def show(self, scale, offset):
'''
0.5 = a*x + b*y + c
(0.5 - c) = a*x + b*y
y = (0.5 - c - a * x)/ b
x[1] = (0.5 - c - w[0] * x[0]) / w[1]
'''
x0 = offset
y0 = (0.5 - self.b) / self.w[1] * scale + offset
y1 = (0.5 - self.b - self.w[0]) / self.w[1] * scale + offset
x1 = scale + offset
line(x0, y0, x1, y1, color=(0, 0, 255, 255))
def create_shape(self,
name,
shape,
coordinates,
rgba=Gdk.RGBA(0, 0, 0, 1),
step=0):
''' Create a shape and draw it according to it's ppc
Args:
name: name of the shape (as in the object's name)
shape: what shape it belongs
coordinates: points that discribe the shape
rgba: object color
step: used to render curves. set the step for the drawing
'''
rgba = rgba_to_tuple(rgba)
if shape == "Ponto":
obj = shapes.point(coordinates, rgba)
elif shape == "Linha":
obj = shapes.line(coordinates, rgba)
elif shape == "Poligono":
obj = shapes.polygon(coordinates, rgba)
elif shape == "Bezier":
obj = shapes.Bezier(coordinates, step, rgba)
else:
obj = shapes.Bspline(coordinates, rgba)
# add to display file
self.obj_list[name] = obj
self.calculate_ppc()
def show(self):
'''Shows the survivor.'''
self.label.text = '{}'.format(self.score)
self.label.draw()
alpha = int(self.f(self.health))
angle = algelin.heading(self.vel)
glPushMatrix()
glTranslatef(self.pos[0] + self.size/2, self.pos[1] + self.size/3, 0.0)
glRotatef(angle, 0, 0, 1)
glTranslatef(-self.pos[0] - self.size/2, -self.pos[1] - self.size/3, 0.)
shapes.triangle(self.pos[0]-2, self.pos[1]-2, self.size, angle=angle, color=(0, 0, 0, alpha+30))
if self.debug:
shapes.ring(self.pos[0]+self.size/2, self.pos[1]+self.size/3, self.perception[0], color=(100, 255, 0, alpha))
shapes.ring(self.pos[0]+self.size/2, self.pos[1]+self.size/3, self.perception[1], color=(255, 100, 0, alpha))
shapes.line(self.pos[0]+self.size/3, self.pos[1]+self.size/3, self.atraction[0], color=(100, 255, 0, alpha))
shapes.line(self.pos[0]+self.size/3, self.pos[1]+self.size/3, self.atraction[1], color=(255, 100, 0, alpha))
glPopMatrix()
def init_spines():
'''
empty lines
'''
lns = [
line(*spine_from_quad(q), color=clr)
for q, clr in zip(ALL_QUADS, ALL_COLORS)
]
return (lns)
def show(self, scale, offset):
b = self.b * scale + offset
a = self.a * scale + offset
ab = (self.a + self.b) * scale + offset
line(b, offset, ab, scale + offset, color=(0, 0, 255, 255))
if sublist[1] != 0:
overlaps_path = fc.checkoverlaps(num, list_location_path, overlaps_path)
list_location_path.append(num)
if sublist[1] == 2 or sublist[1] == 1:
fill = '#FF6D8F' # pink
stroke = '#960c2c'
if sublist[2] == 2: # nonsense
fill = '#FFFF8E' # yellow
stroke = '#ffaa00'
elif sublist[2] == 1: # gly
fill = '#91bdff' # blue
stroke = '#004ec4'
if overlaps_path == 0:
f.write(shapes.triangle(line2, num, fill, stroke))
f.write(shapes.line(line2, num, stroke))
else:
line2 = 278 - (overlaps_path * 9)
f.write(shapes.overlap_triangle(line2, num, fill, stroke))
elif sublist[1] == 0:
fill = '#c8ff72' # green
stroke = '#5d8c15'
if overlaps == 0:
f.write(shapes.triangle(line1, num, fill, stroke))
f.write(shapes.line(line1, num, stroke))
elif len(edits_list) != 0:
line1 = 170 - (overlaps * 9)
f.write(shapes.overlap_triangle(line1, num, fill, stroke))
else:
line1 = 178 - (overlaps * 9)
f.write(shapes.overlap_triangle(line1, num, fill, stroke))