def test_pen_do_something_else_working(self):
import sys
from io import StringIO
saved_stdout = sys.stdout
pen = Pen(color='red')
try:
out = StringIO()
sys.stdout = out
pen.do_something_else()
output = out.getvalue().strip()
self.assertEqual('red', output)
finally:
sys.stdout = saved_stdout
def __init__(self, game, screen, rows, cols, model):
self.wn = screen
self.num_rows = rows
self.num_cols = cols
self.model = model
self.pixels = [[] for row in range(rows)]
self.pixel_gap = 560 / self.num_cols
self.get_x = lambda col: self.pixel_gap * col + 10
self.get_y = lambda row: -self.pixel_gap * row + 270
for row in range(rows):
for col in range(cols):
pixel = Pixel(self, row, col)
self.pen = Pen(screen=self.wn, grid=self)
self.game = game
class Pattern:
def __init__(self):
self.pen = Pen()
self.pen.callback = self.refresh
pygame.init()
self.size = 1200, 1080
self.screen = pygame.display.set_mode(self.size)
def render(self):
self.screen.fill([25, 23, 28])
self.pen.get_state().position = [200, 1000]
self.pen.draw([
'F[+F]F[-F]F',
'F[+F]F',
'F[-F]F',
], 5, np.deg2rad(25.7))
self.pen.get_state().position = [550, 1000]
self.pen.draw('F[+F]F[-F][F]', 5, np.deg2rad(20))
self.pen.get_state().position = [850, 1000]
self.pen.draw('FF-[-F+F+F]+[+F-F-F]', 4, np.deg2rad(22.5))
pygame.display.flip()
while 1:
for event in pygame.event.get():
if event.type == pygame.QUIT: sys.exit()
def refresh(self, prev_state, state):
for event in pygame.event.get():
if event.type == pygame.QUIT: sys.exit()
pygame.draw.line(self.screen,
self.colorize(prev_state, state),
tuple(prev_state.position),
tuple(state.position))
#pygame.display.flip()
def colorize(self, prev_state, state):
position = state.position
col_part = [
self.clamp(255 * np.sin(position[0]/self.size[0]), 0, 255),
self.clamp(255 * np.cos(position[1]/self.size[1]), 0, 255),
]
return col_part[1], col_part[0], 55
def clamp(self, n, minn, maxn):
return max(min(maxn, n), minn)
def test_pen_write_word_with_float_ink_result(self):
pen = Pen(ink_container_value=10, size_letter=0.7)
self.assertEqual('word', pen.write('word'))
# 10 ink - 4 letters * (with size 0.7) = 7.2
self.assertEqual(7.2, int(pen.ink_container_value)) # simulating java int type
def test_pen_write_no_word_with_negative_size_letter(self):
pen = Pen(ink_container_value=100, size_letter=-2.0)
self.assertEqual('', pen.write('word'))
def test_pen_write_whitespaces_do_not_use_ink(self):
pen = Pen(ink_container_value=2000)
text = 'A basic test runner implementation that outputs results to a stream.'
text_without_whitespaces = text.replace(' ', '')
self.assertEqual(text, pen.write(text))
self.assertEqual(2000 - len(text_without_whitespaces), pen.ink_container_value)
def test_pen_write_no_word_with_no_ink(self):
pen = Pen(ink_container_value=0)
self.assertEqual('', pen.write('school'))
def test_pen_init_no_parameters(self):
pen = Pen()
self.assertEqual(1000, pen.ink_container_value)
self.assertEqual(1.0, pen.size_letter)
self.assertEqual('blue', pen.color)
def test_pen_write_part_of_word_with_not_enough_ink(self):
pen = Pen(ink_container_value=5, size_letter=2.5)
self.assertEqual('sc', pen.write('school'))
# 5 ink - 2 letters * (with size 2.5) = 0
self.assertEqual(0, pen.ink_container_value)
from Pen import Pen
p1 = Pen('Parker', 10, 'Black')
p1.write()
p2 = Pen('Cello', 20, 'blue')
p2.write()
p3 = Pen('Raynolds', 0, 'Green')
p3.write()
def test_pen_get_color_working(self):
pen = Pen(color='green')
self.assertEqual('green', pen.get_color())
def test_pen_check_pen_state_working(self):
pen = Pen(ink_container_value=10)
self.assertTrue(pen.check_pen_state())
def test_pen_check_pen_state_failing(self):
pen = Pen(ink_container_value=0)
self.assertFalse(pen.check_pen_state())
def test_pen_init_three_parameters(self):
pen = Pen(ink_container_value=1, size_letter=0.9, color='green')
self.assertEqual(1, pen.ink_container_value)
self.assertEqual(0.9, pen.size_letter)
self.assertEqual('green', pen.color)
def test_pen_init_two_parameters(self):
pen = Pen(ink_container_value=3000, size_letter=2.5)
self.assertEqual(3000, pen.ink_container_value)
self.assertEqual(2.5, pen.size_letter)
self.assertEqual('blue', pen.color)
def test_pen_init_one_parameter(self):
pen = Pen(ink_container_value=90)
self.assertEqual(90, pen.ink_container_value)
self.assertEqual(1.0, pen.size_letter)
self.assertEqual('blue', pen.color)
class Grid:
def __init__(self, game, screen, rows, cols, model):
self.wn = screen
self.num_rows = rows
self.num_cols = cols
self.model = model
self.pixels = [[] for row in range(rows)]
self.pixel_gap = 560 / self.num_cols
self.get_x = lambda col: self.pixel_gap * col + 10
self.get_y = lambda row: -self.pixel_gap * row + 270
for row in range(rows):
for col in range(cols):
pixel = Pixel(self, row, col)
self.pen = Pen(screen=self.wn, grid=self)
self.game = game
def initialize_all_pixels(self):
''' One-time only '''
for row in self.pixels:
for pixel in row:
pixel.neighbors = pixel.get_neighbors()
def listen_to_user(self):
''' Use the implemented pen. '''
onmove(self.pen.wn, self.pen.move_handler)
self.pen.onclick(self.pen.click_handler)
t.listen()
def color_clicked_pixel(self, x, y):
'''
Using the mouse cord, find the pixel that
is clicked, and color it (and it's neighbors).
'''
col = int(x - 280) // int(self.pixel_gap)
row = int(y) // int(self.pixel_gap)
# Convert to correct values
row = -row + 13
col = col + 14
if row < 0 or col < 0: # Avoid errors and wrong indexing
return
self.pixels[row][col].draw(x, y)
def convert_location(self, row, col):
x = self.get_x(col)
y = self.get_y(row)
return (x, y)
def export_grid(self):
'''
Export the grid to a numpy array that will
be feeded to the Neural Network.
'''
all_pixels = [[] for row in range(self.num_rows)]
for row in range(self.num_rows):
for col in range(self.num_cols):
if self.pixels[row][col].is_colored:
all_pixels[row].append(1)
else:
all_pixels[row].append(0)
pixel_array = np.array(all_pixels)
pixel_array = pixel_array.reshape(1, 28, 28, 1)
pixel_array = pixel_array.astype('float32')
return pixel_array
def make_a_prediction(self):
input_grid = self.export_grid()
prediction = self.model.predict(input_grid)
if max(prediction[0]) < 0.25: # Don't take bad decisions
result = None
else:
result = np.argmax(prediction[0])
if result != None:
for balloon in self.game.balloons:
if balloon.value == result:
balloon.kill()
#print("Prediction: {}".format(result))
# Get ready for the next drawing
self.reset()
def reset(self):
''' Uncolor all pixels. '''
for row in self.pixels:
for pixel in row:
pixel.is_colored = False
pixel.ht()
def test_pen_write_full_word_with_enough_ink(self):
pen = Pen()
self.assertEqual('school', pen.write('school'))
# default 1000 ink - 6 letters * (with default size 1.0) = 994
self.assertEqual(994, pen.ink_container_value)
print("Hari/Tgl: Kamis, 14 Januari 2021 ")
print("#" * 34)
# main program
print("\n-> Create Object Backpack")
item_list = Backpack(owner="Bintang", capacity=3)
item_list.detail()
print("\n-> Backpack.remove()")
item_list.remove()
print("\n-> Backpack.add() menambahkan Object Eraser")
item_list.add(Eraser(owner="Bintang"))
print("\n-> Backpack.add() menambahkan Object Pen")
item_list.add(Pen(owner="Agastya"))
print("\n-> Backpack.add() menambahkan Object Notebook")
item_list.add(Notebook(owner="Bintang"))
print("\n-> Backpack.add() menambahkan Object Ruler")
item_list.add(Ruler(owner="Agastya"))
print("\n-> Backpack.remove(4) pada index = 4")
item_list.remove(4)
print("\n-> Backpack.remove(1) pada index = 1")
item_list.remove(1)
print("\n-> Backpack.add() menambahkan Object Pencil")
item_list.add(Pencil(owner="Bintang"))
def __init__(self):
self.pen = Pen()
self.pen.callback = self.refresh
pygame.init()
self.size = 1200, 1080
self.screen = pygame.display.set_mode(self.size)