import gifmaze as gm
from gifmaze.algorithms import random_dfs
surface = gm.GIFSurface(600, 400, bg_color=0)
surface.set_palette([0, 0, 0, 255, 255, 255])
maze = gm.Maze(149, 99, mask=None).scale(4).translate((2, 2))
anim = gm.Animation(surface)
anim.pause(100)
anim.run(random_dfs,
maze,
speed=10,
delay=5,
trans_index=None,
cmap={
0: 0,
1: 1
},
mcl=2,
start=(0, 0))
anim.pause(300)
surface.save('d:\\random_dfs.gif')
surface.close()
# -*- coding: utf-8 -*-
"""
~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~
Make GIF Animation of Prim's Algorithm
~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~
"""
import gifmaze as gm
from algorithms import prim
width, height = 600, 400
# define the surface to drawn on
surface = gm.GIFSurface(width, height, bg_color=0)
surface.set_palette([0, 0, 0, 255, 255, 255])
# define the maze
maze = gm.Maze(147, 97, mask=None).scale(4).translate((6, 6))
# define the animation environment
anim = gm.Animation(surface)
anim.pause(200)
# run the algorithm
anim.run(prim, maze, start=(0, 0), speed=30, delay=5)
anim.pause(500)
# save the result
surface.save('prim.gif')
surface.close()
yield render(maze)
maze.mark_cell(pixels[-1], color_pixel(len(pixels) - 1))
if maze.num_changes > 0:
yield render(maze)
order = 6 # order of the curve
curve_size = (1 << order) # width & height of the curve
maze_size = 2 * curve_size - 1 # pad one space between two adjacent vertices
cell_size = 4
margin = 6
image_size = cell_size * maze_size + 2 * margin
pixels = tuple(pixels_hilbert(curve_size)) # (x, y) coordinate of the pixels
colors = [0, 0, 0] # global color table
for i in range(255):
rgb = hls_to_rgb((i / 256.0) % 1, 0.5, 1.0)
colors += [int(round(255 * x)) for x in rgb]
surface = gm.GIFSurface(image_size, image_size, bg_color=0)
surface.set_palette(colors)
maze = gm.Maze(maze_size, maze_size, mask=None).scale(cell_size).translate((margin, margin))
anim = gm.Animation(surface)
anim.pause(100)
anim.run(hilbert, maze, speed=20, delay=5, pixels=pixels)
anim.pause(500)
surface.save("hilbert.gif")
surface.close()
200, # tree color
255,
0,
255
] # path color
for i in range(256):
rgb = hls_to_rgb((i / 360.0) % 1, 0.5, 1.0)
palette += [int(round(255 * x)) for x in rgb]
surface.set_palette(palette)
# create a maze instance and set its position in the image
size = (surface.width, surface.height)
mask = generate_text_mask(size, 'UST', './resources/ubuntu.ttf', 350)
maze = gm.Maze(111, 67, mask=mask).scale(4).translate((75, 56))
# create an animation environment
anim = gm.Animation(surface)
# here `trans_index=1` is for compatible with eye of gnome in linux,
# you may always use the default 0 for chrome and firefox.
anim.pause(100, trans_index=1)
# paint the background region that contains the maze
left, top, width, height = 70, 50, 450, 280
anim.paint(left, top, width, height, 0)
anim.pause(100)
# Run the maze generation algorithm.
# Only three colors are used in the Wilson's algorithm hence
import gifmaze as gm
from algorithms import kruskal, dfs, random_dfs
from algorithms import prim
from gentext import generate_text_mask
width, height = 800, 320
# define the surface to drawn on
surface = gm.GIFSurface(width, height, bg_color=0)
surface.set_palette([0, 0, 0, 235, 235, 235, 150, 200, 100, 161, 35,
6]) # 78, 205, 196, 161,35,6
# define the maze
mask = generate_text_mask(
(width, height), "Je t'aime", 'C:\Windows\Fonts\GILC____.TTF', 240
) # C:/Windows/Fonts/STZHONGS.TTF ./resources/ubuntu.ttf 147， 97 fontsize 480
maze = gm.Maze(int(width / 4 - 3), int(height / 4 - 3),
mask=mask).scale(4).translate((6, 6))
# define the animation environment
anim = gm.Animation(surface)
anim.pause(200)
# run the algorithm
anim.run(prim, maze, speed=50, delay=2)
anim.pause(300)
start = (0, 0)
end = (maze.width - 1, maze.height - 1)
# run the maze solving algorithm.
# the tree and walls are unchanged throughout this process
# hence we color them using the transparent channel 0.
0,
255
] # path color
for i in range(256):
rgb = hls_to_rgb((i / 360.0) % 1, 0.5, 1.0)
palette += [int(round(255 * x)) for x in rgb]
surface.set_palette(palette)
# --------------------------------------------------------
# create a maze instance and set its position in the image
# --------------------------------------------------------
size = (surface.width, surface.height)
mask = generate_text_mask(size, 'UST', 'ubuntu.ttf', 350)
maze = gm.Maze(117, 73, mask=mask).scale(4).translate((69, 49))
# ------------------------------------------------------------------
# create an animation instance to write the animation to the surface
# ------------------------------------------------------------------
anim = gm.Animation(surface)
# here `trans_index=1` is for compatible with eye of chrome in linux.
# you may always use the default 0 for chrome and firefox.
anim.pause(100, trans_index=1)
# paint the background region that contains the maze.
left, top, width, height = 66, 47, 475, 297
anim.paint(left, top, width, height, 0)
anim.pause(100)
200, # tree color
244,
25,
220
] # path color
for i in range(256):
rgb = hls_to_rgb((i / 360.0) % 1, 0.5, 1.0)
palette += [int(round(255 * x)) for x in rgb]
surface.set_palette(palette)
# create a maze instance and set its position in the image
size = (surface.width, surface.height)
mask = generate_text_mask(size, 'UST', './resources/ubuntu.ttf', 300)
maze = gm.Maze(119, 75, mask=mask).scale(3).translate((50, 35))
# create an animation environment
anim = gm.Animation(surface)
# here `trans_index=1` is for compatible with eye of gnome in linux,
# you may always use the default 0 for chrome and firefox.
anim.pause(100, trans_index=1)
# paint the background region that contains the maze
left, top, width, height = 48, 32, 361, 231
anim.paint(left, top, width, height, 0)
anim.pause(100)
# Run the maze generation algorithm.
# Only three colors are used in the Wilson's algorithm hence
