def test_TilePlane_conversions():
print("TESTING conversions")
W = 4
H = 5
tiles_1D = [str(i) for i in range(W * H)]
print("ORIGINAL:\n", tiles_1D, end='\n\n')
tiles_2D = TilePlane.tilelist_1D_to_2D(W, H, tiles_1D, default='.')
print("2D VERSION:\n", *tiles_2D, sep='\n', end='\n\n')
converted_back_to_1D = TilePlane.tilelist_2D_to_1D(tiles_2D)
print("2D TO 1D:\n", tiles_1D, end='\n\n')
def test_TilePlane_new_from_2D_padded():
print("TESTING TilePlane.new_from_2D_padded()")
W, H = 5, 4
tile_list = [[1, 2, 3], [4, 5], [7, 8, 9, 0], [1, 2, 3, 4, 5, 6]]
tp = TilePlane.new_from_2D_padded(W, H, tile_list, '#')
tp.display()
print()
def test_TilePlane_project():
print("TESTING tp.project()")
print("BACKGROUND:")
bg_tp = TilePlane.new_filled(20, 20, '.')
bg_tp.display()
print("FOREGROUND:")
fg_tp = TilePlane.new_filled(2, 2, '@')
fg_tp.display()
print("PROJECTED:")
fg_tp.project(bg_tp, 1, 1)
fg_tp.project(bg_tp, -1, 4)
fg_tp.project(bg_tp, 19, 8)
fg_tp.project(bg_tp, 22, 11)
fg_tp.project(bg_tp, 5, -1)
fg_tp.project(bg_tp, 12, 19)
fg_tp.project(bg_tp, 25, 25)
bg_tp.display()
print()
def test_TilePlane_display():
print("TESTING tp.display()")
W = 4
H = 5
tp = TilePlane.new_from_1D(W,
H, [str(i % W) for i in range(W * H)],
default='.')
tp.display()
print()
def test_TilePlane_fill():
print("TESTING tp.fill()")
print("BEFORE:")
w, h = 6, 6
main_plane = TilePlane.new_from_1D(
w, h, ["abcdefghijklmnopqrstuvwxyz"[i % 26] for i in range(w * h)])
main_plane.display()
print()
print("AFTER:")
main_plane.fill('&')
main_plane.display()
print()
def test_TilePlane_subplane():
print("TESTING tp.subplane()")
print("MAIN:")
w, h = 20, 10
main_plane = TilePlane.new_from_1D(
w, h, ["abcdefghijklmnopqrstuvwxyz"[i % 26] for i in range(w * h)])
main_plane.display()
print()
print("SUB:")
sub = main_plane.subplane(2, 2, 4, 4)
sub.display()
print()
def test_TilePlane_get_set_tile():
print("TESTING tp.get_tile() and tp.set_tile()")
W = 10
H = 6
tp = TilePlane.new_filled(W, H, '0')
print(*tp.tilelist, sep='\n')
print("ORIGINAL:")
tp.display()
x, y = 2, 4
val = '#'
tp.set_tile(x, y, val)
print(f"AFTER SETTING TILE {x},{y} to {val}:")
tp.display()
print(f"GET TILE {x},{y}:", tp.get_tile(x, y))
print()
def main():
# CONSTANTS
SCREEN_DIM = 60, 20
HALF_SCREEN_DIM = SCREEN_DIM[0] // 2, SCREEN_DIM[1] // 2
MAP_DIM = 100, 50
BG = '|'
# SETUP
VALID_CHARS = r'abcdefghijklmnopqrstuvwxyz1234567890-[]\;:/?<>,.~!@#$%^&*()_={}|` '
previous_char = ' '
display = TilePlane.new_filled(*SCREEN_DIM, BG)
screen_buffer = TilePlane.new_filled(*MAP_DIM, fill='')
map_buffer = TilePlane.new_filled(*MAP_DIM, fill=' ')
text_display = Text("Hello World!", visible=True)
cursor = Cursor(25, 5, *HALF_SCREEN_DIM)
# Draw the map to the screen buffer
map_buffer.project(screen_buffer, 0, 0)
# Draw the cursor onto the screen buffer
cursor.draw(screen_buffer)
# Transfer the screen buffer to the display
screen_buffer.project(display, *cursor.get_camera_pos())
# Display text
text_display.text = f" POS: ({cursor.x}, {cursor.y}) \n CHAR: {map_buffer.get_tile(cursor.x, cursor.y)} "
text_display.draw(display, 3, 1)
# Print the screen
print(term.home + term.clear, end='')
display.display()
while True:
# NEXT TASK: take keyboard input to move around screen
with term.cbreak(), term.hidden_cursor():
inp = term.inkey()
if inp == 'q':
break
elif inp in VALID_CHARS:
map_buffer.set_tile(cursor.x, cursor.y, inp[0])
previous_char = inp[0]
elif inp == '\t':
map_buffer.set_tile(cursor.x, cursor.y, previous_char)
elif repr(inp) == 'KEY_LEFT':
cursor.x -= 1
elif repr(inp) == 'KEY_RIGHT':
cursor.x += 1
elif repr(inp) == 'KEY_UP':
cursor.y -= 1
elif repr(inp) == 'KEY_DOWN':
cursor.y += 1
# UPDATE STUFF
# Fill the screen
display.fill(BG)
# Draw the map to the screen buffer
map_buffer.project(screen_buffer, 0, 0)
# Draw the cursor onto the screen buffer
cursor.draw(screen_buffer)
# Transfer the screen buffer to the display
screen_buffer.project(display, *cursor.get_camera_pos())
# Update text display
text_display.text = f" POS: ({cursor.x}, {cursor.y}) \n CHAR: {map_buffer.get_tile(cursor.x, cursor.y)} "
text_display.draw(display, 3, 1)
# Print the screen
print(term.home + term.clear, end='')
display.display()
print(term.home + term.clear, end='')
print("ALL DONE!")
def test_TilePlane_new_filled():
print("TESTING TilePlane.new_filled()")
W = 10
H = 6
tp = TilePlane.new_filled(W, H, '0')
tp.display()
def main():
from random import choice, randint
# CONSTANTS
SCREEN_DIM = 60, 20
MAP_DIM = 100, 50
BG = '|'
# SETUP
display = TilePlane.new_filled(*SCREEN_DIM, BG)
screen_buffer = TilePlane.new_filled(*MAP_DIM, fill='')
map_buffer = TilePlane.new_filled(*MAP_DIM, fill='.')
# Draw a bunch of blobs to the map buffer
iterations = 500
for i in range(iterations):
x = randint(0, MAP_DIM[0])
y = randint(0, MAP_DIM[1])
map_buffer.set_tile(x, y, choice(['*', '=', '%']))
# Initialize the player graphic
player = TilePlane(3, 1, tiles=['{', '&', '}'])
# Set player position
cam_x, cam_y = 2, 2
player_x, player_y = SCREEN_DIM[0] // 2 - 2, SCREEN_DIM[1] // 2 - 1
# Draw the map to the screen buffer
map_buffer.project(screen_buffer, 0, 0)
# Draw the player to the screen buffer
player.project(screen_buffer, -cam_x + player_x, -cam_y + player_y)
# Transfer the screen buffer to the display
screen_buffer.project(display, cam_x, cam_y)
# Print the screen
print(term.home + term.clear, end='')
display.display()
while True:
# NEXT TASK: take keyboard input to move around screen
with term.cbreak(), term.hidden_cursor():
inp = term.inkey()
if inp == 'q':
break
elif repr(inp) == 'KEY_LEFT':
cam_x += 1
elif repr(inp) == 'KEY_RIGHT':
cam_x -= 1
elif repr(inp) == 'KEY_UP':
cam_y += 1
elif repr(inp) == 'KEY_DOWN':
cam_y -= 1
# UPDATE STUFF
# Fill the screen
display.fill('|')
# Draw the map to the screen buffer
map_buffer.project(screen_buffer, 0, 0)
# Draw the cursor
player.project(screen_buffer, -cam_x + player_x, -cam_y + player_y)
# Transfer the screen buffer to the display
screen_buffer.project(display, cam_x, cam_y)
# Print the screen
print(term.home + term.clear, end='')
display.display()
print(term.home + term.clear, end='')
print("ALL DONE!")