e955c94ed3
Listing the "Blender Foundation" as copyright holder implied the Blender Foundation holds copyright to files which may include work from many developers. While keeping copyright on headers makes sense for isolated libraries, Blender's own code may be refactored or moved between files in a way that makes the per file copyright holders less meaningful. Copyright references to the "Blender Foundation" have been replaced with "Blender Authors", with the exception of `./extern/` since these this contains libraries which are more isolated, any changed to license headers there can be handled on a case-by-case basis. Some directories in `./intern/` have also been excluded: - `./intern/cycles/` it's own `AUTHORS` file is planned. - `./intern/opensubdiv/`. An "AUTHORS" file has been added, using the chromium projects authors file as a template. Design task: #110784 Ref !110783.
624 lines
22 KiB
C++
624 lines
22 KiB
C++
/* SPDX-FileCopyrightText: 2023 Blender Authors
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*
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* SPDX-License-Identifier: GPL-2.0-or-later */
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#include "BKE_node.hh"
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#include "BKE_node_runtime.hh"
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#include "DNA_node_types.h"
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#include "BLI_function_ref.hh"
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#include "BLI_stack.hh"
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#include "BLI_task.hh"
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#include "BLI_timeit.hh"
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#include "NOD_geometry_nodes_lazy_function.hh"
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namespace blender::bke::node_tree_runtime {
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void preprocess_geometry_node_tree_for_evaluation(bNodeTree &tree_cow)
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{
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BLI_assert(tree_cow.type == NTREE_GEOMETRY);
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/* Rebuild geometry nodes lazy function graph. */
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tree_cow.runtime->geometry_nodes_lazy_function_graph_info.reset();
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blender::nodes::ensure_geometry_nodes_lazy_function_graph(tree_cow);
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}
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static void update_interface_sockets(const bNodeTree &ntree)
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{
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bNodeTreeRuntime &tree_runtime = *ntree.runtime;
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tree_runtime.interface_inputs = ntree.inputs;
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tree_runtime.interface_outputs = ntree.outputs;
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}
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static void update_node_vector(const bNodeTree &ntree)
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{
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bNodeTreeRuntime &tree_runtime = *ntree.runtime;
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const Span<bNode *> nodes = tree_runtime.nodes_by_id;
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tree_runtime.group_nodes.clear();
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tree_runtime.has_undefined_nodes_or_sockets = false;
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for (const int i : nodes.index_range()) {
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bNode &node = *nodes[i];
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node.runtime->index_in_tree = i;
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node.runtime->owner_tree = const_cast<bNodeTree *>(&ntree);
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tree_runtime.has_undefined_nodes_or_sockets |= node.typeinfo == &bke::NodeTypeUndefined;
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if (node.is_group()) {
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tree_runtime.group_nodes.append(&node);
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}
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}
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}
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static void update_link_vector(const bNodeTree &ntree)
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{
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bNodeTreeRuntime &tree_runtime = *ntree.runtime;
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tree_runtime.links.clear();
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LISTBASE_FOREACH (bNodeLink *, link, &ntree.links) {
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/* Check that the link connects nodes within this tree. */
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BLI_assert(tree_runtime.nodes_by_id.contains(link->fromnode));
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BLI_assert(tree_runtime.nodes_by_id.contains(link->tonode));
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tree_runtime.links.append(link);
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}
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}
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static void update_socket_vectors_and_owner_node(const bNodeTree &ntree)
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{
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bNodeTreeRuntime &tree_runtime = *ntree.runtime;
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tree_runtime.sockets.clear();
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tree_runtime.input_sockets.clear();
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tree_runtime.output_sockets.clear();
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for (bNode *node : tree_runtime.nodes_by_id) {
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bNodeRuntime &node_runtime = *node->runtime;
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node_runtime.inputs.clear();
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node_runtime.outputs.clear();
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LISTBASE_FOREACH (bNodeSocket *, socket, &node->inputs) {
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socket->runtime->index_in_node = node_runtime.inputs.append_and_get_index(socket);
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socket->runtime->index_in_all_sockets = tree_runtime.sockets.append_and_get_index(socket);
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socket->runtime->index_in_inout_sockets = tree_runtime.input_sockets.append_and_get_index(
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socket);
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socket->runtime->owner_node = node;
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tree_runtime.has_undefined_nodes_or_sockets |= socket->typeinfo ==
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&bke::NodeSocketTypeUndefined;
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}
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LISTBASE_FOREACH (bNodeSocket *, socket, &node->outputs) {
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socket->runtime->index_in_node = node_runtime.outputs.append_and_get_index(socket);
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socket->runtime->index_in_all_sockets = tree_runtime.sockets.append_and_get_index(socket);
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socket->runtime->index_in_inout_sockets = tree_runtime.output_sockets.append_and_get_index(
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socket);
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socket->runtime->owner_node = node;
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tree_runtime.has_undefined_nodes_or_sockets |= socket->typeinfo ==
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&bke::NodeSocketTypeUndefined;
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}
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}
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}
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static void update_internal_link_inputs(const bNodeTree &ntree)
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{
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bNodeTreeRuntime &tree_runtime = *ntree.runtime;
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for (bNode *node : tree_runtime.nodes_by_id) {
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for (bNodeSocket *socket : node->runtime->outputs) {
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socket->runtime->internal_link_input = nullptr;
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}
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for (bNodeLink &link : node->runtime->internal_links) {
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link.tosock->runtime->internal_link_input = link.fromsock;
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}
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}
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}
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static void update_directly_linked_links_and_sockets(const bNodeTree &ntree)
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{
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bNodeTreeRuntime &tree_runtime = *ntree.runtime;
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for (bNode *node : tree_runtime.nodes_by_id) {
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for (bNodeSocket *socket : node->runtime->inputs) {
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socket->runtime->directly_linked_links.clear();
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socket->runtime->directly_linked_sockets.clear();
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}
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for (bNodeSocket *socket : node->runtime->outputs) {
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socket->runtime->directly_linked_links.clear();
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socket->runtime->directly_linked_sockets.clear();
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}
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node->runtime->has_available_linked_inputs = false;
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node->runtime->has_available_linked_outputs = false;
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}
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for (bNodeLink *link : tree_runtime.links) {
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link->fromsock->runtime->directly_linked_links.append(link);
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link->fromsock->runtime->directly_linked_sockets.append(link->tosock);
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link->tosock->runtime->directly_linked_links.append(link);
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if (link->is_available()) {
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link->fromnode->runtime->has_available_linked_outputs = true;
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link->tonode->runtime->has_available_linked_inputs = true;
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}
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}
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for (bNodeSocket *socket : tree_runtime.input_sockets) {
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if (socket->flag & SOCK_MULTI_INPUT) {
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std::sort(socket->runtime->directly_linked_links.begin(),
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socket->runtime->directly_linked_links.end(),
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[&](const bNodeLink *a, const bNodeLink *b) {
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return a->multi_input_socket_index > b->multi_input_socket_index;
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});
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}
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}
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for (bNodeSocket *socket : tree_runtime.input_sockets) {
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for (bNodeLink *link : socket->runtime->directly_linked_links) {
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/* Do this after sorting the input links. */
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socket->runtime->directly_linked_sockets.append(link->fromsock);
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}
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}
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}
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static void find_logical_origins_for_socket_recursive(
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bNodeSocket &input_socket,
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bool only_follow_first_input_link,
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Vector<bNodeSocket *, 16> &sockets_in_current_chain,
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Vector<bNodeSocket *> &r_logical_origins,
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Vector<bNodeSocket *> &r_skipped_origins)
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{
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if (sockets_in_current_chain.contains(&input_socket)) {
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/* Protect against reroute recursions. */
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return;
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}
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sockets_in_current_chain.append(&input_socket);
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Span<bNodeLink *> links_to_check = input_socket.runtime->directly_linked_links;
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if (only_follow_first_input_link) {
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links_to_check = links_to_check.take_front(1);
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}
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for (bNodeLink *link : links_to_check) {
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if (link->is_muted()) {
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continue;
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}
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if (!link->is_available()) {
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continue;
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}
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bNodeSocket &origin_socket = *link->fromsock;
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bNode &origin_node = *link->fromnode;
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if (!origin_socket.is_available()) {
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/* Non available sockets are ignored. */
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continue;
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}
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if (origin_node.type == NODE_REROUTE) {
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bNodeSocket &reroute_input = *origin_node.runtime->inputs[0];
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bNodeSocket &reroute_output = *origin_node.runtime->outputs[0];
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r_skipped_origins.append(&reroute_input);
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r_skipped_origins.append(&reroute_output);
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find_logical_origins_for_socket_recursive(
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reroute_input, false, sockets_in_current_chain, r_logical_origins, r_skipped_origins);
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continue;
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}
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if (origin_node.is_muted()) {
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if (bNodeSocket *mute_input = origin_socket.runtime->internal_link_input) {
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r_skipped_origins.append(&origin_socket);
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r_skipped_origins.append(mute_input);
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find_logical_origins_for_socket_recursive(
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*mute_input, true, sockets_in_current_chain, r_logical_origins, r_skipped_origins);
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}
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continue;
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}
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r_logical_origins.append(&origin_socket);
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}
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sockets_in_current_chain.pop_last();
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}
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static void update_logically_linked_sockets(const bNodeTree &ntree)
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{
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/* Compute logically linked sockets to inputs. */
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bNodeTreeRuntime &tree_runtime = *ntree.runtime;
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Span<bNode *> nodes = tree_runtime.nodes_by_id;
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threading::parallel_for(nodes.index_range(), 128, [&](const IndexRange range) {
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for (const int i : range) {
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bNode &node = *nodes[i];
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for (bNodeSocket *socket : node.runtime->inputs) {
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Vector<bNodeSocket *, 16> sockets_in_current_chain;
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socket->runtime->logically_linked_sockets.clear();
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socket->runtime->logically_linked_skipped_sockets.clear();
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find_logical_origins_for_socket_recursive(
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*socket,
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false,
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sockets_in_current_chain,
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socket->runtime->logically_linked_sockets,
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socket->runtime->logically_linked_skipped_sockets);
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}
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}
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});
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/* Clear logically linked sockets to outputs. */
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threading::parallel_for(nodes.index_range(), 128, [&](const IndexRange range) {
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for (const int i : range) {
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bNode &node = *nodes[i];
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for (bNodeSocket *socket : node.runtime->outputs) {
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socket->runtime->logically_linked_sockets.clear();
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}
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}
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});
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/* Compute logically linked sockets to outputs using the previously computed logically linked
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* sockets to inputs. */
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for (const bNode *node : nodes) {
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for (bNodeSocket *input_socket : node->runtime->inputs) {
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for (bNodeSocket *output_socket : input_socket->runtime->logically_linked_sockets) {
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output_socket->runtime->logically_linked_sockets.append(input_socket);
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}
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}
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}
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}
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static void update_nodes_by_type(const bNodeTree &ntree)
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{
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bNodeTreeRuntime &tree_runtime = *ntree.runtime;
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tree_runtime.nodes_by_type.clear();
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for (bNode *node : tree_runtime.nodes_by_id) {
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tree_runtime.nodes_by_type.add(node->typeinfo, node);
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}
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}
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static void update_sockets_by_identifier(const bNodeTree &ntree)
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{
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bNodeTreeRuntime &tree_runtime = *ntree.runtime;
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Span<bNode *> nodes = tree_runtime.nodes_by_id;
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threading::parallel_for(nodes.index_range(), 128, [&](const IndexRange range) {
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for (bNode *node : nodes.slice(range)) {
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node->runtime->inputs_by_identifier.clear();
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node->runtime->outputs_by_identifier.clear();
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for (bNodeSocket *socket : node->runtime->inputs) {
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node->runtime->inputs_by_identifier.add_new(socket->identifier, socket);
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}
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for (bNodeSocket *socket : node->runtime->outputs) {
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node->runtime->outputs_by_identifier.add_new(socket->identifier, socket);
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}
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}
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});
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}
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enum class ToposortDirection {
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LeftToRight,
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RightToLeft,
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};
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struct ToposortNodeState {
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bool is_done = false;
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bool is_in_stack = false;
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};
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static Vector<const bNode *> get_implicit_origin_nodes(const bNodeTree &ntree, bNode &node)
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{
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Vector<const bNode *> origin_nodes;
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if (node.type == GEO_NODE_SIMULATION_OUTPUT) {
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for (const bNode *sim_input_node :
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ntree.runtime->nodes_by_type.lookup(nodeTypeFind("GeometryNodeSimulationInput")))
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{
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const auto &storage = *static_cast<const NodeGeometrySimulationInput *>(
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sim_input_node->storage);
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if (storage.output_node_id == node.identifier) {
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origin_nodes.append(sim_input_node);
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}
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}
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}
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if (node.type == GEO_NODE_REPEAT_OUTPUT) {
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for (const bNode *repeat_input_node :
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ntree.runtime->nodes_by_type.lookup(nodeTypeFind("GeometryNodeRepeatInput")))
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{
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const auto &storage = *static_cast<const NodeGeometryRepeatInput *>(
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repeat_input_node->storage);
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if (storage.output_node_id == node.identifier) {
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origin_nodes.append(repeat_input_node);
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}
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}
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}
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return origin_nodes;
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}
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static Vector<const bNode *> get_implicit_target_nodes(const bNodeTree &ntree, bNode &node)
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{
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Vector<const bNode *> target_nodes;
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if (node.type == GEO_NODE_SIMULATION_INPUT) {
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const auto &storage = *static_cast<const NodeGeometrySimulationInput *>(node.storage);
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if (const bNode *sim_output_node = ntree.node_by_id(storage.output_node_id)) {
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target_nodes.append(sim_output_node);
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}
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}
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if (node.type == GEO_NODE_REPEAT_INPUT) {
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const auto &storage = *static_cast<const NodeGeometryRepeatInput *>(node.storage);
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if (const bNode *repeat_output_node = ntree.node_by_id(storage.output_node_id)) {
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target_nodes.append(repeat_output_node);
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}
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}
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return target_nodes;
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}
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static void toposort_from_start_node(const bNodeTree &ntree,
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const ToposortDirection direction,
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bNode &start_node,
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MutableSpan<ToposortNodeState> node_states,
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Vector<bNode *> &r_sorted_nodes,
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bool &r_cycle_detected)
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{
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struct Item {
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bNode *node;
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int socket_index = 0;
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int link_index = 0;
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int implicit_link_index = 0;
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};
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Stack<Item, 64> nodes_to_check;
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nodes_to_check.push({&start_node});
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node_states[start_node.index()].is_in_stack = true;
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while (!nodes_to_check.is_empty()) {
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Item &item = nodes_to_check.peek();
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bNode &node = *item.node;
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bool pushed_node = false;
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auto handle_linked_node = [&](bNode &linked_node) {
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ToposortNodeState &linked_node_state = node_states[linked_node.index()];
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if (linked_node_state.is_done) {
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/* The linked node has already been visited. */
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return true;
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}
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if (linked_node_state.is_in_stack) {
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r_cycle_detected = true;
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}
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else {
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nodes_to_check.push({&linked_node});
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linked_node_state.is_in_stack = true;
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pushed_node = true;
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}
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return false;
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};
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const Span<bNodeSocket *> sockets = (direction == ToposortDirection::LeftToRight) ?
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node.runtime->inputs :
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node.runtime->outputs;
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while (true) {
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if (item.socket_index == sockets.size()) {
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/* All sockets have already been visited. */
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break;
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}
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bNodeSocket &socket = *sockets[item.socket_index];
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const Span<bNodeLink *> linked_links = socket.runtime->directly_linked_links;
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if (item.link_index == linked_links.size()) {
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/* All links connected to this socket have already been visited. */
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item.socket_index++;
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item.link_index = 0;
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continue;
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}
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bNodeLink &link = *linked_links[item.link_index];
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if (!link.is_available()) {
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/* Ignore unavailable links. */
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item.link_index++;
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continue;
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}
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bNodeSocket &linked_socket = *socket.runtime->directly_linked_sockets[item.link_index];
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bNode &linked_node = *linked_socket.runtime->owner_node;
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if (handle_linked_node(linked_node)) {
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/* The linked node has already been visited. */
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item.link_index++;
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continue;
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}
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break;
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}
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if (!pushed_node) {
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/* Some nodes are internally linked without an explicit `bNodeLink`. The toposort should
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* still order them correctly and find cycles. */
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const Vector<const bNode *> implicitly_linked_nodes =
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(direction == ToposortDirection::LeftToRight) ? get_implicit_origin_nodes(ntree, node) :
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get_implicit_target_nodes(ntree, node);
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while (true) {
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if (item.implicit_link_index == implicitly_linked_nodes.size()) {
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/* All implicitly linked nodes have already been visited. */
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break;
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}
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const bNode &linked_node = *implicitly_linked_nodes[item.implicit_link_index];
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if (handle_linked_node(const_cast<bNode &>(linked_node))) {
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/* The implicitly linked node has already been visited. */
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item.implicit_link_index++;
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continue;
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}
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break;
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}
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}
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/* If no other element has been pushed, the current node can be pushed to the sorted list.
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*/
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if (!pushed_node) {
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ToposortNodeState &node_state = node_states[node.index()];
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node_state.is_done = true;
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node_state.is_in_stack = false;
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r_sorted_nodes.append(&node);
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nodes_to_check.pop();
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}
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}
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}
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static void update_toposort(const bNodeTree &ntree,
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const ToposortDirection direction,
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Vector<bNode *> &r_sorted_nodes,
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bool &r_cycle_detected)
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{
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bNodeTreeRuntime &tree_runtime = *ntree.runtime;
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r_sorted_nodes.clear();
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r_sorted_nodes.reserve(tree_runtime.nodes_by_id.size());
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r_cycle_detected = false;
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Array<ToposortNodeState> node_states(tree_runtime.nodes_by_id.size());
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for (bNode *node : tree_runtime.nodes_by_id) {
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if (node_states[node->index()].is_done) {
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/* Ignore nodes that are done already. */
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continue;
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}
|
|
if ((direction == ToposortDirection::LeftToRight) ?
|
|
node->runtime->has_available_linked_outputs :
|
|
node->runtime->has_available_linked_inputs)
|
|
{
|
|
/* Ignore non-start nodes. */
|
|
continue;
|
|
}
|
|
toposort_from_start_node(
|
|
ntree, direction, *node, node_states, r_sorted_nodes, r_cycle_detected);
|
|
}
|
|
|
|
if (r_sorted_nodes.size() < tree_runtime.nodes_by_id.size()) {
|
|
r_cycle_detected = true;
|
|
for (bNode *node : tree_runtime.nodes_by_id) {
|
|
if (node_states[node->index()].is_done) {
|
|
/* Ignore nodes that are done already. */
|
|
continue;
|
|
}
|
|
/* Start toposort at this node which is somewhere in the middle of a loop. */
|
|
toposort_from_start_node(
|
|
ntree, direction, *node, node_states, r_sorted_nodes, r_cycle_detected);
|
|
}
|
|
}
|
|
|
|
BLI_assert(tree_runtime.nodes_by_id.size() == r_sorted_nodes.size());
|
|
}
|
|
|
|
static void update_root_frames(const bNodeTree &ntree)
|
|
{
|
|
bNodeTreeRuntime &tree_runtime = *ntree.runtime;
|
|
Span<bNode *> nodes = tree_runtime.nodes_by_id;
|
|
|
|
tree_runtime.root_frames.clear();
|
|
|
|
for (bNode *node : nodes) {
|
|
if (!node->parent && node->is_frame()) {
|
|
tree_runtime.root_frames.append(node);
|
|
}
|
|
}
|
|
}
|
|
|
|
static void update_direct_frames_childrens(const bNodeTree &ntree)
|
|
{
|
|
bNodeTreeRuntime &tree_runtime = *ntree.runtime;
|
|
Span<bNode *> nodes = tree_runtime.nodes_by_id;
|
|
|
|
for (bNode *node : nodes) {
|
|
node->runtime->direct_children_in_frame.clear();
|
|
}
|
|
|
|
for (bNode *node : nodes) {
|
|
if (const bNode *frame = node->parent) {
|
|
frame->runtime->direct_children_in_frame.append(node);
|
|
}
|
|
}
|
|
}
|
|
|
|
static void update_group_output_node(const bNodeTree &ntree)
|
|
{
|
|
bNodeTreeRuntime &tree_runtime = *ntree.runtime;
|
|
const bNodeType *node_type = nodeTypeFind("NodeGroupOutput");
|
|
const Span<bNode *> group_output_nodes = tree_runtime.nodes_by_type.lookup(node_type);
|
|
if (group_output_nodes.is_empty()) {
|
|
tree_runtime.group_output_node = nullptr;
|
|
}
|
|
else if (group_output_nodes.size() == 1) {
|
|
tree_runtime.group_output_node = group_output_nodes[0];
|
|
}
|
|
else {
|
|
for (bNode *group_output : group_output_nodes) {
|
|
if (group_output->flag & NODE_DO_OUTPUT) {
|
|
tree_runtime.group_output_node = group_output;
|
|
break;
|
|
}
|
|
}
|
|
}
|
|
}
|
|
|
|
static void ensure_topology_cache(const bNodeTree &ntree)
|
|
{
|
|
bNodeTreeRuntime &tree_runtime = *ntree.runtime;
|
|
tree_runtime.topology_cache_mutex.ensure([&]() {
|
|
update_interface_sockets(ntree);
|
|
update_node_vector(ntree);
|
|
update_link_vector(ntree);
|
|
update_socket_vectors_and_owner_node(ntree);
|
|
update_internal_link_inputs(ntree);
|
|
update_directly_linked_links_and_sockets(ntree);
|
|
update_nodes_by_type(ntree);
|
|
threading::parallel_invoke(
|
|
tree_runtime.nodes_by_id.size() > 32,
|
|
[&]() { update_logically_linked_sockets(ntree); },
|
|
[&]() { update_sockets_by_identifier(ntree); },
|
|
[&]() {
|
|
update_toposort(ntree,
|
|
ToposortDirection::LeftToRight,
|
|
tree_runtime.toposort_left_to_right,
|
|
tree_runtime.has_available_link_cycle);
|
|
for (const int i : tree_runtime.toposort_left_to_right.index_range()) {
|
|
const bNode &node = *tree_runtime.toposort_left_to_right[i];
|
|
node.runtime->toposort_left_to_right_index = i;
|
|
}
|
|
},
|
|
[&]() {
|
|
bool dummy;
|
|
update_toposort(
|
|
ntree, ToposortDirection::RightToLeft, tree_runtime.toposort_right_to_left, dummy);
|
|
for (const int i : tree_runtime.toposort_right_to_left.index_range()) {
|
|
const bNode &node = *tree_runtime.toposort_right_to_left[i];
|
|
node.runtime->toposort_right_to_left_index = i;
|
|
}
|
|
},
|
|
[&]() { update_root_frames(ntree); },
|
|
[&]() { update_direct_frames_childrens(ntree); });
|
|
update_group_output_node(ntree);
|
|
tree_runtime.topology_cache_exists = true;
|
|
});
|
|
}
|
|
|
|
} // namespace blender::bke::node_tree_runtime
|
|
|
|
void bNodeTree::ensure_topology_cache() const
|
|
{
|
|
blender::bke::node_tree_runtime::ensure_topology_cache(*this);
|
|
}
|
|
|
|
const bNestedNodeRef *bNodeTree::find_nested_node_ref(const int32_t nested_node_id) const
|
|
{
|
|
for (const bNestedNodeRef &ref : this->nested_node_refs_span()) {
|
|
if (ref.id == nested_node_id) {
|
|
return &ref;
|
|
}
|
|
}
|
|
return nullptr;
|
|
}
|
|
|
|
const bNestedNodeRef *bNodeTree::nested_node_ref_from_node_id_path(
|
|
const blender::Span<int32_t> node_ids) const
|
|
{
|
|
if (node_ids.is_empty()) {
|
|
return nullptr;
|
|
}
|
|
for (const bNestedNodeRef &ref : this->nested_node_refs_span()) {
|
|
blender::Vector<int> current_node_ids;
|
|
if (this->node_id_path_from_nested_node_ref(ref.id, current_node_ids)) {
|
|
if (current_node_ids.as_span() == node_ids) {
|
|
return &ref;
|
|
}
|
|
}
|
|
}
|
|
return nullptr;
|
|
}
|
|
|
|
bool bNodeTree::node_id_path_from_nested_node_ref(const int32_t nested_node_id,
|
|
blender::Vector<int> &r_node_ids) const
|
|
{
|
|
const bNestedNodeRef *ref = this->find_nested_node_ref(nested_node_id);
|
|
if (ref == nullptr) {
|
|
return false;
|
|
}
|
|
const int32_t node_id = ref->path.node_id;
|
|
const bNode *node = this->node_by_id(node_id);
|
|
if (node == nullptr) {
|
|
return false;
|
|
}
|
|
r_node_ids.append(node_id);
|
|
if (!node->is_group()) {
|
|
return true;
|
|
}
|
|
const bNodeTree *group = reinterpret_cast<const bNodeTree *>(node->id);
|
|
if (group == nullptr) {
|
|
return false;
|
|
}
|
|
return group->node_id_path_from_nested_node_ref(ref->path.id_in_node, r_node_ids);
|
|
}
|