def calculate_windows_size(self):
global epsilon
#=======================================================================
# Get the insert node with windows
#=======================================================================
insert_windows = None
for insert in self.get_inserts():
for filter_group in insert.parm('filter').evalAsString().split():
if(filter_group == self.extract_parm_from_user_restrictions('label_window')):
insert_windows = insert
break
try:
if(not insert_windows):
logging.error('Class BuildingStructure, Label window not found at inserts')
raise Errors.CantBeNoneError('Window cant be none',
'Label window not found at inserts')
except Errors.CantBeNoneError as e:
Errors.Error.display_exception(e)
exit()
#=======================================================================
# Get the size of the geometry of own window primitive
#=======================================================================
# We use the parent node because the insertnode has a cooked geometry
# with windows inserteds.
previous_node = insert_windows.inputs()[0]
delete_node = previous_node.createOutputNode('delete')
delete_node.parm('group').set(self.extract_parm_from_user_restrictions('label_window'))
delete_node.parm('negate').set('keep')
some_window = delete_node.geometry().prims()[0]
window_points = [list(p.point().position()) for p in some_window.vertices()]
window_bounding_box = GeoMath.boundingBox(window_points)
window_size = [window_bounding_box.sizevec()[0], window_bounding_box.sizevec()[1]]
return window_size
def display_on(self, name = 'floor', HI = None):
if(not HI):
HI = HouInterface.HouInterface()
# Get the size of the floor using its points
bounding_box = GeoMath.boundingBox(self.get_absolute_points())
size = bounding_box.sizevec()
# Put the size 'y' that user wants the floor to be
size[1] = self.extract_parm_from_user_restrictions('floor_default_size_y')
center = GeoMath.centerOfPoints(self.get_absolute_points())
nodeName = HI.showCube(name, size, center)
self.associate_nodes = HI.cubes[nodeName]
def display_on(self, name='floor', HI=None):
if (not HI):
HI = HouInterface.HouInterface()
# Get the size of the floor using its points
bounding_box = GeoMath.boundingBox(self.get_absolute_points())
size = bounding_box.sizevec()
# Put the size 'y' that user wants the floor to be
size[1] = self.extract_parm_from_user_restrictions(
'floor_default_size_y')
center = GeoMath.centerOfPoints(self.get_absolute_points())
nodeName = HI.showCube(name, size, center)
self.associate_nodes = HI.cubes[nodeName]
def calculate_windows_size(self):
global epsilon
#=======================================================================
# Get the insert node with windows
#=======================================================================
insert_windows = None
for insert in self.get_inserts():
for filter_group in insert.parm('filter').evalAsString().split():
if (filter_group == self.extract_parm_from_user_restrictions(
'label_window')):
insert_windows = insert
break
try:
if (not insert_windows):
logging.error(
'Class BuildingStructure, Label window not found at inserts'
)
raise Errors.CantBeNoneError(
'Window cant be none', 'Label window not found at inserts')
except Errors.CantBeNoneError as e:
Errors.Error.display_exception(e)
exit()
#=======================================================================
# Get the size of the geometry of own window primitive
#=======================================================================
# We use the parent node because the insertnode has a cooked geometry
# with windows inserteds.
previous_node = insert_windows.inputs()[0]
delete_node = previous_node.createOutputNode('delete')
delete_node.parm('group').set(
self.extract_parm_from_user_restrictions('label_window'))
delete_node.parm('negate').set('keep')
some_window = delete_node.geometry().prims()[0]
window_points = [
list(p.point().position()) for p in some_window.vertices()
]
window_bounding_box = GeoMath.boundingBox(window_points)
window_size = [
window_bounding_box.sizevec()[0],
window_bounding_box.sizevec()[1]
]
return window_size
def calculate_tubes_position(self):
for floor in self.floor_structure.get_floors():
center = GeoMath.centerOfPoints(floor.get_absolute_points())
# ==================================================================
# Guess how many tubes for each part. We divide the floor into 4 parts
# in a half in x direction and in a half in z direction.
# ==================================================================
boun = GeoMath.boundingBox(floor.get_absolute_points())
height_x_tubes = boun.sizevec()[2]
height_z_tubes = boun.sizevec()[0]
orientation_x_tubes = "z"
orientation_z_tubes = "x"
size_x_half_section = boun.sizevec()[0] / 2.0
put_tube_each_x = self.extract_parm_from_user_restrictions(
"tube_default_put_each_x", DEFAULT_PUT_TUBE_EACH_X
)
n_tubes_x_half_section = int(math.floor(size_x_half_section / put_tube_each_x))
size_z_half_section = boun.sizevec()[2] / 2.0
put_tube_each_z = self.extract_parm_from_user_restrictions(
"tube_default_put_each_z", DEFAULT_PUT_TUBE_EACH_Z
)
n_tubes_z_half_section = int(math.floor(size_z_half_section / put_tube_each_z))
# The first time putting tubes in x we put a tube in the middle
tube_instance = tube.Tube(self.tube_params, center, height_x_tubes, orientation_x_tubes)
self.tubes["x"].append(tube_instance)
# To the right in x, so we will adding 'x' value to the center
# point
increment = [put_tube_each_x, 0, 0]
tube_center = GeoMath.vecPlus(center, increment)
for _ in range(n_tubes_x_half_section):
tube_instance = tube.Tube(self.tube_params, tube_center, height_x_tubes, orientation_x_tubes)
self.tubes["x"].append(tube_instance)
tube_center = GeoMath.vecPlus(tube_center, increment)
# To the left
increment = [-put_tube_each_x, 0, 0]
tube_center = GeoMath.vecPlus(center, increment)
for _ in range(n_tubes_x_half_section):
tube_instance = tube.Tube(self.tube_params, tube_center, height_x_tubes, orientation_x_tubes)
self.tubes["x"].append(tube_instance)
tube_center = GeoMath.vecPlus(tube_center, increment)
# The first time putting tubes in z we put a tube in the middle
tube_instance = tube.Tube(self.tube_params, center, height_z_tubes, orientation_z_tubes)
self.tubes["z"].append(tube_instance)
# To the right in x, so we will adding 'x' value to the center
# point
increment = [0, 0, put_tube_each_z]
tube_center = GeoMath.vecPlus(center, increment)
for _ in range(n_tubes_z_half_section):
tube_instance = tube.Tube(self.tube_params, tube_center, height_z_tubes, orientation_z_tubes)
self.tubes["z"].append(tube_instance)
tube_center = GeoMath.vecPlus(tube_center, increment)
# To the left
increment = [0, 0, -put_tube_each_z]
tube_center = GeoMath.vecPlus(center, increment)
for _ in range(n_tubes_z_half_section):
tube_instance = tube.Tube(self.tube_params, tube_center, height_z_tubes, orientation_z_tubes)
self.tubes["z"].append(tube_instance)
tube_center = GeoMath.vecPlus(tube_center, increment)
def calculate_tubes_position(self):
for floor in self.floor_structure.get_floors():
center = GeoMath.centerOfPoints(floor.get_absolute_points())
#==================================================================
# Guess how many tubes for each part. We divide the floor into 4 parts
# in a half in x direction and in a half in z direction.
#==================================================================
boun = GeoMath.boundingBox(floor.get_absolute_points())
height_x_tubes = boun.sizevec()[2]
height_z_tubes = boun.sizevec()[0]
orientation_x_tubes = 'z'
orientation_z_tubes = 'x'
size_x_half_section = boun.sizevec()[0] / 2.0
put_tube_each_x = self.extract_parm_from_user_restrictions(
'tube_default_put_each_x', DEFAULT_PUT_TUBE_EACH_X)
n_tubes_x_half_section = int(
math.floor(size_x_half_section / put_tube_each_x))
size_z_half_section = boun.sizevec()[2] / 2.0
put_tube_each_z = self.extract_parm_from_user_restrictions(
'tube_default_put_each_z', DEFAULT_PUT_TUBE_EACH_Z)
n_tubes_z_half_section = int(
math.floor(size_z_half_section / put_tube_each_z))
# The first time putting tubes in x we put a tube in the middle
tube_instance = tube.Tube(self.tube_params, center, height_x_tubes,
orientation_x_tubes)
self.tubes['x'].append(tube_instance)
# To the right in x, so we will adding 'x' value to the center
# point
increment = [put_tube_each_x, 0, 0]
tube_center = GeoMath.vecPlus(center, increment)
for _ in range(n_tubes_x_half_section):
tube_instance = tube.Tube(self.tube_params, tube_center,
height_x_tubes, orientation_x_tubes)
self.tubes['x'].append(tube_instance)
tube_center = GeoMath.vecPlus(tube_center, increment)
# To the left
increment = [-put_tube_each_x, 0, 0]
tube_center = GeoMath.vecPlus(center, increment)
for _ in range(n_tubes_x_half_section):
tube_instance = tube.Tube(self.tube_params, tube_center,
height_x_tubes, orientation_x_tubes)
self.tubes['x'].append(tube_instance)
tube_center = GeoMath.vecPlus(tube_center, increment)
# The first time putting tubes in z we put a tube in the middle
tube_instance = tube.Tube(self.tube_params, center, height_z_tubes,
orientation_z_tubes)
self.tubes['z'].append(tube_instance)
# To the right in x, so we will adding 'x' value to the center
# point
increment = [0, 0, put_tube_each_z]
tube_center = GeoMath.vecPlus(center, increment)
for _ in range(n_tubes_z_half_section):
tube_instance = tube.Tube(self.tube_params, tube_center,
height_z_tubes, orientation_z_tubes)
self.tubes['z'].append(tube_instance)
tube_center = GeoMath.vecPlus(tube_center, increment)
# To the left
increment = [0, 0, -put_tube_each_z]
tube_center = GeoMath.vecPlus(center, increment)
for _ in range(n_tubes_z_half_section):
tube_instance = tube.Tube(self.tube_params, tube_center,
height_z_tubes, orientation_z_tubes)
self.tubes['z'].append(tube_instance)
tube_center = GeoMath.vecPlus(tube_center, increment)
