def ttak135pf(self, phase_list=['P','Pn','Pg','p']): # travel time of first P arrivals with AK135 model
model = TauPyModel(model="ak135")
if self.evdp>0 and self.evdp<1.4:
self.evdp = 0
arrivals = model.get_travel_times(self.evdp, self.gcarc, phase_list=phase_list)
arr = arrivals[0]
# self.phase = arr.name
self.tak135 = arr.time
def ttak135sf(self, phase_list=['S','Sn','Sg','s']): # travel time of first S arrivals with AK135 model
model = TauPyModel(model="ak135")
if self.evdp>0 and self.evdp<1.4:
self.evdp = 0
arrivals = model.get_travel_times(self.evdp, self.gcarc, phase_list=phase_list)
# print len(arrivals), self.date, self.time, self.stla, self.stlo, self.evla, self.evlo
arr = arrivals[0]
# self.phase = arr.name
self.tak135 = arr.time
def ttak135pf(
self,
phase_list=['P', 'Pn', 'Pg',
'p']): # travel time of first P arrivals with AK135 model
model = TauPyModel(model="ak135")
if self.evdp > 0 and self.evdp < 1.4:
self.evdp = 0
arrivals = model.get_travel_times(self.evdp,
self.gcarc,
phase_list=phase_list)
arr = arrivals[0]
# self.phase = arr.name
self.tak135 = arr.time
def ttak135sf(
self,
phase_list=['S', 'Sn', 'Sg',
's']): # travel time of first S arrivals with AK135 model
model = TauPyModel(model="ak135")
if self.evdp > 0 and self.evdp < 1.4:
self.evdp = 0
arrivals = model.get_travel_times(self.evdp,
self.gcarc,
phase_list=phase_list)
# print len(arrivals), self.date, self.time, self.stla, self.stlo, self.evla, self.evlo
arr = arrivals[0]
# self.phase = arr.name
self.tak135 = arr.time
print("Warning no data found in ", invfile, " for station",
ref_sta)
continue
eve_lat = eve_coord[0]
eve_lon = eve_coord[1]
eve_dep = eve_coord[2]
# print "sta_lon, sta_lat, eve_lon, eve_lat==", sta_lon,
# sta_lat, eve_lon, eve_lat
epi_dist, az, baz = gps2dist_azimuth(eve_lat, eve_lon, slat, slon)
epi_dist = epi_dist / 1000
deg = kilometer2degrees(epi_dist)
model = TauPyModel(model=taup_model)
arrivals = model.get_travel_times(
source_depth_in_km=eve_dep,
distance_in_degree=deg,
phase_list=["s", "S"],
)
print(arrivals)
# arrP = arrivals[0]
arrS = arrivals[0]
# correction to be used to evaluate the origin time of event
origin_time_shift = arrS.time - half_time
print("OT...= ", origin_time_shift)
for ii, tr in enumerate(st):
Tshift[ii] = Tshift[ii] - origin_time_shift
ssta = tr.stats.station
schan = tr.stats.channel
snet = tr.stats.network
s1 = (str(snet) + "." + str(ssta) + "." + str(schan) + " " +
try:
#calculate GCARC (for some reason obspy does not read gcarc header)
gcarc1 = haversineD(tr1.stats.sac.evla, tr1.stats.sac.evlo,
tr1.stats.sac.stla, tr1.stats.sac.stlo)
except:
print "ERROR: Can\'t calculate event distance, quitting", tr1
#unlikely that any other station will have a P arrival, so break
sys.exit(1)
if args.verbose:
print "delta=", gcarc1, "depth=", tr1.stats.sac.evdp
#t1 = np.arange(0, tr1.stats.npts / tr1.stats.sampling_rate, tr1.stats.delta)
try:
#tt1=getTravelTimes(delta=gcarc1, depth=tr1.stats.sac.evdp, model='ak135',phase_list=['P'])[0]['time']
ar1 = taupmodel_1.get_travel_times(tr1.stats.sac.evdp, gcarc1,
['P'])[0]
in_angle1_rad = np.deg2rad(ar1.incident_angle)
#extra travel time due to elevation
if args.station_db:
try:
stel1 = stdict[tr1.stats.station]['stel'] / 1000.
except:
print "WARNING: No elevation for station", tr2.stats.station, "in database file", args.station_db, ", skipping"
continue
else:
try:
stel1 = tr1.stats.sac.stel / 1000.
except:
print "WARNING: No elevation for station", tr1.stats.station, "in SAC file", bhz1file, ", skipping"
continue
