def refZoom():
#print("Crossreferencing %s images" % screenshot)
ref(outFolder, otherInputs[0], otherInputs[1],
otherInputs[2], basepath, **kwargs)
#print("downsampling %s images" % screenshot)
zoom(outFolder, otherInputs[0], otherInputs[1],
otherInputs[2], basepath, **kwargs)
def refZoom():
needsThumbnail = index + 1 == len(saveGames)
#print("Crossreferencing %s images" % screenshot)
ref(outFolder, timestamp, surface, daytime, args.basepath, args)
#print("downsampling %s images" % screenshot)
zoom(outFolder, timestamp, surface, daytime, args.basepath, needsThumbnail, args)
if jindex == len(latest) - 1:
print("zooming renderboxes", timestamp)
zoomRenderboxes(daytimeSurfaces, workfolder, timestamp, Path(args.basepath, firstOutFolder, "Images"), args)
def refZoom():
needsThumbnail = index + 1 == len(savenames)
#print("Crossreferencing %s images" % screenshot)
ref(outFolder, otherInputs[0], otherInputs[1],
otherInputs[2], basepath, **kwargs)
#print("downsampling %s images" % screenshot)
zoom(outFolder, otherInputs[0], otherInputs[1],
otherInputs[2], basepath, needsThumbnail, **kwargs)
if jindex == len(latest) - 1:
print("zooming renderboxes", timestamp)
zoomRenderboxes(
daytimeSurfaces, workfolder, timestamp,
os.path.join(basepath, firstOutFolder, "Images"),
**kwargs)
def magnify_touch( self, touch ):
# Clear the magnifier.
clear_magnifier( self )
# Store the image of the magnifier lens to the path 'magnifier_lens.png'.
self.lens_image = str( touch.time_update ) + '.png'
# Take a screenshot of this widget and the tree rooted at this widget.
self.export_to_png( self.lens_image )
# Magnify (zoom and crop) the screenshot centered at touch.pos.
zoom_scale = 10
crop_radius = 512
magnifier_image = crop( zoom( self.lens_image, world_to_photo( self.pos, touch.pos ), zoom_scale ), crop_radius )
magnifier_image.save( self.lens_image )
# Render the magnification photo and a magnifier outline to self.canvas.
d = 128 + 64
OFFSET = d/2 + 10
self.lens = ( Color( 1,1,1,1 ),
Ellipse( texture=load_texture( self.lens_image ),
pos=(touch.x-d/2, touch.y-d/2 + OFFSET),
size=(d,d) ),
Line( circle=(touch.x, touch.y + OFFSET, d/2) ) )
for instr in self.lens:
self.canvas.after.add( instr )
def upscaleby2(src):
return zoom(src, 2, order=5, mode='wrap')
newshape = [ s * 2 for s in src.shape]
x = numpy.array(numpy.unravel_index(range(len(src.flat) * 8),
newshape)).T
xs = numpy.array(numpy.unravel_index(range(len(src.flat)),
src.shape)).T
return trilinearinterp(x * 0.5, xs, src.ravel(), dims=src.shape, mode='wrap').reshape(newshape)
# If any change is detected, let's then zoom in the transient areas
print(
"Zooming in the detected transient with window-second window..."
)
nzoom = 0
window = 300 #in unit of second
if len(ta) > 0:
interval = window / resolution # set window size
nzoom, zooms, dp, zoom_amplitude, zoom_start_time = zoom(
reduced_time,
smooth_signal,
x,
signal,
sampling_freq,
tai,
taf,
ta,
amp,
interval,
resolution,
zooms,
save_dir,
show=False,
save=False)
nplot = np.append(nplot, nzoom)
dp_list += dp.tolist()
zoom_amp_list += zoom_amplitude.tolist()
zoom_start_list += zoom_start_time
# record the computation time
