test = raw_input(
'Enter index of the algorithm for which you want to visualize the plane : '
)
if test != '':
try:
ialgo = int(test)
algo = cg.algorithms[ialgo]
sepplane = True
except:
print(
'Unable to determine the algorithm/separation_plane you want '
'to visualize for this geometry. Continues without ...'
)
myfactor = 3.0
if vis is None:
vis = visualize(cg=cg, zoom=1.0, myfactor=myfactor)
else:
vis = visualize(cg=cg, vis=vis, myfactor=myfactor)
cg_points = [myfactor * np.array(pp) for pp in cg.points]
cg_central_site = myfactor * np.array(cg.central_site)
if sepplane:
pts = [cg_points[ii] for ii in algo.plane_points]
if algo.minimum_number_of_points == 2:
pts.append(cg_central_site)
centre = cg_central_site
else:
centre = np.sum(pts, axis=0) / len(pts)
factor = 1.5
target_dist = max(
[np.dot(pp - centre, pp - centre) for pp in cg_points])
print('')
# Visualize the separation plane of a given algorithm
sepplane = False
if any([algo.algorithm_type == SEPARATION_PLANE for algo in cg.algorithms]):
test = input('Enter index of the algorithm for which you want to visualize the plane : ')
if test != '':
try:
ialgo = int(test)
algo = cg.algorithms[ialgo]
sepplane = True
except:
print('Unable to determine the algorithm/separation_plane you want '
'to visualize for this geometry. Continues without ...')
myfactor = 3.0
if vis is None:
vis = visualize(cg=cg, zoom=1.0, myfactor=myfactor)
else:
vis = visualize(cg=cg, vis=vis, myfactor=myfactor)
cg_points = [myfactor*np.array(pp) for pp in cg.points]
cg_central_site = myfactor*np.array(cg.central_site)
if sepplane:
pts = [cg_points[ii] for ii in algo.plane_points]
if algo.minimum_number_of_points == 2:
pts.append(cg_central_site)
centre = cg_central_site
else:
centre = np.sum(pts, axis=0) / len(pts)
factor = 1.5
target_dist = max([np.dot(pp-centre, pp-centre) for pp in cg_points])
current_dist = np.dot(pts[0] - centre, pts[0] - centre)
