def calc_solid(face_footprint, range_floors, flr2flr_height, config):
# create faces for every floor and extrude the solid
moved_face_list = []
for floor_counter in range_floors:
dist2mve = floor_counter * flr2flr_height
# get midpt of face
orig_pt = calculate.face_midpt(face_footprint)
# move the pt 1 level up
dest_pt = modify.move_pt(orig_pt, (0, 0, 1), dist2mve)
moved_face = modify.move(orig_pt, dest_pt, face_footprint)
moved_face_list.append(moved_face)
# make checks to satisfy a closed geometry also called a shell
vertical_shell = construct.make_loft(moved_face_list)
vertical_face_list = fetch.topo_explorer(vertical_shell, "face")
roof = moved_face_list[-1]
footprint = moved_face_list[0]
all_faces = []
all_faces.append(footprint)
all_faces.extend(vertical_face_list)
all_faces.append(roof)
building_shell_list = construct.sew_faces(all_faces)
# make sure all the normals are correct (they are pointing out)
bldg_solid = construct.make_solid(building_shell_list[0])
bldg_solid = modify.fix_close_solid(bldg_solid)
if config.general.debug:
# visualize building progress while debugging
face_list = fetch.topo_explorer(bldg_solid, "face")
edges = calculate.face_normal_as_edges(face_list, 5)
utility.visualise([face_list, edges], ["WHITE", "BLACK"])
return bldg_solid
]
walls_s = [
val for sublist in geometry_3D_surroundings for val in sublist['walls']
]
windows_s = [
val for sublist in geometry_3D_surroundings
for val in sublist['windows']
]
roof_s = [
val for sublist in geometry_3D_surroundings for val in sublist['roofs']
]
geometry_buildings_nonop.extend(windows)
geometry_buildings_nonop.extend(windows_s)
geometry_buildings.extend(walls)
geometry_buildings.extend(roofs)
geometry_buildings.extend(footprint)
geometry_buildings.extend(walls_s)
geometry_buildings.extend(roof_s)
normals_terrain = calculate.face_normal_as_edges(geometry_terrain, 5)
utility.visualise([
geometry_terrain, geometry_buildings, geometry_buildings_nonop,
walls_intercept
], ["GREEN", "WHITE", "BLUE", "RED"]) # install Wxpython
utility.visualise([walls_intercept], ["RED"])
utility.visualise([walls], ["RED"])
utility.visualise([windows], ["RED"])
def building2d23d(locator, geometry_terrain, config, height_col, nfloor_col):
"""
:param locator: InputLocator - provides paths to files in a scenario
:type locator: cea.inputlocator.InputLocator
:param config: the configuration object to use
:type config: cea.config.Configuration
:param height_col: name of the columns storing the height of buildings
:param nfloor_col: name ofthe column storing the number of floors in buildings.
:return:
"""
# settings: parameters that configure the level of simplification of geometry
settings = config.radiation_daysim
consider_windows = True #legacy from config file. now it is always true
district_shp_path = locator.get_district_geometry()
# path to zone geometry database
zone_shp_path = locator.get_zone_geometry()
# path to database of architecture properties
architecture_dbf_path = locator.get_building_architecture()
# read district shapefile and names of buildings of the district and the zone of analysis
district_building_records = gdf.from_file(district_shp_path)
zone_building_records = gdf.from_file(zone_shp_path)
zone_building_names = zone_building_records['Name'].values
#calculate district geometry (These are the surroundings of the zone oif interest and we simplify it to speet up computations)
#first make sure that the district file does not contain buildings in the zone, if it does then erase them
district_building_records = district_building_records.loc[
~district_building_records["Name"].isin(zone_building_names)]
district_building_records.reset_index(inplace=True, drop=True)
#now append to the district building records, those of the zone
district_building_records = district_building_records.append(
zone_building_records, ignore_index=True)
district_building_records.set_index('Name', inplace=True)
district_building_names = district_building_records.index.values
# Read architecture properties
architecture_wwr = gdf.from_file(architecture_dbf_path).set_index('Name')
#make shell out of tin_occface_list and create OCC object
terrain_shell = construct.make_shell(geometry_terrain)
terrain_intersection_curves = IntCurvesFace_ShapeIntersector()
terrain_intersection_curves.Load(terrain_shell, 1e-6)
#empty list where to store the closed geometries
geometry_3D_zone = []
geometry_3D_surroundings = []
for name in district_building_names:
print('Generating geometry for building %(name)s' % locals())
height = float(district_building_records.loc[name, height_col])
nfloors = int(district_building_records.loc[name, nfloor_col])
# simplify geometry tol =1 for buildings of interest, tol = 5 for surroundings
if (name in zone_building_names) and settings.consider_floors:
range_floors = range(nfloors + 1)
flr2flr_height = height / nfloors
geometry = district_building_records.ix[name].geometry.simplify(
settings.zone_geometry, preserve_topology=True)
else:
range_floors = [0, 1]
flr2flr_height = height
geometry = district_building_records.ix[name].geometry.simplify(
settings.surrounding_geometry, preserve_topology=True)
# burn buildings footprint into the terrain and return the location of the new face
print('burning building ', name)
face_footprint = burn_buildings(geometry, terrain_intersection_curves)
# create floors and form a solid
building_solid = calc_solid(face_footprint, range_floors,
flr2flr_height, config)
# now get all surfaces and create windows only if the buildings are in the area of study
window_list = []
wall_list = []
orientation = []
orientation_win = []
normals_w = []
normals_win = []
if (name in zone_building_names):
if (consider_windows):
# identify building surfaces according to angle:
face_list = py3dmodel.fetch.faces_frm_solid(building_solid)
facade_list_north, facade_list_west, \
facade_list_east, facade_list_south, roof_list, footprint_list = identify_surfaces_type(face_list)
# get window properties
wwr_west = architecture_wwr.ix[name, "wwr_west"]
wwr_east = architecture_wwr.ix[name, "wwr_east"]
wwr_north = architecture_wwr.ix[name, "wwr_north"]
wwr_south = architecture_wwr.ix[name, "wwr_south"]
window_west, wall_west, normals_windows, normals_walls = calc_windows_walls(
facade_list_west, wwr_west)
if len(window_west) != 0:
window_list.extend(window_west)
orientation_win.extend(['west'] * len(window_west))
normals_win.extend(normals_windows)
wall_list.extend(wall_west)
orientation.extend(['west'] * len(wall_west))
normals_w.extend(normals_walls)
window_east, wall_east, normals_windows, normals_walls = calc_windows_walls(
facade_list_east, wwr_east)
if len(window_east) != 0:
window_list.extend(window_east)
orientation_win.extend(['east'] * len(window_east))
normals_win.extend(normals_windows)
wall_list.extend(wall_east)
orientation.extend(['east'] * len(wall_east))
normals_w.extend(normals_walls)
window_north, wall_north, normals_windows_north, normals_walls_north = calc_windows_walls(
facade_list_north, wwr_north)
if len(window_north) != 0:
window_list.extend(window_north)
orientation_win.extend(['north'] * len(window_north))
normals_win.extend(normals_windows_north)
wall_list.extend(wall_north)
orientation.extend(['north'] * len(wall_north))
normals_w.extend(normals_walls_north)
window_south, wall_south, normals_windows_south, normals_walls_south = calc_windows_walls(
facade_list_south, wwr_south)
if len(window_south) != 0:
window_list.extend(window_south)
orientation_win.extend(['south'] * len(window_south))
normals_win.extend(normals_windows_south)
wall_list.extend(wall_south)
orientation.extend(['south'] * len(wall_south))
normals_w.extend(normals_walls_south)
geometry_3D_zone.append({
"name": name,
"windows": window_list,
"walls": wall_list,
"roofs": roof_list,
"footprint": footprint_list,
"orientation_walls": orientation,
"orientation_windows": orientation_win,
"normals_windows": normals_win,
"normals_walls": normals_w
})
else:
facade_list, roof_list, footprint_list = gml3dmodel.identify_building_surfaces(
building_solid)
wall_list = facade_list
geometry_3D_zone.append({
"name": name,
"windows": window_list,
"walls": wall_list,
"roofs": roof_list,
"footprint": footprint_list,
"orientation_walls": orientation,
"orientation_windows": orientation_win,
"normals_windows": normals_win,
"normals_walls": normals_w
})
if config.general.debug:
# visualize building progress while debugging
edges1 = calculate.face_normal_as_edges(wall_list, 5)
edges2 = calculate.face_normal_as_edges(roof_list, 5)
edges3 = calculate.face_normal_as_edges(footprint_list, 5)
utility.visualise([
wall_list, roof_list, footprint_list, edges1, edges2,
edges3
], ["WHITE", "WHITE", "WHITE", "BLACK", "BLACK", "BLACK"])
else:
facade_list, roof_list, footprint_list = urbangeom.identify_building_surfaces(
building_solid)
wall_list = facade_list
geometry_3D_surroundings.append({
"name": name,
"windows": window_list,
"walls": wall_list,
"roofs": roof_list,
"footprint": footprint_list,
"orientation_walls": orientation,
"orientation_windows": orientation_win,
"normals_windows": normals_win,
"normals_walls": normals_w
})
if config.general.debug:
# visualize building progress while debugging
edges1 = calculate.face_normal_as_edges(wall_list, 5)
edges2 = calculate.face_normal_as_edges(roof_list, 5)
edges3 = calculate.face_normal_as_edges(footprint_list, 5)
utility.visualise([
wall_list, roof_list, footprint_list, edges1, edges2,
edges3
], ["WHITE", "WHITE", "WHITE", "BLACK", "BLACK", "BLACK"])
return geometry_3D_zone, geometry_3D_surroundings