def transform_mni_to_subject(subject, subjects_dir, volue_fol, volume_fname='sig.mgz',
subject_contrast_file_name='sig_subject.mgz', print_only=False):
mni305_sig_file = os.path.join(volue_fol, volume_fname)
subject_sig_file = os.path.join(volue_fol, subject_contrast_file_name)
rs = utils.partial_run_script(locals(), print_only=print_only)
rs(mni305_to_subject_reg)
rs(mni305_to_subject)
subject_fol = op.join(subjects_dir, subject, 'mmvt')
utils.make_dir(subject_fol)
shutil.move(op.join(utils.get_parent_fol(), 'mn305_to_{}.dat'.format(subject)),
op.join(subject_fol, 'mn305_to_{}.dat'.format(subject)))
def post_meg_preproc(args):
inv_method, em = 'MNE', 'mean_flip'
atlas = 'darpa_atlas'
bands = dict(theta=[4, 8],
alpha=[8, 15],
beta=[15, 30],
gamma=[30, 55],
high_gamma=[65, 200])
times = (-2, 4)
subjects = args.subject
res_fol = utils.make_dir(
op.join(utils.get_parent_fol(MMVT_DIR), 'msit-ecr'))
for subject in subjects:
args.subject = subject
for task in args.tasks:
task = task.lower()
if not utils.both_hemi_files_exist(
op.join(
MMVT_DIR, subject, 'meg',
'labels_data_{}_{}_{}_{}_lh.npz'.format(
task, atlas, inv_method, em, '{hemi}'))):
print('label data can\'t be found for {} {}'.format(
subject, task))
continue
utils.make_dir(op.join(res_fol, subject))
meg.calc_labels_func(subject,
task,
atlas,
inv_method,
em,
tmin=0,
tmax=0.5,
times=times,
norm_data=False)
meg.calc_labels_mean_power_bands(subject,
task,
atlas,
inv_method,
em,
tmin=times[0],
tmax=times[1],
overwrite=True)
for fname in [
f for f in glob.glob(
op.join(MMVT_DIR, subject, 'labels', 'labels_data', '*'))
if op.isfile(f)
]:
shutil.copyfile(
fname, op.join(res_fol, subject,
utils.namebase_with_ext(fname)))
def combine_two_figures_with_cb(fname1,
fname2,
data_max,
data_min,
cb_cm,
cb_ticks=[],
crop_figures=True,
background='black',
cb_ticks_font_size=10):
if crop_figures:
crop_image(fname1, fname1, dx=150, dy=0, dw=50, dh=70)
crop_image(fname2, fname2, dx=150 + 50, dy=0, dw=0, dh=70)
new_image_fname = op.join(
utils.get_parent_fol(fname1),
'{}_{}.{}'.format(utils.namebase(fname1), utils.namebase(fname2),
utils.file_type(fname1)))
combine_two_images(fname1,
fname2,
new_image_fname,
facecolor=background,
dpi=400,
w_fac=1,
h_fac=1)
if len(cb_ticks) == 0:
cb_ticks = [data_min, data_max]
fol = utils.get_parent_fol(fname1)
plot_color_bar(data_max,
data_min,
cb_cm,
do_save=True,
cb_ticks=cb_ticks,
fol=fol,
background_color=background,
cb_ticks_font_size=cb_ticks_font_size)
cb_fname = op.join(fol, '{}_colorbar.jpg'.format(cb_cm))
cb_img = Image.open(cb_fname)
return combine_brain_with_color_bar(new_image_fname,
cb_img,
overwrite=True)
def call_script(script_fname,
args,
log_name='',
blend_fname=None,
call_args=None):
if args.blender_fol == '':
args.blender_fol = get_blender_dir()
if not op.isdir(args.blender_fol):
print('No Blender folder!')
return
logs_fol = utils.make_dir(
op.join(utils.get_parent_fol(__file__, 4), 'logs'))
if log_name == '':
log_name = utils.namebase(script_fname)
if len(args.subjects) == 0:
args.subjects = [args.subject]
for subject in args.subjects:
args.subject = subject
args.subjects = ''
print('*********** {} ***********'.format(subject))
if blend_fname is None:
blend_fname = get_subject_fname(args)
else:
blend_fname = op.join(get_mmvt_dir(), blend_fname)
if call_args is None:
call_args = create_call_args(args)
log_fname = op.join(logs_fol, '{}.log'.format(log_name))
cmd = '{blender_exe} {blend_fname} --background --python "{script_fname}" {call_args}'.format( # > {log_fname}
blender_exe=op.join(args.blender_fol, 'blender'),
blend_fname=blend_fname,
script_fname=script_fname,
call_args=call_args,
log_fname=log_fname)
mmvt_addon_fol = utils.get_parent_fol(__file__, 2)
os.chdir(mmvt_addon_fol)
print(cmd)
utils.run_script(cmd)
print('Finish! For more details look in {}'.format(log_fname))
def project_on_surface(subject,
volume_file,
surf_output_fname,
target_subject=None,
overwrite_surf_data=False,
modality='fmri',
subjects_dir='',
mmvt_dir='',
**kargs):
if target_subject is None:
target_subject = subject
if subjects_dir == '':
subjects_dir = utils.get_link_dir(utils.get_links_dir(), 'subjects',
'SUBJECTS_DIR')
if mmvt_dir == '':
mmvt_dir = utils.get_link_dir(utils.get_links_dir(), 'mmvt')
utils.make_dir(op.join(mmvt_dir, subject, 'fmri'))
os.environ['SUBJECTS_DIR'] = subjects_dir
os.environ['SUBJECT'] = subject
for hemi in utils.HEMIS:
if not op.isfile(
surf_output_fname.format(hemi=hemi)) or overwrite_surf_data:
print('project {} to {}'.format(volume_file, hemi))
if modality != 'pet':
surf_data = project_volume_data(
volume_file,
hemi,
subject_id=subject,
surf="pial",
smooth_fwhm=3,
target_subject=target_subject,
output_fname=surf_output_fname.format(hemi=hemi))
else:
surf_data = project_pet_volume_data(
subject, volume_file, hemi,
surf_output_fname.format(hemi=hemi))
nans = np.sum(np.isnan(surf_data))
if nans > 0:
print('there are {} nans in {} surf data!'.format(nans, hemi))
surf_data = np.squeeze(
nib.load(surf_output_fname.format(hemi=hemi)).get_data())
output_fname = op.join(
mmvt_dir, subject, modality,
'{}_{}'.format(modality,
op.basename(surf_output_fname.format(hemi=hemi))))
npy_output_fname = op.splitext(output_fname)[0]
if not op.isfile(
'{}.npy'.format(npy_output_fname)) or overwrite_surf_data:
print('Saving surf data in {}.npy'.format(npy_output_fname))
utils.make_dir(utils.get_parent_fol(npy_output_fname))
np.save(npy_output_fname, surf_data)
def transform_mni_to_subject(subject,
subjects_dir,
volue_fol,
volume_fname='sig.mgz',
subject_contrast_file_name='sig_subject.mgz',
print_only=False):
mni305_sig_file = os.path.join(volue_fol, volume_fname)
subject_sig_file = os.path.join(volue_fol, subject_contrast_file_name)
rs = utils.partial_run_script(locals(), print_only=print_only)
rs(mni305_to_subject_reg)
rs(mni305_to_subject)
subject_fol = op.join(subjects_dir, subject, 'mmvt')
utils.make_dir(subject_fol)
shutil.move(
op.join(utils.get_parent_fol(), 'mn305_to_{}.dat'.format(subject)),
op.join(subject_fol, 'mn305_to_{}.dat'.format(subject)))
def calc_linda_surf(subject, atlas):
# Check for Linda's output fname
if not utils.both_hemi_files_exist(op.join(fmri.MMVT_DIR, subject, 'fmri', 'fmri_linda_{}.npy'.format('{hemi}'))) \
and not op.isfile(op.join(fmri.MMVT_DIR, subject, 'fmri', 'linda_minmax.pkl')):
# Find Linda's files
linda_volume_fnames = glob.glob(
op.join(linda_fol.format(subject=subject),
linda_vol_template.format(subject=subject)))
linda_volume_folder = utils.get_parent_fol(linda_volume_fnames[0])
# project linda files on the surface
args = fmri.read_cmd_args(
dict(subject=subject,
function='project_volume_to_surface',
remote_fmri_dir=linda_volume_folder,
fmri_file_template=linda_vol_template.format(subject=subject),
overwrite_surf_data=True))
pu.run_on_subjects(args, fmri.main)
# rename Linda's files
linda_fnames = glob.glob(
op.join(
fmri.MMVT_DIR, subject, 'fmri',
'fmri_{}'.format(linda_template_npy.format(subject=subject))))
for fname in linda_fnames:
hemi = lu.get_label_hemi(utils.namebase(fname))
target_file = op.join(fmri.MMVT_DIR, subject, 'fmri',
'fmri_linda_{}.npy'.format(hemi))
if not op.isfile(target_file):
os.rename(fname, target_file)
# rename minmax file
linda_minmax_name = '{}.pkl'.format(
utils.namebase(
glob.glob(
op.join(
fmri.MMVT_DIR, subject, 'fmri', '{}_minmax.pkl'.format(
utils.namebase(
linda_vol_template.format(
subject=subject)))))[0]))
os.rename(op.join(fmri.MMVT_DIR, subject, 'fmri', linda_minmax_name),
op.join(fmri.MMVT_DIR, subject, 'fmri', 'linda_minmax.pkl'))
# delete mgz files
mgz_files = glob.glob(
op.join(
fmri.MMVT_DIR, subject, 'fmri', 'fmri_{}_?h.mgz'.format(
utils.namebase(
linda_vol_template.format(subject=subject)))))
for mgz_file in mgz_files:
os.remove(mgz_file)
def fix_amplitude_fnames(subject, bands):
stcs_files = glob.glob(op.join(MMVT_DIR, subject, 'meg', '{}-epilepsy-*-zvals-?h.stc'.format(subject))) + \
glob.glob(op.join(MMVT_DIR, subject, 'eeg', '{}-epilepsy-*-zvals-?h.stc'.format(subject)))
for stc_fname in stcs_files:
stc_name = utils.namebase(
stc_fname)[len('{}-epilepsy-'.format(subject)):-len('-zvals-lh')]
if stc_name.endswith('amplitude'):
continue
if not any([stc_name.endswith(band) for band in bands]):
stc_name += '_amplitude'
stc_end = '-zvals-lh.stc' if stc_fname.endswith(
'-zvals-lh.stc') else '-zvals-rh.stc'
new_stc_fname = op.join(
utils.get_parent_fol(stc_fname),
'{}-epilepsy-{}{}'.format(subject, stc_name, stc_end))
print('{} -> {}'.format(stc_fname, new_stc_fname))
utils.rename_files(stc_fname, new_stc_fname)
def main(html_template_fname, scan_fol, patient_name, task_name, mrn, scan_date, img_prefix=None,
report_name_suffix='', output_fname=''):
if utils.get_parent_fol(html_template_fname) != scan_fol:
shutil.copy(html_template_fname, scan_fol)
if output_fname == '':
output_fname = op.join(scan_fol, '{}{}.pdf'.format(mrn, '_{}'.format(report_name_suffix) \
if report_name_suffix != '' else ''))
new_html_fname = utils.change_fname_extension(output_fname, 'html')
if img_prefix == 'auto':
img_prefix = utils.find_common_start([utils.namebase(f) for f in glob.glob(op.join(scan_fol, '*.png'))])
img_prefix = img_prefix[:-1] if img_prefix[-1] == '_' else img_prefix
img_prefix = img_prefix[:-2] if img_prefix[-2:] == '_l' else img_prefix
html = read_html(html_template_fname)
html = replace_fields(html, patient_name, task_name, mrn, scan_date, img_prefix)
create_new_html(html, new_html_fname)
create_pdf(new_html_fname, output_fname)
os.remove(op.join(scan_fol, utils.namebase_with_ext(html_template_fname)))
def prepare_files(args):
# todo: should look in the dict for files locations
ret = {}
for subject in args.subject:
ret[subject] = True
for task in args.tasks:
fol = utils.make_dir(op.join(MEG_DIR, task, subject))
local_epo_fname = op.join(
fol, '{}_{}_Onset-epo.fif'.format(subject, task))
local_raw_fname = op.join(fol,
'{}_{}-raw.fif'.format(subject, task))
if not args.overwrite and (op.islink(local_epo_fname) or op.isfile(local_epo_fname)) and \
(op.islink(local_raw_fname) or op.isfile(local_raw_fname)):
continue
if op.islink(local_epo_fname) or op.isfile(local_epo_fname):
os.remove(local_epo_fname)
remote_epo_fname = op.join(
args.meg_dir, subject,
'{}_{}_meg_Onset-epo.fif'.format(subject, task))
if not op.isfile(remote_epo_fname):
print('{} does not exist!'.format(remote_epo_fname))
ret[subject] = False
continue
print('Creating a local link to {}'.format(remote_epo_fname))
utils.make_link(remote_epo_fname, local_epo_fname)
if op.islink(local_raw_fname) or op.isfile(local_raw_fname):
os.remove(local_raw_fname)
remote_raw_fname = op.join(
utils.get_parent_fol(args.meg_dir), 'raw_preprocessed',
subject, '{}_{}_meg_ica-raw.fif'.format(subject, task))
if not op.isfile(remote_epo_fname):
print('{} does not exist!'.format(remote_raw_fname))
ret[subject] = False
continue
print('Creating a local link to {}'.format(remote_raw_fname))
utils.make_link(remote_raw_fname, local_raw_fname)
ret[subject] = ret[subject] and (op.isfile(local_epo_fname) or op.islink(local_epo_fname)) and \
(op.isfile(local_raw_fname) or op.islink(local_raw_fname))
print('Good subjects:')
print([s for s, r in ret.items() if r])
print('Bad subjects:')
print([s for s, r in ret.items() if not r])
def combine_brain_with_color_bar(image_fname, cb_img=None, w_offset=10, overwrite=False, cb_max=None, cb_min=None,
cb_cm=None, background='black', cb_ticks=[], cb_ticks_font_size=10):
if cb_img is None:
if len(cb_ticks) == 0:
cb_ticks = [cb_min, cb_max]
fol = utils.get_parent_fol(image_fname)
cb_fname = op.join(fol, '{}_colorbar.jpg'.format(cb_cm))
plot_color_bar(cb_max, cb_min, cb_cm, do_save=True, cb_ticks=cb_ticks, fol=fol, background_color=background,
cb_ticks_font_size=cb_ticks_font_size)
cb_img = Image.open(cb_fname)
background = Image.open(image_fname)
bg_w, bg_h = background.size
cb_w, cb_h = cb_img.size
offset = (int((bg_w - cb_w)) - w_offset, int((bg_h - cb_h) / 2))
background.paste(cb_img, offset)
if not overwrite:
image_fol = utils.get_fname_folder(image_fname)
image_fname = op.join(image_fol, '{}_cb.{}'.format(image_fname[:-4], image_fname[-3:]))
background.save(image_fname)
return image_fname
def compute_noise_cov(subject, hcp_path, noise_cov_fname=''):
if noise_cov_fname == '':
noise_cov_fname = meg.NOISE_COV.format(cond='empty_room')
if op.isfile(noise_cov_fname):
noise_cov = mne.read_cov(noise_cov_fname)
return noise_cov
utils.make_dir(utils.get_parent_fol(noise_cov_fname))
raw_noise = hcp.read_raw(subject=subject, hcp_path=hcp_path, data_type='noise_empty_room')
raw_noise.load_data()
# apply ref channel correction and drop ref channels
preproc.apply_ref_correction(raw_noise)
raw_noise.filter(0.50, None, method='iir',
iir_params=dict(order=4, ftype='butter'), n_jobs=1)
raw_noise.filter(None, 60, method='iir',
iir_params=dict(order=4, ftype='butter'), n_jobs=1)
##############################################################################
# Note that using the empty room noise covariance will inflate the SNR of the
# evkoked and renders comparisons to `baseline` rather uninformative.
noise_cov = mne.compute_raw_covariance(raw_noise, method='empirical')
noise_cov.save(noise_cov_fname)
return noise_cov
def project_and_calc_clusters(args):
if not op.isdir(args.root_fol):
print('You should first set args.root_fol!')
return False
img_files = [f for f in glob.glob(op.join(args.root_fol, '*.img')) if op.isfile(f)]
for img_fname in img_files:
mgz_fname = fu.mri_convert_to(img_fname, 'mgz', overwrite=False)
if ' ' in utils.namebase(mgz_fname):
mgz_new_fname = op.join(
utils.get_parent_fol(mgz_fname),
utils.namebase_with_ext(mgz_fname).replace(' ', '_').replace(',', '').lower())
os.rename(mgz_fname, mgz_new_fname)
nii_files = [f for f in glob.glob(op.join(args.root_fol, '*'))
if op.isfile(f) and utils.file_type(f) in ('nii', 'nii.gz', 'mgz')]
for fname in nii_files:
fmri_args = fmri.read_cmd_args(dict(
subject=args.subject,
function='project_volume_to_surface,find_clusters',
fmri_file_template=fname,
threshold=args.cluster_threshold
))
pu.run_on_subjects(fmri_args, fmri.main)
def trans_tal_coords(roi,
file_name,
subjects_dir,
template='colin27',
overwrite=False):
subjects = {}
output_fol = utils.make_dir(op.join(MMVT_DIR, template, 'rois_peaks'))
csv_fname = op.join(output_fol, '{}.csv'.format(roi))
pkl_fname = op.join(output_fol, '{}.pkl'.format(roi))
if op.isfile(pkl_fname) and op.isfile(csv_fname) and not overwrite:
print('Data already exist for {}'.format(roi))
return
driver = tu.yale_get_driver()
files = list(utils.find_recursive(subjects_dir, file_name))
for fname in tqdm(files):
lines = list(utils.csv_file_reader(fname, delimiter=' '))
subject = utils.namebase(utils.get_parent_fol(fname, 3))
subjects[subject] = {}
if len(lines) == 0:
print()
subjects[subject]['error'] = '{} is empty!'.format(fname)
continue
elif len(lines) > 1:
print('More than one line in {}!'.format(fname))
subjects[subject] = '>1'
continue
tal = [int(float(v)) for v in lines[0] if utils.is_float(v)]
subjects[subject]['tal'] = tal
subjects[subject]['mni'] = tu.yale_tal2mni(tal, driver)
del driver
print(subjects)
with open(csv_fname, 'w') as csv_file:
csv_writer = csv.writer(csv_file, delimiter=',')
for subject, subject_data in subjects.items():
if 'mni' in subject_data:
csv_writer.writerow(subjects[subject]['mni'])
utils.save(subjects, pkl_fname)
def remove_large_negative_values_from_ct(ct_fname,
new_ct_fname='',
threshold=-200,
overwrite=False):
'''
Opens the CT, checks for values less than threshold. Sets all values less than
threshold to threshold instead. This is helpful for registration as extremely
large negative values present in the CT but not in the MR skew the mutual
information algorithm.
Parameters
----------
ct_fname : Str
The filename containing the CT scan
new_ct_fname: Str
The output fname
'''
if not op.isfile(ct_fname):
print(f'The CT could not be found in {ct_fname}!')
return ''
if new_ct_fname == '':
new_ct_fname = op.join(utils.get_parent_fol(ct_fname),
'ct_no_large_negative_values.mgz')
if op.isfile(new_ct_fname):
if overwrite:
os.remove(new_ct_fname)
else:
return new_ct_fname
h = nib.load(ct_fname)
ct_data = h.get_data()
ct_data[ct_data < threshold] = threshold
ct_new = nib.Nifti1Image(ct_data,
header=h.get_header(),
affine=h.get_affine())
nib.save(ct_new, new_ct_fname)
return new_ct_fname
def ani_frame(time_range,
xticks,
images,
dpi,
fps,
video_fname,
cb_data_type,
data_to_show_in_graph,
fol,
fol2,
cb_title='',
cb_min_max_eq=True,
cb_norm_percs=None,
color_map='jet',
cb2_data_type='',
cb2_title='',
cb2_min_max_eq=True,
color_map2='jet',
bitrate=5000,
images2=(),
ylim=(),
ylabels=(),
xticklabels=(),
xlabel='Time (ms)',
show_first_pic=False,
show_animation=False,
overwrite=True):
def two_brains_two_graphs():
if cb2_data_type == '':
brain_ax = plt.subplot(gs[:-g2, :g3])
else:
brain_ax = plt.subplot(gs[:-g2, 1:g3 + 1])
brain_ax.set_aspect('equal')
brain_ax.get_xaxis().set_visible(False)
brain_ax.get_yaxis().set_visible(False)
image = mpimg.imread(images[0])
im = brain_ax.imshow(
image, animated=True) #, cmap='gray',interpolation='nearest')
if cb2_data_type == '':
brain_ax2 = plt.subplot(gs[:-g2, g3:-1])
else:
brain_ax2 = plt.subplot(gs[:-g2, g3 + 1:-1])
brain_ax2.set_aspect('equal')
brain_ax2.get_xaxis().set_visible(False)
brain_ax2.get_yaxis().set_visible(False)
image2 = mpimg.imread(images2[0])
im2 = brain_ax2.imshow(
image2, animated=True) #, cmap='gray',interpolation='nearest')
graph1_ax = plt.subplot(gs[-g2:, :])
graph2_ax = graph1_ax.twinx()
if cb_data_type != '':
ax_cb = plt.subplot(gs[:-g2, -1])
else:
ax_cb = None
if cb2_data_type != '':
ax_cb2 = plt.subplot(gs[:-g2, -1])
ax_cb = plt.subplot(gs[:-g2, 0])
else:
ax_cb2 = None
plt.tight_layout()
resize_and_move_ax(brain_ax, dx=0.04)
resize_and_move_ax(brain_ax2, dx=-0.00)
if cb2_data_type != '':
resize_and_move_ax(ax_cb2, ddw=0.5, ddh=0.9, dx=-0.04, dy=0.03)
resize_and_move_ax(ax_cb, ddw=0.5, ddh=0.9, dx=0.03, dy=0.03)
resize_and_move_ax(brain_ax, dx=-0.03)
resize_and_move_ax(brain_ax2, dx=-0.04)
elif cb_data_type != '':
resize_and_move_ax(ax_cb, ddw=0.5, ddh=0.8, dx=-0.01, dy=0.06)
for graph_ax in [graph1_ax, graph2_ax]:
resize_and_move_ax(graph_ax, dx=0.04, dy=0.03, ddw=0.89)
# if cb2_data_type != '':
# resize_and_move_ax(graph_ax, ddh=1.2)
return ax_cb, im, im2, graph1_ax, graph2_ax, ax_cb2
def one_brain_one_graph(gs, g2, two_graphs=False):
brain_ax = plt.subplot(gs[:-g2, :-1])
brain_ax.set_aspect('equal')
brain_ax.get_xaxis().set_visible(False)
brain_ax.get_yaxis().set_visible(False)
image = mpimg.imread(images[0])
im = brain_ax.imshow(
image, animated=True) #, cmap='gray',interpolation='nearest')
graph1_ax = plt.subplot(gs[-g2:, :])
graph2_ax = graph1_ax.twinx() if two_graphs else None
ax_cb = plt.subplot(gs[:-g2, -1])
plt.tight_layout()
# resize_and_move_ax(brain_ax, dx=0.03)
resize_and_move_ax(ax_cb, ddw=1, dx=-0.06)
resize_and_move_ax(graph1_ax, dx=0.05, dy=0.03, ddw=0.89)
if not graph2_ax is None:
resize_and_move_ax(graph2_ax, dx=0.05, dy=0.03, ddw=0.89)
return ax_cb, im, graph1_ax, graph2_ax
first_image = Image.open(images[0])
img_width, img_height = first_image.size
print('video: width {} height {} dpi {}'.format(img_width, img_height,
dpi))
img_width_fac = 2 if fol2 != '' else 1.1
w, h = img_width / dpi * img_width_fac, img_height / dpi * 3 / 2
fig = plt.figure(figsize=(w, h), dpi=dpi, facecolor='white')
fig.canvas.draw()
g = 15
g2 = int(g / 3)
g3 = int((g - 1) / 2)
gs = gridspec.GridSpec(g, g) #, height_ratios=[3, 1])
if fol2 != '':
if cb2_data_type != '':
gs = gridspec.GridSpec(g, g + 1) # , height_ratios=[3, 1])
ax_cb, im, im2, graph1_ax, graph2_ax, ax_cb2 = two_brains_two_graphs()
else:
two_graphes = len(data_to_show_in_graph) == 2
ax_cb, im, graph1_ax, graph2_ax = one_brain_one_graph(
gs, g2, two_graphes)
im2, ax_cb2 = None, None
# gs.update(left=0.05, right=0.48, wspace=0.05)
# graph_data, graph_colors, t_line, ymin, ymax = plot_graph(
# graph1_ax, data_to_show_in_graph, fol, fol2, graph2_ax, ylabels)
graph_data, graph_colors, t_line, ymin, ymax = plot_graph(
graph1_ax, data_to_show_in_graph, time_range, xticks, fol, fol2,
graph2_ax, xlabel, ylabels, xticklabels, ylim, images)
if not ax_cb2 is None and fol2 != '':
graph_data2, _ = utils.load(op.join(fol2, 'data.pkl'))
plot_color_bar(ax_cb, graph_data, cb_title, cb_data_type,
cb_min_max_eq, cb_norm_percs, color_map, 'left')
plot_color_bar(ax_cb2, graph_data2, cb2_title, cb2_data_type,
cb2_min_max_eq, cb_norm_percs, color_map2)
else:
plot_color_bar(ax_cb, graph_data, cb_title, cb_data_type,
cb_min_max_eq, cb_norm_percs, color_map)
now = time.time()
if show_first_pic:
plt.show()
def init_func():
return update_img(0)
def update_img(image_index):
# print(image_fname)
utils.time_to_go(now, image_index, len(images))
image = mpimg.imread(images[image_index])
im.set_data(image)
if im2:
image2 = mpimg.imread(images2[image_index])
im2.set_data(image2)
current_t = get_t(images, image_index, time_range)
if not current_t is None:
t_line.set_data([current_t, current_t], [ymin, ymax])
# print('Reading image {}, current t {}'.format(images[image_index], current_t))
return [im]
else:
return None
if show_animation:
ani = animation.FuncAnimation(fig,
update_img,
len(images),
init_func=init_func,
interval=1000,
blit=True,
repeat=False)
plt.show()
# Set up formatting for the movie files
# Writer = animation.writers['ffmpeg'] #FFMpegWriter #
# Writer = animation.AVConvWriter
# writer = Writer(fps=fps, bitrate=1800) #, extra_args=['-vcodec', 'libx264'])
# ani.save(op.join(fol, video_fname), writer=writer)
# writer = animation.writers['ffmpeg'](fps=fps, bitrate=bitrate)
# ani.save(op.join(fol, video_fname), writer=writer, dpi=dpi)
else:
images_fol = utils.get_parent_fol(images[0])
new_images_fol = op.join(images_fol, 'movie_images')
utils.make_dir(new_images_fol)
images_nb = utils.namebase(images_fol)
for image_index in range(len(images)):
new_image_fname = op.join(new_images_fol,
'mv_{}.png'.format(image_index))
if not op.isfile(new_image_fname) or overwrite:
img = update_img(image_index)
if not img is None:
plt.savefig(new_image_fname,
facecolor=fig.get_facecolor(),
transparent=True)
movie_fname = op.join(utils.get_parent_fol(images_fol), images_nb)
if op.isfile('{}.mp4'.format(movie_fname)) and overwrite:
utils.remove_file('{}.mp4'.format(movie_fname))
mu.combine_images(new_images_fol,
movie_fname,
frame_rate=fps,
movie_name_full_path=True)
import glob
import os.path as op
import importlib
import sys
import nibabel as nib
import numpy as np
from scipy.spatial.distance import pdist, cdist
from src.utils import utils
from src.utils import preproc_utils as pu
from src.utils import labels_utils as lu
from src.preproc import anatomy as anat
mmvt_code_fol = utils.get_mmvt_code_root()
ela_code_fol = op.join(utils.get_parent_fol(mmvt_code_fol), 'electrodes_rois')
if ela_code_fol not in sys.path:
sys.path.append(ela_code_fol)
from find_rois import find_rois
from find_rois import freesurfer_utils as fu
importlib.reload(find_rois)
SUBJECTS_DIR, MMVT_DIR, FREESURFER_HOME = pu.get_links()
WHITES = set([
'Left-Cerebral-White-Matter', 'Left-Cerebellum-White-Matter',
'Right-Cerebral-White-Matter', 'Right-Cerebellum-White-Matter'
])
mri_robust_register = 'mri_robust_register --mov {subjects_dir}/{subject_from}/mri/T1.mgz --dst {subjects_dir}/{subject_to}/mri/T1.mgz --lta {subjects_dir}/{subject_from}/mri/{lta_name}.lta --satit --mapmov {subjects_dir}/{subject_from}/mri/T1_to_{subject_to}.mgz --cost nmi'
def post_analysis(args):
import matplotlib.pyplot as plt
from collections import defaultdict
atlas = 'darpa_atlas'
res_fol = utils.make_dir(
op.join(utils.get_parent_fol(MMVT_DIR), 'msit-ecr'))
bands = dict(theta=[4, 8],
alpha=[8, 15],
beta=[15, 30],
gamma=[30, 55],
high_gamma=[65, 200])
data_dic = np.load(op.join(res_fol, 'data_dictionary.npz'))
meta_data = data_dic['noam_dict'].tolist()
# brain_overall_res_fname = op.join(res_fol, 'brain_overall_res.npz')
subjects1 = set(meta_data[0]['MSIT'].keys())
subjects2 = set(meta_data[1]['MSIT'].keys())
subjects_with_data = defaultdict(list)
mean_evo = {group_id: defaultdict(list) for group_id in range(2)}
mean_power = {group_id: {} for group_id in range(2)}
power = {group_id: {} for group_id in range(2)}
for group_id in range(2):
for task in args.tasks:
mean_power[group_id][task] = defaultdict(list)
power[group_id][task] = {band: None for band in bands.keys()}
for subject in meta_data[group_id]['ECR'].keys():
if not op.isdir(op.join(res_fol, subject)):
print('No folder data for {}'.format(subject))
continue
for task in args.tasks:
mean_fname = op.join(
res_fol, subject,
'{}_{}_mean.npz'.format(task.lower(), atlas))
if op.isfile(mean_fname):
d = utils.Bag(np.load(mean_fname))
mean_evo[group_id][task].append(d.data.mean())
for band in bands.keys():
if power[group_id][task][band] is None:
power[group_id][task][band] = defaultdict(list)
mean_power_fname = op.join(
res_fol, subject,
'{}_power_{}.npz'.format(task.lower(), band))
if op.isfile(mean_power_fname):
d = utils.Bag(np.load(mean_power_fname))
mean_power[group_id][task][band].append(d.data.mean())
for label_id, label in enumerate(d.names):
power[group_id][task][band][label].append(
d.data[label_id])
for group_id in range(2):
x = [np.array(mean_evo[group_id][task]) for task in args.tasks]
# x = [_x[_x < np.percentile(_x, 90)] for _x in x]
ttest(x[0], x[1])
for band in bands.keys():
# fig, (ax1, ax2) = plt.subplots(1, 2, sharey=True)
for group_id in range(2): #, ax in zip(range(2), [ax1, ax2]):
subjects_with_data[group_id] = np.array(
subjects_with_data[group_id])
print()
x = [
np.array(mean_power[group_id][task][band])
for task in args.tasks
]
x = [_x[_x < np.percentile(_x, 90)] for _x in x]
# ttest(x[0], x[1], title='group {} band {}'.format(group_id, band))
for label_id, label in enumerate(d.names):
x = [
np.array(power[group_id][task][band][label])
for task in args.tasks
]
x = [_x[_x < np.percentile(_x, 95)] for _x in x]
ttest(x[0],
x[1],
alpha=0.01,
title='group {} band {} label {}'.format(
group_id, band, label))
def meg_preproc_power(args):
inv_method, em, atlas = 'dSPM', 'mean_flip', 'laus125' # 'darpa_atlas'
# bands = dict(theta=[4, 8], alpha=[8, 15], beta=[15, 30], gamma=[30, 55], high_gamma=[65, 200])
times = (-2, 4)
subjects_with_error = []
good_subjects = get_good_subjects(args)
args.subject = good_subjects
prepare_files(args)
for subject in good_subjects:
args.subject = subject
empty_fnames, cors, days = get_empty_fnames(subject, args.tasks, args)
input_fol = utils.make_dir(
op.join(MEG_DIR, subject, 'labels_induced_power'))
for task in args.tasks:
# output_fname = op.join(
# MMVT_DIR, subject, 'meg', '{}_{}_{}_power_spectrum.npz'.format(task.lower(), inv_method, em))
# if op.isfile(output_fname) and args.check_file_modification_time:
# file_mod_time = utils.file_modification_time_struct(output_fname)
# if file_mod_time.tm_year >= 2018 and (file_mod_time.tm_mon == 9 and file_mod_time.tm_mday >= 21) or \
# (file_mod_time.tm_mon > 9):
# print('{} already exist!'.format(output_fname))
# continue
input_fnames = glob.glob(
op.join(
input_fol, '{}_*_{}_{}_{}_induced_power.npz'.format(
task.lower(), atlas, inv_method, em)))
if len(input_fnames) == 28:
print('{} has already all the results for {}'.format(
subject, task))
continue
remote_epo_fname = op.join(
args.meg_dir, subject,
args.epo_template.format(subject=subject, task=task))
local_epo_fname = op.join(
MEG_DIR, task, subject,
args.epo_template.format(subject=subject, task=task))
if not op.isfile(local_epo_fname) and not op.isfile(
remote_epo_fname):
print('Can\'t find {}!'.format(local_epo_fname))
continue
if not op.isfile(local_epo_fname):
utils.make_link(remote_epo_fname, local_epo_fname)
meg_args = meg.read_cmd_args(
dict(
subject=args.subject,
mri_subject=args.subject,
task=task,
inverse_method=inv_method,
extract_mode=em,
atlas=atlas,
# meg_dir=args.meg_dir,
remote_subject_dir=args.
remote_subject_dir, # Needed for finding COR
get_task_defaults=False,
fname_format='{}_{}_Onset'.format('{subject}', task),
raw_fname=op.join(MEG_DIR, task, subject,
'{}_{}-raw.fif'.format(subject, task)),
epo_fname=local_epo_fname,
empty_fname=empty_fnames[task]
if empty_fnames != '' else '',
function=
'make_forward_solution,calc_inverse_operator,calc_labels_induced_power', #,
conditions=task.lower(),
cor_fname=cors[task].format(
subject=subject) if cors != '' else '',
average_per_event=False,
data_per_task=True,
pick_ori=
'normal', # very important for calculation of the power spectrum
# fmin=4, fmax=120, bandwidth=2.0,
max_epochs_num=args.max_epochs_num,
ica_overwrite_raw=False,
normalize_data=False,
fwd_recreate_source_space=True,
t_min=times[0],
t_max=times[1],
read_events_from_file=False,
stim_channels='STI001',
use_empty_room_for_noise_cov=True,
read_only_from_annot=False,
# pick_ori='normal',
overwrite_labels_power_spectrum=args.
overwrite_labels_power_spectrum,
overwrite_evoked=args.overwrite,
overwrite_fwd=args.overwrite,
overwrite_inv=args.overwrite,
overwrite_stc=args.overwrite,
overwrite_labels_data=args.overwrite,
n_jobs=args.n_jobs))
ret = meg.call_main(meg_args)
output_fol = utils.make_dir(
op.join(MMVT_DIR, subject, 'labels', 'labels_data'))
join_res_fol = utils.make_dir(
op.join(utils.get_parent_fol(MMVT_DIR), 'msit-ecr', subject))
for res_fname in glob.glob(
op.join(
output_fol, '{}_labels_{}_{}_*_power.npz'.format(
task.lower(), inv_method, em))):
shutil.copyfile(
res_fname,
op.join(join_res_fol, utils.namebase_with_ext(res_fname)))
if not ret:
if args.throw:
raise Exception("errors!")
else:
subjects_with_error.append(subject)
good_subjects = [
s for s in good_subjects if op.isfile(
op.join(
MMVT_DIR, subject, 'meg',
'labels_data_msit_{}_{}_{}_minmax.npz'.format(
atlas, inv_method, em)))
and op.isfile(
op.join(
MMVT_DIR, subject, 'meg', 'labels_data_ecr_{}_{}_{}_minmax.npz'
.format(atlas, inv_method, em)))
]
print('Good subjects:')
print(good_subjects)
print('subjects_with_error:')
print(subjects_with_error)
def post_meg_preproc(args):
inv_method, em, atlas = 'dSPM', 'mean_flip', 'darpa_atlas'
bands = dict(theta=[4, 8],
alpha=[8, 15],
beta=[15, 30],
gamma=[30, 55],
high_gamma=[65, 200])
norm_times = (500, 2500)
do_plot = False
subjects = args.subject
res_fol = utils.make_dir(
op.join(utils.get_parent_fol(MMVT_DIR), 'msit-ecr'))
subjects_with_results = {}
labels = lu.read_labels(subjects[0], SUBJECTS_DIR, atlas)
labels_names = [l.name for l in labels]
labels_num = len(labels_names)
epochs_max_num = 50
template_brain = 'colin27'
now = time.time()
bands_power_mmvt_all = []
for subject_ind, subject in enumerate(subjects):
utils.time_to_go(now, subject_ind, len(subjects), runs_num_to_print=1)
subjects_with_results[subject] = {}
input_fol = utils.make_dir(
op.join(MEG_DIR, subject, 'labels_induced_power'))
plots_fol = utils.make_dir(op.join(input_fol, 'plots'))
args.subject = subject
bands_power_mmvt = {'rh': {}, 'lh': {}}
for task_ind, task in enumerate(args.tasks):
task = task.lower()
input_fnames = glob.glob(
op.join(
input_fol, '{}_*_{}_{}_induced_power.npz'.format(
task, inv_method, em)))
if len(input_fnames) < 1: # labels_num:
print('No enough files for {} {}!'.format(subject, task))
subjects_with_results[subject][task] = False
continue
# input_dname = ecr_caudalanteriorcingulate-lh_dSPM_mean_flip_induced_power
# if not do_plot:
# continue
bands_power = np.empty((len(bands), labels_num, epochs_max_num))
for input_fname in input_fnames:
d = utils.Bag(np.load(input_fname)) # label_name, atlas, data
# label_power = np.empty((len(bands), epochs_num, T)) (5, 50, 3501)
label_power, label_name = d.data, d.label_name
# for band_ind in range(len(bands)):
# label_power[band_ind] /= label_power[band_ind][:, norm_times[0]:norm_times[1]].mean()
label_ind = labels_names.index(label_name)
hemi = labels[label_ind].hemi
for band_ind, band in enumerate(bands.keys()):
label_power_norm = label_power[
band_ind][:, norm_times[0]:norm_times[1]].mean(
axis=1)[:epochs_max_num]
if len(label_power_norm) != epochs_max_num:
print('{} does have {} epochs!'.format(
input_fname, len(label_power_norm)))
break
bands_power[band_ind, label_ind] = label_power_norm
if band not in bands_power_mmvt[hemi]:
bands_power_mmvt[hemi][band] = np.empty(
(len(labels_names), label_power[band_ind].shape[1],
1, len(args.tasks)))
bands_power_mmvt[hemi][band][
label_ind, :, 0,
task_ind] = label_power[band_ind].mean(axis=0)
fig_fname = op.join(plots_fol,
'power_{}_{}.jpg'.format(label_name, task))
if do_plot: # not op.isfile(fig_fname) and
times = np.arange(
0,
label_power.shape[2]) if 'times' not in d else d.times
plot_label_power(label_power, times, label_name, bands,
task, fig_fname)
for band_ind, band in enumerate(bands.keys()):
power_fname = op.join(
res_fol, subject, '{}_labels_{}_{}_{}_power.npz'.format(
task.lower(), inv_method, em, band))
np.savez(power_fname,
data=np.array(bands_power[band_ind]),
names=labels_names)
subjects_with_results[subject][task] = True
if all(subjects_with_results[subject].values()):
bands_power_mmvt_all.append(bands_power_mmvt)
else:
print('{} does not have both tasks data!'.format(subject))
labels_data_template = op.join(MMVT_DIR, template_brain, 'meg',
'labels_data_power_{}_{}_{}_{}_{}.npz'
) # task, atlas, extract_method, hemi
for hemi in utils.HEMIS:
for band_ind, band in enumerate(bands.keys()):
power = np.array([x[hemi][band]
for x in bands_power_mmvt_all]).mean(axis=0)
labels_output_fname = meg.get_labels_data_fname(
labels_data_template, inv_method, band, atlas, em, hemi)
utils.make_dir(utils.get_parent_fol(labels_output_fname))
np.savez(labels_output_fname,
data=power,
names=labels_names,
conditions=args.tasks)
have_all = len([
subject for subject, results in subjects_with_results.items()
if all(results.values())
])
print('{}/{} with all files'.format(have_all, len(subjects)))
print(subjects_with_results)
def post_analysis(args):
import matplotlib.pyplot as plt
from collections import defaultdict
inv_method, em = 'dSPM', 'mean_flip'
res_fol = utils.make_dir(
op.join(utils.get_parent_fol(MMVT_DIR), 'msit-ecr'))
plot_fol = utils.make_dir(op.join(res_fol, 'plots'))
bands = dict(theta=[4, 8],
alpha=[8, 15],
beta=[15, 30],
gamma=[30, 55],
high_gamma=[65, 200])
data_dic = np.load(op.join(res_fol, 'data_dictionary.npz'))
meta_data = data_dic['noam_dict'].tolist()
# brain_overall_res_fname = op.join(res_fol, 'brain_overall_res.npz')
msit_subjects = set(meta_data[0]['MSIT'].keys())
ecr_subjects = set(meta_data[1]['ECR'].keys())
subjects_with_data = defaultdict(list)
mean_evo = {group_id: defaultdict(list) for group_id in range(2)}
mean_power_power_emotion_reactivit = {
group_id: {}
for group_id in range(2)
}
power_emotion_reactivit = {group_id: {} for group_id in range(2)}
mean_power_power_task = {}
power_task = {}
for task in args.tasks:
mean_power_power_task[task] = defaultdict(list)
power_task[task] = {band: None for band in bands.keys()}
for subject in args.subject:
if not op.isdir(op.join(res_fol, subject)):
print('No folder data for {}'.format(subject))
continue
for task in args.tasks:
# mean_fname = op.join(res_fol, subject, '{}_{}_mean.npz'.format(task.lower(), args.atlas))
# if op.isfile(mean_fname):
# d = utils.Bag(np.load(mean_fname))
# mean_evo[group_id][task].append(d.data.mean())
for band in bands.keys():
if power_task[task][band] is None:
power_task[task][band] = defaultdict(list)
power_fname = op.join(
res_fol, subject, '{}_labels_{}_{}_{}_power.npz'.format(
task.lower(), inv_method, em, band))
if op.isfile(power_fname):
d = utils.Bag(np.load(power_fname))
mean_power_power_task[task][band].append(d.data.mean())
for label_id, label in enumerate(d.names):
power_task[task][band][label].append(
d.data[label_id].mean())
# for group_id in range(2):
# for task in args.tasks:
# mean_power_power_emotion_reactivit[group_id][task] = defaultdict(list)
# power_emotion_reactivit[group_id][task] = {band: None for band in bands.keys()}
# for subject in meta_data[group_id]['ECR'].keys():
# if not op.isdir(op.join(res_fol, subject)):
# print('No folder data for {}'.format(subject))
# continue
# for task in args.tasks:
# mean_fname = op.join(res_fol, subject, '{}_{}_mean.npz'.format(task.lower(), args.atlas))
# if op.isfile(mean_fname):
# d = utils.Bag(np.load(mean_fname))
# mean_evo[group_id][task].append(d.data.mean())
# for band in bands.keys():
# if power_emotion_reactivit[group_id][task][band] is None:
# power_emotion_reactivit[group_id][task][band] = defaultdict(list)
# power_fname = op.join(
# res_fol, subject, '{}_labels_{}_{}_{}_power.npz'.format(task.lower(), inv_method, em, band))
# if op.isfile(power_fname):
# d = utils.Bag(np.load(power_fname))
# mean_power_power_emotion_reactivit[group_id][task][band].append(d.data.mean())
# for label_id, label in enumerate(d.names):
# power_emotion_reactivit[group_id][task][band][label].append(d.data[label_id].mean())
do_plot = False
percentile = 90
alpha = 0.05
for band in bands.keys():
x = [
np.array(mean_power_power_task[task][band]) for task in args.tasks
]
x[0] = x[0][x[0] < np.percentile(x[0], percentile)]
x[1] = x[1][x[1] < np.percentile(x[1], percentile)]
sig = ttest(x[0],
x[1],
title='MSIT vs ECR band {}'.format(band),
alpha=alpha,
always_print=False)
if do_plot or sig:
f, (ax1, ax2) = plt.subplots(2, 1)
ax1.hist(x[0], bins=80)
ax1.set_title('{} {}'.format(band, args.tasks[0]))
ax2.hist(x[1], bins=80)
ax2.set_title('{} {}'.format(band, args.tasks[1]))
# plt.title('{} mean power'.format(band))
plt.show()
# plt.savefig(op.join(plot_fol, '{}_group_{}.jpg'.format(band, group_id)))
for label_id, label in enumerate(d.names):
x = [
np.array(power_task[task][band][label]) for task in args.tasks
]
x[0] = x[0][x[0] < np.percentile(x[0], percentile)]
x[1] = x[1][x[1] < np.percentile(x[1], percentile)]
sig = ttest(x[0],
x[1],
alpha=alpha,
title='band {} label {}'.format(band, label))
if do_plot or sig:
f, (ax1, ax2) = plt.subplots(2, 1)
ax1.hist(x[0], bins=80)
ax2.hist(x[1], bins=80)
plt.title('{} mean power'.format(band))
plt.show()
# plt.savefig(op.join(plot_fol, '{}_group_{}.jpg'.format(band, group_id)))
continue
for group_id in range(2): #, ax in zip(range(2), [ax1, ax2]):
# subjects_with_data[group_id] = np.array(subjects_with_data[group_id])
# print()
x = [
np.array(
mean_power_power_emotion_reactivit[group_id][task][band])
for task in args.tasks
]
# x = [_x[_x < np.percentile(_x, 90)] for _x in x]
x[0] = x[0][x[0] < np.percentile(x[0], percentile)]
x[1] = x[1][x[1] < np.percentile(x[1], percentile)]
print('band {}, group {}, {} for {}, {} for {}'.format(
band, group_id, len(x[0]), args.tasks[0], len(x[1]),
args.tasks[1]))
ttest(x[0],
x[1],
title='group {} band {}'.format(group_id, band),
alpha=alpha)
if do_plot:
f, (ax1, ax2) = plt.subplots(2, 1)
ax1.hist(x[0], bins=80)
ax2.hist(x[1], bins=80)
plt.title('{} mean power'.format(band))
plt.savefig(
op.join(plot_fol, '{}_group_{}.jpg'.format(band,
group_id)))
for label_id, label in enumerate(d.names):
x = [
np.array(
power_emotion_reactivit[group_id][task][band][label])
for task in args.tasks
]
# x = [_x[_x < np.percentile(_x, 90)] for _x in x]
x[0] = x[0][x[0] < np.percentile(x[0], percentile)]
x[1] = x[1][x[1] < np.percentile(x[1], percentile)]
ttest(x[0],
x[1],
alpha=alpha,
title='group {} band {} label {}'.format(
group_id, band, label))
if do_plot:
f, (ax1, ax2) = plt.subplots(2, 1)
ax1.hist(x[0], bins=80)
ax2.hist(x[1], bins=80)
plt.title('{} {} power'.format(band, label))
plt.savefig(
op.join(
plot_fol, '{}_group_{}_label_{}.jpg'.format(
band, group_id, label)))
import numpy as np
import scipy.io as sio
from src.utils import labels_utils as lu
from src.utils import matlab_utils
from src.utils import utils
from src.utils import freesurfer_utils as fu
from src.mmvt_addon import colors_utils as cu
LINKS_DIR = utils.get_links_dir()
SUBJECTS_DIR = utils.get_link_dir(LINKS_DIR, 'subjects', 'SUBJECTS_DIR')
FREE_SURFER_HOME = utils.get_link_dir(LINKS_DIR, 'freesurfer', 'FREESURFER_HOME')
MMVT_DIR = op.join(LINKS_DIR, 'mmvt')
os.environ['SUBJECTS_DIR'] = SUBJECTS_DIR
BRAINDER_SCRIPTS_DIR = op.join(utils.get_parent_fol(utils.get_parent_fol()), 'brainder_scripts')
ASEG_TO_SRF = op.join(BRAINDER_SCRIPTS_DIR, 'aseg2srf -s "{}"') # -o {}'
HEMIS = ['rh', 'lh']
def subcortical_segmentation(subject, overwrite_subcortical_objs=False):
# Must source freesurfer. You need to have write permissions on SUBJECTS_DIR
script_fname = op.join(BRAINDER_SCRIPTS_DIR, 'aseg2srf')
if not op.isfile(script_fname):
raise Exception('The subcortical segmentation script is missing! {}'.format(script_fname))
if not utils.is_exe(script_fname):
utils.set_exe_permissions(script_fname)
# aseg2srf: For every subcortical region (8 10 11 12 13 16 17 18 26 47 49 50 51 52 53 54 58):
# 1) mri_pretess: Changes region segmentation so that the neighbors of all voxels have a face in common
# 2) mri_tessellate: Creates surface by tessellating
import scipy.io as sio
import nibabel as nib
from src.utils import labels_utils as lu
from src.utils import matlab_utils
from src.utils import utils
from src.utils import freesurfer_utils as fu
from src.mmvt_addon import colors_utils as cu
LINKS_DIR = utils.get_links_dir()
SUBJECTS_DIR = utils.get_link_dir(LINKS_DIR, 'subjects', 'SUBJECTS_DIR')
FREE_SURFER_HOME = utils.get_link_dir(LINKS_DIR, 'freesurfer', 'FREESURFER_HOME')
MMVT_DIR = op.join(LINKS_DIR, 'mmvt')
os.environ['SUBJECTS_DIR'] = SUBJECTS_DIR
BRAINDER_SCRIPTS_DIR = op.join(utils.get_parent_fol(utils.get_parent_fol()), 'brainder_scripts')
ASEG_TO_SRF = op.join(BRAINDER_SCRIPTS_DIR, 'aseg2srf -s "{}"') # -o {}'
HEMIS = ['rh', 'lh']
def subcortical_segmentation(subject, overwrite_subcortical_objs=False):
# Must source freesurfer. You need to have write permissions on SUBJECTS_DIR
if not op.isfile(op.join(SUBJECTS_DIR, subject, 'mri', 'norm.mgz')):
return False
script_fname = op.join(BRAINDER_SCRIPTS_DIR, 'aseg2srf')
if not op.isfile(script_fname):
raise Exception('The subcortical segmentation script is missing! {}'.format(script_fname))
if not utils.is_exe(script_fname):
utils.set_exe_permissions(script_fname)
# aseg2srf: For every subcortical region (8 10 11 12 13 16 17 18 26 47 49 50 51 52 53 54 58):
def register_ct_to_mr_using_mutual_information(subject,
subjects_dir,
ct_fname,
output_fname='',
lta_name='',
overwrite=False,
cost_function='nmi',
print_only=False):
'''
Performs the registration between CT and MR using the normalized mutual
information cost option in freesurfer's mri_robust_register. Saves the
output to a temporary file which is subsequently examined and the
linear registration is returned.
Freesurfer should already be sourced.
Parameters
----------
ct_fname : Str
The filename containing the CT scan
subject : Str
The freesurfer subject.
subjects_dir : Str
The freesurfer subjects_dir.
overwrite : Bool
When true, will do the computation and not search for a saved value.
Defaults to false.
cost_function : Enum
uses mi or nmi or blank cost function. If blank, then its not actually
using MI at all, just rigid 6 parameter dof registration (with resampling
tricks and so on)
Returns
-------
affine : 4x4 np.ndarray
The matrix containing the affine transformation from CT to MR space.
'''
xfms_dir = utils.make_dir(
op.join(subjects_dir, subject, 'mri', 'transforms'))
if lta_name == '':
lta_name = 'ct2mr.lta'
lta_fname = op.join(xfms_dir, lta_name)
if op.isfile(lta_fname) and op.isfile(output_fname):
if overwrite:
os.remove(lta_fname)
os.remove(output_fname)
else:
return True
rawavg = op.join(subjects_dir, subject, 'mri', 'T1.mgz') #''rawavg.mgz')
if output_fname == '':
output_fname = op.join(utils.get_parent_fol(ct_fname),
'ct_reg_to_mr.mgz')
fu.robust_register(subject, subjects_dir, ct_fname, rawavg, output_fname,
lta_name, cost_function, print_only)
if print_only:
return True
else:
return op.isfile(lta_fname) and op.isfile(output_fname)