Files
AnyImage/tools/nodes/arrangement/flow.py
nan dc000e50b1 feat: Implement weight cutout boundary smoothing for image depth cutout
- Added a new proposal for boundary smoothing in the weight cutout process, differentiating between Split edges and Outline smoothing requirements.
- Introduced a new capability `cutout-boundary-smoothing` to control smoothing strength and default values.
- Updated specifications to define the behavior of boundary-specific smoothing strength and default settings.
- Created tasks to verify the implementation of boundary behavior and asset updates.
- Developed comprehensive tests for depth symmetry and normal scaling to ensure expected behavior and performance.
- Introduced new attributes for normal mapping to facilitate persistent face attributes sharing between depth symmetry and image materials.
- Built a new node group for O Image Depth Symmetry, integrating the new smoothing capabilities and ensuring compatibility with existing workflows.
2026-09-14 12:44:20 +08:00

95 lines
3.7 KiB
Python

"""Infer geometry flow and socket relationships for layout and preview."""
from collections import defaultdict
from .branches import calculation_blocks
SHARED_GEOMETRY_USES = 3
def socket_links(socket):
return sorted(socket.links, key=lambda link: link.multi_input_sort_id, reverse=True)
def origin_socket(socket):
while socket.node.bl_idname == "NodeReroute":
socket = socket.node.inputs[0].links[0].from_socket
return socket
def geometry_paths(node_group):
"""Trace every geometry input and split paths at forks and merges."""
output = next((node for node in node_group.nodes if node.bl_idname == "NodeGroupOutput" and node.is_active_output), None)
parents = {}
uses = defaultdict(set)
for link in node_group.links:
if link.from_socket.type == "GEOMETRY" and link.to_node.bl_idname != "NodeReroute":
uses[origin_socket(link.from_socket).node].add(link.to_node)
paired = {member for node in node_group.nodes if getattr(node, "paired_output", None) is not None
for member in (node, node.paired_output)}
result_nodes, pending = set(), [*paired, *([output] if output else [])]
while pending:
node = pending.pop()
if node in result_nodes:
continue
result_nodes.add(node)
pending.extend(origin_socket(link.from_socket).node
for socket in node.inputs if socket.type == "GEOMETRY" for link in socket.links)
shared = {node for node, targets in uses.items()
if len(targets) >= SHARED_GEOMETRY_USES and node not in paired
and (not any(socket.type == "GEOMETRY" and socket.is_linked for socket in node.inputs)
or len(targets & result_nodes) >= SHARED_GEOMETRY_USES)}
def source_node(link):
return link.from_node if link.from_node.get("arrangement_input") else origin_socket(link.from_socket).node
def collect(node):
if node in parents:
return
parents[node] = list(dict.fromkeys(
source_node(link) for socket in node.inputs if socket.type == "GEOMETRY"
for link in socket_links(socket)
if source_node(link).bl_idname != "NodeGroupInput" and source_node(link) not in shared
)) if not node.get("arrangement_input") else []
for parent in parents[node]:
collect(parent)
roots = []
if output is not None:
collect(output)
roots.append(output)
for node in node_group.nodes:
if node in paired and node not in parents:
collect(node)
roots.append(node)
children = {node: set() for node in parents}
for node, sources in parents.items():
for source in sources:
children[source].add(node)
paths, assigned, pending = [], set(), roots
while pending:
node = pending.pop(0)
path = []
while node not in assigned:
path.append(node)
assigned.add(node)
sources = parents[node]
if len(sources) != 1 or len(children[sources[0]]) != 1:
pending.extend(source for source in sources if source not in assigned)
break
node = sources[0]
if path:
paths.append(list(reversed(path)))
return parents, paths
def node_roles(node_group):
"""Classify by contribution to the result, not by available socket types."""
if node_group.bl_idname == "ShaderNodeTree":
nodes = list(node_group.nodes)
_, core = calculation_blocks(nodes, list(node_group.links))
return {node: "shader" if i in core else "field" for i, node in enumerate(nodes)}
core, _ = geometry_paths(node_group)
return {node: "geometry" if node in core else "field" for node in node_group.nodes}