def change_band(self):
"""
Combo to change band.
Returns
-------
None.
"""
i = self.combobox1.currentText()
mode = self.combomode.currentText()
n = self.hs_profnum.value()
edi_file = self.data[i].fn
save_path = edi_file[:-4] + '-' + mode
if not os.path.exists(save_path):
return
if os.path.exists(save_path):
r = glob.glob(save_path + r'\*.resp')
if len(r) == 0:
return
iterfn = os.path.join(save_path, mode + '_' + f'{n:03}' + '.iter')
respfn = os.path.join(save_path, mode + '_' + f'{n:03}' + '.resp')
model_fn = os.path.join(save_path, 'Model1D')
data_fn = os.path.join(save_path, 'Occam1d_DataFile_' + mode + '.dat')
oc1m = occam1d.Model(model_fn=model_fn)
oc1m.read_iter_file(iterfn)
oc1d = occam1d.Data(data_fn=data_fn)
oc1d.read_resp_file(respfn)
rough = float(oc1m.itdict['Roughness Value'])
rms = float(oc1m.itdict['Misfit Value'])
rough = f'{rough:.1f}'
rms = f'{rms:.1f}'
title = 'RMS: ' + rms + ' Roughness: ' + rough
depths = []
res = []
for i, val in enumerate(oc1m.model_res[:, 1]):
if i == 0:
continue
if i > 1:
depths.append(-oc1m.model_depth[i - 1])
res.append(val)
depths.append(-oc1m.model_depth[i])
res.append(val)
x = 1 / oc1d.freq
rdata = [oc1d.data['resxy'][0], oc1d.data['resxy'][2]]
pdata = [oc1d.data['phasexy'][0], oc1d.data['phasexy'][2]]
self.mmc.update_line(x, pdata, rdata, depths, res, title)
def test_fun():
"""
test function
:return: T/F
"""
# AK's working directory
# idir = r'C:\Git\mtpy\examples\model_files\Occam1d'
# savepath = r'C:\Git\mtpy\examples\plots\Occam1d'
#FZ's workdir
idir = os.path.join(SAMPLE_DIR, 'Occam1d')
savepath = TEMP_OUT_DIR
# model and data file names
modelfn = op.join(idir, 'Model1D')
datafn = op.join(idir, 'Occam1d_DataFile_DET.dat')
# list of all the 'smooth' files, exclude the log file
fn_list = np.array([ff for ff in os.listdir(idir)])
#go to model results directory and find the latest iteration file
#iterfile = 'ITER_135.iter'
#respfile = 'ITER_135.resp'
iterfile = 'ITER_97.iter'
respfile = 'ITER_97.resp'
# get maximum iteration
iterfn = op.join(idir, iterfile)
respfn = op.join(idir, respfile)
# read in the model, don't need these lines to view the output but useful if you want to analyse the data
oc1m = mtoc1d.Model(model_fn=modelfn)
oc1m.read_iter_file(iterfn)
# read in the data file
oc1d = mtoc1d.Data(data_fn=datafn)
oc1d.read_data_file(data_fn=datafn)
oc1d.read_resp_file(resp_fn=respfn, data_fn=datafn)
# plot the model output
pr = mtoc1d.Plot1DResponse(
data_te_fn=datafn,
data_tm_fn=datafn,
model_fn=modelfn,
resp_te_fn=respfn,
iter_te_fn=iterfn,
resp_tm_fn=respfn,
iter_tm_fn=iterfn,
depth_limits=(0, 1),
)
pr.axm.set_xlim(1e-1, 1e3)
pr.axr.set_ylim(1, 100)
p2file = op.join(savepath, 'occam1dplot.png')
pr.save_figure(p2file)
assert (os.path.exists(p2file))
def test_view_outputs(self):
# FZ's workdir
savepath = self._temp_dir
# model and data file names
modelfn = os.path.join(self._expected_output_dir, 'Model1D')
datafn = os.path.join(self._expected_output_dir,
'Occam1d_DataFile_DET.dat')
# list of all the 'smooth' files, exclude the log file
fn_list = np.array(
[ff for ff in os.listdir(self._expected_output_dir)])
# go to model results directory and find the latest iteration file
# iterfile = 'ITER_135.iter'
# respfile = 'ITER_135.resp'
iterfile = 'ITER_97.iter'
respfile = 'ITER_97.resp'
# get maximum iteration
iterfn = os.path.join(self._expected_output_dir, iterfile)
respfn = os.path.join(self._expected_output_dir, respfile)
# read in the model, don't need these lines to view the output but useful if you want to analyse the data
oc1m = mtoc1d.Model(model_fn=modelfn)
oc1m.read_iter_file(iterfn)
# read in the data file
oc1d = mtoc1d.Data(data_fn=datafn)
oc1d.read_data_file(data_fn=datafn)
oc1d.read_resp_file(resp_fn=respfn, data_fn=datafn)
# plot the model output
pr = mtoc1d.Plot1DResponse(data_te_fn=datafn,
data_tm_fn=datafn,
model_fn=modelfn,
resp_te_fn=respfn,
iter_te_fn=iterfn,
depth_limits=(0, 1))
pr.axm.set_xlim(1e-1, 1e3)
pr.axr.set_ylim(1, 100)
p2file = os.path.join(savepath, 'occam1dplot.png')
pr.save_figure(p2file, close_plot='n')
tests.imaging.plt_wait(1)
tests.imaging.plt_close()
assert (os.path.exists(p2file))
def _main_func(self, path2edifile):
"""
test function should be successful with a default path2edifile
:return:
"""
edifile_name = os.path.basename(path2edifile)
tmpdir = edifile_name[:-4] + "_dir" # remove the trailing .edi
tmp_save_path = os.path.join(self._output_dir, tmpdir)
ufun.clean_recreate(tmp_save_path)
# create data file
ocd = mtoc1d.Data() # create an object and assign values to arguments
ocd.write_data_file(
edi_file=path2edifile,
mode='det',
# mode, can be te, tm, det (for res/phase) or tez, tmz, zdet for real/imag impedance tensor values
save_path=tmp_save_path,
res_errorfloor=5, # percent error floor
phase_errorfloor=1, # error floor in degrees
z_errorfloor=2.5,
remove_outofquadrant=True)
# create model file
ocm = mtoc1d.Model(
n_layers=100, # number of layers
target_depth=10000, # target depth in metres, before padding
z1_layer=10 # first layer thickness in metres
)
ocm.write_model_file(save_path=tmp_save_path)
# create startup file
ocs = mtoc1d.Startup(
data_fn=ocd.
data_fn, # basename of data file *default* is Occam1DDataFile
model_fn=ocm.
model_fn, # basename for model file *default* is Model1D
max_iter=200, # maximum number of iterations to run
target_rms=0.0)
ocs.write_startup_file()
return tmp_save_path
import os.path as op
import os
import mtpy.modeling.occam1d as mtoc1d # Wrapper class to interact with Occam1D
# directory to save created input files
savepath = r'/home/workshop/MT/Occam1d/07E1_input_output'
if not op.exists(savepath):
os.mkdir(savepath)
# edi path and file name
edipath = r'/home/workshop/MT/Occam1d/edi'
edifilename = '07E1_AMT.edi'
# create data file
ocd = mtoc1d.Data() #create an object and assign values to arguments
ocd.write_data_file(
edi_file=op.join(edipath, edifilename),
mode='det', # det mode
save_path=savepath,
res_errorfloor=5, # error floor in percentage
phase_errorfloor=1, # error floor in degrees
remove_outofquadrant=True)
# create model file
ocm = mtoc1d.Model(
n_layers=100, # number of layers
target_depth=4000, # target depth in metres, before padding
bottom_layer=10000,
z1_layer=10 # first layer thickness in metres
)
)
pr.save_figure(
os.path.join(save_dir,
"{0}_1d_resp.png".format(mt_obj.station)),
fig_dpi=900,
)
else:
mt_obj.Z.compute_resistivity_phase()
rho = mt_obj.Z.resistivity
rho_err = mt_obj.Z.resistivity_err
phi = mt_obj.Z.phase
phi_err = mt_obj.Z.phase_err
rp_tup = (mt_obj.Z.freq, rho, rho_err, phi, phi_err)
# --> write occam1d data file
ocd = occam1d.Data()
ocd.save_path = os.path.join(save_dir, mt_obj.station)
ocd.write_data_file(rp_tuple=rp_tup,
mode="det",
res_err=10,
phase_err=2.5)
data_tm_fn = ocd.data_fn
# --> write occam1d model file
ocm = occam1d.Model()
ocm.save_path = ocd.save_path
ocm.write_model_file(model_depth=mdm.grid_z[1:])
# --> write occam1d startup file
ocs = occam1d.Startup()
ocs.data_fn = data_tm_fn
iterNo = int(iterf.split('_')[-1].split('.')[0])
iterDict[iterNo] = iterf
iterfile = iterDict[np.amax(iterDict.keys())]
respfile = respDict[np.amax(respDict.keys())]
# get iteration file to plot
iterfn = op.join(idir, iterfile)
respfn = op.join(idir, respfile)
# read in the model, don't need these lines to view the output but useful if you want to analyse the data
oc1m = mtoc1d.Model(model_fn=modelfn)
oc1m.read_iter_file(iterfn)
# read in the data file
oc1d = mtoc1d.Data(data_fn=datafn)
oc1d.read_data_file(data_fn=datafn)
oc1d.read_resp_file(resp_fn=respfn, data_fn=datafn)
# plot the model output
pr = mtoc1d.Plot1DResponse(
data_te_fn=datafn,
data_tm_fn=datafn,
model_fn=modelfn,
resp_te_fn=respfn,
iter_te_fn=iterfn,
resp_tm_fn=respfn,
iter_tm_fn=iterfn,
fig_size=(10, 5),
depth_units='m',
override_legend_subscript='DET',
def apply(self):
"""
Apply.
Returns
-------
None.
"""
parm = {}
parm['tdepth'] = tonumber(self.targetdepth.text())
parm['nlayers'] = tonumber(self.nlayers.text())
parm['blayer'] = tonumber(self.bottomlayer.text())
parm['alayer'] = tonumber(self.airlayer.text())
parm['z1layer'] = tonumber(self.z1layer.text())
parm['miter'] = tonumber(self.maxiter.text())
parm['trms'] = tonumber(self.targetrms.text())
parm['rerr'] = tonumber(self.errres.text(), 'data')
parm['perr'] = tonumber(self.errphase.text(), 'data')
parm['perrflr'] = tonumber(self.errfloorphase.text())
parm['rerrflr'] = tonumber(self.errfloorres.text())
if -999 in parm.values():
return
mode = self.combomode.currentText()
i = self.combobox1.currentText()
edi_file = self.data[i].fn
save_path = edi_file[:-4] + '-' + mode
if os.path.exists(save_path):
r = glob.glob(save_path + r'\*')
for i in r:
os.remove(i)
else:
os.makedirs(save_path)
d1 = occam1d.Data()
d1.write_data_file(edi_file=edi_file,
mode=mode,
save_path=save_path,
res_err=parm['rerr'],
phase_err=parm['perr'],
res_errorfloor=parm['rerrflr'],
phase_errorfloor=parm['perrflr'],
remove_outofquadrant=True)
m1 = occam1d.Model(target_depth=parm['tdepth'],
n_layers=parm['nlayers'],
bottom_layer=parm['blayer'],
z1_layer=parm['z1layer'],
air_layer_height=parm['alayer'])
m1.write_model_file(save_path=d1.save_path)
s1 = occam1d.Startup(data_fn=d1.data_fn,
model_fn=m1.model_fn,
max_iter=parm['miter'],
target_rms=parm['trms'])
s1.write_startup_file()
self.mmc.figure.clear()
self.mmc.figure.set_facecolor('r')
self.mmc.figure.suptitle('Busy, please wait...', fontsize=14, y=0.5)
# ax = self.mmc.figure.gca()
# ax.text(0.5, 0.5, 'Busy, please wait...')
self.mmc.figure.canvas.draw()
QtWidgets.QApplication.processEvents()
occam_path = os.path.dirname(__file__)[:-2] + r'\bin\occam1d.exe'
occam1d.Run(s1.startup_fn, occam_path, mode='TE')
self.mmc.figure.set_facecolor('w')
allfiles = glob.glob(save_path + r'\*.resp')
self.hs_profnum.setMaximum(len(allfiles))
self.hs_profnum.setMinimum(1)
self.change_band()
def modelling(datadir):
""" modelling """
edi_file = os.path.join(datadir, r"synth02.edi")
save_path = os.path.join(datadir, 'TM')
allfiles = glob.glob(save_path + '\\*.*')
for i in allfiles:
os.remove(i)
try:
os.remove(save_path + '\\Model1D')
os.remove(save_path + '\\OccamStartup1D')
except:
pass
d1 = occam1d.Data()
d1.write_data_file(edi_file=edi_file,
mode='TE',
save_path=save_path,
res_err='data',
phase_err='data',
res_errorfloor=4.,
phase_errorfloor=2.,
remove_outofquadrant=True)
m1 = occam1d.Model(target_depth=40000,
n_layers=100,
bottom_layer=100000,
z1_layer=10)
m1.write_model_file(save_path=d1.save_path)
#--> make a startup file
s1 = occam1d.Startup(data_fn=d1.data_fn,
model_fn=m1.model_fn,
max_iter=200,
target_rms=1.0)
s1.write_startup_file()
#--> run occam1d from python
occam_path = r"C:\Work\Programming\pygmi\pygmi\bin\occam1d.exe"
occam1d.Run(s1.startup_fn, occam_path, mode='TM')
#--plot the L2 curve
# l2 = occam1d.PlotL2(d1.save_path, m1.model_fn,
# fig_dpi=100,
# fig_size=(2,2)
# )
#--> see that iteration 7 is the optimum model to plot
iterfn = os.path.join(save_path, 'TM_005.iter')
respfn = os.path.join(save_path, 'TM_005.resp')
p1 = occam1d.Plot1DResponse(
data_te_fn=d1.data_fn,
model_fn=m1.model_fn,
iter_te_fn=iterfn,
resp_te_fn=respfn,
# depth_limits=(0,20),
fig_dpi=100,
fig_size=(2, 2))
oc1m = occam1d.Model(model_fn=m1.model_fn)
allfiles = glob.glob(save_path + '\*.iter')
roughness = []
rms = []
for iterfn in allfiles:
oc1m.read_iter_file(iterfn)
roughness.append(float(oc1m.itdict['Roughness Value']))
rms.append(float(oc1m.itdict['Misfit Value']))
roughness.pop(0)
rms.pop(0)
plt.plot(roughness, rms)
plt.xlabel('Roughness')
plt.ylabel('RMS')
plt.show()
plt.plot(rms)
plt.xlabel('Iteration')
plt.ylabel('RMS')
plt.show()
iterfn = os.path.join(save_path, 'TM_005.iter')
respfn = os.path.join(save_path, 'TM_005.resp')
oc1m.read_iter_file(iterfn)
oc1d = occam1d.Data(data_fn=d1.data_fn)
oc1d.read_resp_file(respfn)
depths = []
res = []
for i, val in enumerate(oc1m.model_res[:, 1]):
if i == 0:
continue
if i > 1:
depths.append(-oc1m.model_depth[i - 1])
res.append(val)
depths.append(-oc1m.model_depth[i])
res.append(val)
plt.plot(res, depths)
plt.xlabel('Res')
plt.ylabel('Depth')
plt.show()
plt.plot(1 / oc1d.freq, oc1d.data['resxy'][0], 'bs')
plt.plot(1 / oc1d.freq, oc1d.data['resxy'][2], 'r')
plt.xscale('log')
plt.yscale('log')
plt.grid(True)
plt.show()
plt.plot(1 / oc1d.freq, oc1d.data['phasexy'][0], 'bs')
plt.plot(1 / oc1d.freq, oc1d.data['phasexy'][2], 'r')
plt.xscale('log')
plt.yscale('log')
plt.grid(True)
plt.show()
breakpoint()
