def draw_header(self) -> None:
"""renders the header into our array"""
title = fmtstr(" No-Guess Sweeper :", fg="blue", underline=True)
self.chars[1, 1:1 + title.width] = [title]
clock = ff.plain('┊ ') + ff.green(
self.field.clock if self.field else "00:00")
self.chars[1, (self.max_cols - 1 - clock.width):(self.max_cols -
1)] = [clock]
avail = self.max_cols - 2 - title.width - clock.width
instructions: List[FmtStr] = [
ff.yellow(' h: ') + ff.gray("Help "),
ff.yellow(' q: ') + ff.gray("Quit "),
ff.yellow(' n: ') + ff.gray("New "),
]
# drop instructions until they fit on top line
while sum(i.width for i in instructions) > avail:
instructions.pop()
per = int(avail / len(instructions))
istr = FmtStr().join(i.ljust(per) for i in instructions)
self.chars[1, title.width:(title.width + istr.width)] = [istr]
def test_unhighlight_paren_bugs(self):
"""two previous bugs, parent didn't highlight until next render
and paren didn't unhighlight until enter"""
self.assertEqual(self.repl.rl_history.entries, [""])
self.enter("(")
self.assertEqual(self.repl.rl_history.entries, [""])
screen = [">>> (", "... "]
self.assertEqual(self.repl.rl_history.entries, [""])
self.assert_paint_ignoring_formatting(screen)
self.assertEqual(self.repl.rl_history.entries, [""])
with output_to_repl(self.repl):
self.assertEqual(self.repl.rl_history.entries, [""])
self.repl.process_event(")")
self.assertEqual(self.repl.rl_history.entries, [""])
screen = fsarray(
[
cyan(">>> ") + on_magenta(bold(red("("))),
green("... ") + on_magenta(bold(red(")"))),
]
)
self.assert_paint(screen, (1, 5))
with output_to_repl(self.repl):
self.repl.process_event(" ")
screen = fsarray(
[
cyan(">>> ") + yellow("("),
green("... ") + yellow(")") + bold(cyan(" ")),
]
)
self.assert_paint(screen, (1, 6))
def test_unhighlight_paren_bugs(self):
"""two previous bugs, parent didn't highlight until next render
and paren didn't unhighlight until enter"""
self.assertEqual(self.repl.rl_history.entries, [''])
self.enter('(')
self.assertEqual(self.repl.rl_history.entries, [''])
screen = [">>> (",
"... "]
self.assertEqual(self.repl.rl_history.entries, [''])
self.assert_paint_ignoring_formatting(screen)
self.assertEqual(self.repl.rl_history.entries, [''])
with output_to_repl(self.repl):
self.assertEqual(self.repl.rl_history.entries, [''])
self.repl.process_event(')')
self.assertEqual(self.repl.rl_history.entries, [''])
screen = fsarray([cyan(">>> ") + on_magenta(bold(red('('))),
green("... ") + on_magenta(bold(red(')')))])
self.assert_paint(screen, (1, 5))
with output_to_repl(self.repl):
self.repl.process_event(' ')
screen = fsarray([cyan(">>> ") + yellow('('),
green("... ") + yellow(')') + bold(cyan(" "))])
self.assert_paint(screen, (1, 6))
def test_parse(self):
self.assertEquals(parse.parse('\x01y\x03print\x04'), yellow('print'))
self.assertEquals(
parse.parse('\x01y\x03print\x04\x01c\x03 \x04\x01g\x031\x04\x01c'
'\x03 \x04\x01Y\x03+\x04\x01c\x03 \x04\x01g\x032\x04'),
yellow('print') + cyan(' ') + green('1') + cyan(' ') +
bold(yellow('+')) + cyan(' ') + green(u'2'))
def test_parse(self):
self.assertEqual(parse.parse('\x01y\x03print\x04'), yellow('print'))
self.assertEqual(
parse.parse('\x01y\x03print\x04\x01c\x03 \x04\x01g\x031\x04\x01c'
'\x03 \x04\x01Y\x03+\x04\x01c\x03 \x04\x01g\x032\x04'),
yellow('print') + cyan(' ') + green('1') + cyan(' ') +
bold(yellow('+')) + cyan(' ') + green(u'2'))
def test_parse(self):
self.assertEqual(parse.parse("\x01y\x03print\x04"), yellow("print"))
self.assertEqual(
parse.parse("\x01y\x03print\x04\x01c\x03 \x04\x01g\x031\x04\x01c"
"\x03 \x04\x01Y\x03+\x04\x01c\x03 \x04\x01g\x032\x04"),
yellow("print") + cyan(" ") + green("1") + cyan(" ") +
bold(yellow("+")) + cyan(" ") + green("2"),
)
def main():
print(yellow('creating network'))
net = Net()
print(green('sending network to device'))
net = net.to(device)
loss_function = nn.CrossEntropyLoss()
optimizer = optim.Adam(net.parameters(), lr=.00001)
train_x, train_y, test_x, test_y = loadTrainingData()
print(blue('begin training'))
train(net, loss_function, optimizer, train_x, train_y, test_x, test_y)
# x = train_x + test_x
# y = train_y + test_y
# training_data = np.load("hands.npy", allow_pickle=True)
# x = torch.Tensor([i[0] for i in training_data]).view(-1, IMAGE_SIZE_X, IMAGE_SIZE_Y)
# x /= 255. # Change pixel value to range[0, 1)
# y = [np.argwhere(i[1] == 1.)[0][0] for i in training_data]
# y = torch.LongTensor(y)
# acc, loss = test(net, loss_function, optimizer, x, y, size=len(train_x))
# print(green(f'Total Dataset Accuracy: {acc}, Total Dataset Loss: {loss}'))
while True:
choice = str(input('test with a picture filename or type exit: '))
if choice == 'exit':
break
test_image(net, choice)
def test_enter_text(self):
[self.repl.add_normal_character(c) for c in '1 + 1']
screen = fsarray([
cyan('>>> ') + bold(
green('1') + cyan(' ') + yellow('+') + cyan(' ') + green('1')),
cyan('Welcome to')
])
self.assert_paint(screen, (0, 9))
def test_enter_text(self):
[self.repl.add_normal_character(c) for c in "1 + 1"]
screen = fsarray([
cyan(">>> ") + bold(
green("1") + cyan(" ") + yellow("+") + cyan(" ") + green("1")),
cyan("Welcome to"),
])
self.assert_paint(screen, (0, 9))
def completion_string(completions, separator="", current=0):
completions = [
fmtstr(t.node.label +
separator) if t.node.internal else fmtstr(t.node.label)
for t in completions
]
if current < len(completions):
completions[current] = yellow(bold(completions[current]))
string = fmtstr(" | ").join(completions)
return fmtstr(" {") + string + fmtstr("}")
def tick(self):
for npc in self.npcs:
self.move_entity(npc, *npc.towards(self.player))
for entity1 in self.entities:
for entity2 in self.entities:
if entity1 is entity2: continue
if (entity1.x, entity1.y) == (entity2.x, entity2.y):
if entity1 is self.player:
return 'you lost on turn %d' % self.turn
entity1.speed = 0
entity2.speed = 0
entity1.display = on_red(bold(yellow('o')))
entity2.display = on_red(bold(yellow('o')))
if all(npc.speed == 0 for npc in self.npcs):
return 'you won on turn %d' % self.turn
self.turn += 1
if self.turn % 20 == 0:
self.player.speed = max(0, self.player.speed - 1)
self.player.display = on_blue(green(bold(str(self.player.speed))))
def test_argspec(self):
def foo(x, y, z=10):
"docstring!"
pass
argspec = inspection.getargspec('foo', foo) + [1]
array = replpainter.formatted_argspec(argspec, 30, setup_config())
screen = [(bold(cyan(u'foo'))+cyan(':')+cyan(' ')+cyan('(')+cyan('x') +
yellow(',')+yellow(' ')+bold(cyan('y'))+yellow(',') +
yellow(' ')+cyan('z')+yellow('=')+bold(cyan('10'))+yellow(')'))]
self.assertFSArraysEqual(fsarray(array), fsarray(screen))
def test_argspec(self):
def foo(x, y, z=10):
"docstring!"
pass
argspec = inspection.getfuncprops('foo', foo)
array = replpainter.formatted_argspec(argspec, 1, 30, setup_config())
screen = [bold(cyan('foo')) + cyan(':') + cyan(' ') + cyan('(') +
cyan('x') + yellow(',') + yellow(' ') + bold(cyan('y')) +
yellow(',') + yellow(' ') + cyan('z') + yellow('=') +
bold(cyan('10')) + yellow(')')]
self.assertFSArraysEqual(fsarray(array), fsarray(screen))
def draw_help(self) -> None:
"""brings up the help menu"""
self.state = "menu"
items = [
('q', 'Quit Sweeper'),
('c', 'Close menu'),
('n', 'New game'),
('←,↑,→,↓', 'Move Cursor'),
('f', 'Flag/unflag'),
('SPACE', 'Clear'),
]
max_key = max(len(item[0]) for item in items)
lines = [
ff.yellow(item[0]).ljust(max_key) + " : " + ff.gray(item[1])
for item in items
]
self.draw_menu(ff.bold("Help"), lines)
def test_argspec(self):
def foo(x, y, z=10):
"docstring!"
pass
argspec = inspection.getfuncprops("foo", foo)
array = replpainter.formatted_argspec(argspec, 1, 30, setup_config())
screen = [
bold(cyan("foo")) + cyan(":") + cyan(" ") + cyan("(") + cyan("x") +
yellow(",") + yellow(" ") + bold(cyan("y")) + yellow(",") +
yellow(" ") + cyan("z") + yellow("=") + bold(cyan("10")) +
yellow(")")
]
assertFSArraysEqual(fsarray(array), fsarray(screen))
def move(self):
print(
yellow("left: " + str(self.power_left) + " right: " +
str(self.power_right)))
left_base = 100
right_base = 17
if self.active:
if self.power_left > 0:
self.left_motor.forward(left_base)
elif self.power_left < 0:
self.left_motor.backward(left_base)
else:
self.left_motor.stop()
if self.power_right > 0:
self.right_motor.forward(right_base)
elif self.power_right < 0:
self.right_motor.backward(right_base)
else:
self.right_motor.stop()
def train(net, loss_function, optimizer, train_x, train_y, test_x, test_y):
batch_size = 100
epochs = 10
for epoch in range(epochs):
count = 0
val_count = 0
sum_acc = 0
sum_loss = 0
sum_val_acc = 0
sum_val_loss = 0
for i in tqdm(range(0, len(train_x), batch_size)):
batch_x = train_x[i:i + batch_size].view(-1, 1, IMAGE_SIZE_X,
IMAGE_SIZE_Y).to(device)
batch_y = train_y[i:i + batch_size].to(device)
with torch.enable_grad():
acc, loss = fwd_pass(net,
loss_function,
optimizer,
batch_x,
batch_y,
train=True)
sum_acc += acc
sum_loss += loss.item()
count += 1
if i % 200 == 0:
val_acc, val_loss = test(net, loss_function, optimizer, test_x,
test_y)
sum_val_acc += val_acc
sum_val_loss += val_loss
val_count += 1
print(
yellow(f'EPOCH: {epoch}\t'
f'avg acc: {round(sum_acc / count, 5)}\t'
f'avg loss: {round(sum_loss / count, 5)}\t'
f'avg val acc: {round(sum_val_acc / val_count, 5)}\t'
f'avg val loss: {round(sum_val_loss / val_count, 5)}'))
from __future__ import unicode_literals # convenient for Python 2
import random
from curtsies import FullscreenWindow, Input, FSArray
from curtsies.fmtfuncs import red, bold, green, on_blue, yellow
print(yellow('this prints normally, not to the alternate screen'))
with FullscreenWindow() as window:
with Input() as input_generator:
msg = red(on_blue(bold('Press escape to exit')))
a = FSArray(window.height, window.width)
a[0:1, 0:msg.width] = [msg]
window.render_to_terminal(a)
for c in input_generator:
if c == '<ESC>':
break
elif c == '<SPACE>':
a = FSArray(window.height, window.width)
else:
s = repr(c)
row = random.choice(range(window.height))
column = random.choice(range(window.width-len(s)))
color = random.choice([red, green, on_blue, yellow])
a[row, column:column+len(s)] = [color(s)]
window.render_to_terminal(a)
def die(self):
self.speed = 0
self.display = on_red(bold(yellow('o')))
def die(self):
self.speed = 0
self.display = on_red(bold(yellow('o')))
start_time -= 86400
result = g.search_repositories(query)
print(
result.totalCount
) # Printing the total value of github repos for Python(Problem: API not returning 1.2 million search results instead returning 1000 results.)
for repository in result:
print(f"{repository.clone_url}")
#print(f"{repository.tags_url}")
#print(dir(repository))
os.system(
f"git clone {repository.clone_url} repos/{repository.owner.login}/{repository.name}"
)
d = "repos"
for dirpath, dirnames, filenames in os.walk("repos"):
for f in filenames:
full_path = os.path.join(dirpath, f)
if full_path.endswith(".py"):
pass
else:
print(red(f"Deleting {full_path}"))
if d in full_path:
os.remove(full_path)
else:
print(yellow("Something is wrong"))
from panda3d.core import loadPrcFileData
from direct.showbase.ShowBase import ShowBase
base = ShowBase()
base.setSleep(0.001)
import random
from curtsies import FullscreenWindow, Input, FSArray
from curtsies.fmtfuncs import red, bold, green, on_blue, yellow
r = 0
print(yellow('the following code takes over the screen'))
with FullscreenWindow() as window:
print(red(on_blue(bold('Press escape to exit'))))
with Input() as input_generator:
a = FSArray(window.height, window.width)
a[r, 0] = [repr("Test " + str(r))]
window.render_to_terminal(a)
r += 1
for c in input_generator:
if c == '<ESC>':
break
elif c == '<SPACE>':
a = FSArray(window.height, window.width)
else:
row = random.choice(range(window.height))
column = random.choice(range(window.width-len(repr(c))))
self.right_motor.backward(right_base)
else:
self.right_motor.stop()
def stop(self):
print(green('stop'))
self.power_left = 0
self.power_right = 0
self.move()
# robot = Robot(explorerhat.motor.one, explorerhat.motor.two)
robot = Robot(None, None)
print(yellow('use UP, DOWN, LEFT & RIGHT to steer - SPACE to stop'))
with Input() as input_generator:
for c in input_generator:
if c == '<ESC>':
break
elif c == '<SPACE>' or c == '<Ctrl-j>':
robot.stop()
elif c == '<UP>':
robot.forward()
elif c == '<DOWN>':
robot.backward()
elif c == '<LEFT>':
robot.left()
elif c == '<RIGHT>':
robot.right()
else:
from __future__ import unicode_literals # convenient for Python 2
import random
from curtsies import FullscreenWindow, Input, FSArray
from curtsies.fmtfuncs import red, bold, green, on_blue, yellow
print(yellow('this prints normally, not to the alternate screen'))
with FullscreenWindow() as window:
with Input() as input_generator:
msg = red(on_blue(bold('Press escape to exit')))
a = FSArray(window.height, window.width)
a[0:1, 0:msg.width] = [msg]
window.render_to_terminal(a)
for c in input_generator:
if c == '<ESC>':
break
elif c == '<SPACE>':
a = FSArray(window.height, window.width)
else:
s = repr(c)
row = random.choice(range(window.height))
column = random.choice(range(window.width-len(s)))
color = random.choice([red, green, on_blue, yellow])
a[row, column:column+len(s)] = [color(s)]
window.render_to_terminal(a)
'flexed_bicep', 'hand_with_fingers_splayed', 'index_pointing_up',
'left_facing_fist', 'love-you_gesture'
]
DEVICE = 'cuda:0'
MODEL_NAME = f"model-{int(time.time() % 100000)}"
IMAGE_SIZE_X = 200
IMAGE_SIZE_Y = 200
if torch.cuda.is_available():
device = torch.device(DEVICE)
print(blue("Running on GPU"))
else:
device = torch.device(DEVICE)
print(yellow("Running on CPU"))
class Net(nn.Module):
def __init__(self):
super().__init__()
self.conv1 = nn.Conv2d(1, 32, 5)
self.conv2 = nn.Conv2d(32, 64, 5)
self.conv3 = nn.Conv2d(64, 128, 5)
x = torch.randn(IMAGE_SIZE_X,
IMAGE_SIZE_Y).view(-1, 1, IMAGE_SIZE_X, IMAGE_SIZE_Y)
self._to_linear = None
self.convs(x)
import os
import time
from curtsies.fmtfuncs import cyan, bold, green, red, yellow
d = 'repos'
for dirpath, dirnames, filenames in os.walk("repos"):
for f in filenames:
path = os.path.join(dirpath, f)
if path.endswith('.py'):
print(green(f"Keeping {path}"))
else:
print(red(f"Deleting {path}"))
if d in path:
os.remove(path)
else:
print(yellow("Something went wrong"))
time.sleep(60)
# time.sleep(0.5)
def to_fsarray(self, width, prompt, tail=""):
"""Returns wrapped and coloured output as an fsarray. Includes the given
prompt and tail and fits in the given width."""
string = yellow(prompt) + fmtstr("".join(self.typed)) + tail
chunks = [string[i:i + width] for i in range(0, len(string), width)]
return fsarray(chunks)
def test_enter_text(self):
[self.repl.add_normal_character(c) for c in '1 + 1']
screen = fsarray([cyan('>>> ') + bold(green('1') + cyan(' ') +
yellow('+') + cyan(' ') + green('1')),
cyan('Welcome to')])
self.assert_paint(screen, (0, 9))
def mainloop(window, p2_bot=False):
p1_attrs = {
"appearance": on_blue(cyan("1")),
"x": window.width // 4,
"y": window.height // 2,
"keys": {
"w": 90,
"a": 180,
"s": 270,
"d": 0
},
}
p2_attrs = {
"appearance": on_red(yellow("2")),
"x": 3 * window.width // 4,
"y": window.height // 2,
"keys": {
"<UP>": 90,
"<LEFT>": 180,
"<DOWN>": 270,
"<RIGHT>": 0
},
}
FPS = 15
players = [Cycle(p1_attrs), Cycle(p2_attrs)]
if p2_bot: # make p2 a bot
players[1] = Bot(p2_attrs)
world = gameboard(window.width, window.height, players)
dt = 1 / FPS
world.draw_border()
window.render_to_terminal(world.grid)
reactor = Input()
schedule_next_frame = reactor.scheduled_event_trigger(Frame)
schedule_next_frame(when=time.time())
with reactor:
for c in reactor:
if isinstance(c, Frame):
tick = world.tick()
window.render_to_terminal(world.grid)
if not tick: # if no crashes
when = c.when + dt
while when < time.time():
when += dt
schedule_next_frame(when)
else: # if crashed
world.grid[0:4, 0:25] = fsarray([
world.winner_msg(tick),
"r to restart",
"q to quit",
"b to make player 2 a bot",
])
window.render_to_terminal(world.grid)
elif c.lower() in ["r", "q", "b"]:
break
else: # common case
world.process_event(c)
if c.lower() == "r":
mainloop(window, p2_bot)
elif c.lower() == "b":
mainloop(window, True)
