def __init__(self, name="score-cld-esc", **kwargs):
super(CloudScene, self).__init__(**kwargs)
# self.normalize = normalize # heredado
# self.adjust = adjust # heredado
self.range_in = (0, 100)
self.name = name
self.formula = Expression.Exponential(rango=self.range_in,
normalizar=self.normalize,
**kwargs)
def __init__(self, **kwargs):
""" Score para el porcentaje de nubes de la escena completa. La band
resultante de cualquiera de los metodos tendrá como name 'pnube_es'
:param a: valor **a** de la funcion EXPONENCIAL
:type a: float
:param rango: range de valores entre los que puede oscilar la variable
:type rango: tuple
:param normalizar: Hacer que el resultado varie entre 0 y 1
independientemente del range
:type normalizar: bool
"""
super(CloudScene, self).__init__(**kwargs)
# self.normalize = normalize # heredado
# self.adjust = adjust # heredado
self.range_in = (0, 100)
self.name = kwargs.get("name", "score-cld-esc")
self.formula = Expression.Exponential(rango=self.range_in,
normalizar=self.normalize,
**kwargs)
def __init__(self, rhs):
Expression.__init__(self, rhs)
Statement.ebnf(
)
EquationArray.ebnf(
syntax = ZeroOrMore(Equation.names('equations') + Suppress(";")),
action = lambda s,l,t: EquationArray(**dict(t))
)
StatementArray.ebnf(
syntax = ZeroOrMore(Statement.names('statements') + Suppress(";")),
action = lambda s,l,t: StatementArray(**dict(t))
)
IfEquation.ebnf(
syntax =\
Suppress("if") + Expression.name('expressions') + Suppress('then') +\
ZeroOrMore(Equation.ebnf() + Suppress(";")).setResultsName('equations',listAllMatches = True) +\
ZeroOrMore( Suppress("elseif") + Expression.names('expressions') + Suppress('then') +
ZeroOrMore(Equation.ebnf() + Suppress(";")).setResultsName('equations',listAllMatches = True)) +\
Optional(Literal("else") + ZeroOrMore(Equation.ebnf() + Suppress(";")).setResultsName('equations', listAllMatches = True)) +\
Literal('end') + Literal("if"),
action = lambda s, l, t: IfEquation(expressions = t['expressions'], equations = t['equations'])
)
IfStatement.ebnf(
syntax = (
Literal("if") + Expression.ebnf().setResultsName('expressions',listAllMatches=True) + Literal('then') +
ZeroOrMore(Statement.ebnf() + Suppress(";")).setResultsName('statements',listAllMatches = True) +
ZeroOrMore( Literal("elseif") + Expression.ebnf().setResultsName('expressions',listAllMatches=True) + Literal('then') +
import sys
import game
from expressions import Expression
if len(sys.argv) > 1:
y = Expression(parse=''.join(sys.argv[1:]))
dy = y.differentiate()
dy.collect_terms()
print(str(dy))
else:
game.install_dependencies()
import pygame
game.play()
#game.play((1920, 1080), pygame.FULLSCREEN | pygame.DOUBLEBUF | pygame.HWSURFACE)
def update(self, events, screen, width, height):
if not self.closing and not self.opening\
and self.inputbox.update(events) and self.questions[-1]:
try:
entered = Expression(parse=self.inputbox.get_text())
entered.collect_terms()
except:
entered = None
self.inputbox.clear_text()
if entered == self.questions[-1].y_prime:
self.score += 1
logger.info(f"Answer correct: y' = {self.questions[-1][1]}")
self.questions.append(None)
self.next_time = self._make_next_time(self.question_length)
logger.info(f'Timer reset to {self.question_length} seconds')
self.question_length = max(self.question_length - 0.5, 5)
self.audio.zap.play()
self.last_correct = datetime.now()
else:
logger.info(f'Answer incorrect')
self.audio.bad.play()
if not self.closing and not self.opening and self.next_time < datetime.now():
logger.info(f"Timed out, the correct answer was: y' = {self.questions[-1][1]}")
self.closing = True
if not self.questions[-1]:
self.questions[-1] = self._make_question()
logger.info(f'Question presented: y = {self.questions[-1][0]}')
half_width = int(width / 2)
half_height = int(height / 2 - 1)
screen.fill(BACKGROUND_COLOR)
now = datetime.now()
correct_delta = now - self.last_correct
# Draw stars
for star in self.stars:
star.draw(screen)
removeif(lambda x: x.update(width, height, now - self.last_correct), self.stars)
# X grid
if not self.lines:
self.lines.append(HorizontalLine(half_height, width))
self.lines.append(HorizontalLine(half_height + (half_height / 2), width))
self.lines.append(HorizontalLine(half_height + (half_height / 4), width))
self.lines.append(HorizontalLine(half_height + (half_height / 8), width))
for line in self.lines:
line.draw(screen)
line.update(height, correct_delta)
# Y grid
for i in range(-width * 100, half_width, 1000):
pygame.draw.line(screen, FOREGROUND_COLOR, (half_width, half_height), (i, height))
pygame.draw.line(screen, FOREGROUND_COLOR,
(half_width, half_height), (width - i, height))
# Horizon
pygame.draw.line(screen, FOREGROUND_COLOR, (0, half_height), (width, half_height))
# Time left
bar_length = width if self.opening else width * (
self.next_time - datetime.now()).total_seconds() / self.question_length
screen.fill(FOREGROUND_COLOR, pygame.Rect(0, height - 10, int(bar_length), 10))
# Question 'glitchy' text
if not self.low_graphics:
for i in range(3):
ptext.draw(f'y = {self.questions[-1].y}',
midtop=(half_width + random.randint(-5, 5),
(half_height / 2) + random.randint(-5, 5)),
alpha=0.2,
fontsize=54,
surf=screen)
# Question text
ptext.draw(f'y = {self.questions[-1].y}',
midtop=(half_width, half_height / 2),
fontsize=54,
surf=screen)
# Score text
ptext.draw(f'Score: {self.score}',
midbottom=(half_width, (half_height / 2) - 10),
surf=screen)
# Input text
intext = self.inputbox.get_surface()
screen.blit(intext, intext.get_rect(center=(width / 2, height / 2 - 30)))
# Add stars
for i in range(int((0.5 if self.low_graphics else 2) *
max(4 - correct_delta.total_seconds(), 0))):
x_speed = random.uniform(-40, 40)
y_speed = random.uniform(2, 10)
self.stars.append(Star(half_width,
half_height,
x_speed,
abs(y_speed - abs(x_speed / 2)) + 1,
self))
self.fade.blit_onto(screen)
if self.opening:
self.fade.fade_in()
if self.fade.is_complete(True):
self.opening = False
self.reset_times()
elif self.closing:
self.fade.fade_out()
if self.fade.is_complete():
return GameOverState(self.score, self.questions, self.previous_state,
(width, height), self.audio)
return self
def _make_question(self):
exp = Expression(parse=' + '.join([self._make_question_part() for i in range(3)]))
der = exp.differentiate()
der.collect_terms()
return Question(exp, der)