def patio_chair(width=0.45, length=0.45, seat_height=0.40):
seat_thick = 0.05
seat = ddd.rect([0, 0, width, length], name="Chair seat").recenter().extrude(seat_thick)
seat = ddd.uv.map_cubic(seat)
seat = seat.translate([0, 0, seat_height - seat_thick])
stool = ddd.group3([seat], name="Chair stool")
leg_thick = 0.05
leg_padding = leg_thick
for c in [(1, 1), (-1, 1), (-1, -1), (1, -1)]:
leg = ddd.point([c[0] * (width / 2 - leg_padding), c[1] * (length / 2 - leg_padding)]).buffer(leg_thick / 2).extrude(seat_height - seat_thick)
leg = ddd.uv.map_cylindrical(leg)
stool.append(leg)
stool = stool.material(ddd.mats.steel)
stool = ddd.collision.aabox_from_aabb(stool)
back_height = 0.3
back = ddd.rect([width, seat_thick], name="Chair Back").recenter().extrude(back_height)
back = back.material(ddd.mats.steel)
back = ddd.uv.map_cubic(back)
back = back.translate([0, length / 2 - seat_thick, seat_height])
back = ddd.collision.aabox_from_aabb(back)
chair = ddd.group3([stool, back], name="Chair")
chair.extra['ddd:mass'] = 2.5
chair = ddd.meshops.batch_by_material(chair).clean(remove_degenerate=False)
return chair
def basketball_hoop():
"""
"""
ring_r = 0.45 / 2
ring = ddd.disc(
r=ring_r,
name="Basketball hoop ring").outline().buffer(0.015).extrude(-0.03)
ring = ring.material(ddd.mats.steel)
#ring = ddd.uv.map_cubic(ring)
board_w = 1.80
board_h = 1.20
board_ring_h = 0.30
board_shape = ddd.rect(
[board_w, board_h],
name="Basketball hoop board").recenter().extrude(-0.05)
board_shape = board_shape.material(ddd.mats.plastic_transparent)
#board_shape = ddd.uv.map_cubic(board_shape)
board_shape = board_shape.rotate(ddd.ROT_FLOOR_TO_FRONT)
board_shape = board_shape.translate(
[0, ring_r + 0.15, board_h / 2 - board_ring_h])
board = ddd.group3([ring, board_shape], name="Basketball hoop")
board = board.translate([0, 0, 3.05])
pole = curvedpost(3.25, arm_length=1.5,
corner_radius=0.4).rotate(ddd.ROT_TOP_CCW)
pole = pole.material(ddd.mats.metal_paint_red)
pole.prop_set('uv', None, True)
pole = pole.translate([0, ring_r + 0.15 + 0.05 + 1.5, 0])
hoop = ddd.group3([pole, board], name="Basketball hoop with pole")
return hoop
def generate_way_3d_railway(self, way_2d):
'''
'''
# TODO: Elevation shall be applied for ways in a common way: Way generation if special could be handled by ddd:area:type ?
rail_height = 0.20
result = ddd.group3()
for way_2d in way_2d.individualize().flatten().children:
way_2d_interior = way_2d.buffer(-0.3) # .individualize()
if (len(way_2d_interior.individualize().children) > 1):
way_3d = way_2d.triangulate()
else:
way_3d = way_2d.extrude_step(
way_2d_interior,
rail_height,
base=False,
cap=False,
method=ddd.EXTRUSION_METHOD_SUBTRACT)
way_3d = way_3d.material(ddd.mats.dirt)
way_3d = ddd.uv.map_cubic(way_3d)
way_3d.extra['ddd:shadows'] = False
way_3d.extra['ddd:collider'] = True
pathline = way_2d_interior.extra['way_1d'].copy()
way_2d_interior = uvmapping.map_2d_path(way_2d_interior,
pathline,
line_x_offset=0.5,
line_x_width=0.5,
line_d_scale=0.25)
railroad_3d = way_2d_interior.triangulate().translate(
[0, 0, rail_height]).material(ddd.mats.railway)
railroad_3d.extra['ddd:collider'] = True
railroad_3d.extra['ddd:shadows'] = False
try:
uvmapping.map_3d_from_2d(railroad_3d, way_2d_interior)
except Exception as e:
logger.error("Could not map railway UV coordinates: %s", e)
railroad_3d.extra['uv'] = None
railroad_group = ddd.group3([way_3d, railroad_3d])
if int(ddd.data.get('ddd:area:subdivide', 0)) > 0:
railroad_group = ddd.meshops.subdivide_to_grid(
railroad_group, float(ddd.data.get('ddd:area:subdivide')))
result.append(railroad_group)
# Apply elevation
result = self.osm.areas3.generate_area_3d_apply_elevation(
way_2d, result)
return result
def osm_model_init(root, osm):
"""
Initializes the 3D output node tree structure.
"""
root.append(ddd.group3(name="Items3"))
#root.append(ddd.group3(name="Ways3"))
#root.append(ddd.group3(name="Areas3"))
#root.append(ddd.group3(name="Buildings3"))
#root.append(ddd.group3(name="Items3"))
root.append(ddd.group3(name="Other3"))
def generate_area_3d_pitch(self, area_2d):
if area_2d.geom is None or area_2d.geom.is_empty:
return None
area_2d_orig = area_2d.extra.get('ddd:crop:original') #, area_2d)
#logger.debug("Pitch: %s", area_2d)
area_3d = self.generate_area_3d_gen(area_2d)
# TODO: pass size then adapt to position and orientation, easier to construct and reuse
# TODO: get area uncropped (create a cropping utility that stores the original area)
sport_full = area_2d.extra.get('ddd:sport', None)
sport = sport_full.split(";")[0] # Get first value if multivalued
lines = None
if sport == 'tennis':
lines = sports.field_lines_area(area_2d_orig,
sports.tennis_field_lines,
padding=2.5)
elif sport == 'basketball':
lines = sports.field_lines_area(area_2d_orig,
sports.basketball_field_lines,
padding=1)
elif sport == 'gymnastics':
#lines = sports.field_lines_area(area_2d_orig, sports.basketball_field_lines, padding=2.0)
lines = ddd.group3()
elif sport in ('handball'):
lines = sports.field_lines_area(area_2d_orig,
sports.handball_field_lines,
padding=1)
elif sport in ('soccer', 'futsal'):
lines = sports.field_lines_area(area_2d_orig,
sports.football_field_lines,
padding=1)
else:
# No sport assigned
lines = ddd.group3()
if lines:
lines = terrain.terrain_geotiff_elevation_apply(
lines, self.osm.ddd_proj) #.translate([0, 0, 0.01])
height = area_2d.extra.get('ddd:height', 0.0)
lines = lines.translate([0, 0, height])
area_3d = ddd.group3([area_3d, lines])
else:
logger.debug("No pitch lines generated.")
return area_3d
def childrens_playground_swingset(length=2.2, num=2, height=2.1, width=1.6):
"""
"""
frame_thick = 0.06
path = ddd.point([-width / 2, 0], name="Swing path").line_to([-width*2/6, height - width*2/6])
path = path.arc_to([width*2/6, height - width *2/6], [0, height - width*2/6], ccw=False)
path = path.line_to([width / 2, 0])
side_mat = random.choice([ddd.mats.metal_paint_red, ddd.mats.metal_paint_green, ddd.mats.metal_paint_yellow])
frameside = path.buffer(frame_thick / 2).material(side_mat)
frameside = frameside.extrude(frame_thick, center=True).rotate(ddd.ROT_FLOOR_TO_FRONT).rotate(ddd.ROT_TOP_CCW)
frameside = frameside.material(ddd.mats.steel)
frameside = ddd.uv.map_cubic(frameside)
frameside1 = frameside.translate([-length/2, 0, 0])
frameside2 = frameside.translate([length/2, 0, 0])
topbar = ddd.point([(-length + frame_thick) / 2, 0], name="Swing top bar").line_to([(length - frame_thick) / 2, 0])
topbar = topbar.buffer(frame_thick / 2).extrude(frame_thick, center=True).translate([0, 0, height - frame_thick / 4])
topbar = topbar.material(ddd.mats.steel)
topbar = ddd.uv.map_cubic(topbar)
swingset = ddd.group3([frameside1, frameside2, topbar], name="Playground swingset")
for i in range(num):
posx = -length / 2 + (i + 0.5) * (length / (num))
swing = childrens_playground_swing(height=height - 0.4)
swing = swing.translate([posx, 0, height])
swingset.append(swing)
item = swingset
item = ddd.meshops.batch_by_material(item).clean(remove_degenerate=False)
return item
def osm_model_generate_areas(osm, root, pipeline, obj):
area_3d = osm.areas3.generate_area_3d(obj)
if not '_areas_areas_new' in pipeline.data:
pipeline.data['_areas_areas_new'] = ddd.group3(name="Areas")
pipeline.data['_areas_areas_new'].append(area_3d)
def reed(height=None, leaves=None):
if leaves is None:
leaves = random.randint(4, 7)
if height is None:
height = random.uniform(1.3, 1.9)
reed = ddd.group3(name="Reed")
for i in range(leaves):
lh = height + random.uniform(-0.4, 0.4)
lb = 0.02 * lh
item = ddd.polygon([[-lb, 0.0], [lb, 0.0], [0, lh]],
name="Reed leaf").triangulate(
twosided=True).material(ddd.mats.treetop)
item = item.rotate(ddd.ROT_FLOOR_TO_FRONT)
item = ddd.group([item, item.rotate(ddd.ROT_TOP_CW)], name="Reed leaf")
item = ddd.uv.map_cubic(item, scale=(0.2, 2.0))
item = item.rotate([0, 0, random.uniform(0, math.pi)])
item = item.rotate([random.uniform(0.1, 0.3), 0, 0])
torsion_advance = math.pi / 4
item = item.rotate([0, 0, torsion_advance])
rt = 0.15
item = item.translate(
[random.uniform(-rt, rt),
random.uniform(-rt, rt), 0])
reed.append(item)
reed = ddd.align.polar(reed, 0.1, rotate=True)
reed = reed.combine()
return reed
def tree_default(height=3.5, r=0.40, fork_iters=2, fork_height_ratio=0.35):
height = height * (1 + fork_height_ratio)
def trunk_callback(height):
section = ddd.regularpolygon(sides=5, r=r).extrude(height)
section = section.smooth(math.pi * 0.45)
section = ddd.uv.map_cylindrical(section, scale=(2, 2), split=False)
section = section.material(ddd.mats.bark)
return section
def leaves_callback(height):
tt = treetop(r=0.5 + 0.4 * height, subdivisions=0).material(ddd.mats.treetop)
return tt
obj = recursivetree(height=height, r=r, leaves_callback=leaves_callback, trunk_callback=trunk_callback,
fork_iters=fork_iters, fork_height_ratio=fork_height_ratio)
# Booleans and grouping (cut trunk?, merge all)
'''
objs = [p for p in ptrunk.recurse_objects() if p.mesh]
while len(objs) > 1:
newo = objs[0].union(objs[1])
newo.mesh.merge_vertices()
objs = objs[2:] + [newo]
obj = objs[0]
obj = obj.material(mat_leaves)
'''
obj.name = "Tree Default"
objtrunk = obj.select(func=lambda o: o.mat == ddd.mats.bark).combine()
objleaves = obj.select(func=lambda o: o.mat == ddd.mats.treetop).combine()
obj = ddd.group3([objtrunk, objleaves], name="Tree Default")
return obj
def all(self,
size=20.0,
plane_xy=True,
grid_yz=True,
grid_xz=True,
grid_space=2.0,
center=None,
around_center=False):
objs = ddd.group3(name="Helper grid")
if plane_xy:
objs.append(self.plane_xy(size))
if grid_yz:
objs.append(self.grid_yz(size, grid_space))
if grid_xz:
objs.append(self.grid_xz(size, grid_space))
if center is None:
center = [0, 0, 0]
objs = objs.translate([-center[0], -center[1], -center[2]])
if around_center:
objs = objs.translate([-size / 2, -size / 2, 0])
return objs
def materials_list(root):
mats = ddd.group3(name="Materials")
root.append(mats)
# Avoid exporting the same material twice
added_names = []
for key in sorted(dir(ddd.mats)):
mat = getattr(ddd.mats, key)
if isinstance(mat, DDDMaterial):
if mat.name not in added_names:
'''
# This was a test, but these materials need not be converted to linear color space
if mat.texture:
albedo_image = DDDMaterial.load_texture_cached(mat.texture)
albedo_array = np.array(albedo_image)
albedo_array_linear = convert_to_linear(albedo_array[:,:,:3])
if albedo_array.shape[2] == 4:
albedo_array_linear_rgba = np.empty((albedo_array.shape[0], albedo_array.shape[1], 4))
albedo_array_linear_rgba[:,:,:3] = albedo_array_linear[:,:,:]
albedo_array_linear_rgba[:,:,3] = albedo_array[:,:,3]
image_linear = Image.fromarray(np.uint8(albedo_array_linear), "RGBA" if albedo_array_linear.shape[2] == 4 else "RGB")
DDDMaterial._texture_cache[mat.texture] = image_linear
'''
marker = ddd.marker(name=mat.name)
marker = marker.material(mat)
mats.append(marker)
added_names.append(mat.name)
def pipeline_start(pipeline, root):
items = ddd.group3()
item = industrial.crane_vertical()
items.append(item)
item = landscape.powertower()
items.append(item)
item = landscape.lighthouse()
items.append(item)
#item.show()
# TODO: Move generate_item_3d_historic_archaeological_site site generation to sketchy (?)
'''
item = osmitems.ItemsOSMBuilder(None).generate_item_3d_historic_archaeological_site(ddd.point())
items.append(item)
item.show()
'''
item = landscape.comm_tower()
items.append(item)
items = ddd.align.grid(items, 10.0)
items.append(ddd.helper.all())
items.show()
pipeline.root = items
def osm_model_generate_ways(osm, root, pipeline, obj):
obj.extra['ddd:area:elevation'] = 'path'
way_3d = osm.areas3.generate_area_3d(obj)
if not '_ways_areas_new' in pipeline.data:
pipeline.data['_ways_areas_new'] = ddd.group3(name="Ways")
pipeline.data['_ways_areas_new'].append(way_3d)
def osm_structured_ways_2d_generate_roadlines(root, osm, pipeline, logger):
"""
Roadlines are incorporated here, but other augmented properties (traffic lights, lamp posts, traffic signs...)
are added during augmentation.
"""
logger.info("Generating roadlines.")
root.append(ddd.group2(name="Roadlines2"))
# TODO: This shall be moved to s60, in 3D, and separated from 2D roadline generation
pipeline.data["Roadlines3"] = ddd.group3(name="Roadlines3")
def pipeline_start(pipeline, root):
"""
Draws several catenary cables.
"""
ddd.mats.traffic_signs = ddd.material(name="TrafficSigns", color="#ffffff", #color="#e01010",
texture_path=ddd.DATA_DIR + "/materials/traffic-signs-es/traffic_signs_es_0.png",
atlas_path=ddd.DATA_DIR + "/materials/traffic-signs-es/traffic_signs_es_0.plist",
extra={'ddd:texture:resize': 2048})
items = ddd.group3()
# Cube with logo
fig = ddd.box()
fig = fig.material(ddd.mats.logo)
fig = ddd.uv.map_cubic(fig)
items.append(fig)
# Sphere with logo
fig = ddd.sphere()
fig = fig.material(ddd.mats.logo)
#fig = fig.merge_vertices()
#fig = fig.smooth(math.pi*2)
fig = ddd.uv.map_spherical(fig)
fig = fig.translate([0, 0, 2])
items.append(fig)
# Cube
fig = ddd.box()
fig = fig.material(ddd.mats.traffic_signs)
fig = ddd.uv.map_cubic(fig)
#fig.show()
#items.append(fig)
fig = TextureAtlasUtils().create_sprite_rect(ddd.mats.traffic_signs)
#fig.show()
#items.append(fig)
fig = TextureAtlasUtils().create_sprite_from_atlas(ddd.mats.traffic_signs, "ES_P6.png")
#fig.show()
#items.append(fig)
'''
ddd.mats.roadmarks = ddd.material(name="Roadmarks", color='#e8e8e8',
texture_path=ddd.DATA_DIR + "/materials/road-marks-es/TexturesCom_Atlas_RoadMarkings2_White_1K_albedo_with_alpha.png",
atlas_path=ddd.DATA_DIR + "/materials/road-marks-es/RoadMarkings2.plist")
fig = TextureAtlasUtils().create_sprite_from_atlas(ddd.mats.roadmarks, "give_way")
fig.show()
'''
items = ddd.align.grid(items, width=4)
items.append(ddd.helper.all(size=40.0, center=[5, 5, 0]).twosided())
root.append(items)
def pipeline_logo(pipeline, root):
"""
"""
logo = ddd.group3()
thick = 0.125
margin = 0.4
line_out = ddd.line([
(1.0, 0.0, 0.4),
(1.0, 0.0, 0.0),
(0.0, 0.0, 0.0),
(0.0, 1.0, 0.0),
(0.0, 1.0, 1.0),
(1.0, 1.0, 1.0),
(1.0, 0.0, 1.0),
(1.0, 0.0, 0.6),
])
base = ddd.rect([thick, thick], name="Logo exterior").recenter()
item = base.extrude_along(line_out)
item = item.material(ddd.mats.steel)
#item = item.rotate([0, 0, 0.2])
item = ddd.uv.map_cubic(
item
) # FIXME: One of the corner vertices are not being split (but they are if slightly rotated)
logo.append(item)
line_in = ddd.line([
(1.0 - margin, 1.0 - margin - 0.1, 1),
(1.0 - margin, 1.0 - margin, 1),
(0.0, 1.0 - margin, 1),
(0.0, 0.0, 1),
(1.0 - margin, 0.0, 1),
(1.0 - margin, 0.0, margin),
(0.0, 0.0, margin),
(0.0, 1.0 - margin, margin),
(0.0, 1.0 - margin, 1.0 - margin),
(0.0, 1.0 - margin - 0.1, 1.0 - margin),
])
item = base.extrude_along(line_in)
item = item.material(ddd.mats.green)
item = ddd.uv.map_cubic(item)
logo.append(item)
#logo = logo.scale([2, 2, 2])
logo.show()
root.append(logo)
root.append(ddd.helper.all(center=[10, 10, 1]))
def materials_list(root, osm):
mats = ddd.group3(name="Materials")
root.append(mats)
for key in dir(ddd.mats):
mat = getattr(ddd.mats, key)
if isinstance(mat, DDDMaterial):
marker = ddd.marker(name=mat.name)
marker = marker.material(mat)
mats.append(marker)
def rooms_test_show(root, pipeline):
root.dump()
items = ddd.group([root.find("/Rooms"), root.find("/Items")])
nitems = ddd.group3()
items = items.flatten()
for item in items.children:
item = item.extrude(20.0 + item.get('ddd:z_index', 0))
item = item.translate([0, 0, -item.get('ddd:z_index', 0)])
nitems.append(item)
def grid_xz(self, size=10.0, grid_space=1.0):
gw = 0.05
grid = ddd.group3(name="Helper grid XZ")
for i in range(int(size / grid_space) + 1):
line1 = ddd.box([i * grid_space, 0, 0, i * grid_space + gw, 0 + gw, size])
grid.append(line1)
for j in range(int(size / grid_space) + 1):
line2 = ddd.box([0, 0, j * grid_space, size, 0 + gw, j * grid_space + gw])
grid.append(line2)
grid = grid.combine()
return grid
def tree_fir(height=20, r=0.2):
"""
(Abeto) They are large trees, reaching heights of 10–80 m (33–262 ft) tall with trunk diameters
of 0.5–4 m (1 ft 8 in–13 ft 1 in) when mature.
"""
top_r = (height / 4) * random.uniform(0.9, 1.1)
top_base_h = height / 10
section = ddd.regularpolygon(sides=5, r=r).extrude_step(ddd.regularpolygon(sides=5, r=r*0.1), height)
section = ddd.uv.map_cylindrical(section)
section = section.material(ddd.mats.bark)
#pol = ddd.regularpolygon(sides=9, r=1)
#layer = pol.extrude_step(pol.scale(0.5), -0.4, base=False, cap=False)
#layer = layer.extrude_step(ddd.point(), -0.2, cap=False)
#layer = layer.material(ddd.mats.treetop).twosided().translate([0, 0, 0.6])
layer = ddd.sphere(subdivisions=1).scale([1, 1, 0.5])
#layer = ddd.uv.map_spherical(layer)
layer = layer.vertex_func(lambda x, y, z, i: [x, y, z + ((x*x + y*y) * 0.7)])
layer = layer.material(ddd.mats.treetop)
numlayers = 8
leaves = ddd.group3(name="Fir leaves group")
for i in range(numlayers):
lh = top_base_h + ((height - top_base_h) / (numlayers - 1)) * i
lobj = layer.copy(name="Fir leaves %d" % i)
lscale = top_r * (1 / numlayers) * (numlayers - i)
lobj = layer.scale([lscale, lscale, lscale]).translate([0, 0, lh])
#lobj = ddd.uv.map_cubic(lobj)
leaves.append(lobj)
leaves = leaves.combine()
leaves = leaves.merge_vertices()
#leaves = leaves.smooth(math.pi*2)
leaves = ddd.uv.map_spherical(leaves, scale=[4, 8], split=False)
obj = ddd.group3([section.combine(), leaves], name="Fir")
#obj.show()
return obj
def generate_buildings_3d(self, buildings_2d):
logger.info("Generating 3D buildings (%d)", len(buildings_2d.children))
buildings_3d = ddd.group3(name="Buildings")
for building_2d in buildings_2d.children:
if building_2d.extra.get('ddd:building:parent', None) in (None, building_2d):
logger.debug("Generating building: %s", building_2d)
building_3d = self.generate_building_3d_generic(building_2d)
if building_3d and len(list(building_3d.vertex_iterator())) > 0:
self.generate_building_3d_amenities(building_3d)
building_3d = self.generate_building_3d_elevation(building_3d)
buildings_3d.append(building_3d)
return buildings_3d
def window_with_border(width=1.6,
height=1.2,
border_depth=0.05,
border_thick=0.1): #, shelf_thick=None):
interior = window_interior(width=width - border_thick * 2,
height=height - border_thick * 2).translate(
[0, 0, border_thick])
border = window_border_flat(width=width,
height=height,
border_depth=border_depth,
border_thick=border_thick)
obj = ddd.group3([interior, border], "Window")
return obj
def pipeline_start(pipeline, root):
"""
"""
items = ddd.group3()
heights = (3.0, 5.0, 10.0, 15.0)
for h in heights:
item = plants.reed(height=h)
items.append(item)
for h in heights:
item = plants.tree_default(height=h)
items.append(item)
for h in heights:
item = plants.tree_palm(height=h)
items.append(item)
for h in heights:
item = plants.tree_fir(height=h)
items.append(item)
items_org = items.copy()
# Original
items = items_org.copy()
items = ddd.align.grid(items)
items.append(ddd.helper.all())
items.show()
# Simplify using convex hull
items = ddd.meshops.reduce(items_org)
items = ddd.align.grid(items)
items.append(ddd.helper.all())
items.show()
# Simplify using bounds
items = ddd.meshops.reduce_bounds(items_org)
items = ddd.align.grid(items)
items.append(ddd.helper.all())
items.show()
# Simplify using quadric decimation
items = ddd.meshops.reduce_quadric_decimation(items_org, target_ratio=0.25)
items = ddd.align.grid(items)
items.append(ddd.helper.all())
items.show()
root.append(items)
def tree_palm(height=14, r=0.30):
"""
Arecaceae. Currently 181 genera with around 2,600 species are known.
Different species of palm trees attain different heights. The Queen Palm, for instance,
can reach 20 m in height, while the Majesty Palm grows to a maximum height of 12m and
the Black Trunk Palm can reach a towering height of 28 m.
The palms can reach a height of over 25 m, with trunks between 9 cm and 16 cm in diameter.
The palms generally grow with 4–9 stems per clump, but up to 25 stems is possible.
"""
def trunk_callback(height):
section = ddd.regularpolygon(sides=5, r=r).extrude_step(ddd.regularpolygon(sides=5, r=r*0.8), height * 0.15)
section = section.extrude_step(ddd.regularpolygon(sides=5, r=r*0.8).translate([random.uniform(-0.4, 0.4), random.uniform(-0.4, 0.4)]), height * 0.35)
section = section.extrude_step(ddd.regularpolygon(sides=5, r=r*0.7).translate([random.uniform(-0.3, 0.3), random.uniform(-0.3, 0.3)]), height * 0.5)
section = section.smooth(math.pi * 0.45)
section = ddd.uv.map_cylindrical(section, split=False)
section = section.material(ddd.mats.bark)
return section
def leaves_callback(sheight):
golden = (1 + 5 ** 0.5) / 2
leaf = ddd.group3(name="Leaf group")
tt = palm_leaf(length=0.5 + height / 5, fallfactor=1.45).material(ddd.mats.treetop)
tt = ddd.align.matrix_polar(tt, 5)
leaf.append(tt)
tt = palm_leaf(length=1.1 + height / 5, fallfactor=1.2).rotate([0, -math.pi * 0.1, math.pi * 2 * (golden)]).material(ddd.mats.treetop)
tt = ddd.align.matrix_polar(tt, 3)
leaf.append(tt)
tt = palm_leaf(length=0.5 + height / 6, fallfactor=1).rotate([0, -math.pi * 0.3, math.pi * 2 * (golden * 2)]).material(ddd.mats.treetop)
tt = ddd.align.matrix_polar(tt, 2)
leaf.append(tt)
return leaf
obj = recursivetree(height=height, r=r, fork_iters=1, fork_angle=10.0, fork_height_ratio=1.0,
trunk_callback=trunk_callback, leaves_callback=leaves_callback)
obj.name = "Tree Palm"
objtrunk = obj.select(func=lambda o: o.mat == ddd.mats.bark).combine()
objleaves = obj.select(func=lambda o: o.mat == ddd.mats.treetop).combine()
objleaves = ddd.uv.map_cubic(objleaves)
#objleaves.mesh.merge_vertices()
obj = ddd.group3([objtrunk, objleaves], name="Tree Palm")
#obj.show()
return obj
def leaves_callback(sheight):
golden = (1 + 5 ** 0.5) / 2
leaf = ddd.group3(name="Leaf group")
tt = palm_leaf(length=0.5 + height / 5, fallfactor=1.45).material(ddd.mats.treetop)
tt = ddd.align.matrix_polar(tt, 5)
leaf.append(tt)
tt = palm_leaf(length=1.1 + height / 5, fallfactor=1.2).rotate([0, -math.pi * 0.1, math.pi * 2 * (golden)]).material(ddd.mats.treetop)
tt = ddd.align.matrix_polar(tt, 3)
leaf.append(tt)
tt = palm_leaf(length=0.5 + height / 6, fallfactor=1).rotate([0, -math.pi * 0.3, math.pi * 2 * (golden * 2)]).material(ddd.mats.treetop)
tt = ddd.align.matrix_polar(tt, 2)
leaf.append(tt)
return leaf
def generate_scenario_run(root):
"""
Create a circular platform for articles.
Hill size according to importance
"""
elements = root.find("/Elements2")
num_items = elements.count()
logger.info("Num elements: %s", num_items)
distance = (num_items * 10) / (2 * math.pi)
#result = ddd.align.polar(elements, d=distance)
result = ddd.align.grid(elements)
elements.replace(result)
elements3 = ddd.group3(name="Elements3")
root.append(elements3)
def pipeline_test_line_substring(pipeline, root, logger):
"""
Tests geometric operations.
"""
items = ddd.group3()
# Test substrings
obj = ddd.line([(0, 0), (4, 0)])
obj2 = obj.line_substring(1.0, -1.0)
result = ddd.group([
obj.buffer(0.1, cap_style=ddd.CAP_FLAT),
obj2.buffer(0.1, cap_style=ddd.CAP_FLAT).material(ddd.MAT_HIGHLIGHT)
])
result.show()
def iconitem(path, size=(1, 1), depth=0.2, bisel=None):
item = ddd.load(path)
item = ddd.align.anchor(item, ddd.ANCHOR_BOTTOM_CENTER)
item = ddd.geomops.resize(item, size)
result = ddd.group3(name="Icon Item")
#print(piece3)
#print(piece3.is_empty())
#sys.exit(1)
for piece in item.union().individualize(always=True).flatten().children:
piece3 = None
#piece = piece.clean(0)
if bisel:
piece_smaller = piece.buffer(-bisel)
try:
piece3 = piece_smaller.extrude_step(
piece, bisel, method=ddd.EXTRUSION_METHOD_SUBTRACT)
piece3 = piece3.extrude_step(
piece,
depth - bisel * 2,
method=ddd.EXTRUSION_METHOD_SUBTRACT)
piece3 = piece3.extrude_step(
piece_smaller, bisel, method=ddd.EXTRUSION_METHOD_SUBTRACT)
except:
piece3 = None
if not piece3 or piece3.is_empty(
) or piece3.extra['_extrusion_steps'] < 3:
try:
piece3 = piece.extrude(depth)
except:
logger.warn("Could not create iconitem for: %s", path)
return None
result.append(piece3)
result = result.rotate(ddd.ROT_FLOOR_TO_FRONT)
result = result.combine()
result = ddd.uv.map_cubic(result)
result.name = "Icon Item"
return result
def osm_model_generate_structures(osm, root, pipeline, logger):
"""
TODO: Generate structures as a whole, without dealing with individual types, using metadata.
"""
structures = ddd.group3(name="Structures3")
#sidewalks_3d = objsidewalks_2d.extrude(0.3).translate([0, 0, -5]).material(ddd.mats.sidewalk)
walls = root.find("/Structures2/Walls")
if walls:
walls_3d = walls.extrude(5.5).translate([0, 0,
-6]).material(ddd.mats.cement)
walls_3d = terrain.terrain_geotiff_elevation_apply(
walls_3d, osm.ddd_proj)
if int(ddd.data.get('ddd:area:subdivide', 0)) > 0:
walls_3d = ddd.meshops.subdivide_to_grid(
walls_3d, float(ddd.data.get('ddd:area:subdivide')))
walls_3d = ddd.uv.map_cubic(walls_3d)
structures.append(walls_3d)
ceilings = root.find("/Structures2/Ceilings")
if ceilings:
ceilings_3d = ceilings.extrude(0.5).translate([0, 0, -1.0]).material(
ddd.mats.cement)
ceilings_3d = terrain.terrain_geotiff_elevation_apply(
ceilings_3d, osm.ddd_proj)
if int(ddd.data.get('ddd:area:subdivide', 0)) > 0:
ceilings_3d = ddd.meshops.subdivide_to_grid(
ceilings_3d, float(ddd.data.get('ddd:area:subdivide')))
ceilings_3d = ddd.uv.map_cubic(ceilings_3d)
structures.append(ceilings_3d)
#sidewalks_3d = terrain.terrain_geotiff_elevation_apply(sidewalks_3d, self.osm.ddd_proj)
#sidewalks_3d = ddd.uv.map_cubic(sidewalks_3d)
#floors_3d = floors_2d.extrude(-0.3).translate([0, 0, -5]).material(ddd.mats.sidewalk)
#floors_3d = floors_2d.triangulate().translate([0, 0, -5]).material(ddd.mats.sidewalk)
#floors_3d = terrain.terrain_geotiff_elevation_apply(floors_3d, osm.ddd_proj)
#subway = ddd.group([sidewalks_3d, walls_3d, floors_3d, ceilings_3d], empty=3).translate([0, 0, -0.2])
#self.osm.other_3d.children.append(subway)
root.append(structures)
def tennis_net(width, net_height_center=0.914, net_height_post=1.07):
"""
Tennis net, on XY along the Y axis (since playground fields are seen x: length, y: width).
"""
post1 = urban.post(net_height_post + 0.15).translate(
[0, -width * 0.5, 0]).material(ddd.mats.steel)
post2 = urban.post(net_height_post + 0.15).translate(
[0, +width * 0.5, 0]).material(ddd.mats.steel)
net = ddd.polygon(
[[-width * 0.5, 0], [width * 0.5, 0], [width * 0.5, net_height_post],
[0, net_height_center], [-width * 0.5, net_height_post]],
name="Tennis net")
net = net.triangulate(twosided=True).material(ddd.mats.fence)
net = net.rotate(ddd.ROT_FLOOR_TO_FRONT).rotate(ddd.ROT_TOP_CCW)
net = ddd.uv.map_cubic(net)
item = ddd.group3([post1, post2, net])
return item