426 lines
15 KiB
Python
426 lines
15 KiB
Python
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import json
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import random
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import matplotlib
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import matplotlib.pyplot as plt
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import numpy as np
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from gdpc import Block, Editor, geometry
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from PIL import Image, ImageDraw
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import networks.geometry.curve_tools as curve_tools
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import networks.geometry.segment_tools as segment_tools
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import networks.geometry.Strip as Strip
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import networks.roads.lanes.Lane as Lane
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import networks.roads.lines.Line as Line
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from buildings.Building import Building
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from Enums import LINE_OVERLAP, LINE_THICKNESS_MODE, ROTATION
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from networks.geometry.Circle import Circle
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from networks.geometry.Point2D import Point2D
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from networks.geometry.Point3D import Point3D
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from networks.geometry.point_tools import (
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curved_corner_by_curvature,
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curved_corner_by_distance,
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)
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from networks.geometry.Polyline import Polyline
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from networks.geometry.Segment2D import Segment2D
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from networks.geometry.Segment3D import Segment3D
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from networks.roads import Road as Road
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from networks.roads.intersections import Intersection as Intersection
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matplotlib.use('Agg')
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editor = Editor(buffering=True)
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# f = open('buildings\shapes.json')
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# shapes = json.load(f)
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# # F = Foundations((0,0), (20,20), shapes[0]['matrice'])
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# # F.polygon.fill_polygon(editor, "stone", -60)
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# geometry.placeCuboid(editor, (-10, -60, -10), (85, -55, 85), Block("air"))
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# B = Building((0, 0), (75, 75), shapes[7]['matrice'])
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# B.foundations.polygon.fill_vertice(editor, "pink_wool", -60)
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# for collumn in B.foundations.collumns:
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# collumn.fill(editor, "white_concrete", -60, -55)
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# B.foundations.polygon.fill_polygon(editor, "white_concrete", -60)
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y = 25
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block_list = ["blue_concrete", "red_concrete", "green_concrete",
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"yellow_concrete", "purple_concrete", "pink_concrete"]
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# Over the hill
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# coordinates = [(-854, 87+y, -210), (-770, 99+y, -207), (-736, 85+y, -184)]
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# # Along the river
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# # coordinates = [(-456, 69, -283), (-588, 106, -374), (-720, 71, -384), (-775, 67, -289), (-822, 84, -265), (-868, 77, -188), (-927, 96, -127),
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# # (-926, 65, -29), (-906, 98, 42), (-902, 137, 2), (-909, 115, -62), (-924, 76, -6), (-985, 76, 37), (-1043, 76, 28), (-1102, 66, 63)]
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# # Though the loop
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# # coordinates = [(-1005, 113+y, -19), (-896, 113+y, 7),
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# # (-807, 76+y, 54), (-738, 76+y, -10), (-678, 76+y, -86)]
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# # Second zone
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# coordinates = [(-805, 78, 128), (-881, 91, 104), (-950, 119, 69), (-1005, 114, 58), (-1052, 86, 30),
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# (-1075, 83, 40), (-1104, 77, 63), (-1161, 69, 157), (-1144, 62, 226), (-1189, 76, 265), (-1210, 79, 329)]
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# resolution, distance = curve.resolution_distance(coordinates, 6)
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# curve_points = curve.curve(coordinates, resolution)
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# curve_surface = CurveSurface.CurveSurface(coordinates)
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# curve_surface.compute_curvature()
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# curvature = []
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# for i in range(len(curve_surface.curvature)):
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# curvature.append((0, 1, 0))
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# # Perpendicular
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# curve_surface.compute_surface_perpendicular(10, curvature)
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# for i in range(len(curve_surface.surface)):
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# for j in range(len(curve_surface.surface[i])):
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# # block = random.choice(block_list)
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# for k in range(len(curve_surface.surface[i][j])):
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# if k-16 < len(block_list) and k-16 >= 0:
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# editor.placeBlock(
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# curve_surface.surface[i][j][k], Block(block_list[k-16]))
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# else:
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# editor.placeBlock(
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# curve_surface.surface[i][j][k], Block("stone"))
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# offset = curve.offset(curve_surface.curve, -9, curvature)
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# for i in range(len(offset)-1):
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# line = segment.discrete_segment(offset[i], offset[i+1])
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# for coordinate in line:
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# editor.placeBlock(coordinate, Block("white_concrete"))
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# offset = curve.offset(curve_surface.curve, 9, curvature)
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# for i in range(len(offset)-1):
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# line = segment.discrete_segment(offset[i], offset[i+1])
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# for coordinate in line:
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# editor.placeBlock(coordinate, Block("white_concrete"))
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# # for coordinate in curve_surface.surface:
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# # editor.placeBlock(coordinate, Block("black_concrete"))
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# # for coordinate in curve_surface.curve:
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# # editor.placeBlock(coordinate, Block("red_concrete"))
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# # # Parallel
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# # curve_surface.compute_surface_parallel(0, 10, 8, curvature)
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# # for current_range in range(len(curve_surface.left_side)):
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# # for coordinate in curve_surface.left_side[current_range]:
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# # editor.placeBlock(coordinate, Block("yellow_concrete"))
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# ---
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# coordinates = [(0, 0, 0), (0, 0, 10), (0, 0, 20)]
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# with open('networks/roads/lines/lines.json') as f:
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# lines_type = json.load(f)
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# l = Line.Line(coordinates, lines_type.get('solid_white'))
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# print(l.get_surface())
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# with open('networks/roads/lanes/lanes.json') as f:
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# lanes_type = json.load(f)
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# l = Lane.Lane(coordinates, lanes_type.get('classic_lane'), 5)
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# print(l.get_surface())
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# circle = curved_corner(
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# ((-1365, 520), (-1326, 523)), ((-1344, 496), (-1336, 535)), 10, angle_adaptation=False, output_only_points=False)
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# for coordinate in circle[0]:
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# editor.placeBlock(
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# (round(coordinate[0]), 125, round(coordinate[1])), Block("green_concrete"))
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# ---
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# r1 = Road.Road((-1341, 100, 439), "None")
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# r2 = Road.Road((-1378, 100, 415), "None")
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# i = Intersection.Intersection(
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# (-1352, 100, 405), [(-1345, 100, 426), (-1369, 100, 412)], [r1, r2])
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# ---
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# r1 = Road.Road((-1337, 71, 472), "None")
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# r2 = Road.Road((-1269, 80, 574), "None")
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# r3 = Road.Road((-1392, 79, 527), "None")
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# i = Intersection.Intersection(
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# (-1327, 71, 533), [(-1335, 71, 494), (-1298, 75, 553), (-1366, 78, 530)], [r1, r2, r3])
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# ---
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# y = 150
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# r1 = Road.Road((-1337, y, 472), "None")
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# r2 = Road.Road((-1269, y, 574), "None")
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# r3 = Road.Road((-1392, y, 527), "None")
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# i = Intersection.Intersection(
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# (-1327, y, 533), [(-1335, y, 494), (-1298, y, 553), (-1366, y, 530)], [r1, r2, r3])
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# ---
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# y = 100
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# x = -200
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# r1 = Road.Road((-1380+x, 75, 406), "None")
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# r2 = Road.Road((-1365+x, 75, 468), "None")
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# r3 = Road.Road((-1411+x, 75, 501), "None")
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# r4 = Road.Road((-1451+x, 75, 449), "None")
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# r5 = Road.Road((-1432+x, 75, 423), "None")
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# i = Intersection.Intersection(
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# (-1411+x, 75, 461), [(-1392+x, 75, 427), (-1385+x, 75, 465), (-1411+x, 75, 487), (-1435+x, 75, 454), (-1426+x, 75, 435)], [r1, r2, r3, r4, r5])
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# i.compute_curved_corner()
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# for j in range(len(i.orthogonal_delimitations)):
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# coordinates = segment_tools.discrete_segment(
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# i.orthogonal_delimitations[j][0][0], i.orthogonal_delimitations[j][0][1])
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# for coordinate in coordinates:
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# editor.placeBlock(coordinate, Block("purple_concrete"))
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# coordinates = segment_tools.discrete_segment(
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# i.orthogonal_delimitations[j][1][0], i.orthogonal_delimitations[j][1][1])
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# for coordinate in coordinates:
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# editor.placeBlock(coordinate, Block("pink_concrete"))
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# coordinates = segment_tools.discrete_segment(
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# i.parallel_delimitations[j][0][0], i.parallel_delimitations[j][0][1])
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# for coordinate in coordinates:
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# editor.placeBlock(coordinate, Block("orange_concrete"))
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# coordinates = segment_tools.discrete_segment(
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# i.parallel_delimitations[j][1][0], i.parallel_delimitations[j][1][1])
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# for coordinate in coordinates:
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# editor.placeBlock(coordinate, Block("yellow_concrete"))
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# for coordinate in i.intersections:
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# if coordinate != None:
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# editor.placeBlock(coordinate, Block("black_concrete"))
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# for k in range(len(i.intersections_curved)):
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# for coordinate in i.intersections_curved[k][0]:
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# if coordinate != None:
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# if k >= 0:
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# editor.placeBlock(
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# (coordinate[0], 75, coordinate[1]), Block("gray_concrete"))
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# editor.placeBlock(
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# (i.intersections_curved[k][1][0], 76, i.intersections_curved[k][1][1]), Block("black_concrete"))
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# coordinates = segment_tools.discrete_segment(
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# i.intersections_curved[k][-1][0], i.intersections_curved[k][-1][1])
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# for coordinate in coordinates:
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# editor.placeBlock(coordinate, Block("lime_concrete"))
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# coordinates = segment_tools.discrete_segment(
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# i.intersections_curved[k][-2][0], i.intersections_curved[k][-2][1])
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# for coordinate in coordinates:
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# editor.placeBlock(coordinate, Block("green_concrete"))
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# ---
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# intersection = (-1510, 94, 455)
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# xyz0 = (-1545, 90, 537)
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# xyz1 = (-1535, 162, 459)
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# circle = curved_corner_by_distance(
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# intersection, xyz0, xyz1, 25, 0)
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# line0 = segment_tools.discrete_segment(intersection, xyz0)
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# line1 = segment_tools.discrete_segment(intersection, xyz1, pixel_perfect=False)
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# editor.placeBlock(
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# circle[1], Block("black_concrete"))
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# editor.placeBlock(
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# circle[3], Block("gray_concrete"))
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# print(circle[3], "center")
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# print(circle[4], "center")
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# for coordinate in circle[0]:
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# editor.placeBlock(
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# coordinate, Block("white_concrete"))
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# print(coordinate)
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# for coordinate in line0:
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# editor.placeBlock(
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# coordinate, Block("blue_concrete"))
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# for coordinate in line1:
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# editor.placeBlock(
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# coordinate, Block("red_concrete"))
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# ---
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# r = Road.Road(((-1829, 141, 553), (-1830, 110, 621), (-1711, 69, 625), (-1662,
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# 65, 627), (-1667, 65, 761), (-1683, 70, 800), (-1721, 70, 834)), "None")
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# r.place_roads()
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# polyline = Polyline((Point2D(0, 0), Point2D(0, 10),
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# Point2D(50, 10), Point2D(20, 20)))
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# # print(polyline.radius_balance(2))
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# # polyline._alpha_assign(1, polyline.length_polyline-1)
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# print(polyline.alpha_radii)
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# p = Polyline((Point2D(0, 0), Point2D(8, 0), Point2D(
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# 16, 8), Point2D(24, 0)))
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# p = Polyline((Point2D(-1420, 867), Point2D(-1362, 738),
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# Point2D(-1157, 717), Point2D(-1099, 843)))
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# p = Polyline((Point2D(-1183, 528), Point2D(-1138, 481),
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# Point2D(-1188, 451), Point2D(-1152, 416)))
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# p = Polyline((Point2D(-1225, 468), Point2D(-1138, 481),
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# Point2D(-1188, 451), Point2D(-1176, 409), Point2D(-1179, 399)))
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w = 100
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n_points = 8
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min_val, max_val = -w, w
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random_points = [Point2D(random.randint(min_val, max_val), random.randint(
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min_val, max_val)) for _ in range(n_points)]
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print(random_points)
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print("\n\n")
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# random_points = (Point2D(-75, -75), Point2D(0, -75), Point2D(75, 75),
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# Point2D(75, -50), Point2D(-50, 50), Point2D(0, 0))
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# random_points = random_points[0].optimized_path(random_points)
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# random_points = [Point2D(-40, -56), Point2D(-94, 92), Point2D(19, -47), Point2D(
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# 100, 59), Point2D(-85, -73), Point2D(-33, -9), Point2D(57, -25), Point2D(51, -34)]
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random_points = random_points[0].optimized_path(random_points)
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p = Polyline(random_points)
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# Point2D(-1156, 378), Point2D(-1220, 359), Point2D(-1265, 290)
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# print(p.alpha_radii)
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radius = p.get_radii()
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center = p.get_centers()
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y = 200
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ww = 15
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width, height = 2*w, 2*w
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image = Image.new('RGB', (width, height), 'black')
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draw = ImageDraw.Draw(image)
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for i in range(len(p.output_points)-1):
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if p.output_points[i] != 0:
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s = Segment2D(Point2D(p.output_points[i].x, p.output_points[i].y), Point2D(
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p.output_points[i+1].x, p.output_points[i+1].y))
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s.segment_thick(ww, LINE_THICKNESS_MODE.MIDDLE)
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for j in range(len(s.points_thick)-1):
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# editor.placeBlock(
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# s.coordinates[j].coordinate, Block("cyan_concrete"))
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draw.point((s.points_thick[j].x+w,
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w-s.points_thick[j].y), fill='grey')
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# for i in range(2, len(p.get_arcs_intersections())-2):
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# s = Segment2D(Point2D(p.acrs_intersections[i][0].x, p.acrs_intersections[i][0].y), Point2D(
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# p.acrs_intersections[i-1][-1].x, p.acrs_intersections[i-1][-1].y))
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# s.segment_thick(ww, LINE_THICKNESS_MODE.MIDDLE)
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# for j in range(len(s.points_thick)-1):
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# # editor.placeBlock(
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# # s.coordinates[j].coordinate, Block("cyan_concrete"))
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# draw.point((s.points_thick[j].x+w,
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# w-s.points_thick[j].y), fill='green')
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# draw.point((p.acrs_intersections[i][0].x+w,
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# w-p.acrs_intersections[i][0].y), fill='green')
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# draw.point((p.acrs_intersections[i][-1].x+w,
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# w-p.acrs_intersections[i][-1].y), fill='green')
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# for i in range(len(center)):
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# if center[i]:
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# circle = Circle(center[i])
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# circle.circle_thick(round(radius[i]-ww/2), round(radius[i]+ww/2))
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# for j in range(len(circle.points_thick)-1):
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# if circle.points_thick[j].is_in_triangle(p.acrs_intersections[i][0], p.acrs_intersections[i][1], p.acrs_intersections[i][2]):
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# # editor.placeBlock(
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# # (circle.coordinates[j].x, y, circle.coordinates[j].y), Block("white_concrete"))
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# draw.point((circle.points_thick[j].x+w,
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# w-circle.points_thick[j].y), fill='green')
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# circle.circle(radius[i])
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# for j in range(len(circle.points)-1):
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# if circle.points[j].is_in_triangle(p.acrs_intersections[i][0], p.acrs_intersections[i][1], p.acrs_intersections[i][2]):
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# # editor.placeBlock(
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# # (circle.coordinates[j].x, y, circle.coordinates[j].y), Block("white_concrete"))
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# draw.point(
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# (circle.points[j].x+w, w-circle.points[j].y), fill='green')
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s1 = Segment2D(Point2D(p.acrs_intersections[1][0].x, p.acrs_intersections[1][0].y), Point2D(
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p.output_points[0].x, p.output_points[0].y))
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s1.segment_thick(ww, LINE_THICKNESS_MODE.MIDDLE)
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for j in range(len(s1.points_thick)-1):
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draw.point((s1.points_thick[j].x+w,
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w-s1.points_thick[j].y), fill='grey')
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s1 = Segment2D(Point2D(p.acrs_intersections[-2][2].x, p.acrs_intersections[-2][2].y), Point2D(
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p.output_points[-1].x, p.output_points[-1].y))
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s1.segment_thick(ww, LINE_THICKNESS_MODE.MIDDLE)
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for j in range(len(s1.points_thick)-1):
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draw.point((s1.points_thick[j].x+w,
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w-s1.points_thick[j].y), fill='grey')
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for i in range(0, len(p.arcs)):
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for j in range(len(p.arcs[i])):
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draw.point((p.arcs[i][j].x+w, w-p.arcs[i][j].y), fill='white')
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for i in range(1, len(p.segments)-1):
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for j in range(len(p.segments[i].segment())):
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draw.point((p.segments[i].points[j].x+w,
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w-p.segments[i].points[j].y), fill='white')
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for i in range(1, len(p.centers)-1):
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draw.point((p.centers[i].x+w, w-p.centers[i].y), fill='red')
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draw.point((p.acrs_intersections[i][0].x+w,
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w-p.acrs_intersections[i][0].y), fill='blue')
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draw.point((p.acrs_intersections[i][1].x+w,
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w-p.acrs_intersections[i][1].y), fill='purple')
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draw.point((p.acrs_intersections[i][2].x+w,
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w-p.acrs_intersections[i][2].y), fill='blue')
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image.save('output_image.png')
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# s = Segment2D(Point2D(-88, -12), Point2D(9, 75))
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# s.segment_thick(3, LINE_THICKNESS_MODE.MIDDLE)
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# print(s.points)
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# s = Segment2D(Point2D(0, 0), Point2D(10, 10)).perpendicular(10)
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# print(s)
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# Note: passer parrallel dans Segment2D pour pouvoir calculer l'intersection entre deux segments
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# de la Polyline pour trouver le centre du cercle. Faire l'arc de cercle en utilise is_in_triangle
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# Okay mb, l'article scientifique explique une procédure sans doute plus efficace.
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# alpha n'est pas un angle.
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