def generate_tiles(tile_settings):
radius, angle, scale, separate, grid_list, sides = tile_settings
vert_grid_list, edge_grid_list, poly_grid_list = [[], [], []]
local_angle = 45 if sides == 4 else 30
tile = circle(radius*scale, radians(local_angle - angle), sides, None, 'pydata')
for grid in grid_list:
vert_list, edge_list, poly_list = [[], [], []]
if sides == 3:
tiles_triangular(vert_list, edge_list, poly_list, tile, grid)
else:
tiles(vert_list, edge_list, poly_list, tile, grid)
if not separate:
vert_list, edge_list, poly_list = mesh_join(vert_list, edge_list, poly_list)
if scale == 1.0:
vert_list, edge_list, poly_list = remove_doubles(vert_list, [], poly_list, 0.001)
vert_grid_list.append(vert_list)
edge_grid_list.append(edge_list)
poly_grid_list.append(poly_list)
return vert_grid_list, edge_grid_list, poly_grid_list
def generate_tiles(tile_settings):
radius, angle, scale, separate, grid_list, sides = tile_settings
vert_grid_list, edge_grid_list, poly_grid_list = [[], [], []]
local_angle = 45 if sides == 4 else 30
tile = circle(radius*scale, radians(local_angle - angle), sides, None, 'pydata')
for grid in grid_list:
vert_list, edge_list, poly_list = [[], [], []]
if sides == 3:
tiles_triangular(vert_list, edge_list, poly_list, tile, grid)
else:
tiles(vert_list, edge_list, poly_list, tile, grid)
if not separate:
vert_list, edge_list, poly_list = mesh_join(vert_list, edge_list, poly_list)
if scale == 1.0:
vert_list, edge_list, poly_list, _ = remove_doubles(vert_list, poly_list, 0.01, False)
vert_grid_list.append(vert_list)
edge_grid_list.append(edge_list)
poly_grid_list.append(poly_list)
return vert_grid_list, edge_grid_list, poly_grid_list
def generate_tiles(radius, angle, separate, gridList):
verts, edges, polys = circle(radius, radians(30 - angle), 6, None,
'pydata')
vertGridList, edgeGridList, polyGridList = [[], [], []]
for grid in gridList:
vertList, edgeList, polyList = [[], [], []]
addVert, addEdge, addPoly = [
vertList.append, edgeList.append, polyList.append
]
for cx, cy, _ in grid:
verts2 = [(x + cx, y + cy, 0.0) for x, y, _ in verts]
addVert(verts2)
addEdge(edges)
addPoly(polys)
if not separate:
vertList, edgeList, polyList = mesh_join(vertList, edgeList,
polyList)
vertGridList.append(vertList)
edgeGridList.append(edgeList)
polyGridList.append(polyList)
return vertGridList, edgeGridList, polyGridList
def evaluate(self):
# (radius=1.0, phase=0, nverts=20, matrix=None, mode='pydata')
verts, edges, faces = circle(radius=self.radius,
nverts=self.points,
mode='np')
self.outputs['verts'].data_set(verts)
self.outputs['edges'].data_set(edges)
self.outputs['faces'].data_set(faces)
def generate_tiles(radius, angle, separate, gridList):
verts, edges, polys = circle(radius, radians(30 - angle), 6, None, 'pydata')
vertGridList, edgeGridList, polyGridList = [[], [], []]
for grid in gridList:
vertList, edgeList, polyList = [[], [], []]
addVert, addEdge, addPoly = [vertList.append, edgeList.append, polyList.append]
for cx, cy, _ in grid:
verts2 = [(x + cx, y + cy, 0.0) for x, y, _ in verts]
addVert(verts2)
addEdge(edges)
addPoly(polys)
if not separate:
vertList, edgeList, polyList = mesh_join(vertList, edgeList, polyList)
vertGridList.append(vertList)
edgeGridList.append(edgeList)
polyGridList.append(polyList)
return vertGridList, edgeGridList, polyGridList