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art_generator.py
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art_generator.py
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# ABSTRACT ART GENERATOR
# By Burak U. - github.com/Burakcoli
from color_palettes import Palette
from random import randint
import pygame as pg
import pygame.gfxdraw
import pygame.freetype
import pygame_gui as pgui
from tkinter import *
from tkinter.filedialog import asksaveasfilename
pg.init()
pg.freetype.init()
SW, SH = 1280, 720
window = pg.display.set_mode((SW, SH))
ui_manager = pgui.UIManager((SW, SH))
pg.display.set_caption("Abstract Art Generator")
logo = pg.image.load("assets/logo.png")
pg.display.set_icon(logo)
background_color = pg.Color("#322f3d")
xs_font = pg.freetype.Font("Basic-Regular.ttf", 12)
small_font = pg.freetype.Font("Basic-Regular.ttf", 14)
medium_font = pg.freetype.Font("Basic-Regular.ttf", 18)
large_font = pg.freetype.Font("Basic-Regular.ttf", 24)
xl_font = pg.freetype.Font("Basic-Regular.ttf", 30)
xxl_font = pg.freetype.Font("Basic-Regular.ttf", 40)
fonts = [xs_font, small_font, medium_font, large_font, xl_font, xxl_font]
font_sizes = [12, 14, 18, 24, 30, 40]
def text_to_screen(window, text, color, pos, font_size):
font_used = fonts[font_sizes.index(font_size)]
font_used.render_to(window, pos, text, color)
active_overlay = 0
overlays = [
pg.image.load("assets/overlay1.png").convert_alpha(),
pg.image.load("assets/overlay2.png").convert_alpha(),
pg.image.load("assets/overlay3.png").convert_alpha(),
pg.image.load("assets/overlay4.png").convert_alpha(),
pg.image.load("assets/overlay5.png").convert_alpha(),
pg.image.load("assets/overlay6.png").convert_alpha()
]
art_styles_list = [
"Chaotic",
"Striped Horizontal",
"Striped Vertical",
"Mosaic",
"Cornered",
"Centered",
"Empty"
]
art_shapes_list = [
"Lines",
"Circles",
"Squares",
"Hollow Polygons",
"Filled Polygons",
"Dots",
"Curves",
"Rings"
]
resolutions_list = [
"4K: 3840x2160",
"Full HD: 1920x1080",
"HD: 1280x720"
]
class Canvas:
def __init__(self, size, display_size):
self.width = size[0]
self.height = size[1]
self.display_size = display_size
self.sPos = ((SW - self.width) // 2, (SH - self.height) // 2)
self.dsPos = ((SW - self.display_size[0])//2 + 10, (SH-self.display_size[1])//2)
self.canvas = pg.Surface((self.width, self.height))
self.canvas.fill((255, 255, 255))
self.display_canvas = pg.Surface(self.display_size)
self.bg_layer = pg.Surface((self.width, self.height))
self.bg_layer.fill((255, 255, 255))
self.layer_one = pg.Surface((self.width, self.height), pg.SRCALPHA)
self.layer_two = pg.Surface((self.width, self.height), pg.SRCALPHA)
self.fg_layer = pg.Surface((self.width, self.height), pg.SRCALPHA)
def export_art(self):
tkinter_window = Tk()
tkinter_window.withdraw()
available_formats = [("Portable Network Graphics", "*.png")]
filename = asksaveasfilename(title="Export File", filetypes=available_formats)
if filename:
name = filename[:]
return name
def clean_all_layers(self):
self.layer_one.fill((0, 0, 0, 0))
self.layer_two.fill((0, 0, 0, 0))
def clean_layer(self, layer):
layer.fill((0, 0, 0, 0))
def generate_lines(self, complexity, cp, style, layer, magnitude):
if style == art_styles_list[0]: # Chaotic
for i in range(complexity):
posX = (randint(-200, self.width+200), randint(0, self.width))
posY = (randint(-200, self.height+200), randint(0, self.height))
current_color = cp[randint(0, len(cp) - 1)]
size = randint(magnitude[0], magnitude[1])
pg.draw.line(layer, pg.Color(current_color), (posX[0], posY[0]), (posX[1], posY[1]), size//4)
elif style == art_styles_list[1]: # Striped Horizontal
interval = self.height // complexity
for i in range(complexity):
posX = 0, self.width
posY = i * interval + randint(0, self.height//10), i * interval + randint(0, self.height//10)
current_color = cp[randint(0, len(cp) - 1)]
size = randint(magnitude[0], magnitude[1])
pg.draw.line(layer, pg.Color(current_color), (posX[0], posY[0]), (posX[1], posY[1]), size // 4)
elif style == art_styles_list[2]: # Striped Vertical
interval = self.width // complexity
for i in range(complexity):
posY = 0, self.height
posX = i * interval + randint(0, self.width//10), i * interval + randint(0, self.width//10)
current_color = cp[randint(0, len(cp) - 1)]
size = randint(magnitude[0], magnitude[1])
pg.draw.line(layer, pg.Color(current_color), (posX[0], posY[0]), (posX[1], posY[1]), size // 4)
elif style == art_styles_list[3]: # Mosaic
row_line_count = complexity // 3 + 1
row_count = complexity // 4 + 1
x_interval = self.width // (row_line_count - 1)
y_interval = self.height // (row_count - 1)
color_one = cp[randint(0, len(cp) - 1)]
color_two = cp[randint(0, len(cp) - 1)]
while color_two == color_one:
color_two = cp[randint(0, len(cp) - 1)]
for i in range(row_count):
for j in range(row_line_count):
current_color = color_one if (i+j) % 2 == 0 else color_two
size = randint(magnitude[0], magnitude[1]) // 4
posX = ((x_interval*j), (x_interval*(j+1)))
posY_u = ((y_interval*i), (y_interval*(i+1)))
posY_d = ((y_interval*(i+1)), (y_interval*i))
if randint(0,1) == 0:
pg.draw.line(layer, pg.Color(current_color), (posX[0], posY_u[0]), (posX[1], posY_u[1]), size)
else:
pg.draw.line(layer, pg.Color(current_color), (posX[0], posY_d[0]), (posX[1], posY_d[1]), size)
elif style == art_styles_list[4]: # Cornered
for i in range(complexity*2):
current_color = cp[randint(0, len(cp) - 1)]
size = randint(magnitude[0], magnitude[1]) // 4
corner = randint(0, 3)
first_x_area, second_x_area = 0, 0
first_y_area, second_y_area = 0, 0
if corner == 0:
first_x_area, second_x_area = (-50, 100), (0, self.width//2)
first_y_area, second_y_area = (-50, 100), (0, self.height//2)
elif corner == 1:
first_x_area, second_x_area = (self.width-100, self.width+50), (self.width//2, self.width)
first_y_area, second_y_area = (-50, 100), (0, self.height // 2)
elif corner == 2:
first_x_area, second_x_area = (self.width-100, self.width+50), (self.width//2, self.width)
first_y_area, second_y_area = (self.height-100, self.height+50), (self.height//2, self.height)
elif corner == 3:
first_x_area, second_x_area = (-50, 100), (0, self.width // 2)
first_y_area, second_y_area = (self.height-100, self.height+50), (self.height//2, self.height)
posX = (randint(first_x_area[0], first_x_area[1]), randint(second_x_area[0], second_x_area[1]))
posY = (randint(first_y_area[0], first_y_area[1]), randint(second_y_area[0], second_y_area[1]))
pg.draw.line(layer, pg.Color(current_color), (posX[0], posY[0]), (posX[1], posY[1]), size)
elif style == art_styles_list[5]: # Centered
for i in range(complexity//2):
current_color = cp[randint(0, len(cp)-1)]
posX = (randint(2*self.width//5, 3*self.width//5), randint(0, self.width))
posY = (randint(2*self.height//5, 3*self.height//5), randint(0, self.height))
size = randint(magnitude[0], magnitude[1]) // 4
pg.draw.line(layer, pg.Color(current_color), (posX[0], posY[0]), (posX[1], posY[1]), size)
elif style == art_styles_list[6]: # Empty, do not draw anything.
pass
def generate_squares(self, complexity, cp, style, layer, magnitude):
if style == art_styles_list[0]: # Chaotic
for i in range(complexity*2):
size = randint(magnitude[0], magnitude[1])
posX = randint(-size, self.width)
posY = randint(-size, self.height)
current_color = cp[randint(0, len(cp)-1)]
pg.draw.rect(layer, pg.Color(current_color), (posX, posY, size, size))
if style == art_styles_list[1]: # Striped Horizontal
row_square_count = complexity // 2 + 2
point = self.width // (row_square_count - 2)
row_count = self.height // point + 2
color_one = cp[randint(0, len(cp) - 1)]
color_two = cp[randint(0, len(cp) - 1)]
current_color = color_one
while color_two == color_one:
color_two = cp[randint(0, len(cp) - 1)]
for i in range(row_count):
if i % 2 == 0:
current_color = color_one if current_color == color_two else color_two
for j in range(row_square_count):
posX = j * point
posY = i * point
size = randint(magnitude[0], magnitude[1])
if i % 2 == 0:
pg.draw.rect(layer, pg.Color(current_color),(posX, posY, size, size))
if style == art_styles_list[2]: # Striped Vertical
row_square_count = complexity // 2 + 2
point = self.width // (row_square_count - 2)
row_count = self.height // point + 2
color_one = cp[randint(0, len(cp) - 1)]
color_two = cp[randint(0, len(cp) - 1)]
current_color = color_one
while color_two == color_one:
color_two = cp[randint(0, len(cp) - 1)]
for i in range(row_count):
for j in range(row_square_count):
if j % 1 == 0:
current_color = color_one if current_color == color_two else color_two
posX = j * point
posY = i * point
size = randint(magnitude[0], magnitude[1])
if j % 2 == 0:
pg.draw.rect(layer, pg.Color(current_color), (posX-size//2, posY-size//2, size, size))
if style == art_styles_list[3]: # Mosaic
row_square_count = complexity//2 + 2
size = self.width // (row_square_count-2)
row_count = self.height // size + 2
color_one = cp[randint(0, len(cp)-1)]
color_two = cp[randint(0, len(cp)-1)]
while color_two == color_one:
color_two = cp[randint(0, len(cp) - 1)]
for i in range(row_count):
for j in range(row_square_count):
current_color = color_one if (i + j) % 2 == 0 else color_two
posX = j * size
posY = i * size
pg.draw.rect(layer, pg.Color(current_color), (posX+size//20, posY+size//20, size-size//10, size-size//10))
if style == art_styles_list[4]: # Cornered
for corner in range(4):
corner_color = cp[randint(0, len(cp)-1)]
if corner == 0:
pg.draw.rect(layer, pg.Color(corner_color), (0, 0, magnitude[1], magnitude[1]))
if corner == 1:
pg.draw.rect(layer, pg.Color(corner_color), (self.width-magnitude[1], 0, magnitude[1], magnitude[1]))
if corner == 2:
pg.draw.rect(layer, pg.Color(corner_color), (self.width-magnitude[1], self.height-magnitude[1], magnitude[1], magnitude[1]))
if corner == 3:
pg.draw.rect(layer, pg.Color(corner_color), (0, self.height-magnitude[1], magnitude[1], magnitude[1]))
for i in range(complexity*3):
current_color = cp[randint(0, len(cp)-1)]
corner = randint(0, 3)
x_area, y_area = (0, 0), (0, 0)
if corner == 0:
x_area, y_area = (-magnitude[1]//2, self.width//3), (-magnitude[1]//2, self.height//2-magnitude[1])
if corner == 1:
x_area, y_area = (2*self.width//3-magnitude[1], self.width), (-magnitude[1]//2, self.height//2-magnitude[1])
if corner == 2:
x_area, y_area = (2*self.width//3-magnitude[1], self.width), (self.height//2, self.height)
if corner == 3:
x_area, y_area = (-magnitude[1], self.width//3), (self.height//2, self.height)
posX = randint(x_area[0], x_area[1])
posY = randint(y_area[0], y_area[1])
size = randint(magnitude[0], magnitude[1])
pg.draw.rect(layer, pg.Color(current_color), (posX, posY, size, size))
if style == art_styles_list[5]: # Centered
in_x_area, in_y_area = (self.width // 4, 3 * self.width // 4), (self.height // 4, 3 * self.height // 4)
out_x_area, out_y_area = (self.width // 6, 5 * self.width // 6), (self.height // 6, 5 * self.height // 6)
for i in range(complexity):
random_number = randint(0, 5)
if random_number < 4:
center_x = randint(in_x_area[0], in_x_area[1])
center_y = randint(in_y_area[0], in_y_area[1])
else:
center_x = randint(out_x_area[0], out_x_area[1])
center_y = randint(out_y_area[0], out_y_area[1])
size = randint(magnitude[0], magnitude[1])
current_color = cp[randint(0, len(cp) - 1)]
pg.draw.rect(layer, pg.Color(current_color), (center_x-size//2, center_y-size//2, size, size))
if style == art_styles_list[6]: # Empty
pass
def generate_circles(self, complexity, cp, style, layer, magnitude, fill):
if style == art_styles_list[0]: # Chaotic
for i in range(complexity):
rad = randint(magnitude[0], magnitude[1])
if fill == 1:
fill_type = randint(5, rad//2)
else:
fill_type = 0
centerX = randint(-25, self.width + 25)
centerY = randint(-25, self.height + 25)
current_color = cp[randint(0, len(cp) - 1)]
alpha_surface = pg.Surface((rad*2, rad*2))
alpha_surface.fill((0, 0, 0))
pg.draw.circle(alpha_surface, pg.Color(current_color), (rad, rad), rad, fill_type)
alpha_surface.set_colorkey((0, 0, 0))
alpha_surface.set_alpha(randint(150, 255))
layer.blit(alpha_surface, (centerX-rad, centerY-rad))
if style == art_styles_list[1]: # Striped Horizontal
row_circle_count = complexity // 2 + 2
point = self.width // (row_circle_count - 2)
row_count = self.height // point + 2
color_one = cp[randint(0, len(cp) - 1)]
color_two = cp[randint(0, len(cp) - 1)]
current_color = color_one
while color_two == color_one:
color_two = cp[randint(0, len(cp) - 1)]
for i in range(row_count):
if i % 2 == 0:
current_color = color_one if current_color == color_two else color_two
for j in range(row_circle_count):
posX = j * point
posY = i * point
rad = randint(magnitude[0], magnitude[1])
if fill == 1:
fill_type = randint(5, rad // 2)
else:
fill_type = 0
if i % 2 == 0:
alpha_surface = pg.Surface((rad * 2, rad * 2))
alpha_surface.fill((0, 0, 0))
pg.draw.circle(alpha_surface, pg.Color(current_color), (rad, rad), rad, fill_type)
alpha_surface.set_colorkey((0, 0, 0))
alpha_surface.set_alpha(randint(150, 255))
layer.blit(alpha_surface, (posX - rad, posY - rad))
if style == art_styles_list[2]: # Striped Vertical
row_circle_count = complexity // 2 + 2
point = self.width // (row_circle_count - 2)
row_count = self.height // point + 2
color_one = cp[randint(0, len(cp) - 1)]
color_two = cp[randint(0, len(cp) - 1)]
current_color = color_one
while color_two == color_one:
color_two = cp[randint(0, len(cp) - 1)]
for i in range(row_count):
for j in range(row_circle_count):
if (j+1) % 2 == 0:
current_color = color_one if current_color == color_two else color_two
posX = j * point
posY = i * point
rad = randint(magnitude[0], magnitude[1])
if fill == 1:
fill_type = randint(5, rad // 2)
else:
fill_type = 0
if j % 2 == 0:
alpha_surface = pg.Surface((rad * 2, rad * 2))
alpha_surface.fill((0, 0, 0))
pg.draw.circle(alpha_surface, pg.Color(current_color), (rad, rad), rad, fill_type)
alpha_surface.set_colorkey((0, 0, 0))
alpha_surface.set_alpha(randint(150, 255))
layer.blit(alpha_surface, (posX - rad, posY - rad))
if style == art_styles_list[3]: # Mosaic
row_circle_count = complexity
rad = self.width // row_circle_count
row_count = self.height // rad + 1
color_one = cp[randint(0, len(cp) - 1)]
color_two = cp[randint(0, len(cp) - 1)]
while color_two == color_one:
color_two = cp[randint(0, len(cp) - 1)]
for i in range(row_count):
for j in range(row_circle_count):
if fill == 1:
fill_type = rad//4
else:
fill_type = 0
current_color = color_one if (i + j) % 2 == 0 else color_two
posX = rad + j * (rad+1) * 2
posY = rad + i * (rad+1) * 2
pg.draw.circle(layer, pg.Color(current_color), (posX, posY), rad, fill_type)
if style == art_styles_list[4]: # Cornered
for i in range(complexity*2):
current_color = cp[randint(0, len(cp)-1)]
corner = randint(0, 3)
x_area, y_area = (0, 0), (0, 0)
if corner == 0:
x_area, y_area = (-50, self.width//3), (-50, self.height//3)
if corner == 1:
x_area, y_area = (self.width//1.5, self.width+50), (-50, self.height//3)
if corner == 2:
x_area, y_area = (self.width//1.5, self.width+50), (self.height//1.5, self.height+50)
if corner == 3:
x_area, y_area = (-50, self.width//3), (self.height//1.5, self.height+50)
posX = randint(x_area[0], x_area[1])
posY = randint(y_area[0], y_area[1])
rad = randint(magnitude[0], magnitude[1])
if fill == 1:
fill_type = randint(5, rad//2)
else:
fill_type = 0
alpha_surface = pg.Surface((rad * 2, rad * 2))
alpha_surface.fill((0, 0, 0))
pg.draw.circle(alpha_surface, pg.Color(current_color), (rad, rad), rad, fill_type)
alpha_surface.set_colorkey((0, 0, 0))
alpha_surface.set_alpha(randint(150, 255))
layer.blit(alpha_surface, (posX - rad, posY - rad))
if style == art_styles_list[5]: # Centered
in_x_area, in_y_area = (self.width//4, 3*self.width//4), (self.height//4, 3*self.height//4)
out_x_area, out_y_area = (self.width//6, 5*self.width//6), (self.height//6, 5*self.height//6)
for i in range(complexity):
if fill == 1:
fill_type = randint(magnitude[0], magnitude[1])
else:
fill_type = 0
random_number = randint(0, 5)
if random_number < 4:
center_x = randint(in_x_area[0], in_x_area[1])
center_y = randint(in_y_area[0], in_y_area[1])
else:
center_x = randint(out_x_area[0], out_x_area[1])
center_y = randint(out_y_area[0], out_y_area[1])
rad = randint(magnitude[0], magnitude[1])
current_color = cp[randint(0, len(cp)-1)]
if fill == 1:
fill_type = randint(5, rad//2)
else:
fill_type = 0
alpha_surface = pg.Surface((rad * 2, rad * 2))
alpha_surface.fill((0, 0, 0))
pg.draw.circle(alpha_surface, pg.Color(current_color), (rad, rad), rad, fill_type)
alpha_surface.set_colorkey((0, 0, 0))
alpha_surface.set_alpha(randint(150, 255))
layer.blit(alpha_surface, (center_x - rad, center_y - rad))
if style == art_styles_list[6]: # Empty
pass
def generate_polygons(self, complexity, cp, style, layer, magnitude, fill):
if style == art_styles_list[0]: # Chaotic
for i in range(complexity//2):
current_color = cp[randint(0, len(cp)-1)]
if fill == 0:
fill_type = 0
else:
fill_type = randint(magnitude[0]//5, magnitude[1]//5)
points_count = randint(3, 5)
points = []
first_point = [randint(0, self.width), randint(0, self.height)]
for _ in range(points_count):
points.append([randint(first_point[0]-magnitude[1]*2, first_point[0]+magnitude[1]*2),
randint(first_point[1]-magnitude[1]*2, first_point[1]+magnitude[1]*2)])
pg.draw.polygon(layer, pg.Color(current_color), points, fill_type)
if style == art_styles_list[1]: # Striped Horizontal
row_polygon_count = int(complexity // 2)
row_count = complexity // 3
x_interval = self.width // row_polygon_count
y_interval = self.height // row_count
color_one = cp[randint(0, len(cp) - 1)]
color_two = cp[randint(0, len(cp) - 1)]
while color_two == color_one:
color_two = cp[randint(0, len(cp) - 1)]
current_color = color_one
for i in range(row_count):
if (i + 1) % 2 == 0:
current_color = color_one if current_color == color_two else color_two
for j in range(row_polygon_count):
if fill == 0:
fill_type = 0
else:
fill_type = randint(magnitude[0] // 10, magnitude[1] // 10)
x_area = (x_interval * j, x_interval * (j + 1))
y_area = (y_interval * i, y_interval * (i + 1))
point_count = randint(3, 5)
points = []
if (i + 1) % 2 == 0:
for k in range(point_count):
points.append((randint(x_area[0], x_area[1]), randint(y_area[0], y_area[1])))
pg.draw.polygon(layer, pg.Color(current_color), points, fill_type)
if style == art_styles_list[2]: # Striped Vertical
row_polygon_count = int(complexity // 2)
row_count = complexity // 3
x_interval = self.width // row_polygon_count
y_interval = self.height // row_count
color_one = cp[randint(0, len(cp) - 1)]
color_two = cp[randint(0, len(cp) - 1)]
while color_two == color_one:
color_two = cp[randint(0, len(cp) - 1)]
current_color = color_one
for i in range(row_count):
for j in range(row_polygon_count):
if fill == 0:
fill_type = 0
else:
fill_type = randint(magnitude[0] // 10, magnitude[1] // 10)
x_area = (x_interval * j, x_interval * (j + 1))
y_area = (y_interval * i, y_interval * (i + 1))
point_count = randint(3, 5)
points = []
if j % 2 == 0:
current_color = color_one if current_color == color_two else color_two
for k in range(point_count):
points.append((randint(x_area[0], x_area[1]), randint(y_area[0], y_area[1])))
pg.draw.polygon(layer, pg.Color(current_color), points, fill_type)
if style == art_styles_list[3]: # Mosaic
row_polygon_count = int(complexity // 2)
row_count = complexity // 3
x_interval = self.width // row_polygon_count
y_interval = self.height // row_count
color_one = cp[randint(0, len(cp) - 1)]
color_two = cp[randint(0, len(cp) - 1)]
while color_two == color_one:
color_two = cp[randint(0, len(cp) - 1)]
for i in range(row_count):
for j in range(row_polygon_count):
if fill == 0:
fill_type = 0
else:
fill_type = randint(magnitude[0] // 10, magnitude[1] // 10)
current_color = color_one if (i + j) % 2 == 0 else color_two
x_area = (x_interval*j, x_interval*(j+1))
y_area = (y_interval*i, y_interval*(i+1))
point_count = randint(3, 5)
points = []
for k in range(point_count):
points.append((randint(x_area[0], x_area[1]), randint(y_area[0], y_area[1])))
pg.draw.polygon(layer, pg.Color(current_color), points, fill_type)
if style == art_styles_list[4]: # Cornered
x_areas = [(-100, self.width//3), (2*self.width//3, self.width+100),
(2*self.width//3, self.width+100), (-100, self.width//3)]
y_areas = [(-100, self.height//2-50), (-100, self.height//2-100),
(self.height//2+100, self.height+100), (self.height//2+100, self.height+100)]
point_count = randint(3, 5)
for i in range(complexity//2):
corner = randint(0, 3)
if fill == 0:
fill_type = 0
else:
fill_type = randint(magnitude[0] // 10, magnitude[1] // 10)
current_color = cp[randint(0, len(cp)-1)]
points = []
for j in range(point_count):
pos = (randint(x_areas[corner][0], x_areas[corner][1]),
randint(y_areas[corner][0], y_areas[corner][1]))
points.append(pos)
pg.draw.polygon(layer, pg.Color(current_color), points, fill_type)
if style == art_styles_list[5]: # Centered
x_inner_area = [self.width // 4, 3 * self.width // 4]
x_outer_area = [self.width // 6, 5 * self.width // 6]
y_area = [self.height // 4, 3 * self.height // 4]
for i in range(complexity // 4):
if fill == 0:
fill_type = 0
else:
fill_type = randint(magnitude[0] // 10, magnitude[1] // 10)
current_color = cp[randint(0, len(cp)-1)]
point_count = randint(3, 4)
points = []
for j in range(point_count):
if randint(0, 6) <= 4:
pos = (randint(x_inner_area[0], x_inner_area[1]), randint(y_area[0], y_area[1]))
else:
pos = (randint(x_outer_area[0], x_outer_area[1]), randint(y_area[0], y_area[1]))
points.append(pos)
pg.draw.polygon(layer, pg.Color(current_color), points, fill_type)
if style == art_styles_list[6]: # Empty
pass
def generate_curves(self, complexity, cp, style, layer, magnitude):
if style == art_styles_list[0]:
multiples = magnitude // 5
for i in range(complexity//5):
current_color = cp[randint(0, len(cp)-1)]
point_count = 5
multiples_points = []
for _ in range(multiples):
multiples_points.append([])
for j in range(point_count):
x = randint(0, self.width)
y = randint(0, self.height)
for k in range(multiples):
multiples_points[k].append((x, y+k))
for k in range(multiples):
pg.gfxdraw.bezier(layer, multiples_points[k], 5, pg.Color(current_color))
if style == art_styles_list[1]: # Striped Horizontal
multiples = magnitude // 5
point_count = 5
row_count = complexity // 2
interval_y = (self.height // row_count)
interval_x = (self.width // point_count)
row_color_one = cp[randint(0, len(cp)-1)]
row_color_two = cp[randint(0, len(cp)-1)]
for i in range(row_count):
current_color = row_color_one if i % 2 == 0 else row_color_two
multiples_points = []
for k in range(multiples):
multiples_points.append([])
for j in range(point_count+2):
y_pos = randint(((i-2)*interval_y), ((i+2)*interval_y) )
x_pos = randint((j-1)*interval_x, (j*interval_x))
for k in range(multiples):
multiples_points[k].append((x_pos, y_pos+k))
for k in range(multiples):
pg.gfxdraw.bezier(layer, multiples_points[k], 5, pg.Color(current_color))
if style == art_styles_list[2]: # Striped Vertical
point_count = 5
col_count = complexity // 2
multiples = magnitude // 5
interval_x = (self.height // col_count) * 2
interval_y = (self.width // point_count)
col_color_one = cp[randint(0, len(cp)-1)]
col_color_two = cp[randint(0, len(cp)-1)]
for i in range(col_count):
current_color = col_color_one if i % 2 == 0 else col_color_two
multiples_points = []
for k in range(multiples):
multiples_points.append([])
for j in range(point_count+2):
y_pos = randint((j-1)*interval_y, j*interval_y)
x_pos = randint((i-1)*interval_x, (i+1)*interval_x)
for k in range(multiples):
multiples_points[k].append((x_pos+k, y_pos))
for k in range(multiples):
pg.gfxdraw.bezier(layer, multiples_points[k], 5, pg.Color(current_color))
if style == art_styles_list[3]: # Mosaic
row_curve_count = int(complexity // 2)
row_count = complexity // 3
x_interval = self.width // row_curve_count
y_interval = self.height // row_count
multiples = magnitude // 5
color_one = cp[randint(0, len(cp) - 1)]
color_two = cp[randint(0, len(cp) - 1)]
while color_two == color_one:
color_two = cp[randint(0, len(cp) - 1)]
for i in range(row_count):
for j in range(row_curve_count):
current_color = color_one if (i + j) % 2 == 0 else color_two
x_area = (x_interval * j, x_interval * (j + 1))
y_area = (y_interval * i, y_interval * (i + 1))
point_count = 4
multiples_points = []
for m in range(multiples):
multiples_points.append([])
for k in range(point_count):
x = randint(x_area[0], x_area[1])
y = randint(y_area[0], y_area[1])
for m in range(multiples):
multiples_points[m].append((x, y+m))
for m in range(multiples):
pg.gfxdraw.bezier(layer, multiples_points[m], 5, pg.Color(current_color))
if style == art_styles_list[4]: # Cornered
corner_starts = [((0, self.width//3),(-1, 0)),
((2*self.width//3, self.width),(-1, 0)),
((2*self.width//3, self.width),(self.height, self.height+1)),
((0, self.width//3),(self.height, self.height+1))]
corner_ends = [((-1, 0),(0, self.height//2)),
((self.width, self.width+1),(0, self.height//2)),
((self.width, self.width+1),(self.height//2, self.height)),
((-1, 0),(self.height//2, self.height))]
multiples = magnitude // 5
point_count = 2
x_area = [0, 0]
y_area = [0, 0]
for i in range(complexity//2):
corner = randint(0, 3)
if corner == 0: x_area = [0, self.width//3]; y_area = [0, self.height//2]
if corner == 1: x_area = [2*self.width//3, self.width]; y_area = [0, self.height//2]
if corner == 2: x_area = [2*self.width//3, self.width]; y_area = [self.height//2, self.height]
if corner == 3: x_area = [0, self.width//3]; y_area = [self.height//2, self.height]
current_color = cp[randint(0, len(cp)-1)]
multiples_points = []
first_point = (randint(corner_starts[corner][0][0], corner_starts[corner][0][1]),
randint(corner_starts[corner][1][0], corner_starts[corner][1][1]))
last_point = (randint(corner_ends[corner][0][0], corner_ends[corner][0][1]),
randint(corner_ends[corner][1][0], corner_ends[corner][1][1]))
for k in range(multiples):
multiples_points.append([first_point])
for j in range(point_count):
x = randint(x_area[0], x_area[1])
y = randint(y_area[0], y_area[1])
for k in range(multiples):
multiples_points[k].append((x+k, y))
for k in range(multiples):
multiples_points[k].append(last_point)
for k in range(multiples):
pg.gfxdraw.bezier(layer, multiples_points[k], 5, pg.Color(current_color))
if style == art_styles_list[5]: # Centered
curve_count = complexity // 5
multiples = magnitude // 5
point_count = 5
for i in range(curve_count):
side = randint(0, 3)
multiples_points = []
for k in range(multiples):
multiples_points.append([(self.width//2, self.height//2)])
current_color = cp[randint(0, len(cp)-1)]
x, y = 0, 0
for j in range(point_count):
if side == 0:
x = randint(self.width//2+20*j, self.width)
y = randint(0, self.height)
elif side == 1:
x = randint(0, self.width)
y = randint(0, self.height // 2 - 20 * j)
elif side == 2:
x = randint(0, self.width//2-20*j)
y = randint(0, self.height)
elif side == 3:
x = randint(0, self.width)
y = randint(self.height // 2 + 20 * j, self.height)
for k in range(multiples):
multiples_points[k].append((x, y+k))
for k in range(multiples):
pg.gfxdraw.bezier(layer, multiples_points[k], 5, pg.Color(current_color))
if style == art_styles_list[6]: # Empty
pass
def generate_dots(self, complexity, cp, style, layer, magnitude):
if style == art_styles_list[0]: # Chaotic
for i in range(complexity*20):
centerX = randint(-25, self.width + 25)
centerY = randint(-25, self.height + 25)
current_color = cp[randint(0, len(cp) - 1)]
pg.draw.circle(layer, pg.Color(current_color), (centerX, centerY), magnitude[1]//30 + 2)
if style == art_styles_list[1]: # Striped Horizontal
row_dot_count = complexity * 2
row_count = complexity // 2
interval = self.height // row_count
row_colour_one = cp[randint(0, len(cp) - 1)]
row_colour_two = cp[randint(0, len(cp) - 1)]
for i in range(row_count+1):
for j in range(row_dot_count):
current_color = row_colour_one if i % 2 == 0 else row_colour_two
centerY = i * interval + 5
centerX = randint(0, self.width)
pg.draw.circle(layer, pg.Color(current_color), (centerX, centerY), magnitude[1]//30 + 2)
if style == art_styles_list[2]: # Striped Vertical
row_dot_count = complexity * 2
row_count = complexity // 2
interval = self.width // row_count
row_colour_one = cp[randint(0, len(cp) - 1)]
row_colour_two = cp[randint(0, len(cp) - 1)]
while row_colour_two == row_colour_one:
row_colour_two = cp[randint(0, len(cp) - 1)]
for i in range(row_count+1):
for j in range(row_dot_count):
current_color = row_colour_one if i % 2 == 0 else row_colour_two
centerX = i * interval + 5
centerY = randint(0, self.width)
pg.draw.circle(layer, pg.Color(current_color), (centerX, centerY), magnitude[1]//30 + 2)
if style == art_styles_list[3]: # Mosaic
row_dot_count = complexity * 5
interval = self.width // row_dot_count * 2
row_count = self.height // interval + 5
color_one = cp[randint(0, len(cp)-1)]
color_two = cp[randint(0, len(cp)-1)]
while color_two == color_one:
color_two = cp[randint(0, len(cp) - 1)]
for i in range(row_count):
for j in range(row_dot_count):
current_color = color_one if (i+j) % 2 == 0 else color_two
centerX = 2 + j * interval
centerY = 2 + i * interval
pg.draw.circle(layer, pg.Color(current_color), (centerX, centerY), magnitude[1]//30 + 2)
if style == art_styles_list[4]: # Cornered
for i in range(complexity * 8):
current_color = cp[randint(0, len(cp) - 1)]
corner = randint(0, 3)
x_area, y_area = (0, 0), (0, 0)
if corner == 0:
x_area, y_area = (0, self.width // 3), (0, self.height // 3)
if corner == 1:
x_area, y_area = (self.width // 1.5, self.width), (0, self.height // 3)
if corner == 2:
x_area, y_area = (self.width // 1.5, self.width), (self.height // 1.5, self.height)
if corner == 3:
x_area, y_area = (0, self.width // 3), (self.height // 1.5, self.height)
posX = randint(x_area[0], x_area[1])
posY = randint(y_area[0], y_area[1])
pg.draw.circle(layer, pg.Color(current_color), (posX, posY), magnitude[1]//30 + 2)
if style == art_styles_list[5]: # Centered
in_x_area, in_y_area = (self.width // 4, 3 * self.width // 4), (self.height // 4, 3 * self.height // 4)
out_x_area, out_y_area = (self.width // 6, 5 * self.width // 6), (self.height // 6, 5 * self.height // 6)
for i in range(complexity * 4):
random_number = randint(0, 5)
if random_number < 4:
center_x = randint(in_x_area[0], in_x_area[1])
center_y = randint(in_y_area[0], in_y_area[1])
else:
center_x = randint(out_x_area[0], out_x_area[1])
center_y = randint(out_y_area[0], out_y_area[1])
current_color = cp[randint(0, len(cp) - 1)]
pg.draw.circle(layer, pg.Color(current_color), (center_x, center_y), magnitude[1]//30 + 2)
if style == art_styles_list[6]: # Empty
pass
def generate_bg(self, color):
self.bg_layer.fill(pg.Color(color))
def generate_fg(self, overlay):
self.clean_layer(self.fg_layer)
self.fg_layer.blit(overlay, (0, 0))
self.blit_to_canvas()
def generate_layer_one(self, art_style, art_shape, color_palette, complexity, magnitude):
self.generate_art(self.layer_one, art_style, art_shape, color_palette, complexity, magnitude)
def generate_layer_two(self, art_style, art_shape, color_palette, complexity, magnitude):
self.generate_art(self.layer_two, art_style, art_shape, color_palette, complexity, magnitude)
def generate_art(self, layer, art_style, art_shape, color_palette, complexity, magnitude):
self.clean_layer(layer)
layer.set_colorkey((0, 0, 0))
if art_shapes_list[0] == art_shape:
self.generate_lines(complexity, color_palette, art_style, layer, magnitude)
if art_shapes_list[1] == art_shape:
self.generate_circles(complexity, color_palette, art_style, layer, magnitude, 0)
if art_shapes_list[2] == art_shape:
self.generate_squares(complexity, color_palette, art_style, layer, magnitude)
if art_shapes_list[3] == art_shape:
self.generate_polygons(complexity, color_palette, art_style, layer, magnitude, 1)
if art_shapes_list[4] == art_shape:
self.generate_polygons(complexity, color_palette, art_style, layer, magnitude, 0)
if art_shapes_list[5] == art_shape:
self.generate_dots(complexity, color_palette, art_style, layer, magnitude)
if art_shapes_list[6] == art_shape:
self.generate_curves(complexity, color_palette, art_style, layer, magnitude[1])
if art_shapes_list[7] == art_shape:
self.generate_circles(complexity, color_palette, art_style, layer, magnitude, 1)
def blit_to_canvas(self):
self.canvas.blit(self.bg_layer, (0, 0))
self.canvas.blit(self.layer_one, (0, 0))
self.canvas.blit(self.layer_two, (0, 0))
self.canvas.blit(self.fg_layer, (0, 0))
self.canvas.convert()
self.display_canvas = pg.transform.smoothscale(self.canvas, self.display_size)
def draw(self, window):
window.blit(self.display_canvas, self.dsPos)
p1 = Palette()
c1 = Canvas((3840, 2160), (int(SW//1.8), int(SH//1.8)))
current_color_palette = p1.get_random_palette()
current_palette_name = p1.get_name_of_palette(current_color_palette)
layer_one_style = "Striped Vertical"
layer_one_shape = "Lines"
layer_two_style = "Cornered"
layer_two_shape = "Rings"
layer_one_complexity = 15
layer_two_complexity = 15
layer_one_magnitude = [50, 400]
layer_two_magnitude = [50, 400]
option_locks = [0, 0, 0, 0, 0, 0, 0, 0, 0]
help_opt = 0
export_resolution = resolutions_list[0]
def draw_menu(window, color_palette, option_locks, help_opt):
ui_h1_color = (250, 250, 250)
ui_color = pg.Color("#DFD6FF")
lock_enabled = pg.transform.scale(pg.image.load("assets/lock_enabled.png"), (20, 20))
lock_disabled = pg.transform.scale(pg.image.load("assets/lock_disabled.png"), (20, 20))
pg.draw.rect(window, pg.Color("#2B2834"), (18, 90, 252, 95)) # Color Palette BG
pg.draw.rect(window, pg.Color("#2B2834"), (18, 195, 252, 190)) # Layer One BG
pg.draw.rect(window, pg.Color("#2B2834"), (18, 395, 252, 190)) # Layer Two BG
lock_position = 35
if option_locks[0] == 0:
window.blit(lock_disabled, (lock_position, 125))
else:
window.blit(lock_enabled, (lock_position, 125))
if option_locks[1] == 0:
window.blit(lock_disabled, (lock_position, 225))
else:
window.blit(lock_enabled, (lock_position, 225))
if option_locks[2] == 0:
window.blit(lock_disabled, (lock_position, 255))
else:
window.blit(lock_enabled, (lock_position, 255))
if option_locks[3] == 0:
window.blit(lock_disabled, (lock_position, 305))
else:
window.blit(lock_enabled, (lock_position, 305))
if option_locks[4] == 0:
window.blit(lock_disabled, (lock_position, 355))
else:
window.blit(lock_enabled, (lock_position, 355))
if option_locks[5] == 0:
window.blit(lock_disabled, (lock_position, 425))
else:
window.blit(lock_enabled, (lock_position, 425))