Glassvision/IfcOpenShell
1
0
Fork 0
mirror of https://github.com/IfcOpenShell/IfcOpenShell.git synced 2026-08-12 10:33:20 +00:00
Code Issues Packages Projects Releases Wiki Activity

Update system.py so two ortogonal arrows (in x and y local) are used for MEP systems decorations

Browse Source 
Currently the flow direction decorations run in the local Y. This means that if one is creating ducts/pipes in the xy plane, the decorations are drawn in planes perpendicular to that one and than means that the arrows are not visible from a top/bottom view.
By adding another set of arrows perpendicular the arrows are always visible no matter what projection is taken
This commit is contained in:
falken10
2025-03-11 18:06:11 +01:00
committed by Dion Moult
parent 6b85e9ec85
commit 9bafe07c36
1 changed files with 29 additions and 24 deletions
Download Patch File Download Diff File Expand all files Collapse all files
src/bonsai/bonsai/tool/system.py
+29 -24
View File
@@ -340,32 +340,37 @@ class System(bonsai.core.tool.System):
# for now it's hardcoded to local Y axis to avoid using viewport data
# for performance reasons
edge_ortho = obj.matrix_world.col[1].to_3d().normalized()
second_ortho = edge_dir.cross(edge_ortho)
edge_ortho = second_ortho.cross(edge_dir)
# direction lines should be around the edge center
n_direction_lines, start_offset = divmod(edge_length, direction_lines_offset)
n_direction_lines = int(n_direction_lines) + 1
start_offset /= 2
start_offset = edge_dir * start_offset + base_vert
cur_vert_index = start_vert_i + len(port_data)
for i in range(n_direction_lines):
cur_offset = start_offset + edge_dir * i * direction_lines_offset
for j in range(2):
edge_ortho = obj.matrix_world.col[j].to_3d().normalized()
second_ortho = edge_dir.cross(edge_ortho)
edge_ortho = second_ortho.cross(edge_dir)
# direction lines should be around the edge center
n_direction_lines, start_offset = divmod(edge_length, direction_lines_offset)
n_direction_lines = int(n_direction_lines) + 1
start_offset /= 2
start_offset = edge_dir * start_offset + base_vert
if both_directions:
verts_pos.append(cur_offset + edge_ortho * direction_lines_width)
verts_pos.append(cur_offset - edge_ortho * direction_lines_width)
edges.append((cur_vert_index, cur_vert_index + 1))
cur_vert_index += 2
cur_vert_index = start_vert_i + len(port_data) + j * 2 * n_direction_lines
else:
arrow_base = cur_offset - edge_dir * direction_lines_width
verts_pos.append(arrow_base + edge_ortho * direction_lines_width)
verts_pos.append(cur_offset)
verts_pos.append(arrow_base - edge_ortho * direction_lines_width)
edges.append((cur_vert_index, cur_vert_index + 1))
edges.append((cur_vert_index + 1, cur_vert_index + 2))
cur_vert_index += 3
cur_vert_index = start_vert_i + len(port_data) + j * 3 * n_direction_lines
for i in range(n_direction_lines):
cur_offset = start_offset + edge_dir * i * direction_lines_offset
if both_directions:
verts_pos.append(cur_offset + edge_ortho * direction_lines_width)
verts_pos.append(cur_offset - edge_ortho * direction_lines_width)
edges.append((cur_vert_index, cur_vert_index + 1))
cur_vert_index += 2
else:
arrow_base = cur_offset - edge_dir * direction_lines_width
verts_pos.append(arrow_base + edge_ortho * direction_lines_width)
verts_pos.append(cur_offset)
verts_pos.append(arrow_base - edge_ortho * direction_lines_width)
edges.append((cur_vert_index, cur_vert_index + 1))
edges.append((cur_vert_index + 1, cur_vert_index + 2))
cur_vert_index += 3
all_vertices.extend(verts_pos)