def generate_border(self, fn):
'''
border of the entire device
since the border is diagonal, it takes some computation ...
also, in order to improve the cutting time, we need to modify the diagonals,
so they are not emitted (fn) here.
'''
sample_vector = Vector(
Point(self.bend_length_max, 0),
Point(self.bend_length_max - self.bend_length_step,
self.distance_between_bends))
left_m = sample_vector.m
height = (
self.bend_count - 1
) * self.distance_between_bends + self.margin_top + self.margin_bottom
left_b = height
left_vector = Vector(Point(0, height), Point((0 - left_b) / left_m, 0))
# find the ending point of the right side of the first bend
first_bend_y = self.get_bend_y(0)
first_bend_start_x = left_vector.x_for_y(first_bend_y)
first_bend_ending_x = first_bend_start_x + (
self.margin_sides +
self.bend_length_min) * 2 + self.resistor_length
# find the ending point of the right side of the second bend
next_bend_y = self.get_bend_y(1)
next_bend_start_x = left_vector.x_for_y(next_bend_y)
next_bend_ending_x = next_bend_start_x + (
self.margin_sides + self.bend_length_min +
self.bend_length_step) * 2 + self.resistor_length
# now create the vector to calculate the formula
refv = Vector(Point(first_bend_ending_x, first_bend_y),
(Point(next_bend_ending_x, next_bend_y)))
right_vector = Vector(refv.point_for_y(height), refv.point_for_y(0))
# upper border
v = Vector(left_vector.point_for_y(0), right_vector.point_for_y(0))
fn(v)
v = Vector(left_vector.point_for_y(height),
right_vector.point_for_y(height))
fn(v)
self.dim = Point(right_vector.x_for_y(height), height)
self.left_vector = left_vector
self.right_vector = right_vector
def generate_border(self, fn):
'''
border of the entire device
since the border is diagonal, it takes some computation ...
also, in order to improve the cutting time, we need to modify the diagonals,
so they are not emitted (fn) here.
'''
sample_vector = Vector(Point(self.bend_length_max, 0), Point(self.bend_length_max - self.bend_length_step, self.distance_between_bends))
left_m = sample_vector.m
height = (self.bend_count - 1) * self.distance_between_bends + self.margin_top + self.margin_bottom
left_b = height
left_vector = Vector(Point(0, height), Point((0 - left_b) / left_m, 0))
# find the ending point of the right side of the first bend
first_bend_y = self.get_bend_y(0)
first_bend_start_x = left_vector.x_for_y(first_bend_y)
first_bend_ending_x = first_bend_start_x + (self.margin_sides + self.bend_length_min) * 2 + self.resistor_length
# find the ending point of the right side of the second bend
next_bend_y = self.get_bend_y(1)
next_bend_start_x = left_vector.x_for_y(next_bend_y)
next_bend_ending_x = next_bend_start_x + (self.margin_sides + self.bend_length_min + self.bend_length_step) * 2 + self.resistor_length
# now create the vector to calculate the formula
refv = Vector(Point(first_bend_ending_x, first_bend_y), (Point(next_bend_ending_x, next_bend_y)))
right_vector = Vector(refv.point_for_y(height), refv.point_for_y(0))
# upper border
v = Vector(left_vector.point_for_y(0), right_vector.point_for_y(0))
fn(v)
v = Vector(left_vector.point_for_y(height), right_vector.point_for_y(height))
fn(v)
self.dim = Point(right_vector.x_for_y(height), height)
self.left_vector = left_vector
self.right_vector = right_vector
