(inputfileref)
nR_ref, nTheta_ref, nPhi_ref = nref nR_ref, nTheta_ref, nPhi_ref = nref
if not len(velref) == len(vel): if not len(velref) == len(vel):
print('ERROR: Number of gridpoints mismatch for %s and %s'%(inputfile, inputfileref)) print('ERROR: Number of gridpoints mismatch for %s and %s' % (inputfile, inputfileref))
return return
#velrel = [((vel - velref) / velref * 100) for vel, velref in zip(vel, velref)] # velrel = [((vel - velref) / velref * 100) for vel, velref in zip(vel, velref)]
velrel = [] velrel = []
for velocities in zip(vel, velref): for velocities in zip(vel, velref):
v, vref = velocities v, vref = velocities
@ -68,18 +71,19 @@ def vgrids2VTK(inputfile = 'vgrids.in', outputfile = 'vgrids.vtk', absOrRel = 'a
velrel.append(0) velrel.append(0)
if not nR_ref == nR and nTheta_ref == nTheta and nPhi_ref == nPhi: if not nR_ref == nR and nTheta_ref == nTheta and nPhi_ref == nPhi:
print('ERROR: Dimension mismatch of grids %s and %s'%(inputfile, inputfileref)) print('ERROR: Dimension mismatch of grids %s and %s' % (inputfile, inputfileref))
return return
print("Writing velocity values to VTK file...") print("Writing velocity values to VTK file...")
for velocity in velrel: for velocity in velrel:
outfile.writelines('%10f\n' %velocity) outfile.writelines('%10f\n' % velocity)
print('Pertubations: min: %s %%, max: %s %%'%(min(velrel), max(velrel))) print('Pertubations: min: %s %%, max: %s %%' % (min(velrel), max(velrel)))
outfile.close() outfile.close()
print("Wrote velocity grid for %d points to file: %s" %(nPoints, outputfile)) print("Wrote velocity grid for %d points to file: %s" % (nPoints, outputfile))
return return
def rays2VTK(fnin, fdirout = './vtk_files/', nthPoint = 50):
def rays2VTK(fnin, fdirout='./vtk_files/', nthPoint=50):
''' '''
Writes VTK file(s) for FMTOMO rays from rays.dat Writes VTK file(s) for FMTOMO rays from rays.dat
@ -101,7 +105,7 @@ def rays2VTK(fnin, fdirout = './vtk_files/', nthPoint = 50):
shotnumber = int(firstline.split()[1]) shotnumber = int(firstline.split()[1])
rayValid = int(firstline.split()[4]) # is zero if the ray is invalid rayValid = int(firstline.split()[4]) # is zero if the ray is invalid
if rayValid == 0: if rayValid == 0:
print('Invalid ray number %d for shot number %d'%(raynumber, shotnumber)) print('Invalid ray number %d for shot number %d' % (raynumber, shotnumber))
continue continue
nRayPoints = int(infile.readline().split()[0]) nRayPoints = int(infile.readline().split()[0])
if not shotnumber in rays.keys(): if not shotnumber in rays.keys():
@ -110,14 +114,15 @@ def rays2VTK(fnin, fdirout = './vtk_files/', nthPoint = 50):
for index in range(nRayPoints): for index in range(nRayPoints):
if index % nthPoint is 0 or index == (nRayPoints - 1): if index % nthPoint is 0 or index == (nRayPoints - 1):
rad, lat, lon = infile.readline().split() rad, lat, lon = infile.readline().split()
rays[shotnumber][raynumber].append([_getDistance(np.rad2deg(float(lon))), _getDistance(np.rad2deg(float(lat))), float(rad) - R]) rays[shotnumber][raynumber].append(
[_getDistance(np.rad2deg(float(lon))), _getDistance(np.rad2deg(float(lat))), float(rad) - R])
else: else:
dummy = infile.readline() dummy = infile.readline()
infile.close() infile.close()
for shotnumber in rays.keys(): for shotnumber in rays.keys():
fnameout = fdirout + 'rays%03d.vtk'%(shotnumber) fnameout = fdirout + 'rays%03d.vtk' % (shotnumber)
outfile = open(fnameout, 'w') outfile = open(fnameout, 'w')
nPoints = 0 nPoints = 0
@ -126,32 +131,33 @@ def rays2VTK(fnin, fdirout = './vtk_files/', nthPoint = 50):
nPoints += 1 nPoints += 1
# write header # write header
#print("Writing header for VTK file...") # print("Writing header for VTK file...")
print("Writing shot %d to file %s" %(shotnumber, fnameout)) print("Writing shot %d to file %s" % (shotnumber, fnameout))
outfile.writelines('# vtk DataFile Version 3.1\n') outfile.writelines('# vtk DataFile Version 3.1\n')
outfile.writelines('FMTOMO rays\n') outfile.writelines('FMTOMO rays\n')
outfile.writelines('ASCII\n') outfile.writelines('ASCII\n')
outfile.writelines('DATASET POLYDATA\n') outfile.writelines('DATASET POLYDATA\n')
outfile.writelines('POINTS %15d float\n' %(nPoints)) outfile.writelines('POINTS %15d float\n' % (nPoints))
# write coordinates # write coordinates
#print("Writing coordinates to VTK file...") # print("Writing coordinates to VTK file...")
for raynumber in rays[shotnumber].keys(): for raynumber in rays[shotnumber].keys():
for raypoint in rays[shotnumber][raynumber]: for raypoint in rays[shotnumber][raynumber]:
outfile.writelines('%10f %10f %10f \n' %(raypoint[0], raypoint[1], raypoint[2])) outfile.writelines('%10f %10f %10f \n' % (raypoint[0], raypoint[1], raypoint[2]))
outfile.writelines('LINES %15d %15d\n' %(len(rays[shotnumber]), len(rays[shotnumber]) + nPoints)) outfile.writelines('LINES %15d %15d\n' % (len(rays[shotnumber]), len(rays[shotnumber]) + nPoints))
# write indices # write indices
#print("Writing indices to VTK file...") # print("Writing indices to VTK file...")
count = 0 count = 0
for raynumber in rays[shotnumber].keys(): for raynumber in rays[shotnumber].keys():
outfile.writelines('%d ' %(len(rays[shotnumber][raynumber]))) outfile.writelines('%d ' % (len(rays[shotnumber][raynumber])))
for index in range(len(rays[shotnumber][raynumber])): for index in range(len(rays[shotnumber][raynumber])):
outfile.writelines('%d ' %(count)) outfile.writelines('%d ' % (count))
count += 1 count += 1
outfile.writelines('\n') outfile.writelines('\n')
def _readVgrid(filename): def _readVgrid(filename):
def readNumberOfPoints(filename): def readNumberOfPoints(filename):
fin = open(filename, 'r') fin = open(filename, 'r')
@ -162,7 +168,7 @@ def _readVgrid(filename):
nPhi = int(vglines[1].split()[2]) nPhi = int(vglines[1].split()[2])
print('readNumberOf Points: Awaiting %d grid points in %s' print('readNumberOf Points: Awaiting %d grid points in %s'
%(nR*nTheta*nPhi, filename)) % (nR * nTheta * nPhi, filename))
fin.close() fin.close()
return nR, nTheta, nPhi return nR, nTheta, nPhi
@ -192,7 +198,8 @@ def _readVgrid(filename):
''' '''
Reads in velocity from vgrids file and returns a list containing all values in the same order Reads in velocity from vgrids file and returns a list containing all values in the same order
''' '''
vel = []; count = 0 vel = [];
count = 0
fin = open(filename, 'r') fin = open(filename, 'r')
vglines = fin.readlines() vglines = fin.readlines()
@ -201,7 +208,7 @@ def _readVgrid(filename):
if count > 4: if count > 4:
vel.append(float(line.split()[0])) vel.append(float(line.split()[0]))
print("Read %d points out of file: %s" %(count - 4, filename)) print("Read %d points out of file: %s" % (count - 4, filename))
return vel return vel
# Theta, Phi in radians, R in km # Theta, Phi in radians, R in km
@ -218,6 +225,7 @@ def _readVgrid(filename):
start = (sR, sTheta, sPhi) start = (sR, sTheta, sPhi)
return number, delta, start, vel return number, delta, start, vel
def _generateGrids(number, delta, start): def _generateGrids(number, delta, start):
nR, nTheta, nPhi = number nR, nTheta, nPhi = number
dR, dTheta, dPhi = delta dR, dTheta, dPhi = delta
@ -227,14 +235,15 @@ def _generateGrids(number, delta, start):
ePhi = sPhi + (nPhi - 1) * dPhi ePhi = sPhi + (nPhi - 1) * dPhi
eTheta = sTheta + (nTheta - 1) * dTheta eTheta = sTheta + (nTheta - 1) * dTheta
thetaGrid = np.linspace(sTheta, eTheta, num = nTheta) thetaGrid = np.linspace(sTheta, eTheta, num=nTheta)
phiGrid = np.linspace(sPhi, ePhi, num = nPhi) phiGrid = np.linspace(sPhi, ePhi, num=nPhi)
rGrid = np.linspace(sR, eR, num = nR) rGrid = np.linspace(sR, eR, num=nR)
return (thetaGrid, phiGrid, rGrid) return (thetaGrid, phiGrid, rGrid)
def addCheckerboard(spacing = 10., pertubation = 0.1, inputfile = 'vgrids.in',
outputfile = 'vgrids_cb.in', ampmethod = 'linear', rect = (None, None)): def addCheckerboard(spacing=10., pertubation=0.1, inputfile='vgrids.in',
outputfile='vgrids_cb.in', ampmethod='linear', rect=(None, None)):
''' '''
Add a checkerboard to an existing vgrids.in velocity model. Add a checkerboard to an existing vgrids.in velocity model.
@ -244,13 +253,14 @@ def addCheckerboard(spacing = 10., pertubation = 0.1, inputfile = 'vgrids.in',
:param: pertubation, pertubation (default: 0.1 = 10%) :param: pertubation, pertubation (default: 0.1 = 10%)
type: float type: float
''' '''
def correctSpacing(spacing, delta, disttype = None):
def correctSpacing(spacing, delta, disttype=None):
if spacing > delta: if spacing > delta:
spacing_corr = round(spacing / delta) * delta spacing_corr = round(spacing / delta) * delta
elif spacing < delta: elif spacing < delta:
spacing_corr = delta spacing_corr = delta
print('The spacing of the checkerboard of %s (%s) was corrected to ' print('The spacing of the checkerboard of %s (%s) was corrected to '
'a value of %s to fit the grid spacing of %s.' %(spacing, disttype, spacing_corr, delta)) 'a value of %s to fit the grid spacing of %s.' % (spacing, disttype, spacing_corr, delta))
return spacing_corr return spacing_corr
def linearAmp(InCell): def linearAmp(InCell):
@ -265,7 +275,7 @@ def addCheckerboard(spacing = 10., pertubation = 0.1, inputfile = 'vgrids.in',
else: else:
return 0 return 0
def ampFunc(InCell, method = 'linear', rect = None): def ampFunc(InCell, method='linear', rect=None):
if method == 'linear': if method == 'linear':
return linearAmp(InCell) return linearAmp(InCell)
if method == 'rect' and rect is not None: if method == 'rect' and rect is not None:
@ -287,10 +297,10 @@ def addCheckerboard(spacing = 10., pertubation = 0.1, inputfile = 'vgrids.in',
nPoints = nR * nTheta * nPhi nPoints = nR * nTheta * nPhi
# write header for velocity grid file (in RADIANS) # write header for velocity grid file (in RADIANS)
outfile.writelines('%10s %10s \n' %(1, 1)) outfile.writelines('%10s %10s \n' % (1, 1))
outfile.writelines('%10s %10s %10s\n' %(nR, nTheta, nPhi)) outfile.writelines('%10s %10s %10s\n' % (nR, nTheta, nPhi))
outfile.writelines('%10s %10s %10s\n' %(dR, np.deg2rad(dTheta), np.deg2rad(dPhi))) outfile.writelines('%10s %10s %10s\n' % (dR, np.deg2rad(dTheta), np.deg2rad(dPhi)))
outfile.writelines('%10s %10s %10s\n' %(sR, np.deg2rad(sTheta), np.deg2rad(sPhi))) outfile.writelines('%10s %10s %10s\n' % (sR, np.deg2rad(sTheta), np.deg2rad(sPhi)))
spacR = correctSpacing(spacing, dR, '[meter], R') spacR = correctSpacing(spacing, dR, '[meter], R')
spacTheta = correctSpacing(_getAngle(spacing), dTheta, '[degree], Theta') spacTheta = correctSpacing(_getAngle(spacing), dTheta, '[degree], Theta')
@ -298,7 +308,8 @@ def addCheckerboard(spacing = 10., pertubation = 0.1, inputfile = 'vgrids.in',
count = 0 count = 0
evenOdd = 1 evenOdd = 1
even = 0; odd = 0 even = 0;
odd = 0
# In the following loop it is checked whether the positive distance from the border of the model # In the following loop it is checked whether the positive distance from the border of the model
# for a point on the grid divided by the spacing is even or odd and then pertubated. # for a point on the grid divided by the spacing is even or odd and then pertubated.
@ -309,21 +320,21 @@ def addCheckerboard(spacing = 10., pertubation = 0.1, inputfile = 'vgrids.in',
# The amplification factor ampFactor comes from a linear relationship and ranges between 0 (cell border) # The amplification factor ampFactor comes from a linear relationship and ranges between 0 (cell border)
# and 1 (cell middle) # and 1 (cell middle)
for radius in rGrid: for radius in rGrid:
rInCell = (radius - sR - dR/2) / spacR rInCell = (radius - sR - dR / 2) / spacR
ampR = ampFunc(rInCell, ampmethod, rect) ampR = ampFunc(rInCell, ampmethod, rect)
if np.floor(rInCell) % 2: if np.floor(rInCell) % 2:
evenOddR = 1 evenOddR = 1
else: else:
evenOddR = -1 evenOddR = -1
for theta in thetaGrid: for theta in thetaGrid:
thetaInCell = (theta - sTheta - dTheta/2) / spacTheta thetaInCell = (theta - sTheta - dTheta / 2) / spacTheta
ampTheta = ampFunc(thetaInCell, ampmethod, rect) ampTheta = ampFunc(thetaInCell, ampmethod, rect)
if np.floor(thetaInCell) % 2: if np.floor(thetaInCell) % 2:
evenOddT = 1 evenOddT = 1
else: else:
evenOddT = -1 evenOddT = -1
for phi in phiGrid: for phi in phiGrid:
phiInCell = (phi - sPhi - dPhi/2) / spacPhi phiInCell = (phi - sPhi - dPhi / 2) / spacPhi
ampPhi = ampFunc(phiInCell, ampmethod, rect) ampPhi = ampFunc(phiInCell, ampmethod, rect)
if np.floor(phiInCell) % 2: if np.floor(phiInCell) % 2:
evenOddP = 1 evenOddP = 1
@ -334,19 +345,20 @@ def addCheckerboard(spacing = 10., pertubation = 0.1, inputfile = 'vgrids.in',
evenOdd = evenOddR * evenOddT * evenOddP * ampFactor evenOdd = evenOddR * evenOddT * evenOddP * ampFactor
velocity += evenOdd * pertubation * velocity velocity += evenOdd * pertubation * velocity
outfile.writelines('%10s %10s\n'%(velocity, decm)) outfile.writelines('%10s %10s\n' % (velocity, decm))
count += 1 count += 1
progress = float(count) / float(nPoints) * 100 progress = float(count) / float(nPoints) * 100
_update_progress(progress) _update_progress(progress)
print('Added checkerboard to the grid in file %s with a spacing of %s and a pertubation of %s %%. ' print('Added checkerboard to the grid in file %s with a spacing of %s and a pertubation of %s %%. '
'Outputfile: %s.'%(inputfile, spacing, pertubation*100, outputfile)) 'Outputfile: %s.' % (inputfile, spacing, pertubation * 100, outputfile))
outfile.close() outfile.close()
def addBox(x = (None, None), y = (None, None), z = (None, None),
boxvelocity = 1.0, inputfile = 'vgrids.in', def addBox(x=(None, None), y=(None, None), z=(None, None),
outputfile = 'vgrids_box.in'): boxvelocity=1.0, inputfile='vgrids.in',
outputfile='vgrids_box.in'):
''' '''
Add a box with constant velocity to an existing vgrids.in velocity model. Add a box with constant velocity to an existing vgrids.in velocity model.
@ -375,7 +387,7 @@ def addBox(x = (None, None), y = (None, None), z = (None, None),
print('Adding box to grid with theta = (%s, %s), phi = (%s, %s), ' print('Adding box to grid with theta = (%s, %s), phi = (%s, %s), '
'r = (%s, %s), velocity = %s [km/s]' 'r = (%s, %s), velocity = %s [km/s]'
%(theta1, theta2, phi1, phi2, r1, r2, boxvelocity)) % (theta1, theta2, phi1, phi2, r1, r2, boxvelocity))
number, delta, start, vel = _readVgrid(inputfile) number, delta, start, vel = _readVgrid(inputfile)
@ -388,10 +400,10 @@ def addBox(x = (None, None), y = (None, None), z = (None, None),
nPoints = nR * nTheta * nPhi nPoints = nR * nTheta * nPhi
# write header for velocity grid file (in RADIANS) # write header for velocity grid file (in RADIANS)
outfile.writelines('%10s %10s \n' %(1, 1)) outfile.writelines('%10s %10s \n' % (1, 1))
outfile.writelines('%10s %10s %10s\n' %(nR, nTheta, nPhi)) outfile.writelines('%10s %10s %10s\n' % (nR, nTheta, nPhi))
outfile.writelines('%10s %10s %10s\n' %(dR, np.deg2rad(dTheta), np.deg2rad(dPhi))) outfile.writelines('%10s %10s %10s\n' % (dR, np.deg2rad(dTheta), np.deg2rad(dPhi)))
outfile.writelines('%10s %10s %10s\n' %(sR, np.deg2rad(sTheta), np.deg2rad(sPhi))) outfile.writelines('%10s %10s %10s\n' % (sR, np.deg2rad(sTheta), np.deg2rad(sPhi)))
count = 0 count = 0
for radius in rGrid: for radius in rGrid:
@ -413,20 +425,22 @@ def addBox(x = (None, None), y = (None, None), z = (None, None),
if rFlag * thetaFlag * phiFlag is not 0: if rFlag * thetaFlag * phiFlag is not 0:
velocity = boxvelocity velocity = boxvelocity
outfile.writelines('%10s %10s\n'%(velocity, decm)) outfile.writelines('%10s %10s\n' % (velocity, decm))
count += 1 count += 1
progress = float(count) / float(nPoints) * 100 progress = float(count) / float(nPoints) * 100
_update_progress(progress) _update_progress(progress)
print('Added box to the grid in file %s. ' print('Added box to the grid in file %s. '
'Outputfile: %s.'%(inputfile, outputfile)) 'Outputfile: %s.' % (inputfile, outputfile))
outfile.close() outfile.close()
def _update_progress(progress): def _update_progress(progress):
sys.stdout.write("%d%% done \r" % (progress) ) sys.stdout.write("%d%% done \r" % (progress))
sys.stdout.flush() sys.stdout.flush()
def _getAngle(distance): def _getAngle(distance):
''' '''
Function returns the angle on a Sphere of the radius R = 6371 [km] for a distance [km]. Function returns the angle on a Sphere of the radius R = 6371 [km] for a distance [km].
@ -436,9 +450,9 @@ def _getAngle(distance):
angle = distance * 180. / (PI * R) angle = distance * 180. / (PI * R)
return angle return angle
def _getDistance(angle): def _getDistance(angle):
PI = np.pi PI = np.pi
R = 6371. R = 6371.
distance = angle / 180 * (PI * R) distance = angle / 180 * (PI * R)
return distance return distance

306
pylot/core/active/seismicArrayPreparation.py
View File

@ -3,6 +3,7 @@ import sys
import numpy as np import numpy as np
from scipy.interpolate import griddata from scipy.interpolate import griddata
class SeisArray(object): class SeisArray(object):
''' '''
Can be used to interpolate missing values of a receiver grid, if only support points were measured. Can be used to interpolate missing values of a receiver grid, if only support points were measured.
@ -15,6 +16,7 @@ class SeisArray(object):
Supports vtk output for sources and receivers. Supports vtk output for sources and receivers.
Note: Source and Receiver files for FMTOMO will be generated by the Survey object (because traveltimes will be added directly). Note: Source and Receiver files for FMTOMO will be generated by the Survey object (because traveltimes will be added directly).
''' '''
def __init__(self, recfile): def __init__(self, recfile):
self.recfile = recfile self.recfile = recfile
self._receiverlines = {} self._receiverlines = {}
@ -132,7 +134,7 @@ class SeisArray(object):
if traceID2 < traceID1: if traceID2 < traceID1:
direction = -1 direction = -1
return direction return direction
print "Error: Same Value for traceID1 = %s and traceID2 = %s" %(traceID1, traceID2) print "Error: Same Value for traceID1 = %s and traceID2 = %s" % (traceID1, traceID2)
def _checkCoordDirection(self, traceID1, traceID2, coordinate): def _checkCoordDirection(self, traceID1, traceID2, coordinate):
''' '''
@ -144,14 +146,15 @@ class SeisArray(object):
if self._getReceiverValue(traceID1, coordinate) > self._getReceiverValue(traceID2, coordinate): if self._getReceiverValue(traceID1, coordinate) > self._getReceiverValue(traceID2, coordinate):
direction = -1 direction = -1
return direction return direction
print "Error: Same Value for traceID1 = %s and traceID2 = %s" %(traceID1, traceID2) print "Error: Same Value for traceID1 = %s and traceID2 = %s" % (traceID1, traceID2)
def _interpolateMeanDistances(self, traceID1, traceID2, coordinate): def _interpolateMeanDistances(self, traceID1, traceID2, coordinate):
''' '''
Returns the mean distance between two traceID's depending on the number of geophones in between Returns the mean distance between two traceID's depending on the number of geophones in between
''' '''
num_spaces = abs(self._getGeophoneNumber(traceID1) - self._getGeophoneNumber(traceID2)) num_spaces = abs(self._getGeophoneNumber(traceID1) - self._getGeophoneNumber(traceID2))
mean_distance = abs(self._getReceiverValue(traceID1, coordinate) - self._getReceiverValue(traceID2, coordinate))/num_spaces mean_distance = abs(
self._getReceiverValue(traceID1, coordinate) - self._getReceiverValue(traceID2, coordinate)) / num_spaces
return mean_distance return mean_distance
def interpolateValues(self, coordinate): def interpolateValues(self, coordinate):
@ -206,7 +209,7 @@ class SeisArray(object):
z = float(line[3]) z = float(line[3])
self._sourceLocs[pointID] = (x, y, z) self._sourceLocs[pointID] = (x, y, z)
def interpZcoords4rec(self, method = 'linear'): def interpZcoords4rec(self, method='linear'):
''' '''
Interpolates z values for all receivers. Interpolates z values for all receivers.
''' '''
@ -214,7 +217,8 @@ class SeisArray(object):
for traceID in self.getReceiverCoordinates().keys(): for traceID in self.getReceiverCoordinates().keys():
if type(self.getReceiverCoordinates()[traceID]) is not tuple: if type(self.getReceiverCoordinates()[traceID]) is not tuple:
z = griddata((measured_x, measured_y), measured_z, (self._getXreceiver(traceID), self._getYreceiver(traceID)), method = method) z = griddata((measured_x, measured_y), measured_z,
(self._getXreceiver(traceID), self._getYreceiver(traceID)), method=method)
self._setZvalue(traceID, float(z)) self._setZvalue(traceID, float(z))
def _getAngle(self, distance): def _getAngle(self, distance):
@ -239,7 +243,9 @@ class SeisArray(object):
''' '''
Returns a list of all measured receivers known to SeisArray. Returns a list of all measured receivers known to SeisArray.
''' '''
x = []; y = []; z = [] x = [];
y = [];
z = []
for traceID in self.getMeasuredReceivers().keys(): for traceID in self.getMeasuredReceivers().keys():
x.append(self.getMeasuredReceivers()[traceID][0]) x.append(self.getMeasuredReceivers()[traceID][0])
y.append(self.getMeasuredReceivers()[traceID][1]) y.append(self.getMeasuredReceivers()[traceID][1])
@ -250,7 +256,9 @@ class SeisArray(object):
''' '''
Returns a list of all measured topography points known to the SeisArray. Returns a list of all measured topography points known to the SeisArray.
''' '''
x = []; y = []; z = [] x = [];
y = [];
z = []
for pointID in self.getMeasuredTopo().keys(): for pointID in self.getMeasuredTopo().keys():
x.append(self.getMeasuredTopo()[pointID][0]) x.append(self.getMeasuredTopo()[pointID][0])
y.append(self.getMeasuredTopo()[pointID][1]) y.append(self.getMeasuredTopo()[pointID][1])
@ -261,7 +269,9 @@ class SeisArray(object):
''' '''
Returns a list of all measured source locations known to SeisArray. Returns a list of all measured source locations known to SeisArray.
''' '''
x = []; y = []; z = [] x = [];
y = [];
z = []
for pointID in self.getSourceLocations().keys(): for pointID in self.getSourceLocations().keys():
x.append(self.getSourceLocations()[pointID][0]) x.append(self.getSourceLocations()[pointID][0])
y.append(self.getSourceLocations()[pointID][1]) y.append(self.getSourceLocations()[pointID][1])
@ -285,7 +295,9 @@ class SeisArray(object):
''' '''
Returns a list of all receivers (measured and interpolated). Returns a list of all receivers (measured and interpolated).
''' '''
x = []; y =[]; z = [] x = [];
y = [];
z = []
for traceID in self.getReceiverCoordinates().keys(): for traceID in self.getReceiverCoordinates().keys():
x.append(self.getReceiverCoordinates()[traceID][0]) x.append(self.getReceiverCoordinates()[traceID][0])
y.append(self.getReceiverCoordinates()[traceID][1]) y.append(self.getReceiverCoordinates()[traceID][1])
@ -303,7 +315,7 @@ class SeisArray(object):
self._interpolateXY4rec() self._interpolateXY4rec()
self.interpZcoords4rec() self.interpZcoords4rec()
def interpolateTopography(self, nTheta, nPhi, thetaSN, phiWE, elevation = 0.25, method = 'linear'): def interpolateTopography(self, nTheta, nPhi, thetaSN, phiWE, elevation=0.25, method='linear'):
''' '''
Interpolate Z values on a regular grid with cushion nodes e.g. to use it as FMTOMO topography interface. Interpolate Z values on a regular grid with cushion nodes e.g. to use it as FMTOMO topography interface.
Returns a surface in form of a list of points [[x1, y1, z1], [x2, y2, y2], ...] (cartesian). Returns a surface in form of a list of points [[x1, y1, z1], [x2, y2, y2], ...] (cartesian).
@ -325,7 +337,7 @@ class SeisArray(object):
''' '''
return self.interpolateOnRegularGrid(nTheta, nPhi, thetaSN, phiWE, elevation, method) return self.interpolateOnRegularGrid(nTheta, nPhi, thetaSN, phiWE, elevation, method)
def interpolateOnRegularGrid(self, nTheta, nPhi, thetaSN, phiWE, elevation, method = 'linear'): def interpolateOnRegularGrid(self, nTheta, nPhi, thetaSN, phiWE, elevation, method='linear'):
''' '''
Interpolate Z values on a regular grid with cushion nodes e.g. to use it as FMTOMO topography interface. Interpolate Z values on a regular grid with cushion nodes e.g. to use it as FMTOMO topography interface.
Returns a surface in form of a list of points [[x1, y1, z1], [x2, y2, y2], ...] (cartesian). Returns a surface in form of a list of points [[x1, y1, z1], [x2, y2, y2], ...] (cartesian).
@ -349,8 +361,8 @@ class SeisArray(object):
surface = [] surface = []
print "Interpolating interface on regular grid with the dimensions:" print "Interpolating interface on regular grid with the dimensions:"
print "nTheta = %s, nPhi = %s, thetaSN = %s, phiWE = %s"%(nTheta, nPhi, thetaSN, phiWE) print "nTheta = %s, nPhi = %s, thetaSN = %s, phiWE = %s" % (nTheta, nPhi, thetaSN, phiWE)
print "method = %s, elevation = %s" %(method, elevation) print "method = %s, elevation = %s" % (method, elevation)
thetaS, thetaN = thetaSN thetaS, thetaN = thetaSN
phiW, phiE = phiWE phiW, phiE = phiWE
@ -361,18 +373,19 @@ class SeisArray(object):
deltaTheta = (thetaN - thetaS) / (nTheta - 1) deltaTheta = (thetaN - thetaS) / (nTheta - 1)
deltaPhi = (phiE - phiW) / (nPhi - 1) deltaPhi = (phiE - phiW) / (nPhi - 1)
thetaGrid = np.linspace(thetaS - deltaTheta, thetaN + deltaTheta, num = nTheta + 2) # +2 cushion nodes thetaGrid = np.linspace(thetaS - deltaTheta, thetaN + deltaTheta, num=nTheta + 2) # +2 cushion nodes
phiGrid = np.linspace(phiW - deltaPhi, phiE + deltaPhi, num = nPhi + 2) # +2 cushion nodes phiGrid = np.linspace(phiW - deltaPhi, phiE + deltaPhi, num=nPhi + 2) # +2 cushion nodes
nTotal = len(thetaGrid) * len(phiGrid); count = 0 nTotal = len(thetaGrid) * len(phiGrid);
count = 0
for theta in thetaGrid: for theta in thetaGrid:
for phi in phiGrid: for phi in phiGrid:
xval = self._getDistance(phi) xval = self._getDistance(phi)
yval = self._getDistance(theta) yval = self._getDistance(theta)
z = griddata((measured_x, measured_y), measured_z, (xval, yval), method = method) z = griddata((measured_x, measured_y), measured_z, (xval, yval), method=method)
# in case the point lies outside, nan will be returned. Find nearest: # in case the point lies outside, nan will be returned. Find nearest:
if np.isnan(z) == True: if np.isnan(z) == True:
z = griddata((measured_x, measured_y), measured_z, (xval, yval), method = 'nearest') z = griddata((measured_x, measured_y), measured_z, (xval, yval), method='nearest')
z = float(z) + elevation z = float(z) + elevation
surface.append((xval, yval, z)) surface.append((xval, yval, z))
count += 1 count += 1
@ -382,8 +395,8 @@ class SeisArray(object):
return surface return surface
def generateFMTOMOinputFromArray(self, nPointsPropgrid, nPointsInvgrid, def generateFMTOMOinputFromArray(self, nPointsPropgrid, nPointsInvgrid,
zBotTop, cushionfactor, interpolationMethod = 'linear', zBotTop, cushionfactor, interpolationMethod='linear',
customgrid = 'mygrid.in', writeVTK = True): customgrid='mygrid.in', writeVTK=True):
''' '''
Generate FMTOMO input files from the SeisArray dimensions. Generate FMTOMO input files from the SeisArray dimensions.
Generates: vgrids.in, interfaces.in, propgrid.in Generates: vgrids.in, interfaces.in, propgrid.in
@ -406,10 +419,10 @@ class SeisArray(object):
print('\n------------------------------------------------------------') print('\n------------------------------------------------------------')
print('Automatically generating input for FMTOMO from array size.') print('Automatically generating input for FMTOMO from array size.')
print('Propgrid: nR = %s, nTheta = %s, nPhi = %s'%(nRP, nThetaP, nPhiP)) print('Propgrid: nR = %s, nTheta = %s, nPhi = %s' % (nRP, nThetaP, nPhiP))
print('Interpolation Grid and Interfaces Grid: nR = %s, nTheta = %s, nPhi = %s'%(nRI, nThetaI, nPhiI)) print('Interpolation Grid and Interfaces Grid: nR = %s, nTheta = %s, nPhi = %s' % (nRI, nThetaI, nPhiI))
print('Bottom and Top of model: (%s, %s)'%(zBotTop[0], zBotTop[1])) print('Bottom and Top of model: (%s, %s)' % (zBotTop[0], zBotTop[1]))
print('Method: %s, customgrid = %s'%(interpolationMethod, customgrid)) print('Method: %s, customgrid = %s' % (interpolationMethod, customgrid))
print('------------------------------------------------------------') print('------------------------------------------------------------')
def getZmin(surface): def getZmin(surface):
@ -418,31 +431,31 @@ class SeisArray(object):
z.append(point[2]) z.append(point[2])
return min(z) return min(z)
self.generatePropgrid(nThetaP, nPhiP, nRP, zBotTop, cushionfactor = cushionfactor, self.generatePropgrid(nThetaP, nPhiP, nRP, zBotTop, cushionfactor=cushionfactor,
cushionpropgrid = 0.05) cushionpropgrid=0.05)
surface = self.generateVgrid(nThetaI, nPhiI, nRI, zBotTop, method = interpolationMethod, surface = self.generateVgrid(nThetaI, nPhiI, nRI, zBotTop, method=interpolationMethod,
cushionfactor = cushionfactor, infilename = customgrid, cushionfactor=cushionfactor, infilename=customgrid,
returnTopo = True) returnTopo=True)
depthmax = abs(zBotTop[0] - getZmin(surface)) - 1.0 # cushioning for the bottom interface depthmax = abs(zBotTop[0] - getZmin(surface)) - 1.0 # cushioning for the bottom interface
interf1, interf2 = self.generateInterfaces(nThetaI, nPhiI, depthmax, cushionfactor = cushionfactor, interf1, interf2 = self.generateInterfaces(nThetaI, nPhiI, depthmax, cushionfactor=cushionfactor,
returnInterfaces = True, method = interpolationMethod) returnInterfaces=True, method=interpolationMethod)
if writeVTK == True: if writeVTK == True:
from pylot.core.active import fmtomoUtils from pylot.core.active import fmtomoUtils
self.surface2VTK(interf1, filename = 'interface1.vtk') self.surface2VTK(interf1, filename='interface1.vtk')
self.surface2VTK(interf2, filename = 'interface2.vtk') self.surface2VTK(interf2, filename='interface2.vtk')
self.receivers2VTK() self.receivers2VTK()
self.sources2VTK() self.sources2VTK()
fmtomoUtils.vgrids2VTK() fmtomoUtils.vgrids2VTK()
def generateReceiversIn(self, outfilename = 'receivers.in'): def generateReceiversIn(self, outfilename='receivers.in'):
outfile = open(outfilename, 'w') outfile = open(outfilename, 'w')
recx, recy, recz = self.getReceiverLists() recx, recy, recz = self.getReceiverLists()
nsrc = len(self.getSourceLocations()) nsrc = len(self.getSourceLocations())
outfile.writelines('%s\n'%(len(zip(recx, recy, recz)) * nsrc)) outfile.writelines('%s\n' % (len(zip(recx, recy, recz)) * nsrc))
for index in range(nsrc): for index in range(nsrc):
for point in zip(recx, recy, recz): for point in zip(recx, recy, recz):
@ -450,17 +463,16 @@ class SeisArray(object):
rad = - rz rad = - rz
lat = self._getAngle(ry) lat = self._getAngle(ry)
lon = self._getAngle(rx) lon = self._getAngle(rx)
outfile.writelines('%15s %15s %15s\n'%(rad, lat, lon)) outfile.writelines('%15s %15s %15s\n' % (rad, lat, lon))
outfile.writelines('%15s\n'%(1)) outfile.writelines('%15s\n' % (1))
outfile.writelines('%15s\n'%(index + 1)) outfile.writelines('%15s\n' % (index + 1))
outfile.writelines('%15s\n'%(1)) outfile.writelines('%15s\n' % (1))
outfile.close() outfile.close()
def generateInterfaces(self, nTheta, nPhi, depthmax, cushionfactor=0.1,
def generateInterfaces(self, nTheta, nPhi, depthmax, cushionfactor = 0.1, outfilename='interfaces.in', method='linear',
outfilename = 'interfaces.in', method = 'linear', returnInterfaces=False):
returnInterfaces = False):
''' '''
Create an interfaces.in file for FMTOMO from the SeisArray boundaries. Create an interfaces.in file for FMTOMO from the SeisArray boundaries.
:param: nTheta, number of points in Theta :param: nTheta, number of points in Theta
@ -494,22 +506,22 @@ class SeisArray(object):
deltaPhi = abs(phiE - phiW) / float((nPhi - 1)) deltaPhi = abs(phiE - phiW) / float((nPhi - 1))
# write header for interfaces grid file (in RADIANS) # write header for interfaces grid file (in RADIANS)
outfile.writelines('%10s\n' %(nInterfaces)) outfile.writelines('%10s\n' % (nInterfaces))
outfile.writelines('%10s %10s\n' %(nTheta + 2, nPhi + 2)) # +2 cushion nodes outfile.writelines('%10s %10s\n' % (nTheta + 2, nPhi + 2)) # +2 cushion nodes
outfile.writelines('%10s %10s\n' %(np.deg2rad(deltaTheta), np.deg2rad(deltaPhi))) outfile.writelines('%10s %10s\n' % (np.deg2rad(deltaTheta), np.deg2rad(deltaPhi)))
outfile.writelines('%10s %10s\n' %(np.deg2rad(thetaS - deltaTheta), np.deg2rad(phiW - deltaPhi))) outfile.writelines('%10s %10s\n' % (np.deg2rad(thetaS - deltaTheta), np.deg2rad(phiW - deltaPhi)))
interface1 = self.interpolateTopography(nTheta, nPhi, thetaSN, phiWE, method = method) interface1 = self.interpolateTopography(nTheta, nPhi, thetaSN, phiWE, method=method)
interface2 = self.interpolateOnRegularGrid(nTheta, nPhi, thetaSN, phiWE, -depthmax, method = method) interface2 = self.interpolateOnRegularGrid(nTheta, nPhi, thetaSN, phiWE, -depthmax, method=method)
for point in interface1: for point in interface1:
z = point[2] z = point[2]
outfile.writelines('%10s\n'%(z + R)) outfile.writelines('%10s\n' % (z + R))
outfile.writelines('\n') outfile.writelines('\n')
for point in interface2: for point in interface2:
z = point[2] z = point[2]
outfile.writelines('%10s\n'%(z + R)) outfile.writelines('%10s\n' % (z + R))
outfile.close() outfile.close()
@ -519,7 +531,7 @@ class SeisArray(object):
print('Finished generating interfaces.') print('Finished generating interfaces.')
print('------------------------------------------------------------') print('------------------------------------------------------------')
def getThetaPhiFromArray(self, cushionfactor = 0.1): def getThetaPhiFromArray(self, cushionfactor=0.1):
''' '''
Determine and returns PhiWE (tuple: (West, East)) and thetaSN (tuple (South, North)) from the SeisArray boundaries. Determine and returns PhiWE (tuple: (West, East)) and thetaSN (tuple (South, North)) from the SeisArray boundaries.
@ -535,8 +547,8 @@ class SeisArray(object):
thetaSN = (theta_min - cushionTheta, theta_max + cushionTheta) thetaSN = (theta_min - cushionTheta, theta_max + cushionTheta)
return thetaSN, phiWE return thetaSN, phiWE
def generatePropgrid(self, nTheta, nPhi, nR, Rbt, cushionfactor, cushionpropgrid = 0.05, def generatePropgrid(self, nTheta, nPhi, nR, Rbt, cushionfactor, cushionpropgrid=0.05,
refinement = (5, 5), outfilename = 'propgrid.in'): refinement=(5, 5), outfilename='propgrid.in'):
''' '''
Create a propergation grid file for FMTOMO using SeisArray boundaries Create a propergation grid file for FMTOMO using SeisArray boundaries
@ -567,9 +579,9 @@ class SeisArray(object):
print('\n------------------------------------------------------------') print('\n------------------------------------------------------------')
print('Generating Propagation Grid for nTheta = %s, nPhi' print('Generating Propagation Grid for nTheta = %s, nPhi'
' = %s, nR = %s and a cushioning of %s' ' = %s, nR = %s and a cushioning of %s'
%(nTheta, nPhi, nR, cushionpropgrid)) % (nTheta, nPhi, nR, cushionpropgrid))
print('Bottom of the grid: %s, top of the grid %s' print('Bottom of the grid: %s, top of the grid %s'
%(Rbt[0], Rbt[1])) % (Rbt[0], Rbt[1]))
thetaSN, phiWE = self.getThetaPhiFromArray(cushionfactor) thetaSN, phiWE = self.getThetaPhiFromArray(cushionfactor)
@ -584,20 +596,20 @@ class SeisArray(object):
deltaPhi = abs(phiE - phiW) / float(nPhi - 1) deltaPhi = abs(phiE - phiW) / float(nPhi - 1)
deltaR = abs(rbot - rtop) / float(nR - 1) deltaR = abs(rbot - rtop) / float(nR - 1)
outfile.writelines('%10s %10s %10s\n' %(nR, nTheta, nPhi)) outfile.writelines('%10s %10s %10s\n' % (nR, nTheta, nPhi))
outfile.writelines('%10s %10s %10s\n' %(deltaR, deltaTheta, deltaPhi)) outfile.writelines('%10s %10s %10s\n' % (deltaR, deltaTheta, deltaPhi))
outfile.writelines('%10s %10s %10s\n' %(rtop, thetaS, phiW)) outfile.writelines('%10s %10s %10s\n' % (rtop, thetaS, phiW))
outfile.writelines('%10s %10s\n' %refinement) outfile.writelines('%10s %10s\n' % refinement)
outfile.close() outfile.close()
print('Created Propagation Grid and saved it to %s' %outfilename) print('Created Propagation Grid and saved it to %s' % outfilename)
print('------------------------------------------------------------') print('------------------------------------------------------------')
def generateVgrid(self, nTheta, nPhi, nR, Rbt, thetaSN = None, def generateVgrid(self, nTheta, nPhi, nR, Rbt, thetaSN=None,
phiWE = None, cushionfactor = 0.1, phiWE=None, cushionfactor=0.1,
outfilename = 'vgrids.in', method = 'linear', outfilename='vgrids.in', method='linear',
infilename = 'mygrid.in', returnTopo = False): infilename='mygrid.in', returnTopo=False):
''' '''
Generate a velocity grid for fmtomo regarding topography with a linear gradient starting at the topography with 0.34 [km/s]. Generate a velocity grid for fmtomo regarding topography with a linear gradient starting at the topography with 0.34 [km/s].
@ -641,11 +653,14 @@ class SeisArray(object):
return nlayers return nlayers
def readMygrid(filename): def readMygrid(filename):
ztop = []; zbot = []; vtop = []; vbot = [] ztop = [];
zbot = [];
vtop = [];
vbot = []
infile = open(filename, 'r') infile = open(filename, 'r')
nlayers = readMygridNlayers(filename) nlayers = readMygridNlayers(filename)
print('\nreadMygrid: Reading file %s.'%filename) print('\nreadMygrid: Reading file %s.' % filename)
for index in range(nlayers): for index in range(nlayers):
line1 = infile.readline() line1 = infile.readline()
line2 = infile.readline() line2 = infile.readline()
@ -655,11 +670,11 @@ class SeisArray(object):
vbot.append(float(line2.split()[1])) vbot.append(float(line2.split()[1]))
print('Layer %s:\n[Top: v = %s [km/s], z = %s [m]]' print('Layer %s:\n[Top: v = %s [km/s], z = %s [m]]'
'\n[Bot: v = %s [km/s], z = %s [m]]' '\n[Bot: v = %s [km/s], z = %s [m]]'
%(index + 1, vtop[index], ztop[index], % (index + 1, vtop[index], ztop[index],
vbot[index], zbot[index])) vbot[index], zbot[index]))
if not ztop[0] == 0: if not ztop[0] == 0:
print('ERROR: there must be a velocity set for z = 0 in the file %s'%filename) print('ERROR: there must be a velocity set for z = 0 in the file %s' % filename)
print('e.g.:\n0 0.33\n-5 1.0\netc.') print('e.g.:\n0 0.33\n-5 1.0\netc.')
infile.close() infile.close()
@ -685,28 +700,29 @@ class SeisArray(object):
deltaR = abs(rbot - rtop) / float((nR - 1)) deltaR = abs(rbot - rtop) / float((nR - 1))
# create a regular grid including +2 cushion nodes in every direction # create a regular grid including +2 cushion nodes in every direction
thetaGrid = np.linspace(thetaS - deltaTheta, thetaN + deltaTheta, num = nTheta + 2) # +2 cushion nodes thetaGrid = np.linspace(thetaS - deltaTheta, thetaN + deltaTheta, num=nTheta + 2) # +2 cushion nodes
phiGrid = np.linspace(phiW - deltaPhi, phiE + deltaPhi, num = nPhi + 2) # +2 cushion nodes phiGrid = np.linspace(phiW - deltaPhi, phiE + deltaPhi, num=nPhi + 2) # +2 cushion nodes
rGrid = np.linspace(rbot - deltaR, rtop + deltaR, num = nR + 2) # +2 cushion nodes rGrid = np.linspace(rbot - deltaR, rtop + deltaR, num=nR + 2) # +2 cushion nodes
nTotal = len(rGrid) * len(thetaGrid) * len(phiGrid) nTotal = len(rGrid) * len(thetaGrid) * len(phiGrid)
print("Total number of grid nodes: %s"%nTotal) print("Total number of grid nodes: %s" % nTotal)
# write header for velocity grid file (in RADIANS) # write header for velocity grid file (in RADIANS)
outfile.writelines('%10s %10s \n' %(1, 1)) outfile.writelines('%10s %10s \n' % (1, 1))
outfile.writelines('%10s %10s %10s\n' %(nR + 2, nTheta + 2, nPhi + 2)) outfile.writelines('%10s %10s %10s\n' % (nR + 2, nTheta + 2, nPhi + 2))
outfile.writelines('%10s %10s %10s\n' %(deltaR, np.deg2rad(deltaTheta), np.deg2rad(deltaPhi))) outfile.writelines('%10s %10s %10s\n' % (deltaR, np.deg2rad(deltaTheta), np.deg2rad(deltaPhi)))
outfile.writelines('%10s %10s %10s\n' %(rbot - deltaR, np.deg2rad(thetaS - deltaTheta), np.deg2rad(phiW - deltaPhi))) outfile.writelines(
'%10s %10s %10s\n' % (rbot - deltaR, np.deg2rad(thetaS - deltaTheta), np.deg2rad(phiW - deltaPhi)))
surface = self.interpolateTopography(nTheta, nPhi, thetaSN, phiWE, method = method) surface = self.interpolateTopography(nTheta, nPhi, thetaSN, phiWE, method=method)
nlayers = readMygridNlayers(infilename) nlayers = readMygridNlayers(infilename)
ztop, zbot, vtop, vbot = readMygrid(infilename) ztop, zbot, vtop, vbot = readMygrid(infilename)
print("\nGenerating velocity grid for FMTOMO. " print("\nGenerating velocity grid for FMTOMO. "
"Output filename = %s, interpolation method = %s"%(outfilename, method)) "Output filename = %s, interpolation method = %s" % (outfilename, method))
print("nTheta = %s, nPhi = %s, nR = %s, " print("nTheta = %s, nPhi = %s, nR = %s, "
"thetaSN = %s, phiWE = %s, Rbt = %s"%(nTheta, nPhi, nR, thetaSN, phiWE, Rbt)) "thetaSN = %s, phiWE = %s, Rbt = %s" % (nTheta, nPhi, nR, thetaSN, phiWE, Rbt))
count = 0 count = 0
for radius in rGrid: for radius in rGrid:
@ -726,27 +742,31 @@ class SeisArray(object):
else: else:
for index in range(nlayers): for index in range(nlayers):
if (ztop[index]) >= depth > (zbot[index]): if (ztop[index]) >= depth > (zbot[index]):
vel = (depth - ztop[index]) / (zbot[index] - ztop[index]) * (vbot[index] - vtop[index]) + vtop[index] vel = (depth - ztop[index]) / (zbot[index] - ztop[index]) * (
vbot[index] - vtop[index]) + vtop[index]
break break
if not (ztop[index]) >= depth > (zbot[index]): if not (ztop[index]) >= depth > (zbot[index]):
print('ERROR in grid inputfile, could not find velocity for a z-value of %s in the inputfile'%(depth-topo)) print(
'ERROR in grid inputfile, could not find velocity for a z-value of %s in the inputfile' % (
depth - topo))
return return
count += 1 count += 1
if vel < 0: if vel < 0:
print('ERROR, vel <0; z, topo, zbot, vbot, vtop:', depth, topo, zbot[index], vbot[index], vtop[index]) print(
outfile.writelines('%10s %10s\n'%(vel, decm)) 'ERROR, vel <0; z, topo, zbot, vbot, vtop:', depth, topo, zbot[index], vbot[index], vtop[index])
outfile.writelines('%10s %10s\n' % (vel, decm))
progress = float(count) / float(nTotal) * 100 progress = float(count) / float(nTotal) * 100
self._update_progress(progress) self._update_progress(progress)
print('\nWrote %d points to file %s for %d layers'%(count, outfilename, nlayers)) print('\nWrote %d points to file %s for %d layers' % (count, outfilename, nlayers))
print('------------------------------------------------------------') print('------------------------------------------------------------')
outfile.close() outfile.close()
if returnTopo == True: if returnTopo == True:
return surface return surface
def exportAll(self, filename = 'interpolated_receivers.out'): def exportAll(self, filename='interpolated_receivers.out'):
''' '''
Exports all receivers to an input file for ActiveSeismoPick3D. Exports all receivers to an input file for ActiveSeismoPick3D.
''' '''
@ -755,11 +775,11 @@ class SeisArray(object):
for traceID in self.getReceiverCoordinates().keys(): for traceID in self.getReceiverCoordinates().keys():
count += 1 count += 1
x, y, z = self.getReceiverCoordinates()[traceID] x, y, z = self.getReceiverCoordinates()[traceID]
recfile_out.writelines('%5s %15s %15s %15s\n' %(traceID, x, y, z)) recfile_out.writelines('%5s %15s %15s %15s\n' % (traceID, x, y, z))
print "Exported coordinates for %s traces to file > %s" %(count, filename) print "Exported coordinates for %s traces to file > %s" % (count, filename)
recfile_out.close() recfile_out.close()
def plotArray2D(self, plot_topo = False, highlight_measured = False, annotations = True, pointsize = 10): def plotArray2D(self, plot_topo=False, highlight_measured=False, annotations=True, pointsize=10):
import matplotlib.pyplot as plt import matplotlib.pyplot as plt
plt.interactive(True) plt.interactive(True)
fig = plt.figure() fig = plt.figure()
@ -770,36 +790,36 @@ class SeisArray(object):
xrc, yrc, zrc = self.getReceiverLists() xrc, yrc, zrc = self.getReceiverLists()
if len(xrc) > 0: if len(xrc) > 0:
ax.plot(xrc, yrc, 'k.', markersize = pointsize, label = 'all receivers') ax.plot(xrc, yrc, 'k.', markersize=pointsize, label='all receivers')
if len(xsc) > 0: if len(xsc) > 0:
ax.plot(xsc, ysc, 'b*', markersize = pointsize, label = 'shot locations') ax.plot(xsc, ysc, 'b*', markersize=pointsize, label='shot locations')
if plot_topo == True: if plot_topo == True:
ax.plot(xmt, ymt, 'b.', markersize = pointsize, label = 'measured topo points') ax.plot(xmt, ymt, 'b.', markersize=pointsize, label='measured topo points')
if highlight_measured == True: if highlight_measured == True:
ax.plot(xmr, ymr, 'r.', markersize = pointsize, label = 'measured receivers') ax.plot(xmr, ymr, 'r.', markersize=pointsize, label='measured receivers')
plt.title('2D plot of seismic array %s'%self.recfile) plt.title('2D plot of seismic array %s' % self.recfile)
ax.set_xlabel('X [m]') ax.set_xlabel('X [m]')
ax.set_ylabel('Y [m]') ax.set_ylabel('Y [m]')
ax.set_aspect('equal') ax.set_aspect('equal')
plt.legend() plt.legend()
if annotations == True: if annotations == True:
for traceID in self.getReceiverCoordinates().keys(): for traceID in self.getReceiverCoordinates().keys():
ax.annotate((' ' + str(traceID)), xy = (self._getXreceiver(traceID), self._getYreceiver(traceID)), fontsize = 'x-small', color = 'k') ax.annotate((' ' + str(traceID)), xy=(self._getXreceiver(traceID), self._getYreceiver(traceID)),
fontsize='x-small', color='k')
for shotnumber in self.getSourceLocations().keys(): for shotnumber in self.getSourceLocations().keys():
ax.annotate((' ' + str(shotnumber)), xy = (self._getXshot(shotnumber), self._getYshot(shotnumber)), fontsize = 'x-small', color = 'b') ax.annotate((' ' + str(shotnumber)), xy=(self._getXshot(shotnumber), self._getYshot(shotnumber)),
fontsize='x-small', color='b')
def plotArray3D(self, ax=None):
def plotArray3D(self, ax = None):
import matplotlib.pyplot as plt import matplotlib.pyplot as plt
from mpl_toolkits.mplot3d import Axes3D from mpl_toolkits.mplot3d import Axes3D
plt.interactive(True) plt.interactive(True)
if ax == None: if ax == None:
fig = plt.figure() fig = plt.figure()
ax = plt.axes(projection = '3d') ax = plt.axes(projection='3d')
xmt, ymt, zmt = self.getMeasuredTopoLists() xmt, ymt, zmt = self.getMeasuredTopoLists()
xmr, ymr, zmr = self.getMeasuredReceiverLists() xmr, ymr, zmr = self.getMeasuredReceiverLists()
@ -808,20 +828,21 @@ class SeisArray(object):
plt.title('3D plot of seismic array.') plt.title('3D plot of seismic array.')
if len(xmt) > 0: if len(xmt) > 0:
ax.plot(xmt, ymt, zmt, 'b.', markersize = 10, label = 'measured topo points') ax.plot(xmt, ymt, zmt, 'b.', markersize=10, label='measured topo points')
if len(xrc) > 0: if len(xrc) > 0:
ax.plot(xrc, yrc, zrc, 'k.', markersize = 10, label = 'all receivers') ax.plot(xrc, yrc, zrc, 'k.', markersize=10, label='all receivers')
if len(xmr) > 0: if len(xmr) > 0:
ax.plot(xmr, ymr, zmr, 'ro', label = 'measured receivers') ax.plot(xmr, ymr, zmr, 'ro', label='measured receivers')
if len(xsc) > 0: if len(xsc) > 0:
ax.plot(xsc, ysc, zsc, 'b*', label = 'shot locations') ax.plot(xsc, ysc, zsc, 'b*', label='shot locations')
ax.set_xlabel('X [m]'); ax.set_ylabel('Y [m]'); ax.set_zlabel('Z [m]') ax.set_xlabel('X [m]');
ax.set_ylabel('Y [m]');
ax.set_zlabel('Z [m]')
ax.legend() ax.legend()
return ax return ax
def plotSurface3D(self, ax=None, step=0.5, method='linear', exag=False):
def plotSurface3D(self, ax = None, step = 0.5, method = 'linear', exag = False):
from matplotlib import cm from matplotlib import cm
import matplotlib.pyplot as plt import matplotlib.pyplot as plt
from mpl_toolkits.mplot3d import Axes3D from mpl_toolkits.mplot3d import Axes3D
@ -829,7 +850,7 @@ class SeisArray(object):
if ax == None: if ax == None:
fig = plt.figure() fig = plt.figure()
ax = plt.axes(projection = '3d') ax = plt.axes(projection='3d')
xmt, ymt, zmt = self.getMeasuredTopoLists() xmt, ymt, zmt = self.getMeasuredTopoLists()
xmr, ymr, zmr = self.getMeasuredReceiverLists() xmr, ymr, zmr = self.getMeasuredReceiverLists()
@ -838,31 +859,33 @@ class SeisArray(object):
y = ymt + ymr y = ymt + ymr
z = zmt + zmr z = zmt + zmr
xaxis = np.arange(min(x)+1, max(x), step) xaxis = np.arange(min(x) + 1, max(x), step)
yaxis = np.arange(min(y)+1, max(y), step) yaxis = np.arange(min(y) + 1, max(y), step)
xgrid, ygrid = np.meshgrid(xaxis, yaxis) xgrid, ygrid = np.meshgrid(xaxis, yaxis)
zgrid = griddata((x, y), z, (xgrid, ygrid), method = method) zgrid = griddata((x, y), z, (xgrid, ygrid), method=method)
surf = ax.plot_surface(xgrid, ygrid, zgrid, linewidth = 0, cmap = cm.jet, vmin = min(z), vmax = max(z)) surf = ax.plot_surface(xgrid, ygrid, zgrid, linewidth=0, cmap=cm.jet, vmin=min(z), vmax=max(z))
cbar = plt.colorbar(surf) cbar = plt.colorbar(surf)
cbar.set_label('Elevation [m]') cbar.set_label('Elevation [m]')
if exag == False: if exag == False:
ax.set_zlim(-(max(x) - min(x)/2),(max(x) - min(x)/2)) ax.set_zlim(-(max(x) - min(x) / 2), (max(x) - min(x) / 2))
ax.set_aspect('equal') ax.set_aspect('equal')
ax.set_xlabel('X [m]'); ax.set_ylabel('Y [m]'); ax.set_zlabel('Z [m]') ax.set_xlabel('X [m]');
ax.set_ylabel('Y [m]');
ax.set_zlabel('Z [m]')
ax.legend() ax.legend()
return ax return ax
def _update_progress(self, progress): def _update_progress(self, progress):
sys.stdout.write("%d%% done \r" % (progress) ) sys.stdout.write("%d%% done \r" % (progress))
sys.stdout.flush() sys.stdout.flush()
def surface2VTK(self, surface, filename = 'surface.vtk'): def surface2VTK(self, surface, filename='surface.vtk'):
''' '''
Generates a vtk file from all points of a surface as generated by interpolateTopography. Generates a vtk file from all points of a surface as generated by interpolateTopography.
''' '''
@ -876,7 +899,7 @@ class SeisArray(object):
outfile.writelines('Surface Points\n') outfile.writelines('Surface Points\n')
outfile.writelines('ASCII\n') outfile.writelines('ASCII\n')
outfile.writelines('DATASET POLYDATA\n') outfile.writelines('DATASET POLYDATA\n')
outfile.writelines('POINTS %15d float\n' %(nPoints)) outfile.writelines('POINTS %15d float\n' % (nPoints))
# write coordinates # write coordinates
print("Writing coordinates to VTK file...") print("Writing coordinates to VTK file...")
@ -885,14 +908,14 @@ class SeisArray(object):
y = point[1] y = point[1]
z = point[2] z = point[2]
outfile.writelines('%10f %10f %10f \n' %(x, y, z)) outfile.writelines('%10f %10f %10f \n' % (x, y, z))
outfile.writelines('VERTICES %15d %15d\n' %(nPoints, 2 * nPoints)) outfile.writelines('VERTICES %15d %15d\n' % (nPoints, 2 * nPoints))
# write indices # write indices
print("Writing indices to VTK file...") print("Writing indices to VTK file...")
for index in range(nPoints): for index in range(nPoints):
outfile.writelines('%10d %10d\n' %(1, index)) outfile.writelines('%10d %10d\n' % (1, index))
# outfile.writelines('POINT_DATA %15d\n' %(nPoints)) # outfile.writelines('POINT_DATA %15d\n' %(nPoints))
# outfile.writelines('SCALARS traceIDs int %d\n' %(1)) # outfile.writelines('SCALARS traceIDs int %d\n' %(1))
@ -904,10 +927,10 @@ class SeisArray(object):
# outfile.writelines('%10d\n' %traceID) # outfile.writelines('%10d\n' %traceID)
outfile.close() outfile.close()
print("Wrote %d points to file: %s" %(nPoints, filename)) print("Wrote %d points to file: %s" % (nPoints, filename))
return return
def receivers2VTK(self, filename = 'receivers.vtk'): def receivers2VTK(self, filename='receivers.vtk'):
''' '''
Generates a vtk file from all receivers of the SeisArray object. Generates a vtk file from all receivers of the SeisArray object.
''' '''
@ -925,7 +948,7 @@ class SeisArray(object):
outfile.writelines('Receivers with traceIDs\n') outfile.writelines('Receivers with traceIDs\n')
outfile.writelines('ASCII\n') outfile.writelines('ASCII\n')
outfile.writelines('DATASET POLYDATA\n') outfile.writelines('DATASET POLYDATA\n')
outfile.writelines('POINTS %15d float\n' %(nPoints)) outfile.writelines('POINTS %15d float\n' % (nPoints))
# write coordinates # write coordinates
print("Writing coordinates to VTK file...") print("Writing coordinates to VTK file...")
@ -934,29 +957,29 @@ class SeisArray(object):
y = self._getYreceiver(traceID) y = self._getYreceiver(traceID)
z = self._getZreceiver(traceID) z = self._getZreceiver(traceID)
outfile.writelines('%10f %10f %10f \n' %(x, y, z)) outfile.writelines('%10f %10f %10f \n' % (x, y, z))
outfile.writelines('VERTICES %15d %15d\n' %(nPoints, 2 * nPoints)) outfile.writelines('VERTICES %15d %15d\n' % (nPoints, 2 * nPoints))
# write indices # write indices
print("Writing indices to VTK file...") print("Writing indices to VTK file...")
for index in range(nPoints): for index in range(nPoints):
outfile.writelines('%10d %10d\n' %(1, index)) outfile.writelines('%10d %10d\n' % (1, index))
outfile.writelines('POINT_DATA %15d\n' %(nPoints)) outfile.writelines('POINT_DATA %15d\n' % (nPoints))
outfile.writelines('SCALARS traceIDs int %d\n' %(1)) outfile.writelines('SCALARS traceIDs int %d\n' % (1))
outfile.writelines('LOOKUP_TABLE default\n') outfile.writelines('LOOKUP_TABLE default\n')
# write traceIDs # write traceIDs
print("Writing traceIDs to VTK file...") print("Writing traceIDs to VTK file...")
for traceID in traceIDs: for traceID in traceIDs:
outfile.writelines('%10d\n' %traceID) outfile.writelines('%10d\n' % traceID)
outfile.close() outfile.close()
print("Wrote %d receiver for to file: %s" %(nPoints, filename)) print("Wrote %d receiver for to file: %s" % (nPoints, filename))
return return
def sources2VTK(self, filename = 'sources.vtk'): def sources2VTK(self, filename='sources.vtk'):
''' '''
Generates a vtk-file for all source locations in the SeisArray object. Generates a vtk-file for all source locations in the SeisArray object.
''' '''
@ -974,7 +997,7 @@ class SeisArray(object):
outfile.writelines('Shots with shotnumbers\n') outfile.writelines('Shots with shotnumbers\n')
outfile.writelines('ASCII\n') outfile.writelines('ASCII\n')
outfile.writelines('DATASET POLYDATA\n') outfile.writelines('DATASET POLYDATA\n')
outfile.writelines('POINTS %15d float\n' %(nPoints)) outfile.writelines('POINTS %15d float\n' % (nPoints))
# write coordinates # write coordinates
print("Writing coordinates to VTK file...") print("Writing coordinates to VTK file...")
@ -983,35 +1006,34 @@ class SeisArray(object):
y = self._getYshot(shotnumber) y = self._getYshot(shotnumber)
z = self._getZshot(shotnumber) z = self._getZshot(shotnumber)
outfile.writelines('%10f %10f %10f \n' %(x, y, z)) outfile.writelines('%10f %10f %10f \n' % (x, y, z))
outfile.writelines('VERTICES %15d %15d\n' %(nPoints, 2 * nPoints)) outfile.writelines('VERTICES %15d %15d\n' % (nPoints, 2 * nPoints))
# write indices # write indices
print("Writing indices to VTK file...") print("Writing indices to VTK file...")
for index in range(nPoints): for index in range(nPoints):
outfile.writelines('%10d %10d\n' %(1, index)) outfile.writelines('%10d %10d\n' % (1, index))
outfile.writelines('POINT_DATA %15d\n' %(nPoints)) outfile.writelines('POINT_DATA %15d\n' % (nPoints))
outfile.writelines('SCALARS shotnumbers int %d\n' %(1)) outfile.writelines('SCALARS shotnumbers int %d\n' % (1))
outfile.writelines('LOOKUP_TABLE default\n') outfile.writelines('LOOKUP_TABLE default\n')
# write shotnumber # write shotnumber
print("Writing shotnumbers to VTK file...") print("Writing shotnumbers to VTK file...")
for shotnumber in shotnumbers: for shotnumber in shotnumbers:
outfile.writelines('%10d\n' %shotnumber) outfile.writelines('%10d\n' % shotnumber)
outfile.close() outfile.close()
print("Wrote %d sources to file: %s" %(nPoints, filename)) print("Wrote %d sources to file: %s" % (nPoints, filename))
return return
def saveSeisArray(self, filename='seisArray.pickle'):
def saveSeisArray(self, filename = 'seisArray.pickle'):
import cPickle import cPickle
outfile = open(filename, 'wb') outfile = open(filename, 'wb')
cPickle.dump(self, outfile, -1) cPickle.dump(self, outfile, -1)
print('saved SeisArray to file %s'%(filename)) print('saved SeisArray to file %s' % (filename))
@staticmethod @staticmethod
def from_pickle(filename): def from_pickle(filename):

200
pylot/core/active/seismicshot.py
View File

@ -11,12 +11,15 @@ from pylot.core.pick.charfuns import AICcf
from pylot.core.pick.utils import getSNR from pylot.core.pick.utils import getSNR
from pylot.core.pick.utils import earllatepicker from pylot.core.pick.utils import earllatepicker
import matplotlib.pyplot as plt import matplotlib.pyplot as plt
plt.interactive('True') plt.interactive('True')
class SeismicShot(object): class SeismicShot(object):
''' '''
SuperClass for a seismic shot object. SuperClass for a seismic shot object.
''' '''
def __init__(self, obsfile): def __init__(self, obsfile):
''' '''
Initialize seismic shot object giving an inputfile. Initialize seismic shot object giving an inputfile.
@ -29,8 +32,8 @@ class SeismicShot(object):
self.srcCoordlist = None self.srcCoordlist = None
self.traceIDs = None self.traceIDs = None
self.picks = {} self.picks = {}
self.pwindow= {} self.pwindow = {}
self.manualpicks= {} self.manualpicks = {}
self.snr = {} self.snr = {}
self.snrthreshold = {} self.snrthreshold = {}
self.timeArray = {} self.timeArray = {}
@ -144,15 +147,15 @@ class SeismicShot(object):
def getManualLatest(self, traceID): def getManualLatest(self, traceID):
return self.manualpicks[traceID]['lpp'] return self.manualpicks[traceID]['lpp']
def getPick(self, traceID, returnRemoved = False): def getPick(self, traceID, returnRemoved=False):
if not self.getPickFlag(traceID) == 0: if not self.getPickFlag(traceID) == 0:
return self.picks[traceID]['mpp'] return self.picks[traceID]['mpp']
if returnRemoved == True: if returnRemoved == True:
#print('getPick: Returned removed pick for shot %d, traceID %d' %(self.getShotnumber(), traceID)) # print('getPick: Returned removed pick for shot %d, traceID %d' %(self.getShotnumber(), traceID))
return self.picks[traceID]['mpp'] return self.picks[traceID]['mpp']
def getPickIncludeRemoved(self, traceID): def getPickIncludeRemoved(self, traceID):
return self.getPick(traceID, returnRemoved = True) return self.getPick(traceID, returnRemoved=True)
def getEarliest(self, traceID): def getEarliest(self, traceID):
return self.picks[traceID]['epp'] return self.picks[traceID]['epp']
@ -163,13 +166,13 @@ class SeismicShot(object):
def getSymmetricPickError(self, traceID): def getSymmetricPickError(self, traceID):
pickerror = self.picks[traceID]['spe'] pickerror = self.picks[traceID]['spe']
if np.isnan(pickerror) == True: if np.isnan(pickerror) == True:
print "SPE is NaN for shot %s, traceID %s"%(self.getShotnumber(), traceID) print "SPE is NaN for shot %s, traceID %s" % (self.getShotnumber(), traceID)
return pickerror return pickerror
def getPickError(self, traceID): def getPickError(self, traceID):
pickerror = abs(self.getEarliest(traceID) - self.getLatest(traceID)) / 2 pickerror = abs(self.getEarliest(traceID) - self.getLatest(traceID)) / 2
if np.isnan(pickerror) == True: if np.isnan(pickerror) == True:
print("PE is NaN for shot %s, traceID %s"%(self.getShotnumber(), traceID)) print("PE is NaN for shot %s, traceID %s" % (self.getShotnumber(), traceID))
return pickerror return pickerror
def getStreamTraceIDs(self): def getStreamTraceIDs(self):
@ -207,15 +210,15 @@ class SeismicShot(object):
def getRecCoordlist(self): def getRecCoordlist(self):
if self.recCoordlist is None: if self.recCoordlist is None:
coordlist = open(self.getRecfile(),'r').readlines() coordlist = open(self.getRecfile(), 'r').readlines()
#print 'Reading receiver coordinates from %s' %(self.getRecfile()) # print 'Reading receiver coordinates from %s' %(self.getRecfile())
self.recCoordlist = coordlist self.recCoordlist = coordlist
return self.recCoordlist return self.recCoordlist
def getSrcCoordlist(self): def getSrcCoordlist(self):
if self.srcCoordlist is None: if self.srcCoordlist is None:
coordlist = open(self.getSourcefile(),'r').readlines() coordlist = open(self.getSourcefile(), 'r').readlines()
#print 'Reading shot coordinates from %s' %(self.getSourcefile()) # print 'Reading shot coordinates from %s' %(self.getSourcefile())
self.srcCoordlist = coordlist self.srcCoordlist = coordlist
return self.srcCoordlist return self.srcCoordlist
@ -239,7 +242,7 @@ class SeismicShot(object):
:type: int :type: int
''' '''
return HOScf(self.getSingleStream(traceID), self.getCut(), return HOScf(self.getSingleStream(traceID), self.getCut(),
self.getTmovwind(), self.getOrder(), stealthMode = True) self.getTmovwind(), self.getOrder(), stealthMode=True)
def getAICcf(self, traceID): def getAICcf(self, traceID):
''' '''
@ -262,7 +265,7 @@ class SeismicShot(object):
tr_cf = Trace() tr_cf = Trace()
tr_cf.data = self.getHOScf(traceID).getCF() tr_cf.data = self.getHOScf(traceID).getCF()
st_cf += tr_cf st_cf += tr_cf
return AICcf(st_cf, self.getCut(), self.getTmovwind(), stealthMode = True) return AICcf(st_cf, self.getCut(), self.getTmovwind(), stealthMode=True)
def getSingleStream(self, traceID): ########## SEG2 / SEGY ? ########## def getSingleStream(self, traceID): ########## SEG2 / SEGY ? ##########
''' '''
@ -271,16 +274,16 @@ class SeismicShot(object):
:param: traceID :param: traceID
:type: int :type: int
''' '''
#traces = [trace for trace in self.traces if int(trace.stats.seg2['CHANNEL_NUMBER']) == traceID] # traces = [trace for trace in self.traces if int(trace.stats.seg2['CHANNEL_NUMBER']) == traceID]
traces = [trace for trace in self.traces if int(trace.stats.channel) == traceID] traces = [trace for trace in self.traces if int(trace.stats.channel) == traceID]
if len(traces) == 1: if len(traces) == 1:
return Stream(traces) return Stream(traces)
self.setPick(traceID, None) self.setPick(traceID, None)
print 'Warning: ambigious or empty traceID: %s' % traceID print 'Warning: ambigious or empty traceID: %s' % traceID
#raise ValueError('ambigious or empty traceID: %s' % traceID) # raise ValueError('ambigious or empty traceID: %s' % traceID)
def pickTraces(self, traceID, windowsize, folm, HosAic = 'hos'): ########## input variables ########## def pickTraces(self, traceID, windowsize, folm, HosAic='hos'): ########## input variables ##########
# LOCALMAX NOT IMPLEMENTED! # LOCALMAX NOT IMPLEMENTED!
''' '''
Intitiate picking for a trace. Intitiate picking for a trace.
@ -318,7 +321,7 @@ class SeismicShot(object):
self.setPick(traceID, setHosAic[HosAic]) self.setPick(traceID, setHosAic[HosAic])
def setEarllatepick(self, traceID, nfac = 1.5): def setEarllatepick(self, traceID, nfac=1.5):
tgap = self.getTgap() tgap = self.getTgap()
tsignal = self.getTsignal() tsignal = self.getTsignal()
tnoise = self.getPickIncludeRemoved(traceID) - tgap tnoise = self.getPickIncludeRemoved(traceID) - tgap
@ -328,11 +331,11 @@ class SeismicShot(object):
self.picks[traceID]['spe']) = earllatepicker(self.getSingleStream(traceID), self.picks[traceID]['spe']) = earllatepicker(self.getSingleStream(traceID),
nfac, (tnoise, tgap, tsignal), nfac, (tnoise, tgap, tsignal),
self.getPickIncludeRemoved(traceID), self.getPickIncludeRemoved(traceID),
stealthMode = True) stealthMode=True)
if self.picks[traceID]['epp'] < 0: if self.picks[traceID]['epp'] < 0:
self.picks[traceID]['epp'] self.picks[traceID]['epp']
#print('setEarllatepick: Set epp to 0 because it was < 0') # print('setEarllatepick: Set epp to 0 because it was < 0')
# TEST OF 1/2 PICKERROR # TEST OF 1/2 PICKERROR
# self.picks[traceID]['spe'] *= 0.5 # self.picks[traceID]['spe'] *= 0.5
@ -365,10 +368,11 @@ class SeismicShot(object):
leftb = int(pickwindow[0] / self.getCut()[1] * len(hoscflist)) leftb = int(pickwindow[0] / self.getCut()[1] * len(hoscflist))
rightb = int(pickwindow[1] / self.getCut()[1] * len(hoscflist)) rightb = int(pickwindow[1] / self.getCut()[1] * len(hoscflist))
#threshold = folm * max(hoscflist[leftb : rightb]) # combination of local maximum and threshold # threshold = folm * max(hoscflist[leftb : rightb]) # combination of local maximum and threshold
### TEST TEST ### TEST TEST
threshold = folm * (max(hoscflist[leftb : rightb]) - min(hoscflist[leftb : rightb])) + min(hoscflist[leftb : rightb]) # combination of local maximum and threshold threshold = folm * (max(hoscflist[leftb: rightb]) - min(hoscflist[leftb: rightb])) + min(
hoscflist[leftb: rightb]) # combination of local maximum and threshold
### TEST TEST ### TEST TEST
m = leftb m = leftb
@ -379,7 +383,7 @@ class SeismicShot(object):
hoscftime = list(hoscf.getTimeArray())[m] hoscftime = list(hoscf.getTimeArray())[m]
lb = max(0, m - windowsize[0]) # if window exceeds t = 0 lb = max(0, m - windowsize[0]) # if window exceeds t = 0
aiccfcut = list(aiccf.getCF())[lb : m + windowsize[1]] aiccfcut = list(aiccf.getCF())[lb: m + windowsize[1]]
if len(aiccfcut) > 0: if len(aiccfcut) > 0:
n = aiccfcut.index(min(aiccfcut)) n = aiccfcut.index(min(aiccfcut))
else: else:
@ -401,13 +405,13 @@ class SeismicShot(object):
''' '''
shotX, shotY, shotZ = self.getSrcLoc() shotX, shotY, shotZ = self.getSrcLoc()
recX, recY, recZ = self.getRecLoc(traceID) recX, recY, recZ = self.getRecLoc(traceID)
dist = np.sqrt((shotX-recX)**2 + (shotY-recY)**2 + (shotZ-recZ)**2) dist = np.sqrt((shotX - recX) ** 2 + (shotY - recY) ** 2 + (shotZ - recZ) ** 2)
if np.isnan(dist) == True: if np.isnan(dist) == True:
raise ValueError("Distance is NaN for traceID %s" %traceID) raise ValueError("Distance is NaN for traceID %s" % traceID)
return dist return dist
#return abs(float(self.getSrcLoc(traceID))-float(self.getRecLoc(traceID))) # return abs(float(self.getSrcLoc(traceID))-float(self.getRecLoc(traceID)))
def getRecLoc(self, traceID): ########## input FILENAME ########## def getRecLoc(self, traceID): ########## input FILENAME ##########
''' '''
@ -428,9 +432,9 @@ class SeismicShot(object):
z = coordlist[i].split()[3] z = coordlist[i].split()[3]
return float(x), float(y), float(z) return float(x), float(y), float(z)
#print "WARNING: traceID %s not found" % traceID # print "WARNING: traceID %s not found" % traceID
raise ValueError("traceID %s not found" % traceID) raise ValueError("traceID %s not found" % traceID)
#return float(self.getSingleStream(traceID)[0].stats.seg2['RECEIVER_LOCATION']) # return float(self.getSingleStream(traceID)[0].stats.seg2['RECEIVER_LOCATION'])
def getSrcLoc(self): ########## input FILENAME ########## def getSrcLoc(self): ########## input FILENAME ##########
''' '''
@ -444,9 +448,10 @@ class SeismicShot(object):
y = coordlist[i].split()[2] y = coordlist[i].split()[2]
z = coordlist[i].split()[3] z = coordlist[i].split()[3]
return float(x), float(y), float(z) return float(x), float(y), float(z)
#return float(self.getSingleStream(traceID)[0].stats.seg2['SOURCE_LOCATION']) # return float(self.getSingleStream(traceID)[0].stats.seg2['SOURCE_LOCATION'])
def getTraceIDs4Dist(self, distance = 0, distancebin = (0, 0)): ########## nur fuer 2D benutzt, 'distance bins' ########## def getTraceIDs4Dist(self, distance=0,
distancebin=(0, 0)): ########## nur fuer 2D benutzt, 'distance bins' ##########
''' '''
Returns the traceID(s) for a certain distance between source and receiver. Returns the traceID(s) for a certain distance between source and receiver.
Used for 2D Tomography. TO BE IMPROVED. Used for 2D Tomography. TO BE IMPROVED.
@ -460,7 +465,7 @@ class SeismicShot(object):
traceID_list = [] traceID_list = []
for trace in self.traces: for trace in self.traces:
#traceID = int(trace.stats.seg2['CHANNEL_NUMBER']) # traceID = int(trace.stats.seg2['CHANNEL_NUMBER'])
traceID = int(trace.stats.channel) traceID = int(trace.stats.channel)
if distance != 0: if distance != 0:
if self.getDistance(traceID) == distance: if self.getDistance(traceID) == distance:
@ -489,10 +494,10 @@ class SeismicShot(object):
# if not self.manualpicks.has_key(traceID): # if not self.manualpicks.has_key(traceID):
# self.manualpicks[traceID] = (mostlikely, earliest, latest) # self.manualpicks[traceID] = (mostlikely, earliest, latest)
#else: # else:
# raise KeyError('MANUAL pick to be set more than once for traceID %s' % traceID) # raise KeyError('MANUAL pick to be set more than once for traceID %s' % traceID)
def setManualPicksFromFile(self, directory = 'picks'): def setManualPicksFromFile(self, directory='picks'):
''' '''
Read manual picks from *.pck file. Read manual picks from *.pck file.
The * must be identical with the shotnumber. The * must be identical with the shotnumber.
@ -517,7 +522,6 @@ class SeismicShot(object):
else: else:
self.setManualPickFlag(traceID, 1) self.setManualPickFlag(traceID, 1)
def setPick(self, traceID, pick): ########## siehe Kommentar ########## def setPick(self, traceID, pick): ########## siehe Kommentar ##########
if not traceID in self.picks.keys(): if not traceID in self.picks.keys():
self.picks[traceID] = {} self.picks[traceID] = {}
@ -568,7 +572,7 @@ class SeismicShot(object):
tsignal = self.getTsignal() tsignal = self.getTsignal()
tnoise = self.getPick(traceID) - tgap tnoise = self.getPick(traceID) - tgap
self.snr[traceID] = getSNR(self.getSingleStream(traceID), (tnoise,tgap,tsignal), self.getPick(traceID)) self.snr[traceID] = getSNR(self.getSingleStream(traceID), (tnoise, tgap, tsignal), self.getPick(traceID))
def setSNRthreshold(self, traceID, snrthreshold): def setSNRthreshold(self, traceID, snrthreshold):
self.snrthreshold[traceID] = snrthreshold self.snrthreshold[traceID] = snrthreshold
@ -583,12 +587,11 @@ class SeismicShot(object):
if self.getRecLoc(traceID)[0] > self.getSrcLoc()[0]: if self.getRecLoc(traceID)[0] > self.getSrcLoc()[0]:
distancearray.append(self.getDistance(traceID)) distancearray.append(self.getDistance(traceID))
elif self.getRecLoc(traceID)[0] <= self.getSrcLoc()[0]: elif self.getRecLoc(traceID)[0] <= self.getSrcLoc()[0]:
distancearray.append((-1)*self.getDistance(traceID)) distancearray.append((-1) * self.getDistance(traceID))
return distancearray return distancearray
def plot2dttc(self, ax=None): ########## 2D ##########
def plot2dttc(self, ax = None): ########## 2D ##########
''' '''
Function to plot the traveltime curve for automated picks of a shot. 2d only! ATM: X DIRECTION!! Function to plot the traveltime curve for automated picks of a shot. 2d only! ATM: X DIRECTION!!
''' '''
@ -605,15 +608,16 @@ class SeismicShot(object):
# shotnumbers = [shotnumbers for (shotnumbers, shotnames) in sorted(zip(shotnumbers, shotnames))] # shotnumbers = [shotnumbers for (shotnumbers, shotnames) in sorted(zip(shotnumbers, shotnames))]
plotarray = sorted(zip(self.getDistArray4ttcPlot(), picks)) plotarray = sorted(zip(self.getDistArray4ttcPlot(), picks))
x = []; y = [] x = [];
y = []
for point in plotarray: for point in plotarray:
x.append(point[0]) x.append(point[0])
y.append(point[1]) y.append(point[1])
ax.plot(x, y,'r', label = "Automatic Picks") ax.plot(x, y, 'r', label="Automatic Picks")
ax.text(0.5, 0.9, 'shot: %s' %self.getShotnumber(), transform = ax.transAxes ax.text(0.5, 0.9, 'shot: %s' % self.getShotnumber(), transform=ax.transAxes
, horizontalalignment = 'center') , horizontalalignment='center')
def plotmanual2dttc(self, ax = None): ########## 2D ########## def plotmanual2dttc(self, ax=None): ########## 2D ##########
''' '''
Function to plot the traveltime curve for manual picks of a shot. 2D only! Function to plot the traveltime curve for manual picks of a shot. 2D only!
''' '''
@ -632,11 +636,12 @@ class SeismicShot(object):
ax = fig.add_subplot(111) ax = fig.add_subplot(111)
plotarray = sorted(zip(self.getDistArray4ttcPlot(), manualpicktimesarray)) plotarray = sorted(zip(self.getDistArray4ttcPlot(), manualpicktimesarray))
x = []; y = [] x = [];
y = []
for point in plotarray: for point in plotarray:
x.append(point[0]) x.append(point[0])
y.append(point[1]) y.append(point[1])
ax.plot(x, y, 'b', label = "Manual Picks") ax.plot(x, y, 'b', label="Manual Picks")
# def plotpickwindow(self): ########## 2D ########## # def plotpickwindow(self): ########## 2D ##########
# ''' # '''
@ -656,10 +661,10 @@ class SeismicShot(object):
# plt.plot(self.getDistArray4ttcPlot(), pickwindowarray_lowerb, ':k') # plt.plot(self.getDistArray4ttcPlot(), pickwindowarray_lowerb, ':k')
# plt.plot(self.getDistArray4ttcPlot(), pickwindowarray_upperb, ':k') # plt.plot(self.getDistArray4ttcPlot(), pickwindowarray_upperb, ':k')
def plotTrace(self, traceID, plotSNR = True, lw = 1): def plotTrace(self, traceID, plotSNR=True, lw=1):
fig = plt.figure() fig = plt.figure()
ax = fig.add_subplot(111) ax = fig.add_subplot(111)
ax = self._drawStream(traceID, ax = ax) ax = self._drawStream(traceID, ax=ax)
tgap = self.getTgap() tgap = self.getTgap()
tsignal = self.getTsignal() tsignal = self.getTsignal()
@ -667,11 +672,12 @@ class SeismicShot(object):
tnoise = pick - tgap tnoise = pick - tgap
snr, snrdb, noiselevel = self.getSNR(traceID) snr, snrdb, noiselevel = self.getSNR(traceID)
ax.plot([0, tnoise], [noiselevel, noiselevel], 'm', linewidth = lw, label = 'noise level') ax.plot([0, tnoise], [noiselevel, noiselevel], 'm', linewidth=lw, label='noise level')
ax.plot([tnoise, pick], [noiselevel, noiselevel], 'g:', linewidth = lw, label = 'gap') ax.plot([tnoise, pick], [noiselevel, noiselevel], 'g:', linewidth=lw, label='gap')
ax.plot([tnoise + tgap, pick + tsignal], [noiselevel * snr, noiselevel * snr], 'b', linewidth = lw, label = 'signal level') ax.plot([tnoise + tgap, pick + tsignal], [noiselevel * snr, noiselevel * snr], 'b', linewidth=lw,
label='signal level')
ax.legend() ax.legend()
ax.text(0.05, 0.9, 'SNR: %s' %snr, transform = ax.transAxes) ax.text(0.05, 0.9, 'SNR: %s' % snr, transform=ax.transAxes)
def plot_traces(self, traceID): ########## 2D, muss noch mehr verbessert werden ########## def plot_traces(self, traceID): ########## 2D, muss noch mehr verbessert werden ##########
from matplotlib.widgets import Button from matplotlib.widgets import Button
@ -680,18 +686,18 @@ class SeismicShot(object):
self.setPick(traceID, event.xdata) self.setPick(traceID, event.xdata)
if self.getSNR(traceID)[0] > 1: if self.getSNR(traceID)[0] > 1:
self.setEarllatepick(traceID) self.setEarllatepick(traceID)
self._drawStream(traceID, refresh = True) self._drawStream(traceID, refresh=True)
self._drawCFs(traceID, folm, refresh = True) self._drawCFs(traceID, folm, refresh=True)
fig.canvas.mpl_disconnect(self.traces4plot[traceID]['cid']) fig.canvas.mpl_disconnect(self.traces4plot[traceID]['cid'])
plt.draw() plt.draw()
def rmPick(event = None): def rmPick(event=None):
self.removePick(traceID) self.removePick(traceID)
self._drawStream(traceID, refresh = True) self._drawStream(traceID, refresh=True)
self._drawCFs(traceID, folm, refresh = True) self._drawCFs(traceID, folm, refresh=True)
plt.draw() plt.draw()
def connectButton(event = None): def connectButton(event=None):
cid = fig.canvas.mpl_connect('button_press_event', onclick) cid = fig.canvas.mpl_connect('button_press_event', onclick)
self.traces4plot[traceID]['cid'] = cid self.traces4plot[traceID]['cid'] = cid
@ -701,13 +707,13 @@ class SeismicShot(object):
folm = self.folm folm = self.folm
fig = plt.figure() fig = plt.figure()
ax1 = fig.add_subplot(2,1,1) ax1 = fig.add_subplot(2, 1, 1)
ax2 = fig.add_subplot(2,1,2, sharex = ax1) ax2 = fig.add_subplot(2, 1, 2, sharex=ax1)
axb1 = fig.add_axes([0.15, 0.91, 0.05, 0.03]) axb1 = fig.add_axes([0.15, 0.91, 0.05, 0.03])
axb2 = fig.add_axes([0.22, 0.91, 0.05, 0.03]) axb2 = fig.add_axes([0.22, 0.91, 0.05, 0.03])
button1 = Button(axb1, 'repick', color = 'red', hovercolor = 'grey') button1 = Button(axb1, 'repick', color='red', hovercolor='grey')
button1.on_clicked(connectButton) button1.on_clicked(connectButton)
button2 = Button(axb2, 'delete', color = 'green', hovercolor = 'grey') button2 = Button(axb2, 'delete', color='green', hovercolor='grey')
button2.on_clicked(rmPick) button2.on_clicked(rmPick)
fig.canvas.mpl_connect('close_event', cleanup) fig.canvas.mpl_connect('close_event', cleanup)
@ -717,7 +723,7 @@ class SeismicShot(object):
self._drawStream(traceID) self._drawStream(traceID)
self._drawCFs(traceID, folm) self._drawCFs(traceID, folm)
def _drawStream(self, traceID, refresh = False, ax = None): def _drawStream(self, traceID, refresh=False, ax=None):
from pylot.core.util.utils import getGlobalTimes from pylot.core.util.utils import getGlobalTimes
from pylot.core.util.utils import prepTimeAxis from pylot.core.util.utils import prepTimeAxis
@ -737,27 +743,27 @@ class SeismicShot(object):
ax.set_ylim(ylim) ax.set_ylim(ylim)
ax.set_title('Shot: %s, traceID: %s, pick: %s' ax.set_title('Shot: %s, traceID: %s, pick: %s'
%(self.getShotnumber(), traceID, self.getPick(traceID))) % (self.getShotnumber(), traceID, self.getPick(traceID)))
ax.plot(timeaxis, stream[0].data, 'k', label = 'trace') ax.plot(timeaxis, stream[0].data, 'k', label='trace')
ax.plot([self.getPick(traceID), self.getPick(traceID)], ax.plot([self.getPick(traceID), self.getPick(traceID)],
[ax.get_ylim()[0], [ax.get_ylim()[0],
ax.get_ylim()[1]], ax.get_ylim()[1]],
'r', label = 'most likely') 'r', label='most likely')
if self.getEarliest(traceID) is not None: if self.getEarliest(traceID) is not None:
ax.plot([self.getEarliest(traceID), self.getEarliest(traceID)], ax.plot([self.getEarliest(traceID), self.getEarliest(traceID)],
[ax.get_ylim()[0], [ax.get_ylim()[0],
ax.get_ylim()[1]], ax.get_ylim()[1]],
'g:', label = 'earliest') 'g:', label='earliest')
if self.getLatest(traceID) is not None: if self.getLatest(traceID) is not None:
ax.plot([self.getLatest(traceID), self.getLatest(traceID)], ax.plot([self.getLatest(traceID), self.getLatest(traceID)],
[ax.get_ylim()[0], [ax.get_ylim()[0],
ax.get_ylim()[1]], ax.get_ylim()[1]],
'b:', label = 'latest') 'b:', label='latest')
ax.legend() ax.legend()
return ax return ax
def _drawCFs(self, traceID, folm = None, refresh = False): def _drawCFs(self, traceID, folm=None, refresh=False):
hoscf = self.getHOScf(traceID) hoscf = self.getHOScf(traceID)
aiccf = self.getAICcf(traceID) aiccf = self.getAICcf(traceID)
ax = self.traces4plot[traceID]['ax2'] ax = self.traces4plot[traceID]['ax2']
@ -769,30 +775,30 @@ class SeismicShot(object):
ax.set_xlim(xlim) ax.set_xlim(xlim)
ax.set_ylim(ylim) ax.set_ylim(ylim)
ax.plot(hoscf.getTimeArray(), hoscf.getCF(), 'b', label = 'HOS') ax.plot(hoscf.getTimeArray(), hoscf.getCF(), 'b', label='HOS')
ax.plot(hoscf.getTimeArray(), aiccf.getCF(), 'g', label = 'AIC') ax.plot(hoscf.getTimeArray(), aiccf.getCF(), 'g', label='AIC')
ax.plot([self.getPick(traceID), self.getPick(traceID)], ax.plot([self.getPick(traceID), self.getPick(traceID)],
[ax.get_ylim()[0], [ax.get_ylim()[0],
ax.get_ylim()[1]], ax.get_ylim()[1]],
'r', label = 'most likely') 'r', label='most likely')
if self.getEarliest(traceID) is not None: if self.getEarliest(traceID) is not None:
ax.plot([self.getEarliest(traceID), self.getEarliest(traceID)], ax.plot([self.getEarliest(traceID), self.getEarliest(traceID)],
[ax.get_ylim()[0], [ax.get_ylim()[0],
ax.get_ylim()[1]], ax.get_ylim()[1]],
'g:', label = 'earliest') 'g:', label='earliest')
if self.getLatest(traceID) is not None: if self.getLatest(traceID) is not None:
ax.plot([self.getLatest(traceID), self.getLatest(traceID)], ax.plot([self.getLatest(traceID), self.getLatest(traceID)],
[ax.get_ylim()[0], [ax.get_ylim()[0],
ax.get_ylim()[1]], ax.get_ylim()[1]],
'b:', label = 'latest') 'b:', label='latest')
if folm is not None: if folm is not None:
ax.plot([0, self.getPick(traceID)], ax.plot([0, self.getPick(traceID)],
[folm * max(hoscf.getCF()), folm * max(hoscf.getCF())], [folm * max(hoscf.getCF()), folm * max(hoscf.getCF())],
'm:', label = 'folm = %s' %folm) 'm:', label='folm = %s' % folm)
ax.set_xlabel('Time [s]') ax.set_xlabel('Time [s]')
ax.legend() ax.legend()
def plot3dttc(self, step = 0.5, contour = False, plotpicks = False, method = 'linear', ax = None): def plot3dttc(self, step=0.5, contour=False, plotpicks=False, method='linear', ax=None):
''' '''
Plots a 3D 'traveltime cone' as surface plot by interpolating on a regular grid over the traveltimes, not yet regarding the vertical offset of the receivers. Plots a 3D 'traveltime cone' as surface plot by interpolating on a regular grid over the traveltimes, not yet regarding the vertical offset of the receivers.
@ -824,20 +830,20 @@ class SeismicShot(object):
xaxis = np.arange(min(x) + step, max(x), step) xaxis = np.arange(min(x) + step, max(x), step)
yaxis = np.arange(min(y) + step, max(y), step) yaxis = np.arange(min(y) + step, max(y), step)
xgrid, ygrid = np.meshgrid(xaxis, yaxis) xgrid, ygrid = np.meshgrid(xaxis, yaxis)
zgrid = griddata((x, y), z, (xgrid, ygrid), method = method) zgrid = griddata((x, y), z, (xgrid, ygrid), method=method)
if ax == None: if ax == None:
fig = plt.figure() fig = plt.figure()
ax = plt.axes(projection = '3d') ax = plt.axes(projection='3d')
xsrc, ysrc, zsrc = self.getSrcLoc() xsrc, ysrc, zsrc = self.getSrcLoc()
if contour == True: if contour == True:
ax.contour3D(xgrid,ygrid,zgrid,20) ax.contour3D(xgrid, ygrid, zgrid, 20)
else: else:
ax.plot_surface(xgrid, ygrid, zgrid, linewidth = 0, cmap = cm.jet, vmin = min(z), vmax = max(z)) ax.plot_surface(xgrid, ygrid, zgrid, linewidth=0, cmap=cm.jet, vmin=min(z), vmax=max(z))
ax.plot([xsrc], [ysrc], [self.getPick(0)], 'k*', markersize = 20) # plot source location ax.plot([xsrc], [ysrc], [self.getPick(0)], 'k*', markersize=20) # plot source location
ax.plot([xsrc], [ysrc], [self.getPick(0)], 'r*', markersize = 15) # plot source location ax.plot([xsrc], [ysrc], [self.getPick(0)], 'r*', markersize=15) # plot source location
if plotpicks == True: if plotpicks == True:
ax.plot(x, y, z, 'k.') ax.plot(x, y, z, 'k.')
@ -847,7 +853,7 @@ class SeismicShot(object):
plotmethod[method](*args) plotmethod[method](*args)
def matshow(self, ax = None, step = 0.5, method = 'linear', plotRec = True, annotations = True, colorbar = True, legend = True): def matshow(self, ax=None, step=0.5, method='linear', plotRec=True, annotations=True, colorbar=True, legend=True):
''' '''
Plots a 2D matrix of the interpolated traveltimes. This needs less performance than plot3dttc Plots a 2D matrix of the interpolated traveltimes. This needs less performance than plot3dttc
@ -868,9 +874,12 @@ class SeismicShot(object):
from matplotlib import cm from matplotlib import cm
cmap = cm.jet cmap = cm.jet
x = []; xcut = [] x = [];
y = []; ycut = [] xcut = []
z = []; zcut = [] y = [];
ycut = []
z = [];
zcut = []
for traceID in self.picks.keys(): for traceID in self.picks.keys():
if self.getPickFlag(traceID) != 0: if self.getPickFlag(traceID) != 0:
@ -895,10 +904,11 @@ class SeismicShot(object):
ax = plt.axes() ax = plt.axes()
count = 0 count = 0
ax.imshow(zgrid, extent = [min(x), max(x), min(y), max(y)], vmin = tmin, vmax = tmax, cmap = cmap, origin = 'lower', alpha = 0.85) ax.imshow(zgrid, extent=[min(x), max(x), min(y), max(y)], vmin=tmin, vmax=tmax, cmap=cmap, origin='lower',
ax.text(0.5, 0.95, 'shot: %s' %self.getShotnumber(), transform = ax.transAxes alpha=0.85)
, horizontalalignment = 'center') ax.text(0.5, 0.95, 'shot: %s' % self.getShotnumber(), transform=ax.transAxes
sc = ax.scatter(x, y, c = z, s = 30, label = 'picked shots', vmin = tmin, vmax = tmax, cmap = cmap, linewidths = 1.5) , horizontalalignment='center')
sc = ax.scatter(x, y, c=z, s=30, label='picked shots', vmin=tmin, vmax=tmax, cmap=cmap, linewidths=1.5)
label = None label = None
for xyz in zip(xcut, ycut, zcut): for xyz in zip(xcut, ycut, zcut):
x, y, z = xyz x, y, z = xyz
@ -907,7 +917,7 @@ class SeismicShot(object):
z = 'w' z = 'w'
if count == 1: if count == 1:
label = 'cut out shots' label = 'cut out shots'
ax.scatter(x, y, c = z, s = 30, edgecolor = 'm', label = label, vmin = tmin, vmax = tmax, cmap = cmap, linewidths = 1.5) ax.scatter(x, y, c=z, s=30, edgecolor='m', label=label, vmin=tmin, vmax=tmax, cmap=cmap, linewidths=1.5)
if colorbar == True: if colorbar == True:
cbar = plt.colorbar(sc) cbar = plt.colorbar(sc)
cbar.set_label('Time [s]') cbar.set_label('Time [s]')
@ -916,17 +926,15 @@ class SeismicShot(object):
ax.legend() ax.legend()
ax.set_xlabel('X') ax.set_xlabel('X')
ax.set_ylabel('Y') ax.set_ylabel('Y')
ax.plot(self.getSrcLoc()[0], self.getSrcLoc()[1],'*k', markersize = 15) # plot source location ax.plot(self.getSrcLoc()[0], self.getSrcLoc()[1], '*k', markersize=15) # plot source location
if annotations == True: if annotations == True:
for traceID in self.getTraceIDlist(): for traceID in self.getTraceIDlist():
if self.getPickFlag(traceID) is not 0: if self.getPickFlag(traceID) is not 0:
ax.annotate(' %s' %traceID , xy = (self.getRecLoc(traceID)[0], self.getRecLoc(traceID)[1]), ax.annotate(' %s' % traceID, xy=(self.getRecLoc(traceID)[0], self.getRecLoc(traceID)[1]),
fontsize = 'x-small', color = 'k') fontsize='x-small', color='k')
else: else:
ax.annotate(' %s' %traceID , xy = (self.getRecLoc(traceID)[0], self.getRecLoc(traceID)[1]), ax.annotate(' %s' % traceID, xy=(self.getRecLoc(traceID)[0], self.getRecLoc(traceID)[1]),
fontsize = 'x-small', color = 'r') fontsize='x-small', color='r')
plt.show() plt.show()

105
pylot/core/active/surveyPlotTools.py
View File

@ -2,8 +2,10 @@
import matplotlib.pyplot as plt import matplotlib.pyplot as plt
import math import math
import numpy as np import numpy as np
plt.interactive(True) plt.interactive(True)
class regions(object): class regions(object):
''' '''
A class used for manual inspection and processing of all picks for the user. A class used for manual inspection and processing of all picks for the user.
@ -105,7 +107,7 @@ class regions(object):
self.disconnectPoly() self.disconnectPoly()
self.printOutput('Disconnected polygon selection') self.printOutput('Disconnected polygon selection')
def addTextfield(self, xpos = 0, ypos = 0.95, width = 1, height = 0.03): def addTextfield(self, xpos=0, ypos=0.95, width=1, height=0.03):
''' '''
Adds an ax for text output to the plot. Adds an ax for text output to the plot.
''' '''
@ -116,7 +118,7 @@ class regions(object):
self.axtext.xaxis.set_visible(False) self.axtext.xaxis.set_visible(False)
self.axtext.yaxis.set_visible(False) self.axtext.yaxis.set_visible(False)
def writeInTextfield(self, text = None): def writeInTextfield(self, text=None):
self.setXYlim(self.ax.get_xlim(), self.ax.get_ylim()) self.setXYlim(self.ax.get_xlim(), self.ax.get_ylim())
self.axtext.clear() self.axtext.clear()
self.axtext.text(0.01, 0.5, text, verticalalignment='center', horizontalalignment='left') self.axtext.text(0.01, 0.5, text, verticalalignment='center', horizontalalignment='left')
@ -136,7 +138,7 @@ class regions(object):
self.addButton('SelAll', self.setAllActiveRegionsForDeletion, xpos=xpos2 + 2 * dx) self.addButton('SelAll', self.setAllActiveRegionsForDeletion, xpos=xpos2 + 2 * dx)
self.addButton('DelAll', self.deleteAllMarkedPicks, xpos=xpos2 + 3 * dx, color='red') self.addButton('DelAll', self.deleteAllMarkedPicks, xpos=xpos2 + 3 * dx, color='red')
def addButton(self, name, action, xpos, ypos = 0.91, color = None): def addButton(self, name, action, xpos, ypos=0.91, color=None):
from matplotlib.widgets import Button from matplotlib.widgets import Button
self.buttons[name] = {'ax': None, self.buttons[name] = {'ax': None,
'button': None, 'button': None,
@ -179,10 +181,11 @@ class regions(object):
self.drawLastPolyLine() self.drawLastPolyLine()
x = self._polyx x = self._polyx
y = self._polyy y = self._polyy
self._polyx = []; self._polyy = [] self._polyx = [];
self._polyy = []
key = self.getKey() key = self.getKey()
self.markPolygon(x, y, key = key) self.markPolygon(x, y, key=key)
shots, numtraces = self.findTracesInPoly(x, y) shots, numtraces = self.findTracesInPoly(x, y)
self.shots_found[key] = {'shots': shots, self.shots_found[key] = {'shots': shots,
@ -195,7 +198,7 @@ class regions(object):
print text print text
self.writeInTextfield(text) self.writeInTextfield(text)
def chooseRectangles(self, event = None): def chooseRectangles(self, event=None):
''' '''
Activates matplotlib widget RectangleSelector. Activates matplotlib widget RectangleSelector.
''' '''
@ -208,7 +211,7 @@ class regions(object):
self._rectangle = RectangleSelector(self.ax, self._onselect_clicks) self._rectangle = RectangleSelector(self.ax, self._onselect_clicks)
return self._rectangle return self._rectangle
def choosePolygon(self, event = None): def choosePolygon(self, event=None):
''' '''
Activates matplotlib widget LassoSelector. Activates matplotlib widget LassoSelector.
''' '''
@ -221,7 +224,7 @@ class regions(object):
self._lasso = LassoSelector(self.ax, self._onselect_verts) self._lasso = LassoSelector(self.ax, self._onselect_verts)
return self._lasso return self._lasso
def disconnectPoly(self, event = None): def disconnectPoly(self, event=None):
if not hasattr(self, '_cidPoly'): if not hasattr(self, '_cidPoly'):
self.printOutput('no poly selection found') self.printOutput('no poly selection found')
return return
@ -231,7 +234,7 @@ class regions(object):
self._lasso.disconnect_events() self._lasso.disconnect_events()
print 'disconnected poly selection\n' print 'disconnected poly selection\n'
def disconnectRect(self, event = None): def disconnectRect(self, event=None):
if not hasattr(self, '_cidRect'): if not hasattr(self, '_cidRect'):
self.printOutput('no rectangle selection found') self.printOutput('no rectangle selection found')
return return
@ -240,14 +243,14 @@ class regions(object):
self._rectangle.disconnect_events() self._rectangle.disconnect_events()
print 'disconnected rectangle selection\n' print 'disconnected rectangle selection\n'
def deselectLastSelection(self, event = None): def deselectLastSelection(self, event=None):
if self.shots_found.keys() == []: if self.shots_found.keys() == []:
self.printOutput('No selection found.') self.printOutput('No selection found.')
return return
key = max(self.shots_found.keys()) key = max(self.shots_found.keys())
self.deselectSelection(key) self.deselectSelection(key)
def deselectSelection(self, key, color = 'green', alpha = 0.1): def deselectSelection(self, key, color='green', alpha=0.1):
if key not in self.shots_found.keys(): if key not in self.shots_found.keys():
self.printOutput('No selection found.') self.printOutput('No selection found.')
return return
@ -255,17 +258,17 @@ class regions(object):
if self.shots_found[key]['selection'] == 'rect': if self.shots_found[key]['selection'] == 'rect':
self.markRectangle(self.shots_found[key]['xvalues'], self.markRectangle(self.shots_found[key]['xvalues'],
self.shots_found[key]['yvalues'], self.shots_found[key]['yvalues'],
key = key, color = color, alpha = alpha, key=key, color=color, alpha=alpha,
linewidth = 1) linewidth=1)
elif self.shots_found[key]['selection'] == 'poly': elif self.shots_found[key]['selection'] == 'poly':
self.markPolygon(self.shots_found[key]['xvalues'], self.markPolygon(self.shots_found[key]['xvalues'],
self.shots_found[key]['yvalues'], self.shots_found[key]['yvalues'],
key = key, color = color, alpha = alpha, key=key, color=color, alpha=alpha,
linewidth = 1) linewidth=1)
value = self.shots_found.pop(key) value = self.shots_found.pop(key)
self.printOutput('Deselected selection number %d' % key) self.printOutput('Deselected selection number %d' % key)
def findTracesInPoly(self, x, y, picks = 'normal', highlight = True): def findTracesInPoly(self, x, y, picks='normal', highlight=True):
def dotproduct(v1, v2): def dotproduct(v1, v2):
return sum((a * b for a, b in zip(v1, v2))) return sum((a * b for a, b in zip(v1, v2)))
@ -279,8 +282,10 @@ class regions(object):
angle = 0 angle = 0
epsilon = 1e-07 epsilon = 1e-07
for index in range(len(x)): for index in range(len(x)):
xval1 = x[index - 1]; yval1 = y[index - 1] xval1 = x[index - 1];
xval2 = x[index]; yval2 = y[index] yval1 = y[index - 1]
xval2 = x[index];
yval2 = y[index]
angle += getangle([xval1 - pickX, yval1 - pickY], [xval2 - pickX, yval2 - pickY]) angle += getangle([xval1 - pickX, yval1 - pickY], [xval2 - pickX, yval2 - pickY])
if 360 - epsilon <= angle <= 360 + epsilon: ### IMPROVE THAT?? if 360 - epsilon <= angle <= 360 + epsilon: ### IMPROVE THAT??
return True return True
@ -289,11 +294,14 @@ class regions(object):
self.printOutput('No polygon defined.') self.printOutput('No polygon defined.')
return return
shots_found = {}; numtraces = 0 shots_found = {};
x0 = min(x); x1 = max(x) numtraces = 0
y0 = min(y); y1 = max(y) x0 = min(x);
x1 = max(x)
y0 = min(y);
y1 = max(y)
shots, numtracesrect = self.findTracesInShotDict((x0, x1), (y0, y1), highlight = False) shots, numtracesrect = self.findTracesInShotDict((x0, x1), (y0, y1), highlight=False)
for shotnumber in shots.keys(): for shotnumber in shots.keys():
shot = self.shot_dict[shotnumber] shot = self.shot_dict[shotnumber]
for traceID in shots[shotnumber]: for traceID in shots[shotnumber]:
@ -311,13 +319,16 @@ class regions(object):
self.drawFigure() self.drawFigure()
return shots_found, numtraces return shots_found, numtraces
def findTracesInShotDict(self, (x0, x1), (y0, y1), picks = 'normal', highlight = True): def findTracesInShotDict(self, (x0, x1), (y0, y1), picks='normal', highlight=True):
''' '''
Returns traces corresponding to a certain area in the plot with all picks over the distances. Returns traces corresponding to a certain area in the plot with all picks over the distances.
''' '''
shots_found = {}; numtraces = 0 shots_found = {};
if picks == 'normal': pickflag = 0 numtraces = 0
elif picks == 'includeCutOut': pickflag = None if picks == 'normal':
pickflag = 0
elif picks == 'includeCutOut':
pickflag = None
for line in self._allpicks: for line in self._allpicks:
dist, pick, shotnumber, traceID, flag = line dist, pick, shotnumber, traceID, flag = line
@ -333,7 +344,7 @@ class regions(object):
self.drawFigure() self.drawFigure()
return shots_found, numtraces return shots_found, numtraces
def highlightPick(self, shot, traceID, annotations = True): def highlightPick(self, shot, traceID, annotations=True):
''' '''
Highlights a single pick for a shot(object)/shotnumber and traceID. Highlights a single pick for a shot(object)/shotnumber and traceID.
If annotations == True: Displays shotnumber and traceID in the plot. If annotations == True: Displays shotnumber and traceID in the plot.
@ -344,9 +355,11 @@ class regions(object):
if shot.getPickFlag(traceID) is 0: if shot.getPickFlag(traceID) is 0:
return return
self.ax.scatter(shot.getDistance(traceID), shot.getPick(traceID), s = 50, marker = 'o', facecolors = 'none', edgecolors = 'm', alpha = 1) self.ax.scatter(shot.getDistance(traceID), shot.getPick(traceID), s=50, marker='o', facecolors='none',
edgecolors='m', alpha=1)
if annotations == True: if annotations == True:
self.ax.annotate(s='s%s|t%s' % (shot.getShotnumber(), traceID), xy=(shot.getDistance(traceID), shot.getPick(traceID)), fontsize='xx-small') self.ax.annotate(s='s%s|t%s' % (shot.getShotnumber(), traceID),
xy=(shot.getDistance(traceID), shot.getPick(traceID)), fontsize='xx-small')
def highlightAllActiveRegions(self): def highlightAllActiveRegions(self):
''' '''
@ -358,7 +371,7 @@ class regions(object):
self.highlightPick(self.shot_dict[shotnumber], traceID) self.highlightPick(self.shot_dict[shotnumber], traceID)
self.drawFigure() self.drawFigure()
def plotTracesInActiveRegions(self, event = None, keys = 'all', maxfigures = 20): def plotTracesInActiveRegions(self, event=None, keys='all', maxfigures=20):
''' '''
Plots all traces in the active region or for all specified keys. Plots all traces in the active region or for all specified keys.
@ -382,13 +395,14 @@ class regions(object):
for traceID in self.shots_found[key]['shots'][shotnumber]: for traceID in self.shots_found[key]['shots'][shotnumber]:
count += 1 count += 1
if count > maxfigures: if count > maxfigures:
print 'Maximum number of figures (%s) reached. %sth figure was not opened.' %(maxfigures, count) print 'Maximum number of figures (%s) reached. %sth figure was not opened.' % (
maxfigures, count)
break break
shot.plot_traces(traceID) shot.plot_traces(traceID)
else: else:
self.printOutput('No picks defined in that region(s)') self.printOutput('No picks defined in that region(s)')
def setAllActiveRegionsForDeletion(self, event = None): def setAllActiveRegionsForDeletion(self, event=None):
keys = [] keys = []
for key in self.shots_found.keys(): for key in self.shots_found.keys():
keys.append(key) keys.append(key)
@ -405,7 +419,7 @@ class regions(object):
for traceID in self.shots_found[key]['shots'][shotnumber]: for traceID in self.shots_found[key]['shots'][shotnumber]:
if traceID not in self.shots_for_deletion[shotnumber]: if traceID not in self.shots_for_deletion[shotnumber]:
self.shots_for_deletion[shotnumber].append(traceID) self.shots_for_deletion[shotnumber].append(traceID)
self.deselectSelection(key, color = 'red', alpha = 0.2) self.deselectSelection(key, color='red', alpha=0.2)
self.deselectSelection(key, color='red', alpha=0.2) self.deselectSelection(key, color='red', alpha=0.2)
@ -415,13 +429,12 @@ class regions(object):
for key in self.shots_found.keys(): for key in self.shots_found.keys():
if self.shots_found[key]['selection'] == 'rect': if self.shots_found[key]['selection'] == 'rect':
self.markRectangle(self.shots_found[key]['xvalues'], self.markRectangle(self.shots_found[key]['xvalues'],
self.shots_found[key]['yvalues'], key = key) self.shots_found[key]['yvalues'], key=key)
if self.shots_found[key]['selection'] == 'poly': if self.shots_found[key]['selection'] == 'poly':
self.markPolygon(self.shots_found[key]['xvalues'], self.markPolygon(self.shots_found[key]['xvalues'],
self.shots_found[key]['yvalues'], key = key) self.shots_found[key]['yvalues'], key=key)
def markRectangle(self, (x0, x1), (y0, y1), key=None, color='grey', alpha=0.1, linewidth=1):
def markRectangle(self, (x0, x1), (y0, y1), key = None, color = 'grey', alpha = 0.1, linewidth = 1):
''' '''
Mark a rectangular region on the axes. Mark a rectangular region on the axes.
''' '''
@ -431,7 +444,7 @@ class regions(object):
self.ax.text(x0 + (x1 - x0) / 2, y0 + (y1 - y0) / 2, str(key)) self.ax.text(x0 + (x1 - x0) / 2, y0 + (y1 - y0) / 2, str(key))
self.drawFigure() self.drawFigure()
def markPolygon(self, x, y, key = None, color = 'grey', alpha = 0.1, linewidth = 1): def markPolygon(self, x, y, key=None, color='grey', alpha=0.1, linewidth=1):
from matplotlib.patches import Polygon from matplotlib.patches import Polygon
poly = Polygon(np.array(zip(x, y)), color=color, alpha=alpha, lw=linewidth) poly = Polygon(np.array(zip(x, y)), color=color, alpha=alpha, lw=linewidth)
self.ax.add_patch(poly) self.ax.add_patch(poly)
@ -449,7 +462,7 @@ class regions(object):
def getShotsForDeletion(self): def getShotsForDeletion(self):
return self.shots_for_deletion return self.shots_for_deletion
def deleteAllMarkedPicks(self, event = None): def deleteAllMarkedPicks(self, event=None):
''' '''
Deletes all shots set for deletion. Deletes all shots set for deletion.
''' '''
@ -462,11 +475,11 @@ class regions(object):
if shot.getShotnumber() == shotnumber: if shot.getShotnumber() == shotnumber:
for traceID in self.getShotsForDeletion()[shotnumber]: for traceID in self.getShotsForDeletion()[shotnumber]:
shot.removePick(traceID) shot.removePick(traceID)
print "Deleted the pick for traceID %s on shot number %s" %(traceID, shotnumber) print "Deleted the pick for traceID %s on shot number %s" % (traceID, shotnumber)
self.clearShotsForDeletion() self.clearShotsForDeletion()
self.refreshFigure() self.refreshFigure()
def highlightPicksForShot(self, shot, annotations = False): def highlightPicksForShot(self, shot, annotations=False):
''' '''
Highlight all picks for a given shot. Highlight all picks for a given shot.
''' '''
@ -482,19 +495,19 @@ class regions(object):
def setXYlim(self, xlim, ylim): def setXYlim(self, xlim, ylim):
self._xlim, self._ylim = xlim, ylim self._xlim, self._ylim = xlim, ylim
def refreshLog10SNR(self, event = None): def refreshLog10SNR(self, event=None):
cbv = 'log10SNR' cbv = 'log10SNR'
self.refreshFigure(self, colorByVal=cbv) self.refreshFigure(self, colorByVal=cbv)
def refreshPickerror(self, event = None): def refreshPickerror(self, event=None):
cbv = 'pickerror' cbv = 'pickerror'
self.refreshFigure(self, colorByVal=cbv) self.refreshFigure(self, colorByVal=cbv)
def refreshSPE(self, event = None): def refreshSPE(self, event=None):
cbv = 'spe' cbv = 'spe'
self.refreshFigure(self, colorByVal=cbv) self.refreshFigure(self, colorByVal=cbv)
def refreshFigure(self, event = None, colorByVal = None): def refreshFigure(self, event=None, colorByVal=None):
if colorByVal == None: if colorByVal == None:
colorByVal = self.cbv colorByVal = self.cbv
else: else:
@ -508,7 +521,7 @@ class regions(object):
self.drawFigure() self.drawFigure()
self.printOutput('Done!') self.printOutput('Done!')
def drawFigure(self, resetAxes = True): def drawFigure(self, resetAxes=True):
if resetAxes == True: if resetAxes == True:
self.ax.set_xlim(self._xlim) self.ax.set_xlim(self._xlim)
self.ax.set_ylim(self._ylim) self.ax.set_ylim(self._ylim)

138
pylot/core/active/surveyUtils.py
View File

@ -1,6 +1,13 @@
import numpy as np from __future__ import print_function
def readParameters(parfile, parameter): def readParameters(parfile, parameter):
"""
:param parfile:
:param parameter:
:return:
"""
from ConfigParser import ConfigParser from ConfigParser import ConfigParser
parameterConfig = ConfigParser() parameterConfig = ConfigParser()
parameterConfig.read('parfile') parameterConfig.read('parfile')
@ -9,14 +16,29 @@ def readParameters(parfile, parameter):
return value return value
def setArtificialPick(shot_dict, traceID, pick): def setArtificialPick(shot_dict, traceID, pick):
"""
:param shot_dict:
:param traceID:
:param pick:
:return:
"""
for shot in shot_dict.values(): for shot in shot_dict.values():
shot.setPick(traceID, pick) shot.setPick(traceID, pick)
shot.setPickwindow(traceID, shot.getCut()) shot.setPickwindow(traceID, shot.getCut())
def fitSNR4dist(shot_dict, shiftdist = 30, shiftSNR = 100):
def fitSNR4dist(shot_dict, shiftdist=30, shiftSNR=100):
"""
:param shot_dict:
:param shiftdist:
:param shiftSNR:
:return:
"""
import numpy as np import numpy as np
import matplotlib.pyplot as plt
dists = [] dists = []
picks = [] picks = []
snrs = [] snrs = []
@ -29,54 +51,84 @@ def fitSNR4dist(shot_dict, shiftdist = 30, shiftSNR = 100):
dists.append(shot.getDistance(traceID)) dists.append(shot.getDistance(traceID))
picks.append(shot.getPickIncludeRemoved(traceID)) picks.append(shot.getPickIncludeRemoved(traceID))
snrs.append(shot.getSNR(traceID)[0]) snrs.append(shot.getSNR(traceID)[0])
snr_sqrt_inv.append(1/np.sqrt(shot.getSNR(traceID)[0])) snr_sqrt_inv.append(1 / np.sqrt(shot.getSNR(traceID)[0]))
fit = np.polyfit(dists, snr_sqrt_inv, 1) fit = np.polyfit(dists, snr_sqrt_inv, 1)
fit_fn = np.poly1d(fit) fit_fn = np.poly1d(fit)
for dist in dists: for dist in dists:
snrBestFit.append((1/(fit_fn(dist)**2))) snrBestFit.append((1 / (fit_fn(dist) ** 2)))
dist += shiftdist dist += shiftdist
snrthresholds.append((1/(fit_fn(dist)**2)) - shiftSNR * np.exp(-0.05 * dist)) snrthresholds.append((1 / (fit_fn(dist) ** 2)) - shiftSNR * np.exp(-0.05 * dist))
plotFittedSNR(dists, snrthresholds, snrs, snrBestFit) plotFittedSNR(dists, snrthresholds, snrs, snrBestFit)
return fit_fn #### ZU VERBESSERN, sollte fertige funktion wiedergeben return fit_fn #### ZU VERBESSERN, sollte fertige funktion wiedergeben
def plotFittedSNR(dists, snrthresholds, snrs, snrBestFit): def plotFittedSNR(dists, snrthresholds, snrs, snrBestFit):
"""
:param dists:
:param snrthresholds:
:param snrs:
:param snrBestFit:
:return:
"""
import matplotlib.pyplot as plt import matplotlib.pyplot as plt
plt.interactive(True) plt.interactive(True)
fig = plt.figure() fig = plt.figure()
plt.plot(dists, snrs, 'b.', markersize = 2.0, label = 'SNR values') plt.plot(dists, snrs, 'b.', markersize=2.0, label='SNR values')
dists.sort() dists.sort()
snrthresholds.sort(reverse = True) snrthresholds.sort(reverse=True)
snrBestFit.sort(reverse = True) snrBestFit.sort(reverse=True)
plt.plot(dists, snrthresholds, 'r', markersize = 1, label = 'Fitted threshold') plt.plot(dists, snrthresholds, 'r', markersize=1, label='Fitted threshold')
plt.plot(dists, snrBestFit, 'k', markersize = 1, label = 'Best fitted curve') plt.plot(dists, snrBestFit, 'k', markersize=1, label='Best fitted curve')
plt.xlabel('Distance[m]') plt.xlabel('Distance[m]')
plt.ylabel('SNR') plt.ylabel('SNR')
plt.legend() plt.legend()
def setDynamicFittedSNR(shot_dict, shiftdist = 30, shiftSNR = 100, p1 = 0.004, p2 = -0.0007):
def setDynamicFittedSNR(shot_dict, shiftdist=30, shiftSNR=100, p1=0.004, p2=-0.0007):
"""
:param shot_dict:
:type shot_dict: dict
:param shiftdist:
:type shiftdist: int
:param shiftSNR:
:type shiftSNR: int
:param p1:
:type p1: float
:param p2:
:type p2: float
:return:
"""
import numpy as np import numpy as np
minSNR = 2.5 minSNR = 2.5
#fit_fn = fitSNR4dist(shot_dict) # fit_fn = fitSNR4dist(shot_dict)
fit_fn = np.poly1d([p1, p2]) fit_fn = np.poly1d([p1, p2])
for shot in shot_dict.values(): for shot in shot_dict.values():
for traceID in shot.getTraceIDlist(): ### IMPROVE for traceID in shot.getTraceIDlist(): ### IMPROVE
dist = shot.getDistance(traceID) + shiftdist dist = shot.getDistance(traceID) + shiftdist
snrthreshold = (1/(fit_fn(dist)**2)) - shiftSNR * np.exp(-0.05 * dist) snrthreshold = (1 / (fit_fn(dist) ** 2)) - shiftSNR * np.exp(-0.05 * dist)
if snrthreshold < minSNR: if snrthreshold < minSNR:
print('WARNING: SNR threshold %s lower %s. Set SNR threshold to %s.' print('WARNING: SNR threshold %s lower %s. Set SNR threshold to %s.'
%(snrthreshold, minSNR, minSNR)) % (snrthreshold, minSNR, minSNR))
shot.setSNRthreshold(traceID, minSNR) shot.setSNRthreshold(traceID, minSNR)
else: else:
shot.setSNRthreshold(traceID, snrthreshold) shot.setSNRthreshold(traceID, snrthreshold)
print "setDynamicFittedSNR: Finished setting of fitted SNR-threshold" print("setDynamicFittedSNR: Finished setting of fitted SNR-threshold")
def setConstantSNR(shot_dict, snrthreshold = 2.5):
import numpy as np def setConstantSNR(shot_dict, snrthreshold=2.5):
"""
:param shot_dict:
:param snrthreshold:
:return:
"""
for shot in shot_dict.values(): for shot in shot_dict.values():
for traceID in shot.getTraceIDlist(): for traceID in shot.getTraceIDlist():
shot.setSNRthreshold(traceID, snrthreshold) shot.setSNRthreshold(traceID, snrthreshold)
print "setConstantSNR: Finished setting of SNR threshold to a constant value of %s"%snrthreshold print("setConstantSNR: Finished setting of SNR threshold to a constant value of %s" % snrthreshold)
def findTracesInRanges(shot_dict, distancebin, pickbin): def findTracesInRanges(shot_dict, distancebin, pickbin):
''' '''
@ -94,8 +146,8 @@ def findTracesInRanges(shot_dict, distancebin, pickbin):
''' '''
shots_found = {} shots_found = {}
for shot in shot_dict.values(): for shot in shot_dict.values():
if shot.getTraceIDs4Dist(distancebin = distancebin) is not None: if shot.getTraceIDs4Dist(distancebin=distancebin) is not None:
for traceID in shot.getTraceIDs4Dist(distancebin = distancebin): for traceID in shot.getTraceIDs4Dist(distancebin=distancebin):
if pickbin[0] < shot.getPick(traceID) < pickbin[1]: if pickbin[0] < shot.getPick(traceID) < pickbin[1]:
if shot.getShotnumber() not in shots_found.keys(): if shot.getShotnumber() not in shots_found.keys():
shots_found[shot.getShotnumber()] = [] shots_found[shot.getShotnumber()] = []
@ -103,11 +155,17 @@ def findTracesInRanges(shot_dict, distancebin, pickbin):
return shots_found return shots_found
def cleanUp(survey):
def cleanUp(survey):
"""
:param survey:
:return:
"""
for shot in survey.data.values(): for shot in survey.data.values():
shot.traces4plot = {} shot.traces4plot = {}
# def plotScatterStats(survey, key, ax = None): # def plotScatterStats(survey, key, ax = None):
# import matplotlib.pyplot as plt # import matplotlib.pyplot as plt
# x = []; y = []; value = [] # x = []; y = []; value = []
@ -131,14 +189,19 @@ def cleanUp(survey):
# cbar.set_label(key) # cbar.set_label(key)
def plotScatterStats4Shots(survey, key): def plotScatterStats4Shots(survey, key):
''' """
Statistics, scatter plot. Statistics, scatter plot.
key can be 'mean SNR', 'median SNR', 'mean SPE', 'median SPE', or 'picked traces' key can be 'mean SNR', 'median SNR', 'mean SPE', 'median SPE', or 'picked traces'
''' :param survey:
:param key:
:return:
"""
import matplotlib.pyplot as plt import matplotlib.pyplot as plt
import numpy as np import numpy as np
statsShot = {} statsShot = {}
x = []; y = []; value = [] x = []
y = []
value = []
for shot in survey.data.values(): for shot in survey.data.values():
for traceID in shot.getTraceIDlist(): for traceID in shot.getTraceIDlist():
if not shot in statsShot.keys(): if not shot in statsShot.keys():
@ -171,7 +234,7 @@ def plotScatterStats4Shots(survey, key):
for val in value: for val in value:
size.append(100 * val / max(value)) size.append(100 * val / max(value))
sc = ax.scatter(x, y, s = size, c = value) sc = ax.scatter(x, y, s=size, c=value)
plt.title('Plot of all shots') plt.title('Plot of all shots')
plt.xlabel('X') plt.xlabel('X')
plt.ylabel('Y') plt.ylabel('Y')
@ -179,18 +242,24 @@ def plotScatterStats4Shots(survey, key):
cbar.set_label(key) cbar.set_label(key)
for shot in statsShot.keys(): for shot in statsShot.keys():
ax.annotate(' %s' %shot.getShotnumber() , xy = (shot.getSrcLoc()[0], shot.getSrcLoc()[1]), ax.annotate(' %s' % shot.getShotnumber(), xy=(shot.getSrcLoc()[0], shot.getSrcLoc()[1]),
fontsize = 'x-small', color = 'k') fontsize='x-small', color='k')
def plotScatterStats4Receivers(survey, key): def plotScatterStats4Receivers(survey, key):
''' """
Statistics, scatter plot. Statistics, scatter plot.
key can be 'mean SNR', 'median SNR', 'mean SPE', 'median SPE', or 'picked traces' key can be 'mean SNR', 'median SNR', 'mean SPE', 'median SPE', or 'picked traces'
''' :param survey:
:param key:
:return:
"""
import matplotlib.pyplot as plt import matplotlib.pyplot as plt
import numpy as np import numpy as np
statsRec = {} statsRec = {}
x = []; y = []; value = [] x = []
y = []
value = []
for shot in survey.data.values(): for shot in survey.data.values():
for traceID in shot.getTraceIDlist(): for traceID in shot.getTraceIDlist():
if not traceID in statsRec.keys(): if not traceID in statsRec.keys():
@ -205,7 +274,6 @@ def plotScatterStats4Receivers(survey, key):
statsRec[traceID]['picked traces'] += 1 statsRec[traceID]['picked traces'] += 1
statsRec[traceID]['SPE'].append(shot.getSymmetricPickError(traceID)) statsRec[traceID]['SPE'].append(shot.getSymmetricPickError(traceID))
for traceID in statsRec.keys(): for traceID in statsRec.keys():
statsRec[traceID]['mean SNR'] = np.mean(statsRec[traceID]['SNR']) statsRec[traceID]['mean SNR'] = np.mean(statsRec[traceID]['SNR'])
statsRec[traceID]['median SNR'] = np.median(statsRec[traceID]['SNR']) statsRec[traceID]['median SNR'] = np.median(statsRec[traceID]['SNR'])
@ -224,7 +292,7 @@ def plotScatterStats4Receivers(survey, key):
for val in value: for val in value:
size.append(100 * val / max(value)) size.append(100 * val / max(value))
sc = ax.scatter(x, y, s = size, c = value) sc = ax.scatter(x, y, s=size, c=value)
plt.title('Plot of all receivers') plt.title('Plot of all receivers')
plt.xlabel('X') plt.xlabel('X')
plt.ylabel('Y') plt.ylabel('Y')
@ -233,5 +301,5 @@ def plotScatterStats4Receivers(survey, key):
shot = survey.data.values()[0] shot = survey.data.values()[0]
for traceID in shot.getTraceIDlist(): for traceID in shot.getTraceIDlist():
ax.annotate(' %s' %traceID , xy = (shot.getRecLoc(traceID)[0], shot.getRecLoc(traceID)[1]), ax.annotate(' %s' % traceID, xy=(shot.getRecLoc(traceID)[0], shot.getRecLoc(traceID)[1]),
fontsize = 'x-small', color = 'k') fontsize='x-small', color='k')

2
pylot/core/analysis/coinctimes.py
View File

@ -5,9 +5,7 @@ from obspy.core import read
from obspy.signal.trigger import coincidenceTrigger from obspy.signal.trigger import coincidenceTrigger
class CoincidenceTimes(object): class CoincidenceTimes(object):
def __init__(self, st, comp='Z', coinum=4, sta=1., lta=10., on=5., off=1.): def __init__(self, st, comp='Z', coinum=4, sta=1., lta=10., on=5., off=1.):
_type = 'recstalta' _type = 'recstalta'
self.coinclist = self.createCoincTriggerlist(data=st, trigcomp=comp, self.coinclist = self.createCoincTriggerlist(data=st, trigcomp=comp,

58
pylot/core/analysis/magnitude.py
View File

@ -15,6 +15,7 @@ from scipy.optimize import curve_fit
from scipy import integrate, signal from scipy import integrate, signal
from pylot.core.read.data import Data from pylot.core.read.data import Data
class Magnitude(object): class Magnitude(object):
''' '''
Superclass for calculating Wood-Anderson peak-to-peak Superclass for calculating Wood-Anderson peak-to-peak
@ -72,7 +73,6 @@ class Magnitude(object):
self.calcsourcespec() self.calcsourcespec()
self.run_calcMoMw() self.run_calcMoMw()
def getwfstream(self): def getwfstream(self):
return self.wfstream return self.wfstream
@ -154,6 +154,7 @@ class Magnitude(object):
def run_calcMoMw(self): def run_calcMoMw(self):
self.pickdic = None self.pickdic = None
class WApp(Magnitude): class WApp(Magnitude):
''' '''
Method to derive peak-to-peak amplitude as seen on a Wood-Anderson- Method to derive peak-to-peak amplitude as seen on a Wood-Anderson-
@ -261,6 +262,7 @@ class M0Mw(Magnitude):
picks[key]['P']['Mw'] = Mw picks[key]['P']['Mw'] = Mw
self.picdic = picks self.picdic = picks
def calcMoMw(wfstream, w0, rho, vp, delta, inv): def calcMoMw(wfstream, w0, rho, vp, delta, inv):
''' '''
Subfunction of run_calcMoMw to calculate individual Subfunction of run_calcMoMw to calculate individual
@ -294,7 +296,7 @@ def calcMoMw(wfstream, w0, rho, vp, delta, inv):
Mo = w0 * 4 * np.pi * rho * np.power(vp, 3) * delta / (rP * freesurf) Mo = w0 * 4 * np.pi * rho * np.power(vp, 3) * delta / (rP * freesurf)
#Mw = np.log10(Mo * 1e07) * 2 / 3 - 10.7 # after Hanks & Kanamori (1979), defined for [dyn*cm]! # Mw = np.log10(Mo * 1e07) * 2 / 3 - 10.7 # after Hanks & Kanamori (1979), defined for [dyn*cm]!
Mw = np.log10(Mo) * 2 / 3 - 6.7 # for metric units Mw = np.log10(Mo) * 2 / 3 - 6.7 # for metric units
print("calcMoMw: Calculated seismic moment Mo = %e Nm => Mw = %3.1f " % (Mo, Mw)) print("calcMoMw: Calculated seismic moment Mo = %e Nm => Mw = %3.1f " % (Mo, Mw))
@ -302,7 +304,6 @@ def calcMoMw(wfstream, w0, rho, vp, delta, inv):
return Mo, Mw return Mo, Mw
def calcsourcespec(wfstream, onset, inventory, vp, delta, azimuth, incidence, Qp, iplot): def calcsourcespec(wfstream, onset, inventory, vp, delta, azimuth, incidence, Qp, iplot):
''' '''
Subfunction to calculate the source spectrum and to derive from that the plateau Subfunction to calculate the source spectrum and to derive from that the plateau
@ -385,7 +386,7 @@ def calcsourcespec(wfstream, onset, inventory, vp, delta, azimuth, incidence, Qp
# L: P-wave direction # L: P-wave direction
# Q: SV-wave direction # Q: SV-wave direction
# T: SH-wave direction # T: SH-wave direction
LQT=cordat_copy.rotate('ZNE->LQT',azimuth, incidence) LQT = cordat_copy.rotate('ZNE->LQT', azimuth, incidence)
ldat = LQT.select(component="L") ldat = LQT.select(component="L")
if len(ldat) == 0: if len(ldat) == 0:
# if horizontal channels are 2 and 3 # if horizontal channels are 2 and 3
@ -416,9 +417,9 @@ def calcsourcespec(wfstream, onset, inventory, vp, delta, azimuth, incidence, Qp
elif zdat[0].stats.sampling_rate > 400: elif zdat[0].stats.sampling_rate > 400:
winzc = zdat[0].stats.sampling_rate winzc = zdat[0].stats.sampling_rate
tstart = UTCDateTime(zdat[0].stats.starttime) tstart = UTCDateTime(zdat[0].stats.starttime)
tonset = onset.timestamp -tstart.timestamp tonset = onset.timestamp - tstart.timestamp
impickP = tonset * zdat[0].stats.sampling_rate impickP = tonset * zdat[0].stats.sampling_rate
wfzc = Ldat[impickP : impickP + winzc] wfzc = Ldat[impickP: impickP + winzc]
# get time array # get time array
t = np.arange(0, len(inttrz) * zdat[0].stats.delta, \ t = np.arange(0, len(inttrz) * zdat[0].stats.delta, \
zdat[0].stats.delta) zdat[0].stats.delta)
@ -446,9 +447,9 @@ def calcsourcespec(wfstream, onset, inventory, vp, delta, azimuth, incidence, Qp
m = pow(2, np.ceil(np.log(len(xdat)) / np.log(2))) m = pow(2, np.ceil(np.log(len(xdat)) / np.log(2)))
N = int(np.power(m, 2)) N = int(np.power(m, 2))
y = zdat[0].stats.delta * np.fft.fft(xdat, N) y = zdat[0].stats.delta * np.fft.fft(xdat, N)
Y = abs(y[: N/2]) Y = abs(y[: N / 2])
L = (N - 1) / zdat[0].stats.sampling_rate L = (N - 1) / zdat[0].stats.sampling_rate
f = np.arange(0, fny, 1/L) f = np.arange(0, fny, 1 / L)
# remove zero-frequency and frequencies above # remove zero-frequency and frequencies above
# corner frequency of seismometer (assumed # corner frequency of seismometer (assumed
@ -458,9 +459,9 @@ def calcsourcespec(wfstream, onset, inventory, vp, delta, azimuth, incidence, Qp
YY = Y[fi] YY = Y[fi]
# correction for attenuation # correction for attenuation
wa = 2 * np.pi * F #angular frequency wa = 2 * np.pi * F # angular frequency
D = np.exp((wa * delta) / (2 * vp * Q*F**A)) D = np.exp((wa * delta) / (2 * vp * Q * F ** A))
YYcor = YY.real*D YYcor = YY.real * D
# get plateau (DC value) and corner frequency # get plateau (DC value) and corner frequency
# initial guess of plateau # initial guess of plateau
@ -494,7 +495,7 @@ def calcsourcespec(wfstream, onset, inventory, vp, delta, azimuth, incidence, Qp
f1 = plt.figure() f1 = plt.figure()
tLdat = np.arange(0, len(Ldat) * zdat[0].stats.delta, \ tLdat = np.arange(0, len(Ldat) * zdat[0].stats.delta, \
zdat[0].stats.delta) zdat[0].stats.delta)
plt.subplot(2,1,1) plt.subplot(2, 1, 1)
# show displacement in mm # show displacement in mm
p1, = plt.plot(t, np.multiply(inttrz, 1000), 'k') p1, = plt.plot(t, np.multiply(inttrz, 1000), 'k')
p2, = plt.plot(tLdat, np.multiply(Ldat, 1000)) p2, = plt.plot(tLdat, np.multiply(Ldat, 1000))
@ -510,12 +511,12 @@ def calcsourcespec(wfstream, onset, inventory, vp, delta, azimuth, incidence, Qp
plt.ylabel('Displacement [mm]') plt.ylabel('Displacement [mm]')
if plotflag == 1: if plotflag == 1:
plt.subplot(2,1,2) plt.subplot(2, 1, 2)
p1, = plt.loglog(f, Y.real, 'k') p1, = plt.loglog(f, Y.real, 'k')
p2, = plt.loglog(F, YY.real) p2, = plt.loglog(F, YY.real)
p3, = plt.loglog(F, YYcor, 'r') p3, = plt.loglog(F, YYcor, 'r')
p4, = plt.loglog(F, fit, 'g') p4, = plt.loglog(F, fit, 'g')
plt.loglog([fc, fc], [w0/100, w0], 'g') plt.loglog([fc, fc], [w0 / 100, w0], 'g')
plt.legend([p1, p2, p3, p4], ['Raw Spectrum', \ plt.legend([p1, p2, p3, p4], ['Raw Spectrum', \
'Used Raw Spectrum', \ 'Used Raw Spectrum', \
'Q-Corrected Spectrum', \ 'Q-Corrected Spectrum', \
@ -547,7 +548,7 @@ def synthsourcespec(f, omega0, fcorner):
:type: float :type: float
''' '''
#ssp = omega0 / (pow(2, (1 + f / fcorner))) # ssp = omega0 / (pow(2, (1 + f / fcorner)))
ssp = omega0 / (1 + pow(2, (f / fcorner))) ssp = omega0 / (1 + pow(2, (f / fcorner)))
return ssp return ssp
@ -577,17 +578,17 @@ def fitSourceModel(f, S, fc0, iplot):
# get window around initial corner frequency for trials # get window around initial corner frequency for trials
fcstopl = fc0 - max(1, len(f) / 10) fcstopl = fc0 - max(1, len(f) / 10)
il = np.argmin(abs(f-fcstopl)) il = np.argmin(abs(f - fcstopl))
fcstopl = f[il] fcstopl = f[il]
fcstopr = fc0 + min(len(f), len(f) /10) fcstopr = fc0 + min(len(f), len(f) / 10)
ir = np.argmin(abs(f-fcstopr)) ir = np.argmin(abs(f - fcstopr))
fcstopr = f[ir] fcstopr = f[ir]
iF = np.where((f >= fcstopl) & (f <= fcstopr)) iF = np.where((f >= fcstopl) & (f <= fcstopr))
# vary corner frequency around initial point # vary corner frequency around initial point
for i in range(il, ir): for i in range(il, ir):
FC = f[i] FC = f[i]
indexdc = np.where((f > 0 ) & (f <= FC)) indexdc = np.where((f > 0) & (f <= FC))
dc = np.mean(S[indexdc]) dc = np.mean(S[indexdc])
stddc = np.std(dc - S[indexdc]) stddc = np.std(dc - S[indexdc])
w0.append(dc) w0.append(dc)
@ -595,7 +596,7 @@ def fitSourceModel(f, S, fc0, iplot):
fc.append(FC) fc.append(FC)
# slope # slope
indexfc = np.where((f >= FC) & (f <= fcstopr)) indexfc = np.where((f >= FC) & (f <= fcstopr))
yi = dc/(1+(f[indexfc]/FC)**2) yi = dc / (1 + (f[indexfc] / FC) ** 2)
stdFC = np.std(yi - S[indexfc]) stdFC = np.std(yi - S[indexfc])
stdfc.append(stdFC) stdfc.append(stdFC)
STD.append(stddc + stdFC) STD.append(stddc + stdFC)
@ -615,23 +616,23 @@ def fitSourceModel(f, S, fc0, iplot):
plt.figure(iplot) plt.figure(iplot)
plt.loglog(f, S, 'k') plt.loglog(f, S, 'k')
plt.loglog([f[0], fc], [w0, w0], 'g') plt.loglog([f[0], fc], [w0, w0], 'g')
plt.loglog([fc, fc], [w0/100, w0], 'g') plt.loglog([fc, fc], [w0 / 100, w0], 'g')
plt.title('Calculated Source Spectrum, Omega0=%e m/Hz, fc=%6.2f Hz' \ plt.title('Calculated Source Spectrum, Omega0=%e m/Hz, fc=%6.2f Hz' \
% (w0, fc)) % (w0, fc))
plt.xlabel('Frequency [Hz]') plt.xlabel('Frequency [Hz]')
plt.ylabel('Amplitude [m/Hz]') plt.ylabel('Amplitude [m/Hz]')
plt.grid() plt.grid()
plt.figure(iplot+1) plt.figure(iplot + 1)
plt.subplot(311) plt.subplot(311)
plt.plot(f[il:ir], STD,'*') plt.plot(f[il:ir], STD, '*')
plt.title('Common Standard Deviations') plt.title('Common Standard Deviations')
plt.xticks([]) plt.xticks([])
plt.subplot(312) plt.subplot(312)
plt.plot(f[il:ir], stdw0,'*') plt.plot(f[il:ir], stdw0, '*')
plt.title('Standard Deviations of w0-Values') plt.title('Standard Deviations of w0-Values')
plt.xticks([]) plt.xticks([])
plt.subplot(313) plt.subplot(313)
plt.plot(f[il:ir],stdfc,'*') plt.plot(f[il:ir], stdfc, '*')
plt.title('Standard Deviations of Corner Frequencies') plt.title('Standard Deviations of Corner Frequencies')
plt.xlabel('Corner Frequencies [Hz]') plt.xlabel('Corner Frequencies [Hz]')
plt.show() plt.show()
@ -639,10 +640,3 @@ def fitSourceModel(f, S, fc0, iplot):
plt.close() plt.close()
return w0, fc return w0, fc

6
pylot/core/analysis/trigger.py
View File

@ -1,7 +1,7 @@
#!/usr/bin/env python #!/usr/bin/env python
# -*- coding: utf-8 -*- # -*- coding: utf-8 -*-
from obspy.signal.trigger import recSTALTA, triggerOnset from obspy.signal.trigger import recursive_sta_lta, trigger_onset
def createSingleTriggerlist(st, station='ZV01', trigcomp='Z', stalta=(1, 10), def createSingleTriggerlist(st, station='ZV01', trigcomp='Z', stalta=(1, 10),
@ -24,8 +24,8 @@ def createSingleTriggerlist(st, station='ZV01', trigcomp='Z', stalta=(1, 10),
tr = st.copy().select(component=trigcomp, station=station)[0] tr = st.copy().select(component=trigcomp, station=station)[0]
df = tr.stats.sampling_rate df = tr.stats.sampling_rate
cft = recSTALTA(tr.data, int(stalta[0] * df), int(stalta[1] * df)) cft = recursive_sta_lta(tr.data, int(stalta[0] * df), int(stalta[1] * df))
triggers = triggerOnset(cft, trigonoff[0], trigonoff[1]) triggers = trigger_onset(cft, trigonoff[0], trigonoff[1])
trigg = [] trigg = []
for time in triggers: for time in triggers:
trigg.append(tr.stats.starttime + time[0] / df) trigg.append(tr.stats.starttime + time[0] / df)

9
pylot/core/loc/nll.py
View File

@ -9,6 +9,7 @@ from pylot.core.util.version import get_git_version as _getVersionString
__version__ = _getVersionString() __version__ = _getVersionString()
def picksExport(picks, locrt, phasefile): def picksExport(picks, locrt, phasefile):
''' '''
Take <picks> dictionary and exports picking data to a NLLOC-obs Take <picks> dictionary and exports picking data to a NLLOC-obs
@ -26,6 +27,7 @@ def picksExport(picks, locrt, phasefile):
# write phases to NLLoc-phase file # write phases to NLLoc-phase file
writephases(picks, locrt, phasefile) writephases(picks, locrt, phasefile)
def modifyInputFile(ctrfn, root, nllocoutn, phasefn, tttn): def modifyInputFile(ctrfn, root, nllocoutn, phasefn, tttn):
''' '''
:param ctrfn: name of NLLoc-control file :param ctrfn: name of NLLoc-control file
@ -46,7 +48,7 @@ def modifyInputFile(ctrfn, root, nllocoutn, phasefn, tttn):
# For locating the event the NLLoc-control file has to be modified! # For locating the event the NLLoc-control file has to be modified!
# create comment line for NLLoc-control file NLLoc-output file # create comment line for NLLoc-control file NLLoc-output file
ctrfile = os.path.join(root, 'run', ctrfn) ctrfile = os.path.join(root, 'run', ctrfn)
nllocout = os.path.join(root,'loc', nllocoutn) nllocout = os.path.join(root, 'loc', nllocoutn)
phasefile = os.path.join(root, 'obs', phasefn) phasefile = os.path.join(root, 'obs', phasefn)
tttable = os.path.join(root, 'time', tttn) tttable = os.path.join(root, 'time', tttn)
locfiles = 'LOCFILES %s NLLOC_OBS %s %s 0\n' % (phasefile, tttable, nllocout) locfiles = 'LOCFILES %s NLLOC_OBS %s %s 0\n' % (phasefile, tttable, nllocout)
@ -63,6 +65,7 @@ def modifyInputFile(ctrfn, root, nllocoutn, phasefn, tttn):
nllfile.write(filedata) nllfile.write(filedata)
nllfile.close() nllfile.close()
def locate(call, fnin): def locate(call, fnin):
''' '''
Takes paths to NLLoc executable <call> and input parameter file <fnin> Takes paths to NLLoc executable <call> and input parameter file <fnin>
@ -78,8 +81,10 @@ def locate(call, fnin):
# locate the event # locate the event
subprocess.call([call, fnin]) subprocess.call([call, fnin])
def readLocation(fn): def readLocation(fn):
pass pass
if __name__=='__main__':
if __name__ == '__main__':
pass pass

179
pylot/core/pick/charfuns.py
View File

@ -21,10 +21,12 @@ import matplotlib.pyplot as plt
import numpy as np import numpy as np
from obspy.core import Stream from obspy.core import Stream
class CharacteristicFunction(object): class CharacteristicFunction(object):
''' '''
SuperClass for different types of characteristic functions. SuperClass for different types of characteristic functions.
''' '''
def __init__(self, data, cut, t2=None, order=None, t1=None, fnoise=None, stealthMode=False): def __init__(self, data, cut, t2=None, order=None, t1=None, fnoise=None, stealthMode=False):
''' '''
Initialize data type object with information from the original Initialize data type object with information from the original
@ -223,7 +225,7 @@ class AICcf(CharacteristicFunction):
def calcCF(self, data): def calcCF(self, data):
#if self._getStealthMode() is False: # if self._getStealthMode() is False:
# print 'Calculating AIC ...' # print 'Calculating AIC ...'
x = self.getDataArray() x = self.getDataArray()
xnp = x[0].data xnp = x[0].data
@ -247,6 +249,7 @@ class AICcf(CharacteristicFunction):
self.cf = cf - np.mean(cf) self.cf = cf - np.mean(cf)
self.xcf = x self.xcf = x
class HOScf(CharacteristicFunction): class HOScf(CharacteristicFunction):
''' '''
Function to calculate skewness (statistics of order 3) or kurtosis Function to calculate skewness (statistics of order 3) or kurtosis
@ -257,38 +260,38 @@ class HOScf(CharacteristicFunction):
def calcCF(self, data): def calcCF(self, data):
x = self.getDataArray(self.getCut()) x = self.getDataArray(self.getCut())
xnp =x[0].data xnp = x[0].data
nn = np.isnan(xnp) nn = np.isnan(xnp)
if len(nn) > 1: if len(nn) > 1:
xnp[nn] = 0 xnp[nn] = 0
if self.getOrder() == 3: # this is skewness if self.getOrder() == 3: # this is skewness
#if self._getStealthMode() is False: # if self._getStealthMode() is False:
# print 'Calculating skewness ...' # print 'Calculating skewness ...'
y = np.power(xnp, 3) y = np.power(xnp, 3)
y1 = np.power(xnp, 2) y1 = np.power(xnp, 2)
elif self.getOrder() == 4: # this is kurtosis elif self.getOrder() == 4: # this is kurtosis
#if self._getStealthMode() is False: # if self._getStealthMode() is False:
# print 'Calculating kurtosis ...' # print 'Calculating kurtosis ...'
y = np.power(xnp, 4) y = np.power(xnp, 4)
y1 = np.power(xnp, 2) y1 = np.power(xnp, 2)
#Initialisation # Initialisation
#t2: long term moving window # t2: long term moving window
ilta = int(round(self.getTime2() / self.getIncrement())) ilta = int(round(self.getTime2() / self.getIncrement()))
lta = y[0] lta = y[0]
lta1 = y1[0] lta1 = y1[0]
#moving windows # moving windows
LTA = np.zeros(len(xnp)) LTA = np.zeros(len(xnp))
for j in range(0, len(xnp)): for j in range(0, len(xnp)):
if j < 4: if j < 4:
LTA[j] = 0 LTA[j] = 0
elif j <= ilta: elif j <= ilta:
lta = (y[j] + lta * (j-1)) / j lta = (y[j] + lta * (j - 1)) / j
lta1 = (y1[j] + lta1 * (j-1)) / j lta1 = (y1[j] + lta1 * (j - 1)) / j
else: else:
lta = (y[j] - y[j - ilta]) / ilta + lta lta = (y[j] - y[j - ilta]) / ilta + lta
lta1 = (y1[j] - y1[j - ilta]) / ilta + lta1 lta1 = (y1[j] - y1[j - ilta]) / ilta + lta1
#define LTA # define LTA
if self.getOrder() == 3: if self.getOrder() == 3:
LTA[j] = lta / np.power(lta1, 1.5) LTA[j] = lta / np.power(lta1, 1.5)
elif self.getOrder() == 4: elif self.getOrder() == 4:
@ -302,7 +305,6 @@ class HOScf(CharacteristicFunction):
class ARZcf(CharacteristicFunction): class ARZcf(CharacteristicFunction):
def calcCF(self, data): def calcCF(self, data):
print 'Calculating AR-prediction error from single trace ...' print 'Calculating AR-prediction error from single trace ...'
@ -311,32 +313,32 @@ class ARZcf(CharacteristicFunction):
nn = np.isnan(xnp) nn = np.isnan(xnp)
if len(nn) > 1: if len(nn) > 1:
xnp[nn] = 0 xnp[nn] = 0
#some parameters needed # some parameters needed
#add noise to time series # add noise to time series
xnoise = xnp + np.random.normal(0.0, 1.0, len(xnp)) * self.getFnoise() * max(abs(xnp)) xnoise = xnp + np.random.normal(0.0, 1.0, len(xnp)) * self.getFnoise() * max(abs(xnp))
tend = len(xnp) tend = len(xnp)
#Time1: length of AR-determination window [sec] # Time1: length of AR-determination window [sec]
#Time2: length of AR-prediction window [sec] # Time2: length of AR-prediction window [sec]
ldet = int(round(self.getTime1() / self.getIncrement())) #length of AR-determination window [samples] ldet = int(round(self.getTime1() / self.getIncrement())) # length of AR-determination window [samples]
lpred = int(np.ceil(self.getTime2() / self.getIncrement())) #length of AR-prediction window [samples] lpred = int(np.ceil(self.getTime2() / self.getIncrement())) # length of AR-prediction window [samples]
cf = np.zeros(len(xnp)) cf = np.zeros(len(xnp))
loopstep = self.getARdetStep() loopstep = self.getARdetStep()
arcalci = ldet + self.getOrder() #AR-calculation index arcalci = ldet + self.getOrder() # AR-calculation index
for i in range(ldet + self.getOrder(), tend - lpred - 1): for i in range(ldet + self.getOrder(), tend - lpred - 1):
if i == arcalci: if i == arcalci:
#determination of AR coefficients # determination of AR coefficients
#to speed up calculation, AR-coefficients are calculated only every i+loopstep[1]! # to speed up calculation, AR-coefficients are calculated only every i+loopstep[1]!
self.arDetZ(xnoise, self.getOrder(), i-ldet, i) self.arDetZ(xnoise, self.getOrder(), i - ldet, i)
arcalci = arcalci + loopstep[1] arcalci = arcalci + loopstep[1]
#AR prediction of waveform using calculated AR coefficients # AR prediction of waveform using calculated AR coefficients
self.arPredZ(xnp, self.arpara, i + 1, lpred) self.arPredZ(xnp, self.arpara, i + 1, lpred)
#prediction error = CF # prediction error = CF
cf[i + lpred-1] = np.sqrt(np.sum(np.power(self.xpred[i:i + lpred-1] - xnp[i:i + lpred-1], 2)) / lpred) cf[i + lpred - 1] = np.sqrt(np.sum(np.power(self.xpred[i:i + lpred - 1] - xnp[i:i + lpred - 1], 2)) / lpred)
nn = np.isnan(cf) nn = np.isnan(cf)
if len(nn) > 1: if len(nn) > 1:
cf[nn] = 0 cf[nn] = 0
#remove zeros and artefacts # remove zeros and artefacts
tap = np.hanning(len(cf)) tap = np.hanning(len(cf))
cf = tap * cf cf = tap * cf
io = np.where(cf == 0) io = np.where(cf == 0)
@ -366,25 +368,25 @@ class ARZcf(CharacteristicFunction):
Output: AR parameters arpara Output: AR parameters arpara
''' '''
#recursive calculation of data vector (right part of eq. 6.5 in Kueperkoch et al. (2012) # recursive calculation of data vector (right part of eq. 6.5 in Kueperkoch et al. (2012)
rhs = np.zeros(self.getOrder()) rhs = np.zeros(self.getOrder())
for k in range(0, self.getOrder()): for k in range(0, self.getOrder()):
for i in range(rind, ldet+1): for i in range(rind, ldet + 1):
ki = k + 1 ki = k + 1
rhs[k] = rhs[k] + data[i] * data[i - ki] rhs[k] = rhs[k] + data[i] * data[i - ki]
#recursive calculation of data array (second sum at left part of eq. 6.5 in Kueperkoch et al. 2012) # recursive calculation of data array (second sum at left part of eq. 6.5 in Kueperkoch et al. 2012)
A = np.zeros((self.getOrder(),self.getOrder())) A = np.zeros((self.getOrder(), self.getOrder()))
for k in range(1, self.getOrder() + 1): for k in range(1, self.getOrder() + 1):
for j in range(1, k + 1): for j in range(1, k + 1):
for i in range(rind, ldet+1): for i in range(rind, ldet + 1):
ki = k - 1 ki = k - 1
ji = j - 1 ji = j - 1
A[ki,ji] = A[ki,ji] + data[i - j] * data[i - k] A[ki, ji] = A[ki, ji] + data[i - j] * data[i - k]
A[ji,ki] = A[ki,ji] A[ji, ki] = A[ki, ji]
#apply Moore-Penrose inverse for SVD yielding the AR-parameters # apply Moore-Penrose inverse for SVD yielding the AR-parameters
self.arpara = np.dot(np.linalg.pinv(A), rhs) self.arpara = np.dot(np.linalg.pinv(A), rhs)
def arPredZ(self, data, arpara, rind, lpred): def arPredZ(self, data, arpara, rind, lpred):
@ -406,10 +408,10 @@ class ARZcf(CharacteristicFunction):
Output: predicted waveform z Output: predicted waveform z
''' '''
#be sure of the summation indeces # be sure of the summation indeces
if rind < len(arpara): if rind < len(arpara):
rind = len(arpara) rind = len(arpara)
if rind > len(data) - lpred : if rind > len(data) - lpred:
rind = len(data) - lpred rind = len(data) - lpred
if lpred < 1: if lpred < 1:
lpred = 1 lpred = 1
@ -426,7 +428,6 @@ class ARZcf(CharacteristicFunction):
class ARHcf(CharacteristicFunction): class ARHcf(CharacteristicFunction):
def calcCF(self, data): def calcCF(self, data):
print 'Calculating AR-prediction error from both horizontal traces ...' print 'Calculating AR-prediction error from both horizontal traces ...'
@ -439,36 +440,37 @@ class ARHcf(CharacteristicFunction):
if len(n1) > 1: if len(n1) > 1:
xnp[1].data[n1] = 0 xnp[1].data[n1] = 0
#some parameters needed # some parameters needed
#add noise to time series # add noise to time series
xenoise = xnp[0].data + np.random.normal(0.0, 1.0, len(xnp[0].data)) * self.getFnoise() * max(abs(xnp[0].data)) xenoise = xnp[0].data + np.random.normal(0.0, 1.0, len(xnp[0].data)) * self.getFnoise() * max(abs(xnp[0].data))
xnnoise = xnp[1].data + np.random.normal(0.0, 1.0, len(xnp[1].data)) * self.getFnoise() * max(abs(xnp[1].data)) xnnoise = xnp[1].data + np.random.normal(0.0, 1.0, len(xnp[1].data)) * self.getFnoise() * max(abs(xnp[1].data))
Xnoise = np.array( [xenoise.tolist(), xnnoise.tolist()] ) Xnoise = np.array([xenoise.tolist(), xnnoise.tolist()])
tend = len(xnp[0].data) tend = len(xnp[0].data)
#Time1: length of AR-determination window [sec] # Time1: length of AR-determination window [sec]
#Time2: length of AR-prediction window [sec] # Time2: length of AR-prediction window [sec]
ldet = int(round(self.getTime1() / self.getIncrement())) #length of AR-determination window [samples] ldet = int(round(self.getTime1() / self.getIncrement())) # length of AR-determination window [samples]
lpred = int(np.ceil(self.getTime2() / self.getIncrement())) #length of AR-prediction window [samples] lpred = int(np.ceil(self.getTime2() / self.getIncrement())) # length of AR-prediction window [samples]
cf = np.zeros(len(xenoise)) cf = np.zeros(len(xenoise))
loopstep = self.getARdetStep() loopstep = self.getARdetStep()
arcalci = lpred + self.getOrder() - 1 #AR-calculation index arcalci = lpred + self.getOrder() - 1 # AR-calculation index
#arcalci = ldet + self.getOrder() - 1 #AR-calculation index # arcalci = ldet + self.getOrder() - 1 #AR-calculation index
for i in range(lpred + self.getOrder() - 1, tend - 2 * lpred + 1): for i in range(lpred + self.getOrder() - 1, tend - 2 * lpred + 1):
if i == arcalci: if i == arcalci:
#determination of AR coefficients # determination of AR coefficients
#to speed up calculation, AR-coefficients are calculated only every i+loopstep[1]! # to speed up calculation, AR-coefficients are calculated only every i+loopstep[1]!
self.arDetH(Xnoise, self.getOrder(), i-ldet, i) self.arDetH(Xnoise, self.getOrder(), i - ldet, i)
arcalci = arcalci + loopstep[1] arcalci = arcalci + loopstep[1]
#AR prediction of waveform using calculated AR coefficients # AR prediction of waveform using calculated AR coefficients
self.arPredH(xnp, self.arpara, i + 1, lpred) self.arPredH(xnp, self.arpara, i + 1, lpred)
#prediction error = CF # prediction error = CF
cf[i + lpred] = np.sqrt(np.sum(np.power(self.xpred[0][i:i + lpred] - xnp[0][i:i + lpred], 2) \ cf[i + lpred] = np.sqrt(np.sum(np.power(self.xpred[0][i:i + lpred] - xnp[0][i:i + lpred], 2) \
+ np.power(self.xpred[1][i:i + lpred] - xnp[1][i:i + lpred], 2)) / (2 * lpred)) + np.power(self.xpred[1][i:i + lpred] - xnp[1][i:i + lpred], 2)) / (
2 * lpred))
nn = np.isnan(cf) nn = np.isnan(cf)
if len(nn) > 1: if len(nn) > 1:
cf[nn] = 0 cf[nn] = 0
#remove zeros and artefacts # remove zeros and artefacts
tap = np.hanning(len(cf)) tap = np.hanning(len(cf))
cf = tap * cf cf = tap * cf
io = np.where(cf == 0) io = np.where(cf == 0)
@ -500,24 +502,24 @@ class ARHcf(CharacteristicFunction):
Output: AR parameters arpara Output: AR parameters arpara
''' '''
#recursive calculation of data vector (right part of eq. 6.5 in Kueperkoch et al. (2012) # recursive calculation of data vector (right part of eq. 6.5 in Kueperkoch et al. (2012)
rhs = np.zeros(self.getOrder()) rhs = np.zeros(self.getOrder())
for k in range(0, self.getOrder()): for k in range(0, self.getOrder()):
for i in range(rind, ldet): for i in range(rind, ldet):
rhs[k] = rhs[k] + data[0,i] * data[0,i - k] + data[1,i] * data[1,i - k] rhs[k] = rhs[k] + data[0, i] * data[0, i - k] + data[1, i] * data[1, i - k]
#recursive calculation of data array (second sum at left part of eq. 6.5 in Kueperkoch et al. 2012) # recursive calculation of data array (second sum at left part of eq. 6.5 in Kueperkoch et al. 2012)
A = np.zeros((4,4)) A = np.zeros((4, 4))
for k in range(1, self.getOrder() + 1): for k in range(1, self.getOrder() + 1):
for j in range(1, k + 1): for j in range(1, k + 1):
for i in range(rind, ldet): for i in range(rind, ldet):
ki = k - 1 ki = k - 1
ji = j - 1 ji = j - 1
A[ki,ji] = A[ki,ji] + data[0,i - ji] * data[0,i - ki] + data[1,i - ji] *data[1,i - ki] A[ki, ji] = A[ki, ji] + data[0, i - ji] * data[0, i - ki] + data[1, i - ji] * data[1, i - ki]
A[ji,ki] = A[ki,ji] A[ji, ki] = A[ki, ji]
#apply Moore-Penrose inverse for SVD yielding the AR-parameters # apply Moore-Penrose inverse for SVD yielding the AR-parameters
self.arpara = np.dot(np.linalg.pinv(A), rhs) self.arpara = np.dot(np.linalg.pinv(A), rhs)
def arPredH(self, data, arpara, rind, lpred): def arPredH(self, data, arpara, rind, lpred):
@ -540,7 +542,7 @@ class ARHcf(CharacteristicFunction):
Output: predicted waveform z Output: predicted waveform z
:type: structured array :type: structured array
''' '''
#be sure of the summation indeces # be sure of the summation indeces
if rind < len(arpara) + 1: if rind < len(arpara) + 1:
rind = len(arpara) + 1 rind = len(arpara) + 1
if rind > len(data[0]) - lpred + 1: if rind > len(data[0]) - lpred + 1:
@ -558,11 +560,11 @@ class ARHcf(CharacteristicFunction):
z1[i] = z1[i] + arpara[ji] * z1[i - ji] z1[i] = z1[i] + arpara[ji] * z1[i - ji]
z2[i] = z2[i] + arpara[ji] * z2[i - ji] z2[i] = z2[i] + arpara[ji] * z2[i - ji]
z = np.array( [z1.tolist(), z2.tolist()] ) z = np.array([z1.tolist(), z2.tolist()])
self.xpred = z self.xpred = z
class AR3Ccf(CharacteristicFunction):
class AR3Ccf(CharacteristicFunction):
def calcCF(self, data): def calcCF(self, data):
print 'Calculating AR-prediction error from all 3 components ...' print 'Calculating AR-prediction error from all 3 components ...'
@ -578,38 +580,39 @@ class AR3Ccf(CharacteristicFunction):
if len(n2) > 1: if len(n2) > 1:
xnp[2].data[n2] = 0 xnp[2].data[n2] = 0
#some parameters needed # some parameters needed
#add noise to time series # add noise to time series
xenoise = xnp[0].data + np.random.normal(0.0, 1.0, len(xnp[0].data)) * self.getFnoise() * max(abs(xnp[0].data)) xenoise = xnp[0].data + np.random.normal(0.0, 1.0, len(xnp[0].data)) * self.getFnoise() * max(abs(xnp[0].data))
xnnoise = xnp[1].data + np.random.normal(0.0, 1.0, len(xnp[1].data)) * self.getFnoise() * max(abs(xnp[1].data)) xnnoise = xnp[1].data + np.random.normal(0.0, 1.0, len(xnp[1].data)) * self.getFnoise() * max(abs(xnp[1].data))
xznoise = xnp[2].data + np.random.normal(0.0, 1.0, len(xnp[2].data)) * self.getFnoise() * max(abs(xnp[2].data)) xznoise = xnp[2].data + np.random.normal(0.0, 1.0, len(xnp[2].data)) * self.getFnoise() * max(abs(xnp[2].data))
Xnoise = np.array( [xenoise.tolist(), xnnoise.tolist(), xznoise.tolist()] ) Xnoise = np.array([xenoise.tolist(), xnnoise.tolist(), xznoise.tolist()])
tend = len(xnp[0].data) tend = len(xnp[0].data)
#Time1: length of AR-determination window [sec] # Time1: length of AR-determination window [sec]
#Time2: length of AR-prediction window [sec] # Time2: length of AR-prediction window [sec]
ldet = int(round(self.getTime1() / self.getIncrement())) #length of AR-determination window [samples] ldet = int(round(self.getTime1() / self.getIncrement())) # length of AR-determination window [samples]
lpred = int(np.ceil(self.getTime2() / self.getIncrement())) #length of AR-prediction window [samples] lpred = int(np.ceil(self.getTime2() / self.getIncrement())) # length of AR-prediction window [samples]
cf = np.zeros(len(xenoise)) cf = np.zeros(len(xenoise))
loopstep = self.getARdetStep() loopstep = self.getARdetStep()
arcalci = ldet + self.getOrder() - 1 #AR-calculation index arcalci = ldet + self.getOrder() - 1 # AR-calculation index
for i in range(ldet + self.getOrder() - 1, tend - 2 * lpred + 1): for i in range(ldet + self.getOrder() - 1, tend - 2 * lpred + 1):
if i == arcalci: if i == arcalci:
#determination of AR coefficients # determination of AR coefficients
#to speed up calculation, AR-coefficients are calculated only every i+loopstep[1]! # to speed up calculation, AR-coefficients are calculated only every i+loopstep[1]!
self.arDet3C(Xnoise, self.getOrder(), i-ldet, i) self.arDet3C(Xnoise, self.getOrder(), i - ldet, i)
arcalci = arcalci + loopstep[1] arcalci = arcalci + loopstep[1]
#AR prediction of waveform using calculated AR coefficients # AR prediction of waveform using calculated AR coefficients
self.arPred3C(xnp, self.arpara, i + 1, lpred) self.arPred3C(xnp, self.arpara, i + 1, lpred)
#prediction error = CF # prediction error = CF
cf[i + lpred] = np.sqrt(np.sum(np.power(self.xpred[0][i:i + lpred] - xnp[0][i:i + lpred], 2) \ cf[i + lpred] = np.sqrt(np.sum(np.power(self.xpred[0][i:i + lpred] - xnp[0][i:i + lpred], 2) \
+ np.power(self.xpred[1][i:i + lpred] - xnp[1][i:i + lpred], 2) \ + np.power(self.xpred[1][i:i + lpred] - xnp[1][i:i + lpred], 2) \
+ np.power(self.xpred[2][i:i + lpred] - xnp[2][i:i + lpred], 2)) / (3 * lpred)) + np.power(self.xpred[2][i:i + lpred] - xnp[2][i:i + lpred], 2)) / (
3 * lpred))
nn = np.isnan(cf) nn = np.isnan(cf)
if len(nn) > 1: if len(nn) > 1:
cf[nn] = 0 cf[nn] = 0
#remove zeros and artefacts # remove zeros and artefacts
tap = np.hanning(len(cf)) tap = np.hanning(len(cf))
cf = tap * cf cf = tap * cf
io = np.where(cf == 0) io = np.where(cf == 0)
@ -641,26 +644,26 @@ class AR3Ccf(CharacteristicFunction):
Output: AR parameters arpara Output: AR parameters arpara
''' '''
#recursive calculation of data vector (right part of eq. 6.5 in Kueperkoch et al. (2012) # recursive calculation of data vector (right part of eq. 6.5 in Kueperkoch et al. (2012)
rhs = np.zeros(self.getOrder()) rhs = np.zeros(self.getOrder())
for k in range(0, self.getOrder()): for k in range(0, self.getOrder()):
for i in range(rind, ldet): for i in range(rind, ldet):
rhs[k] = rhs[k] + data[0,i] * data[0,i - k] + data[1,i] * data[1,i - k] \ rhs[k] = rhs[k] + data[0, i] * data[0, i - k] + data[1, i] * data[1, i - k] \
+ data[2,i] * data[2,i - k] + data[2, i] * data[2, i - k]
#recursive calculation of data array (second sum at left part of eq. 6.5 in Kueperkoch et al. 2012) # recursive calculation of data array (second sum at left part of eq. 6.5 in Kueperkoch et al. 2012)
A = np.zeros((4,4)) A = np.zeros((4, 4))
for k in range(1, self.getOrder() + 1): for k in range(1, self.getOrder() + 1):
for j in range(1, k + 1): for j in range(1, k + 1):
for i in range(rind, ldet): for i in range(rind, ldet):
ki = k - 1 ki = k - 1
ji = j - 1 ji = j - 1
A[ki,ji] = A[ki,ji] + data[0,i - ji] * data[0,i - ki] + data[1,i - ji] *data[1,i - ki] \ A[ki, ji] = A[ki, ji] + data[0, i - ji] * data[0, i - ki] + data[1, i - ji] * data[1, i - ki] \
+ data[2,i - ji] *data[2,i - ki] + data[2, i - ji] * data[2, i - ki]
A[ji,ki] = A[ki,ji] A[ji, ki] = A[ki, ji]
#apply Moore-Penrose inverse for SVD yielding the AR-parameters # apply Moore-Penrose inverse for SVD yielding the AR-parameters
self.arpara = np.dot(np.linalg.pinv(A), rhs) self.arpara = np.dot(np.linalg.pinv(A), rhs)
def arPred3C(self, data, arpara, rind, lpred): def arPred3C(self, data, arpara, rind, lpred):
@ -683,7 +686,7 @@ class AR3Ccf(CharacteristicFunction):
Output: predicted waveform z Output: predicted waveform z
:type: structured array :type: structured array
''' '''
#be sure of the summation indeces # be sure of the summation indeces
if rind < len(arpara) + 1: if rind < len(arpara) + 1:
rind = len(arpara) + 1 rind = len(arpara) + 1
if rind > len(data[0]) - lpred + 1: if rind > len(data[0]) - lpred + 1:
@ -703,5 +706,5 @@ class AR3Ccf(CharacteristicFunction):
z2[i] = z2[i] + arpara[ji] * z2[i - ji] z2[i] = z2[i] + arpara[ji] * z2[i - ji]
z3[i] = z3[i] + arpara[ji] * z3[i - ji] z3[i] = z3[i] + arpara[ji] * z3[i - ji]
z = np.array( [z1.tolist(), z2.tolist(), z3.tolist()] ) z = np.array([z1.tolist(), z2.tolist(), z3.tolist()])
self.xpred = z self.xpred = z

59
pylot/core/pick/picker.py
View File

@ -25,6 +25,7 @@ from pylot.core.pick.utils import getnoisewin, getsignalwin
from pylot.core.pick.charfuns import CharacteristicFunction from pylot.core.pick.charfuns import CharacteristicFunction
import warnings import warnings
class AutoPicker(object): class AutoPicker(object):
''' '''
Superclass of different, automated picking algorithms applied on a CF determined Superclass of different, automated picking algorithms applied on a CF determined
@ -87,7 +88,6 @@ class AutoPicker(object):
Tsmooth=self.getTsmooth(), Tsmooth=self.getTsmooth(),
Pick1=self.getpick1()) Pick1=self.getpick1())
def getTSNR(self): def getTSNR(self):
return self.TSNR return self.TSNR
@ -152,14 +152,14 @@ class AICPicker(AutoPicker):
self.Pick = None self.Pick = None
self.slope = None self.slope = None
self.SNR = None self.SNR = None
#find NaN's # find NaN's
nn = np.isnan(self.cf) nn = np.isnan(self.cf)
if len(nn) > 1: if len(nn) > 1:
self.cf[nn] = 0 self.cf[nn] = 0
#taper AIC-CF to get rid off side maxima # taper AIC-CF to get rid off side maxima
tap = np.hanning(len(self.cf)) tap = np.hanning(len(self.cf))
aic = tap * self.cf + max(abs(self.cf)) aic = tap * self.cf + max(abs(self.cf))
#smooth AIC-CF # smooth AIC-CF
ismooth = int(round(self.Tsmooth / self.dt)) ismooth = int(round(self.Tsmooth / self.dt))
aicsmooth = np.zeros(len(aic)) aicsmooth = np.zeros(len(aic))
if len(aic) < ismooth: if len(aic) < ismooth:
@ -171,32 +171,32 @@ class AICPicker(AutoPicker):
ii1 = i - ismooth ii1 = i - ismooth
aicsmooth[i] = aicsmooth[i - 1] + (aic[i] - aic[ii1]) / ismooth aicsmooth[i] = aicsmooth[i - 1] + (aic[i] - aic[ii1]) / ismooth
else: else:
aicsmooth[i] = np.mean(aic[1 : i]) aicsmooth[i] = np.mean(aic[1: i])
#remove offset # remove offset
offset = abs(min(aic) - min(aicsmooth)) offset = abs(min(aic) - min(aicsmooth))
aicsmooth = aicsmooth - offset aicsmooth = aicsmooth - offset
#get maximum of 1st derivative of AIC-CF (more stable!) as starting point # get maximum of 1st derivative of AIC-CF (more stable!) as starting point
diffcf = np.diff(aicsmooth) diffcf = np.diff(aicsmooth)
#find NaN's # find NaN's
nn = np.isnan(diffcf) nn = np.isnan(diffcf)
if len(nn) > 1: if len(nn) > 1:
diffcf[nn] = 0 diffcf[nn] = 0
#taper CF to get rid off side maxima # taper CF to get rid off side maxima
tap = np.hanning(len(diffcf)) tap = np.hanning(len(diffcf))
diffcf = tap * diffcf * max(abs(aicsmooth)) diffcf = tap * diffcf * max(abs(aicsmooth))
icfmax = np.argmax(diffcf) icfmax = np.argmax(diffcf)
#find minimum in AIC-CF front of maximum # find minimum in AIC-CF front of maximum
lpickwindow = int(round(self.PickWindow / self.dt)) lpickwindow = int(round(self.PickWindow / self.dt))
for i in range(icfmax - 1, max([icfmax - lpickwindow, 2]), -1): for i in range(icfmax - 1, max([icfmax - lpickwindow, 2]), -1):
if aicsmooth[i - 1] >= aicsmooth[i]: if aicsmooth[i - 1] >= aicsmooth[i]:
self.Pick = self.Tcf[i] self.Pick = self.Tcf[i]
break break
#if no minimum could be found: # if no minimum could be found:
#search in 1st derivative of AIC-CF # search in 1st derivative of AIC-CF
if self.Pick is None: if self.Pick is None:
for i in range(icfmax -1, max([icfmax -lpickwindow, 2]), -1): for i in range(icfmax - 1, max([icfmax - lpickwindow, 2]), -1):
if diffcf[i -1] >= diffcf[i]: if diffcf[i - 1] >= diffcf[i]:
self.Pick = self.Tcf[i] self.Pick = self.Tcf[i]
break break
@ -215,7 +215,7 @@ class AICPicker(AutoPicker):
max(abs(aic[inoise] - np.mean(aic[inoise]))) max(abs(aic[inoise] - np.mean(aic[inoise])))
# calculate slope from CF after initial pick # calculate slope from CF after initial pick
# get slope window # get slope window
tslope = self.TSNR[3] #slope determination window tslope = self.TSNR[3] # slope determination window
islope = np.where((self.Tcf <= min([self.Pick + tslope, len(self.Data[0].data)])) \ islope = np.where((self.Tcf <= min([self.Pick + tslope, len(self.Data[0].data)])) \
& (self.Tcf >= self.Pick)) & (self.Tcf >= self.Pick))
# find maximum within slope determination window # find maximum within slope determination window
@ -237,7 +237,7 @@ class AICPicker(AutoPicker):
raw_input() raw_input()
plt.close(p) plt.close(p)
return return
islope = islope[0][0 :imax] islope = islope[0][0:imax]
dataslope = self.Data[0].data[islope] dataslope = self.Data[0].data[islope]
# calculate slope as polynomal fit of order 1 # calculate slope as polynomal fit of order 1
xslope = np.arange(0, len(dataslope), 1) xslope = np.arange(0, len(dataslope), 1)
@ -258,7 +258,7 @@ class AICPicker(AutoPicker):
p1, = plt.plot(self.Tcf, x / max(x), 'k') p1, = plt.plot(self.Tcf, x / max(x), 'k')
p2, = plt.plot(self.Tcf, aicsmooth / max(aicsmooth), 'r') p2, = plt.plot(self.Tcf, aicsmooth / max(aicsmooth), 'r')
if self.Pick is not None: if self.Pick is not None:
p3, = plt.plot([self.Pick, self.Pick], [-0.1 , 0.5], 'b', linewidth=2) p3, = plt.plot([self.Pick, self.Pick], [-0.1, 0.5], 'b', linewidth=2)
plt.legend([p1, p2, p3], ['(HOS-/AR-) Data', 'Smoothed AIC-CF', 'AIC-Pick']) plt.legend([p1, p2, p3], ['(HOS-/AR-) Data', 'Smoothed AIC-CF', 'AIC-Pick'])
else: else:
plt.legend([p1, p2], ['(HOS-/AR-) Data', 'Smoothed AIC-CF']) plt.legend([p1, p2], ['(HOS-/AR-) Data', 'Smoothed AIC-CF'])
@ -273,7 +273,8 @@ class AICPicker(AutoPicker):
p13, = plt.plot(self.Tcf[isignal], self.Data[0].data[isignal], 'r') p13, = plt.plot(self.Tcf[isignal], self.Data[0].data[isignal], 'r')
p14, = plt.plot(self.Tcf[islope], dataslope, 'g--') p14, = plt.plot(self.Tcf[islope], dataslope, 'g--')
p15, = plt.plot(self.Tcf[islope], datafit, 'g', linewidth=2) p15, = plt.plot(self.Tcf[islope], datafit, 'g', linewidth=2)
plt.legend([p11, p12, p13, p14, p15], ['Data', 'Noise Window', 'Signal Window', 'Slope Window', 'Slope'], plt.legend([p11, p12, p13, p14, p15],
['Data', 'Noise Window', 'Signal Window', 'Slope Window', 'Slope'],
loc='best') loc='best')
plt.title('Station %s, SNR=%7.2f, Slope= %12.2f counts/s' % (self.Data[0].stats.station, plt.title('Station %s, SNR=%7.2f, Slope= %12.2f counts/s' % (self.Data[0].stats.station,
self.SNR, self.slope)) self.SNR, self.slope))
@ -303,7 +304,7 @@ class PragPicker(AutoPicker):
self.SNR = None self.SNR = None
self.slope = None self.slope = None
pickflag = 0 pickflag = 0
#smooth CF # smooth CF
ismooth = int(round(self.Tsmooth / self.dt)) ismooth = int(round(self.Tsmooth / self.dt))
cfsmooth = np.zeros(len(self.cf)) cfsmooth = np.zeros(len(self.cf))
if len(self.cf) < ismooth: if len(self.cf) < ismooth:
@ -315,28 +316,28 @@ class PragPicker(AutoPicker):
ii1 = i - ismooth ii1 = i - ismooth
cfsmooth[i] = cfsmooth[i - 1] + (self.cf[i] - self.cf[ii1]) / ismooth cfsmooth[i] = cfsmooth[i - 1] + (self.cf[i] - self.cf[ii1]) / ismooth
else: else:
cfsmooth[i] = np.mean(self.cf[1 : i]) cfsmooth[i] = np.mean(self.cf[1: i])
#select picking window # select picking window
#which is centered around tpick1 # which is centered around tpick1
ipick = np.where((self.Tcf >= self.getpick1() - self.PickWindow / 2) \ ipick = np.where((self.Tcf >= self.getpick1() - self.PickWindow / 2) \
& (self.Tcf <= self.getpick1() + self.PickWindow / 2)) & (self.Tcf <= self.getpick1() + self.PickWindow / 2))
cfipick = self.cf[ipick] - np.mean(self.cf[ipick]) cfipick = self.cf[ipick] - np.mean(self.cf[ipick])
Tcfpick = self.Tcf[ipick] Tcfpick = self.Tcf[ipick]
cfsmoothipick = cfsmooth[ipick]- np.mean(self.cf[ipick]) cfsmoothipick = cfsmooth[ipick] - np.mean(self.cf[ipick])
ipick1 = np.argmin(abs(self.Tcf - self.getpick1())) ipick1 = np.argmin(abs(self.Tcf - self.getpick1()))
cfpick1 = 2 * self.cf[ipick1] cfpick1 = 2 * self.cf[ipick1]
#check trend of CF, i.e. differences of CF and adjust aus regarding this trend # check trend of CF, i.e. differences of CF and adjust aus regarding this trend
#prominent trend: decrease aus # prominent trend: decrease aus
#flat: use given aus # flat: use given aus
cfdiff = np.diff(cfipick) cfdiff = np.diff(cfipick)
i0diff = np.where(cfdiff > 0) i0diff = np.where(cfdiff > 0)
cfdiff = cfdiff[i0diff] cfdiff = cfdiff[i0diff]
minaus = min(cfdiff * (1 + self.aus)) minaus = min(cfdiff * (1 + self.aus))
aus1 = max([minaus, self.aus]) aus1 = max([minaus, self.aus])
#at first we look to the right until the end of the pick window is reached # at first we look to the right until the end of the pick window is reached
flagpick_r = 0 flagpick_r = 0
flagpick_l = 0 flagpick_l = 0
cfpick_r = 0 cfpick_r = 0
@ -380,8 +381,8 @@ class PragPicker(AutoPicker):
if self.getiplot() > 1: if self.getiplot() > 1:
p = plt.figure(self.getiplot()) p = plt.figure(self.getiplot())
p1, = plt.plot(Tcfpick,cfipick, 'k') p1, = plt.plot(Tcfpick, cfipick, 'k')
p2, = plt.plot(Tcfpick,cfsmoothipick, 'r') p2, = plt.plot(Tcfpick, cfsmoothipick, 'r')
if pickflag > 0: if pickflag > 0:
p3, = plt.plot([self.Pick, self.Pick], [min(cfipick), max(cfipick)], 'b', linewidth=2) p3, = plt.plot([self.Pick, self.Pick], [min(cfipick), max(cfipick)], 'b', linewidth=2)
plt.legend([p1, p2, p3], ['CF', 'Smoothed CF', 'Pick']) plt.legend([p1, p2, p3], ['CF', 'Smoothed CF', 'Pick'])

26
pylot/core/pick/utils.py
View File

@ -15,7 +15,7 @@ from obspy.core import Stream, UTCDateTime
import warnings import warnings
def earllatepicker(X, nfac, TSNR, Pick1, iplot=None, stealthMode = False): def earllatepicker(X, nfac, TSNR, Pick1, iplot=None, stealthMode=False):
''' '''
Function to derive earliest and latest possible pick after Diehl & Kissling (2009) Function to derive earliest and latest possible pick after Diehl & Kissling (2009)
as reasonable uncertainties. Latest possible pick is based on noise level, as reasonable uncertainties. Latest possible pick is based on noise level,
@ -70,7 +70,8 @@ def earllatepicker(X, nfac, TSNR, Pick1, iplot=None, stealthMode = False):
# get earliest possible pick # get earliest possible pick
EPick = np.nan; count = 0 EPick = np.nan;
count = 0
pis = isignal pis = isignal
# if EPick stays NaN the signal window size will be doubled # if EPick stays NaN the signal window size will be doubled
@ -78,7 +79,7 @@ def earllatepicker(X, nfac, TSNR, Pick1, iplot=None, stealthMode = False):
if count > 0: if count > 0:
if stealthMode is False: if stealthMode is False:
print("\nearllatepicker: Doubled signal window size %s time(s) " print("\nearllatepicker: Doubled signal window size %s time(s) "
"because of NaN for earliest pick." %count) "because of NaN for earliest pick." % count)
isigDoubleWinStart = pis[-1] + 1 isigDoubleWinStart = pis[-1] + 1
isignalDoubleWin = np.arange(isigDoubleWinStart, isignalDoubleWin = np.arange(isigDoubleWinStart,
isigDoubleWinStart + len(pis)) isigDoubleWinStart + len(pis))
@ -94,7 +95,6 @@ def earllatepicker(X, nfac, TSNR, Pick1, iplot=None, stealthMode = False):
T0 = np.mean(np.diff(zc)) * X[0].stats.delta # this is half wave length! T0 = np.mean(np.diff(zc)) * X[0].stats.delta # this is half wave length!
EPick = Pick1 - T0 # half wavelength as suggested by Diehl et al. EPick = Pick1 - T0 # half wavelength as suggested by Diehl et al.
# get symmetric pick error as mean from earliest and latest possible pick # get symmetric pick error as mean from earliest and latest possible pick
# by weighting latest possible pick two times earliest possible pick # by weighting latest possible pick two times earliest possible pick
diffti_tl = LPick - Pick1 diffti_tl = LPick - Pick1
@ -460,7 +460,7 @@ def getResolutionWindow(snr):
else: else:
time_resolution = res_wins['HRW'] time_resolution = res_wins['HRW']
return time_resolution/2 return time_resolution / 2
def wadaticheck(pickdic, dttolerance, iplot): def wadaticheck(pickdic, dttolerance, iplot):
@ -499,7 +499,6 @@ def wadaticheck(pickdic, dttolerance, iplot):
Spicks.append(UTCSpick.timestamp) Spicks.append(UTCSpick.timestamp)
SPtimes.append(spt) SPtimes.append(spt)
if len(SPtimes) >= 3: if len(SPtimes) >= 3:
# calculate slope # calculate slope
p1 = np.polyfit(Ppicks, SPtimes, 1) p1 = np.polyfit(Ppicks, SPtimes, 1)
@ -642,7 +641,7 @@ def checksignallength(X, pick, TSNR, minsiglength, nfac, minpercent, iplot):
# calculate minimum adjusted signal level # calculate minimum adjusted signal level
minsiglevel = max(rms[inoise]) * nfac minsiglevel = max(rms[inoise]) * nfac
# minimum adjusted number of samples over minimum signal level # minimum adjusted number of samples over minimum signal level
minnum = len(isignal) * minpercent/100 minnum = len(isignal) * minpercent / 100
# get number of samples above minimum adjusted signal level # get number of samples above minimum adjusted signal level
numoverthr = len(np.where(rms[isignal] >= minsiglevel)[0]) numoverthr = len(np.where(rms[isignal] >= minsiglevel)[0])
@ -657,10 +656,10 @@ def checksignallength(X, pick, TSNR, minsiglength, nfac, minpercent, iplot):
if iplot == 2: if iplot == 2:
plt.figure(iplot) plt.figure(iplot)
p1, = plt.plot(t,rms, 'k') p1, = plt.plot(t, rms, 'k')
p2, = plt.plot(t[inoise], rms[inoise], 'c') p2, = plt.plot(t[inoise], rms[inoise], 'c')
p3, = plt.plot(t[isignal],rms[isignal], 'r') p3, = plt.plot(t[isignal], rms[isignal], 'r')
p4, = plt.plot([t[isignal[0]], t[isignal[len(isignal)-1]]], p4, = plt.plot([t[isignal[0]], t[isignal[len(isignal) - 1]]],
[minsiglevel, minsiglevel], 'g', linewidth=2) [minsiglevel, minsiglevel], 'g', linewidth=2)
p5, = plt.plot([pick, pick], [min(rms), max(rms)], 'b', linewidth=2) p5, = plt.plot([pick, pick], [min(rms), max(rms)], 'b', linewidth=2)
plt.legend([p1, p2, p3, p4, p5], ['RMS Data', 'RMS Noise Window', plt.legend([p1, p2, p3, p4, p5], ['RMS Data', 'RMS Noise Window',
@ -709,7 +708,7 @@ def checkPonsets(pickdic, dttolerance, iplot):
# apply jackknife bootstrapping on variance of P onsets # apply jackknife bootstrapping on variance of P onsets
print ("###############################################") print ("###############################################")
print ("checkPonsets: Apply jackknife bootstrapping on P-onset times ...") print ("checkPonsets: Apply jackknife bootstrapping on P-onset times ...")
[xjack,PHI_pseudo,PHI_sub] = jackknife(Ppicks, 'VAR', 1) [xjack, PHI_pseudo, PHI_sub] = jackknife(Ppicks, 'VAR', 1)
# get pseudo variances smaller than average variances # get pseudo variances smaller than average variances
# (times safety factor), these picks passed jackknife test # (times safety factor), these picks passed jackknife test
ij = np.where(PHI_pseudo <= 2 * xjack) ij = np.where(PHI_pseudo <= 2 * xjack)
@ -881,7 +880,6 @@ def checkZ4S(X, pick, zfac, checkwin, iplot):
if len(ndat) == 0: # check for other components if len(ndat) == 0: # check for other components
ndat = X.select(component="1") ndat = X.select(component="1")
z = zdat[0].data z = zdat[0].data
tz = np.arange(0, zdat[0].stats.npts / zdat[0].stats.sampling_rate, tz = np.arange(0, zdat[0].stats.npts / zdat[0].stats.sampling_rate,
zdat[0].stats.delta) zdat[0].stats.delta)
@ -960,7 +958,6 @@ def writephases(arrivals, fformat, filename):
:type: string :type: string
''' '''
if fformat == 'NLLoc': if fformat == 'NLLoc':
print ("Writing phases to %s for NLLoc" % filename) print ("Writing phases to %s for NLLoc" % filename)
fid = open("%s" % filename, 'w') fid = open("%s" % filename, 'w')
@ -1043,7 +1040,7 @@ def writephases(arrivals, fformat, filename):
Ao = str('%7.2f' % Ao) Ao = str('%7.2f' % Ao)
year = Ponset.year year = Ponset.year
if year >= 2000: if year >= 2000:
year = year -2000 year = year - 2000
else: else:
year = year - 1900 year = year - 1900
month = Ponset.month month = Ponset.month
@ -1098,4 +1095,5 @@ def writephases(arrivals, fformat, filename):
if __name__ == '__main__': if __name__ == '__main__':
import doctest import doctest
doctest.testmod() doctest.testmod()

1
pylot/core/read/data.py
View File

@ -81,7 +81,6 @@ class Data(object):
picks_str += str(pick) + '\n' picks_str += str(pick) + '\n'
return picks_str return picks_str
def getParent(self): def getParent(self):
""" """

4
pylot/core/read/inputs.py
View File

@ -3,6 +3,7 @@
from pylot.core.util.errors import ParameterError from pylot.core.util.errors import ParameterError
class AutoPickParameter(object): class AutoPickParameter(object):
''' '''
AutoPickParameters is a parameter type object capable to read and/or write AutoPickParameters is a parameter type object capable to read and/or write
@ -148,7 +149,7 @@ class AutoPickParameter(object):
def setParam(self, **kwargs): def setParam(self, **kwargs):
for param, value in kwargs.items(): for param, value in kwargs.items():
self.__setitem__(param, value) self.__setitem__(param, value)
#print(self) # print(self)
@staticmethod @staticmethod
def _printParameterError(errmsg): def _printParameterError(errmsg):
@ -193,6 +194,7 @@ class FilterOptions(object):
``'highpass'`` ``'highpass'``
Butterworth-Highpass Butterworth-Highpass
''' '''
def __init__(self, filtertype='bandpass', freq=[2., 5.], order=3, def __init__(self, filtertype='bandpass', freq=[2., 5.], order=3,
**kwargs): **kwargs):
self._order = order self._order = order

5
pylot/core/read/io.py
View File

@ -7,9 +7,10 @@ import scipy.io as sio
import obspy.core.event as ope import obspy.core.event as ope
from obspy.core import UTCDateTime from obspy.core import UTCDateTime
from pylot.core.util.utils import getOwner, createPick, createArrival,\ from pylot.core.util.utils import getOwner, createPick, createArrival, \
createEvent, createOrigin, createMagnitude createEvent, createOrigin, createMagnitude
def readPILOTEvent(phasfn=None, locfn=None, authority_id=None, **kwargs): def readPILOTEvent(phasfn=None, locfn=None, authority_id=None, **kwargs):
""" """
readPILOTEvent - function readPILOTEvent - function
@ -133,5 +134,3 @@ def readPILOTEvent(phasfn=None, locfn=None, authority_id=None, **kwargs):
except AttributeError as e: except AttributeError as e:
raise AttributeError('{0} - Matlab LOC files {1} and {2} contains \ raise AttributeError('{0} - Matlab LOC files {1} and {2} contains \
insufficient data!'.format(e, phasfn, locfn)) insufficient data!'.format(e, phasfn, locfn))

7
pylot/core/scripts/pylot-pick-earliest-latest.py
View File

@ -14,11 +14,12 @@ import argparse
import obspy import obspy
from pylot.core.pick.utils import earllatepicker from pylot.core.pick.utils import earllatepicker
if __name__ == "__main__": if __name__ == "__main__":
parser = argparse.ArgumentParser() parser = argparse.ArgumentParser()
parser.add_argument('--X', type=~obspy.core.stream.Stream, help='time series (seismogram) read with obspy module read') parser.add_argument('--X', type=~obspy.core.stream.Stream,
parser.add_argument('--nfac', type=int, help='(noise factor), nfac times noise level to calculate latest possible pick') help='time series (seismogram) read with obspy module read')
parser.add_argument('--nfac', type=int,
help='(noise factor), nfac times noise level to calculate latest possible pick')
parser.add_argument('--TSNR', type=tuple, help='length of time windows around pick used to determine SNR \ parser.add_argument('--TSNR', type=tuple, help='length of time windows around pick used to determine SNR \
[s] (Tnoise, Tgap, Tsignal)') [s] (Tnoise, Tgap, Tsignal)')
parser.add_argument('--Pick1', type=float, help='Onset time of most likely pick') parser.add_argument('--Pick1', type=float, help='Onset time of most likely pick')

7
pylot/core/scripts/pylot-pick-firstmotion.py
View File

@ -13,11 +13,12 @@ from pylot.core.pick.utils import fmpicker
if __name__ == "__main__": if __name__ == "__main__":
parser = argparse.ArgumentParser() parser = argparse.ArgumentParser()
parser.add_argument('--Xraw', type=obspy.core.stream.Stream, help='unfiltered time series (seismogram) read with obspy module read') parser.add_argument('--Xraw', type=obspy.core.stream.Stream,
parser.add_argument('--Xfilt', type=obspy.core.stream.Stream, help='filtered time series (seismogram) read with obspy module read') help='unfiltered time series (seismogram) read with obspy module read')
parser.add_argument('--Xfilt', type=obspy.core.stream.Stream,
help='filtered time series (seismogram) read with obspy module read')
parser.add_argument('--pickwin', type=float, help='length of pick window [s] for first motion determination') parser.add_argument('--pickwin', type=float, help='length of pick window [s] for first motion determination')
parser.add_argument('--Pick', type=float, help='Onset time of most likely pick') parser.add_argument('--Pick', type=float, help='Onset time of most likely pick')
parser.add_argument('--iplot', type=int, help='if set, figure no. iplot occurs') parser.add_argument('--iplot', type=int, help='if set, figure no. iplot occurs')
args = parser.parse_args() args = parser.parse_args()
fmpicker(args.Xraw, args.Xfilt, args.pickwin, args.Pick, args.iplot) fmpicker(args.Xraw, args.Xfilt, args.pickwin, args.Pick, args.iplot)

0
pylot/core/pick/run_makeCF.py → pylot/core/scripts/run_makeCF.py
View File

14
pylot/core/util/defaults.py
View File

@ -11,6 +11,7 @@ from pylot.core.loc import nll
from pylot.core.loc import hsat from pylot.core.loc import hsat
from pylot.core.loc import velest from pylot.core.loc import velest
def readFilterInformation(fname): def readFilterInformation(fname):
def convert2FreqRange(*args): def convert2FreqRange(*args):
if len(args) > 1: if len(args) > 1:
@ -18,6 +19,7 @@ def readFilterInformation(fname):
elif len(args) == 1: elif len(args) == 1:
return float(args[0]) return float(args[0])
return None return None
filter_file = open(fname, 'r') filter_file = open(fname, 'r')
filter_information = dict() filter_information = dict()
for filter_line in filter_file.readlines(): for filter_line in filter_file.readlines():
@ -41,15 +43,15 @@ FILTERDEFAULTS = readFilterInformation(os.path.join(os.path.expanduser('~'),
'.pylot', '.pylot',
'filter.in')) 'filter.in'))
OUTPUTFORMATS = {'.xml':'QUAKEML', OUTPUTFORMATS = {'.xml': 'QUAKEML',
'.cnv':'CNV', '.cnv': 'CNV',
'.obs':'NLLOC_OBS'} '.obs': 'NLLOC_OBS'}
LOCTOOLS = dict(nll = nll, hsat = hsat, velest = velest) LOCTOOLS = dict(nll=nll, hsat=hsat, velest=velest)
COMPPOSITION_MAP = dict(Z = 2, N = 1, E = 0) COMPPOSITION_MAP = dict(Z=2, N=1, E=0)
COMPPOSITION_MAP['1'] = 1 COMPPOSITION_MAP['1'] = 1
COMPPOSITION_MAP['2'] = 0 COMPPOSITION_MAP['2'] = 0
COMPPOSITION_MAP['3'] = 2 COMPPOSITION_MAP['3'] = 2
COMPNAME_MAP = dict(Z = '3', N = '1', E = '2') COMPNAME_MAP = dict(Z='3', N='1', E='2')

1
pylot/core/util/errors.py
View File

@ -21,5 +21,6 @@ class DatastructureError(Exception):
class OverwriteError(IOError): class OverwriteError(IOError):
pass pass
class ParameterError(Exception): class ParameterError(Exception):
pass pass

2
pylot/core/util/thread.py
View File

@ -2,6 +2,7 @@
import sys import sys
from PySide.QtCore import QThread, Signal from PySide.QtCore import QThread, Signal
class AutoPickThread(QThread): class AutoPickThread(QThread):
message = Signal(str) message = Signal(str)
finished = Signal() finished = Signal()
@ -28,6 +29,5 @@ class AutoPickThread(QThread):
sys.stdout = sys.__stdout__ sys.stdout = sys.__stdout__
self.finished.emit() self.finished.emit()
def write(self, text): def write(self, text):
self.message.emit(text) self.message.emit(text)

27
pylot/core/util/utils.py
View File

@ -10,6 +10,7 @@ import numpy as np
from obspy.core import UTCDateTime from obspy.core import UTCDateTime
import obspy.core.event as ope import obspy.core.event as ope
def createAmplitude(pickID, amp, unit, category, cinfo): def createAmplitude(pickID, amp, unit, category, cinfo):
''' '''
@ -28,6 +29,7 @@ def createAmplitude(pickID, amp, unit, category, cinfo):
amplitude.pick_id = pickID amplitude.pick_id = pickID
return amplitude return amplitude
def createArrival(pickresID, cinfo, phase, azimuth=None, dist=None): def createArrival(pickresID, cinfo, phase, azimuth=None, dist=None):
''' '''
createArrival - function to create an Obspy Arrival createArrival - function to create an Obspy Arrival
@ -56,6 +58,7 @@ def createArrival(pickresID, cinfo, phase, azimuth=None, dist=None):
arrival.distance = dist arrival.distance = dist
return arrival return arrival
def createCreationInfo(agency_id=None, creation_time=None, author=None): def createCreationInfo(agency_id=None, creation_time=None, author=None):
''' '''
@ -71,6 +74,7 @@ def createCreationInfo(agency_id=None, creation_time=None, author=None):
return ope.CreationInfo(agency_id=agency_id, author=author, return ope.CreationInfo(agency_id=agency_id, author=author,
creation_time=creation_time) creation_time=creation_time)
def createEvent(origintime, cinfo, originloc=None, etype=None, resID=None, def createEvent(origintime, cinfo, originloc=None, etype=None, resID=None,
authority_id=None): authority_id=None):
''' '''
@ -115,6 +119,7 @@ def createEvent(origintime, cinfo, originloc=None, etype=None, resID=None,
event.origins = [o] event.origins = [o]
return event return event
def createMagnitude(originID, cinfo): def createMagnitude(originID, cinfo):
''' '''
createMagnitude - function to create an ObsPy Magnitude object createMagnitude - function to create an ObsPy Magnitude object
@ -129,6 +134,7 @@ def createMagnitude(originID, cinfo):
magnitude.origin_id = originID magnitude.origin_id = originID
return magnitude return magnitude
def createOrigin(origintime, cinfo, latitude, longitude, depth): def createOrigin(origintime, cinfo, latitude, longitude, depth):
''' '''
createOrigin - function to create an ObsPy Origin createOrigin - function to create an ObsPy Origin
@ -158,6 +164,7 @@ def createOrigin(origintime, cinfo, latitude, longitude, depth):
origin.depth = depth origin.depth = depth
return origin return origin
def createPick(origintime, picknum, picktime, eventnum, cinfo, phase, station, def createPick(origintime, picknum, picktime, eventnum, cinfo, phase, station,
wfseedstr, authority_id): wfseedstr, authority_id):
''' '''
@ -196,6 +203,7 @@ def createPick(origintime, picknum, picktime, eventnum, cinfo, phase, station,
pick.waveform_id = ope.ResourceIdentifier(id=wfseedstr, prefix='file:/') pick.waveform_id = ope.ResourceIdentifier(id=wfseedstr, prefix='file:/')
return pick return pick
def createResourceID(timetohash, restype, authority_id=None, hrstr=None): def createResourceID(timetohash, restype, authority_id=None, hrstr=None):
''' '''
@ -220,6 +228,7 @@ def createResourceID(timetohash, restype, authority_id=None, hrstr=None):
resID.convertIDToQuakeMLURI(authority_id=authority_id) resID.convertIDToQuakeMLURI(authority_id=authority_id)
return resID return resID
def demeanTrace(trace, window): def demeanTrace(trace, window):
""" """
returns the DATA where each trace is demean by the average value within returns the DATA where each trace is demean by the average value within
@ -234,6 +243,7 @@ def demeanTrace(trace, window):
trace.data -= trace.data[window].mean() trace.data -= trace.data[window].mean()
return trace return trace
def findComboBoxIndex(combo_box, val): def findComboBoxIndex(combo_box, val):
""" """
Function findComboBoxIndex takes a QComboBox object and a string and Function findComboBoxIndex takes a QComboBox object and a string and
@ -246,6 +256,7 @@ def findComboBoxIndex(combo_box, val):
""" """
return combo_box.findText(val) if combo_box.findText(val) is not -1 else 0 return combo_box.findText(val) if combo_box.findText(val) is not -1 else 0
def find_nearest(array, value): def find_nearest(array, value):
''' '''
Function find_nearest takes an array and a value and returns the Function find_nearest takes an array and a value and returns the
@ -254,7 +265,8 @@ def find_nearest(array, value):
:param value: :param value:
:return: :return:
''' '''
return (np.abs(array-value)).argmin() return (np.abs(array - value)).argmin()
def fnConstructor(s): def fnConstructor(s):
''' '''
@ -277,6 +289,7 @@ def fnConstructor(s):
fn = '_' + fn fn = '_' + fn
return fn return fn
def getGlobalTimes(stream): def getGlobalTimes(stream):
''' '''
@ -293,6 +306,7 @@ def getGlobalTimes(stream):
max_end = trace.stats.endtime max_end = trace.stats.endtime
return min_start, max_end return min_start, max_end
def getHash(time): def getHash(time):
''' '''
:param time: time object for which a hash should be calculated :param time: time object for which a hash should be calculated
@ -303,6 +317,7 @@ def getHash(time):
hg.update(time.strftime('%Y-%m-%d %H:%M:%S.%f')) hg.update(time.strftime('%Y-%m-%d %H:%M:%S.%f'))
return hg.hexdigest() return hg.hexdigest()
def getLogin(): def getLogin():
''' '''
@ -310,6 +325,7 @@ def getLogin():
''' '''
return pwd.getpwuid(os.getuid())[0] return pwd.getpwuid(os.getuid())[0]
def getOwner(fn): def getOwner(fn):
''' '''
@ -319,6 +335,7 @@ def getOwner(fn):
''' '''
return pwd.getpwuid(os.stat(fn).st_uid).pw_name return pwd.getpwuid(os.stat(fn).st_uid).pw_name
def getPatternLine(fn, pattern): def getPatternLine(fn, pattern):
""" """
Takes a file name and a pattern string to search for in the file and Takes a file name and a pattern string to search for in the file and
@ -343,6 +360,7 @@ def getPatternLine(fn, pattern):
return None return None
def isSorted(iterable): def isSorted(iterable):
''' '''
@ -352,6 +370,7 @@ def isSorted(iterable):
''' '''
return sorted(iterable) == iterable return sorted(iterable) == iterable
def prepTimeAxis(stime, trace): def prepTimeAxis(stime, trace):
''' '''
@ -378,6 +397,7 @@ def prepTimeAxis(stime, trace):
'delta: {2}'.format(nsamp, len(time_ax), tincr)) 'delta: {2}'.format(nsamp, len(time_ax), tincr))
return time_ax return time_ax
def scaleWFData(data, factor=None, components='all'): def scaleWFData(data, factor=None, components='all'):
""" """
produce scaled waveforms from given waveform data and a scaling factor, produce scaled waveforms from given waveform data and a scaling factor,
@ -409,6 +429,7 @@ def scaleWFData(data, factor=None, components='all'):
return data return data
def runProgram(cmd, parameter=None): def runProgram(cmd, parameter=None):
""" """
run an external program specified by cmd with parameters input returning the run an external program specified by cmd with parameters input returning the
@ -427,8 +448,10 @@ def runProgram(cmd, parameter=None):
cmd += ' %s 2>&1' % parameter cmd += ' %s 2>&1' % parameter
output = subprocess.check_output('{} | tee /dev/stderr'.format(cmd), output = subprocess.check_output('{} | tee /dev/stderr'.format(cmd),
shell = True) shell=True)
if __name__ == "__main__": if __name__ == "__main__":
import doctest import doctest
doctest.testmod() doctest.testmod()

5
pylot/core/util/version.py
View File

@ -31,12 +31,15 @@
# #
# include RELEASE-VERSION # include RELEASE-VERSION
from __future__ import print_function
__all__ = "get_git_version" __all__ = "get_git_version"
# NO IMPORTS FROM PYLOT IN THIS FILE! (file gets used at installation time) # NO IMPORTS FROM PYLOT IN THIS FILE! (file gets used at installation time)
import os import os
import inspect import inspect
from subprocess import Popen, PIPE from subprocess import Popen, PIPE
# NO IMPORTS FROM PYLOT IN THIS FILE! (file gets used at installation time) # NO IMPORTS FROM PYLOT IN THIS FILE! (file gets used at installation time)
script_dir = os.path.abspath(os.path.dirname(inspect.getfile( script_dir = os.path.abspath(os.path.dirname(inspect.getfile(
@ -108,4 +111,4 @@ def get_git_version(abbrev=4):
if __name__ == "__main__": if __name__ == "__main__":
print get_git_version() print(get_git_version())

13
pylot/core/util/widgets.py
View File

@ -9,6 +9,7 @@ import datetime
import numpy as np import numpy as np
from matplotlib.figure import Figure from matplotlib.figure import Figure
try: try:
from matplotlib.backends.backend_qt4agg import FigureCanvas from matplotlib.backends.backend_qt4agg import FigureCanvas
except ImportError: except ImportError:
@ -23,9 +24,9 @@ from PySide.QtCore import QSettings, Qt, QUrl, Signal, Slot
from PySide.QtWebKit import QWebView from PySide.QtWebKit import QWebView
from obspy import Stream, UTCDateTime from obspy import Stream, UTCDateTime
from pylot.core.read.inputs import FilterOptions from pylot.core.read.inputs import FilterOptions
from pylot.core.pick.utils import getSNR, earllatepicker, getnoisewin,\ from pylot.core.pick.utils import getSNR, earllatepicker, getnoisewin, \
getResolutionWindow getResolutionWindow
from pylot.core.util.defaults import OUTPUTFORMATS, FILTERDEFAULTS, LOCTOOLS,\ from pylot.core.util.defaults import OUTPUTFORMATS, FILTERDEFAULTS, LOCTOOLS, \
COMPPOSITION_MAP COMPPOSITION_MAP
from pylot.core.util.utils import prepTimeAxis, getGlobalTimes, scaleWFData, \ from pylot.core.util.utils import prepTimeAxis, getGlobalTimes, scaleWFData, \
demeanTrace, isSorted, findComboBoxIndex demeanTrace, isSorted, findComboBoxIndex
@ -167,6 +168,7 @@ class MPLWidget(FigureCanvas):
xycoords='axes fraction') xycoords='axes fraction')
axann.set_bbox(dict(facecolor='lightgrey', alpha=.6)) axann.set_bbox(dict(facecolor='lightgrey', alpha=.6))
class PickDlg(QDialog): class PickDlg(QDialog):
def __init__(self, parent=None, data=None, station=None, picks=None, def __init__(self, parent=None, data=None, station=None, picks=None,
rotate=False): rotate=False):
@ -516,7 +518,6 @@ class PickDlg(QDialog):
inoise = getnoisewin(t, ini_pick, noise_win, gap_win) inoise = getnoisewin(t, ini_pick, noise_win, gap_win)
trace = demeanTrace(trace=trace, window=inoise) trace = demeanTrace(trace=trace, window=inoise)
self.setXLims([ini_pick - x_res, ini_pick + x_res]) self.setXLims([ini_pick - x_res, ini_pick + x_res])
self.setYLims(np.array([-noiselevel * 2.5, noiselevel * 2.5]) + self.setYLims(np.array([-noiselevel * 2.5, noiselevel * 2.5]) +
trace_number) trace_number)
@ -576,7 +577,7 @@ class PickDlg(QDialog):
traces.sort() traces.sort()
self.setYLims(tuple(np.array([-0.5, +0.5]) + self.setYLims(tuple(np.array([-0.5, +0.5]) +
np.array(traces))) np.array(traces)))
noiselevels = [trace + 1 / (2.5 * 2) for trace in traces] +\ noiselevels = [trace + 1 / (2.5 * 2) for trace in traces] + \
[trace - 1 / (2.5 * 2) for trace in traces] [trace - 1 / (2.5 * 2) for trace in traces]
self.getPlotWidget().plotWFData(wfdata=data, self.getPlotWidget().plotWFData(wfdata=data,
@ -757,7 +758,6 @@ class PickDlg(QDialog):
self.drawPicks() self.drawPicks()
self.draw() self.draw()
def setPlotLabels(self): def setPlotLabels(self):
# get channel labels # get channel labels
@ -1052,7 +1052,6 @@ class LocalisationTab(PropTab):
return values return values
class NewEventDlg(QDialog): class NewEventDlg(QDialog):
def __init__(self, parent=None, titleString="Create a new event"): def __init__(self, parent=None, titleString="Create a new event"):
""" """
@ -1293,6 +1292,8 @@ class HelpForm(QDialog):
def updatePageTitle(self): def updatePageTitle(self):
self.pageLabel.setText(self.webBrowser.documentTitle()) self.pageLabel.setText(self.webBrowser.documentTitle())
if __name__ == '__main__': if __name__ == '__main__':
import doctest import doctest
doctest.testmod() doctest.testmod()