def __init__(self, path):
self.helpers = Helpers() # Image helpers
if (path == 'error1'):
self.errorimg = self.loadImage('input.jpeg')
W = self.errorimg.shape[0]
H = self.errorimg.shape[1]
cv2.putText(self.errorimg, "Grid not Detected",
(0, int(H / 2)), cv2.FONT_HERSHEY_SIMPLEX,
int(1 * (W / 400)), (0, 0, 255), 3)
self.helpers.show(self.errorimg, 'Final Sudoku grid')
return
if (path == 'error2'):
self.errorimg = self.loadImage('input.jpeg')
W = self.errorimg.shape[0]
H = self.errorimg.shape[1]
cv2.putText(self.errorimg, "Could not Solve",
(0, int(H / 2)), cv2.FONT_HERSHEY_SIMPLEX,
int(1 * (W / 400)), (0, 0, 255), 3)
self.helpers.show(self.errorimg, 'Final Sudoku grid')
return
self.image = self.loadImage(path)
self.preprocess()
#self.helpers.show(self.image, 'After Preprocessing')
self.sudoku = self.cropSudoku()
#self.helpers.show(sudoku, 'After Cropping out grid')
self.sudoku = self.straighten(self.sudoku)
#self.helpers.show(self.sudoku, 'Final Sudoku grid')
self.digits = Cells(self.sudoku).cells
def __init__(self, path):
self.tools = Tools()
self.image = self.loadImage(path)
self.preprocess()
sudoku_image = self.cropSudoku()
sudoku_image = self.strengthen(sudoku_image)
self.cells = Cells(sudoku_image).cells
def __init__(self, path):
self.helpers = Helpers() # Image helpers
self.image = self.loadImage(path)
self.preprocess()
sudoku = self.cropSudoku()
sudoku = self.straighten(sudoku)
self.cells = Cells(sudoku).cells
def __init__(self, path):
self.helpers = Helpers() # Image helpers
self.image = self.loadImage(path)
self.preprocess()
#self.helpers.show(self.image, 'After Preprocessing')
sudoku = self.cropSudoku()
self.helpers.show(sudoku, 'After Cropping out grid')
sudoku = self.straighten(sudoku)
#self.helpers.show(sudoku, 'Final Sudoku grid')
self.cells = Cells(sudoku).cells
def __init__(self):
# Initialise PyGame.
pygame.init()
# Set up the clock. This will tick every frame and thus maintain a relatively constant framerate. Hopefully.
self.fpsClock = pygame.time.Clock()
# Set up the window.
self.width, self.height = 640, 640
self.screen = pygame.display.set_mode((self.width, self.height))
initial_state = [[0 for j in range(32)] for i in range(32)]
self.cells = Cells(initial_state)
self.paused = False
def read_data(folder, fname):
""" read simulation data through hdf5 file"""
### access the file
fpath = folder + fname
assert os.path.exists(fpath), "out_fil.h5 does NOT exist for " + fpath
fl = h5py.File(fpath, 'r')
### read in the positions of filaments
xi = np.array(fl['/positions/xi'],
dtype=np.float32) # center of mass of MT
ori = np.array(fl['/positions/ori'],
dtype=np.float32) # <orientation> of MT
### read in the box info
lx = fl['/info/box/x'][...]
ly = fl['/info/box/y'][...]
### read in the general simulation info
dt = fl['/info/dt'][...]
nsteps = fl['/info/nsteps'][...]
nbeads = fl['/info/nbeads'][...]
nsamp = fl['/info/nsamp'][...]
### read in the filament information
nfils = fl['/info/nfils'][...]
nbpf = fl['/info/nbpf'][...]
### read in the simulation parameters
density = fl['/param/density'][...]
kappa = fl['/param/kappa'][...]
km = fl['/param/km'][...]
pa = fl['/param/pa'][...]
bl = fl['/param/bl'][...]
sigma = fl['/param/sigma'][...]
### close the file
fl.close()
sim = Simulation(lx, ly, dt, nsteps, nbeads, nsamp, nfils, nbpf, density,
kappa, km, pa, bl, sigma)
fils = Cells(xi, ori, sim)
return fils, sim
def main(image_path):
# get the final worksheet from the image
ext = Extractor(image_path, False)
final = ext.final
# get the form code by checking the image's QR code
decoded_qr_code = reader(final)
# extract the cells and student's responses
cells = Cells(final)
# grade the worksheet by using a CNN to OCR the student's responses
grader = Grader(decoded_qr_code)
grader.grade(cells.student_responses)
worksheet = grader.display(final, cells.sorted_contours)
Helpers.save_image(f'{Helpers.IMAGE_DIRECTORY}/graded.png', worksheet)
def __init__(self,
window,
x,
y,
width,
height,
name="Game",
background=(224, 224, 224)):
self.name = name
self.position = vector(x, y)
self.window = window
self.width = width
self.height = height
self.screen = pygame.Surface((self.width, self.height))
self.grid = [[Cells(self.screen, x, y, 30, 30) for x in range(16)]
for y in range(25)]
self.background = background
self.rect = self.screen.get_rect()
B = Biomes()
BLOBS = Blobs()
CONFIG = Configuration(B, BLOBS)
P = Player(Vec2(82, 16).mul(32))
CAM = Camera(P.pos.sub(Vec2(64, 64 + 128)))
CLOUDS = Clouds()
TREES = Trees(CONFIG)
BUSHES = Bushes(CONFIG)
BUILDINGS = Buildings(CONFIG)
M = MapFormat(CreateRandomWorld())
P.pos.y -= 128
CELLS = Cells(flr(CAM.pos.x / CELL_SIZE), flr(CAM.pos.y / CELL_SIZE),
M.mapdata, CONFIG)
def _init():
print("CAMERA", CAM.pos.x, CAM.pos.y)
palt(0, False)
palt(14, True)
def _update():
global PERSPECTIVE_OFFSET
P.update()
PERSPECTIVE_OFFSET = Vec2(64 + sin(px8_time() / 9) * 4,
80 + sin(px8_time() / 11) * 4)
def test_maze_grid():
cells = Cells(constants.FILENAME)
maze = MazeGrid(cells)
def cli(rbc, plt, verbose, output, axes, bounding_box, clip, stl):
"""Convert and visualise cell position files used in HemoCell [0].
The script reads from any number of red blood cell position files (RBC.pos)
and allows for direct visualisation with PyVista [1] or conversion to XDMF
for inspection with Paraview through `-o, --output`.
The RBC positions can be provided through `stdin` by specifying a dash
(`-`) as argument and piping the input, e.g. `cat RBC.pos | pos_to_vtk -`.
Optionally, any number of platelets position files (PLT.pos) can be
supplied by the `--plt` argument, which might be repeated any number of
times to specify multiple PLT.pos files.
[0] https://hemocell.eu
[1] https://dev.pyvista.org/index.html
"""
if len(rbc) == 0 and len(plt) == 0:
message = """No input files provided. When passing an RBC through
`stdin`, please provide a dash (`-`) as the argument."""
raise click.UsageError(message)
if (bounding_box is not None) and (stl is not None):
message = """Options `--bounding-box` and `--stl` are exclusive and
cannot be combined. Please provide only one."""
raise click.UsageError(message)
rbcs = Cells(flatten([Cells.from_pos(rbc) for rbc in rbc]))
plts = Cells(flatten([Cells.from_pos(plt) for plt in plt]))
if len(rbcs) == 0:
# The script terminates early when no RBCs are present. This
# most-likely corresponds with users error, e.g. by providing the wrong
# file path or an empty file.
raise click.UsageError("No RBC cells to display." "")
if bounding_box:
bounds = flatten(zip((0, 0, 0), bounding_box))
wireframe = pv.Box(bounds)
if stl:
wireframe = pv.get_reader(stl).read()
wireframe.scale((1e3, 1e3, 1e3))
if clip:
rbcs = rbcs.clip(wireframe, bounding_box)
plts = plts.clip(wireframe, bounding_box)
if len(rbcs) == 0 and len(plts) == 0:
raise click.UsageError("No cells remain after clipping.")
if output:
rbcs = create_glyphs(rbcs, CellType.RBC)
merged_cells = rbcs.merge(plts) if plt else rbcs
pv.save_meshio(output, merged_cells)
if verbose:
click.echo(f"Written to: '{click.format_filename(output)}'")
return 0
plotter = pv.Plotter()
rbcs_glyph = create_glyphs(rbcs, CellType.RBC)
rbcs_actor = plotter.add_mesh(rbcs_glyph, color="red")
if plt:
plts_glyph = create_glyphs(plts, CellType.PLT)
plts_actor = plotter.add_mesh(plts_glyph, color="yellow")
if bounding_box or stl:
plotter.add_mesh(wireframe, style='wireframe')
message = f'RBC: {len(rbcs)}\nPLT: {len(plts)}\n'
if clip:
# Only when the domain is clipped, a bounding domain is known either
# through the given bounding box or by the given STL surface mesh.
# These allow to determine an estimate of the domain's volume and
# thereby estimate the expected hematocrit given the number of RBCs
# left after clipping.
volume = 1e-6 * wireframe.volume
hc_percentage = 100 * rbcs.hematocrit(wireframe)
message += f'Domain volume estimate (µm^3): {volume:.2f}\n'
message += f'Hematocrit (vol%): {hc_percentage:.2f}\n'
plotter.add_text(message, position='lower_right')
# A simple widget illustrating the x-y-z axes orientation of the domain.
if axes:
plotter.add_axes(line_width=5, labels_off=False)
# Two radio buttons are added that enable to show/hide the glyphs
# corresponding to all RBCs or PLTs, where the lambda functions are given
# to implement the callback function toggling the right set of glyphs.
plotter.add_checkbox_button_widget(lambda x: rbcs_actor.SetVisibility(x),
position=(5, 12),
color_on="red",
value=True)
plotter.add_checkbox_button_widget(lambda x: plts_actor.SetVisibility(x),
position=(5, 62),
color_on="yellow",
value=True)
return plotter.show()