def sub_fsd_canvas_graphics(ai_rotation_direction, ai_angle_position):
# angle position
l_angle_position = float(ai_angle_position)/100
#
r_canvas_graphics = []
for ol in overlay_figure:
rotated_ol = cnc_outline.outline_rotate(ol, 0, 0, l_angle_position) # rotation of center (0,0) and angle l_angle_position
r_canvas_graphics.append(('overlay_lines', outline_arc_line(rotated_ol, 'tkinter'), 'orange', 2))
for ol in graphic_figure:
rotated_ol = cnc_outline.outline_rotate(ol, 0, 0, l_angle_position) # rotation of center (0,0) and angle l_angle_position
r_canvas_graphics.append(('graphic_lines', outline_arc_line(rotated_ol, 'tkinter'), 'red', 1))
return(r_canvas_graphics)
def flip_rotate_and_translate_figure(
ai_figure,
ai_zero_x,
ai_zero_y,
ai_size_x,
ai_size_y,
ai_x_flip,
ai_y_flip,
ai_rotation_angle,
ai_translate_x,
ai_translate_y,
):
""" flip, rotate and translate a figure (list of outlines). Usually used to agglomerate figures to create a cut-set.
"""
r_figure = []
for i in range(len(ai_figure)):
centered_ol = cnc_outline.outline_shift_xy(
ai_figure[i], -1 * (ai_zero_x + ai_size_x / 2.0), 1, -1 * (ai_zero_y + ai_size_y / 2.0), 1
)
flipped_ol = cnc_outline.outline_shift_xy(centered_ol, 0.0, ai_x_flip, 0.0, ai_y_flip)
# flipped_ol = cnc_outline.outline_shift_xy(centered_ol, 0, ai_x_flip, 0, ai_y_flip) # what makes the most sense? re-shift or not?
rotated_ol = cnc_outline.outline_rotate(flipped_ol, 0.0, 0.0, ai_rotation_angle)
translated_ol = cnc_outline.outline_shift_xy(
rotated_ol, ai_size_x / 2.0 + ai_translate_x, 1, ai_size_y / 2.0 + ai_translate_y, 1
)
r_figure.append(translated_ol[:])
return r_figure
def sub_fsd_canvas_graphics(ai_rotation_direction, ai_angle_position):
# angle position
l_angle_position = float(ai_angle_position) / 100
#
r_canvas_graphics = []
for ol in overlay_figure:
rotated_ol = cnc_outline.outline_rotate(
ol, 0, 0, l_angle_position
) # rotation of center (0,0) and angle l_angle_position
r_canvas_graphics.append(
('overlay_lines', outline_arc_line(rotated_ol,
'tkinter'), 'orange', 2))
for ol in graphic_figure:
rotated_ol = cnc_outline.outline_rotate(
ol, 0, 0, l_angle_position
) # rotation of center (0,0) and angle l_angle_position
r_canvas_graphics.append(
('graphic_lines', outline_arc_line(rotated_ol,
'tkinter'), 'red', 1))
return (r_canvas_graphics)
def flip_rotate_and_translate_figure(ai_figure, ai_zero_x, ai_zero_y,
ai_size_x, ai_size_y, ai_x_flip,
ai_y_flip, ai_rotation_angle,
ai_translate_x, ai_translate_y):
""" flip, rotate and translate a figure (list of outlines). Usually used to agglomerate figures to create a cut-set.
"""
r_figure = []
for i in range(len(ai_figure)):
centered_ol = cnc_outline.outline_shift_xy(
ai_figure[i], -1 * (ai_zero_x + ai_size_x / 2.0), 1,
-1 * (ai_zero_y + ai_size_y / 2.0), 1)
flipped_ol = cnc_outline.outline_shift_xy(centered_ol, 0.0, ai_x_flip,
0.0, ai_y_flip)
#flipped_ol = cnc_outline.outline_shift_xy(centered_ol, 0, ai_x_flip, 0, ai_y_flip) # what makes the most sense? re-shift or not?
rotated_ol = cnc_outline.outline_rotate(flipped_ol, 0.0, 0.0,
ai_rotation_angle)
translated_ol = cnc_outline.outline_shift_xy(
rotated_ol, ai_size_x / 2.0 + ai_translate_x, 1,
ai_size_y / 2.0 + ai_translate_y, 1)
r_figure.append(translated_ol[:])
return (r_figure)
def rotate(self, ai_x, ai_y, ai_angle):
""" create a new outline from the parent one with a rotation of center (ai_x, ai_y) and angle ai_angle
"""
r_ol = Arc_Line_Outline("{:s}_rotated".format(self.outline_id))
r_ol.add_piece(cnc_outline.outline_rotate(self.ol, ai_x, ai_y, ai_angle))
return(r_ol)