griefith/test
1
0
Fork 0
Code Issues Pull Requests Actions 1 Packages Projects Releases Wiki Activity
Files
f6a581e28aaf97df875820d19258de70b143d40d
test/source/blender/blenkernel/intern/node_tree_interface.cc
Lukas Tönne 5ad49f4142 Geometry Nodes: Menu Switch Node 
This patch adds support for _Menu Switch_ nodes and enum definitions in
node trees more generally. The design is based on the outcome of the
[2022 Nodes Workshop](https://code.blender.org/2022/11/geometry-nodes-workshop-2022/#menu-switch).

The _Menu Switch_ node is an advanced version of the _Switch_ node which
has a customizable **menu input socket** instead of a simple boolean.
The _items_ of this menu are owned by the node itself. Each item has a
name and description and unique identifier that is used internally. A
menu _socket_ represents a concrete value out of the list of items.

To enable selection of an enum value for unconnected sockets the menu is
presented as a dropdown list like built-in enums. When the socket is
connected a shared pointer to the enum definition is propagated along
links and stored in socket default values. This allows node groups to
expose a menu from an internal menu switch as a parameter. The enum
definition is a runtime copy of the enum items in DNA that allows
sharing.

A menu socket can have multiple connections, which can lead to
ambiguity. If two or more different menu source nodes are connected to a
socket it gets marked as _undefined_. Any connection to an undefined
menu socket is invalid as a hint to users that there is a problem. A
warning/error is also shown on nodes with undefined menu sockets.

At runtime the value of a menu socket is the simple integer identifier.
This can also be a field in geometry nodes. The identifier is unique
within each enum definition, and it is persistent even when items are
added, removed, or changed. Changing the name of an item does not affect
the internal identifier, so users can rename enum items without breaking
existing input values. This also persists if, for example, a linked node
group is temporarily unavailable.

Pull Request: https://projects.blender.org/blender/blender/pulls/113445
2024-01-26 12:40:01 +01:00

1463 lines
47 KiB
C++
Raw Blame History

/* SPDX-FileCopyrightText: 2023 Blender Authors
*
* SPDX-License-Identifier: GPL-2.0-or-later */
#include "BKE_idprop.h"
#include "BKE_lib_id.hh"
#include "BKE_lib_query.hh"
#include "BKE_node.hh"
#include "BKE_node_enum.hh"
#include "BKE_node_tree_interface.hh"
#include "BLI_math_vector.h"
#include "BLI_stack.hh"
#include "BLI_string.h"
#include "BLI_vector.hh"
#include "BLO_read_write.hh"
#include "DNA_collection_types.h"
#include "DNA_material_types.h"
#include "DNA_node_tree_interface_types.h"
#include "DNA_node_types.h"
/**
* These flags are used by the `changed_flag` field in #bNodeTreeInterfaceRuntime.
*/
enum NodeTreeInterfaceChangedFlag {
NODE_INTERFACE_CHANGED_NOTHING = 0,
NODE_INTERFACE_CHANGED_ITEMS = (1 << 1),
NODE_INTERFACE_CHANGED_ALL = -1,
};
namespace blender::bke::node_interface {
namespace socket_types {
/* Try to get a supported socket type from some final type.
* Built-in socket can have multiple registered RNA types for the base type, e.g.
* `NodeSocketFloatUnsigned`, `NodeSocketFloatFactor`. Only the "base type" (`NodeSocketFloat`)
* is considered valid for interface sockets.
*/
static const char *try_get_supported_socket_type(const StringRef socket_type)
{
/* Make a copy of the string for `.c_str()` until the socket type map uses C++ types. */
const std::string idname(socket_type);
const bNodeSocketType *typeinfo = nodeSocketTypeFind(idname.c_str());
if (typeinfo == nullptr) {
return nullptr;
}
/* For builtin socket types only the base type is supported. */
if (nodeIsStaticSocketType(typeinfo)) {
return nodeStaticSocketType(typeinfo->type, PROP_NONE);
}
return typeinfo->idname;
}
/* -------------------------------------------------------------------- */
/** \name ID User Increment in Socket Data
* \{ */
template<typename T> void socket_data_id_user_increment(T & /*data*/) {}
template<> void socket_data_id_user_increment(bNodeSocketValueObject &data)
{
id_us_plus(reinterpret_cast<ID *>(data.value));
}
template<> void socket_data_id_user_increment(bNodeSocketValueImage &data)
{
id_us_plus(reinterpret_cast<ID *>(data.value));
}
template<> void socket_data_id_user_increment(bNodeSocketValueCollection &data)
{
id_us_plus(reinterpret_cast<ID *>(data.value));
}
template<> void socket_data_id_user_increment(bNodeSocketValueTexture &data)
{
id_us_plus(reinterpret_cast<ID *>(data.value));
}
template<> void socket_data_id_user_increment(bNodeSocketValueMaterial &data)
{
id_us_plus(reinterpret_cast<ID *>(data.value));
}
/** \} */
/* -------------------------------------------------------------------- */
/** \name ID User Decrement in Socket Data
* \{ */
template<typename T> void socket_data_id_user_decrement(T & /*data*/) {}
template<> void socket_data_id_user_decrement(bNodeSocketValueObject &data)
{
id_us_min(reinterpret_cast<ID *>(data.value));
}
template<> void socket_data_id_user_decrement(bNodeSocketValueImage &data)
{
id_us_min(reinterpret_cast<ID *>(data.value));
}
template<> void socket_data_id_user_decrement(bNodeSocketValueCollection &data)
{
id_us_min(reinterpret_cast<ID *>(data.value));
}
template<> void socket_data_id_user_decrement(bNodeSocketValueTexture &data)
{
id_us_min(reinterpret_cast<ID *>(data.value));
}
template<> void socket_data_id_user_decrement(bNodeSocketValueMaterial &data)
{
id_us_min(reinterpret_cast<ID *>(data.value));
}
/** \} */
/* -------------------------------------------------------------------- */
/** \name Initialize Socket Data
* \{ */
template<typename T> void socket_data_init_impl(T & /*data*/) {}
template<> void socket_data_init_impl(bNodeSocketValueFloat &data)
{
data.subtype = PROP_NONE;
data.value = 0.0f;
data.min = -FLT_MAX;
data.max = FLT_MAX;
}
template<> void socket_data_init_impl(bNodeSocketValueInt &data)
{
data.subtype = PROP_NONE;
data.value = 0;
data.min = INT_MIN;
data.max = INT_MAX;
}
template<> void socket_data_init_impl(bNodeSocketValueBoolean &data)
{
data.value = false;
}
template<> void socket_data_init_impl(bNodeSocketValueRotation & /*data*/) {}
template<> void socket_data_init_impl(bNodeSocketValueVector &data)
{
static float default_value[] = {0.0f, 0.0f, 0.0f};
data.subtype = PROP_NONE;
copy_v3_v3(data.value, default_value);
data.min = -FLT_MAX;
data.max = FLT_MAX;
}
template<> void socket_data_init_impl(bNodeSocketValueRGBA &data)
{
static float default_value[] = {0.0f, 0.0f, 0.0f, 1.0f};
copy_v4_v4(data.value, default_value);
}
template<> void socket_data_init_impl(bNodeSocketValueString &data)
{
data.subtype = PROP_NONE;
data.value[0] = '\0';
}
template<> void socket_data_init_impl(bNodeSocketValueObject &data)
{
data.value = nullptr;
}
template<> void socket_data_init_impl(bNodeSocketValueImage &data)
{
data.value = nullptr;
}
template<> void socket_data_init_impl(bNodeSocketValueCollection &data)
{
data.value = nullptr;
}
template<> void socket_data_init_impl(bNodeSocketValueTexture &data)
{
data.value = nullptr;
}
template<> void socket_data_init_impl(bNodeSocketValueMaterial &data)
{
data.value = nullptr;
}
template<> void socket_data_init_impl(bNodeSocketValueMenu &data)
{
data.value = -1;
data.enum_items = nullptr;
data.runtime_flag = 0;
}
static void *make_socket_data(const StringRef socket_type)
{
void *socket_data = nullptr;
socket_data_to_static_type_tag(socket_type, [&socket_data](auto type_tag) {
using SocketDataType = typename decltype(type_tag)::type;
SocketDataType *new_socket_data = MEM_cnew<SocketDataType>(__func__);
socket_data_init_impl(*new_socket_data);
socket_data = new_socket_data;
});
return socket_data;
}
/** \} */
/* -------------------------------------------------------------------- */
/** \name Free Allocated Socket Data
* \{ */
template<typename T> void socket_data_free_impl(T & /*data*/, const bool /*do_id_user*/) {}
template<> void socket_data_free_impl(bNodeSocketValueMenu &dst, const bool /*do_id_user*/)
{
if (dst.enum_items) {
/* Release shared data pointer. */
dst.enum_items->remove_user_and_delete_if_last();
}
}
static void socket_data_free(bNodeTreeInterfaceSocket &socket, const bool do_id_user)
{
socket_data_to_static_type_tag(socket.socket_type, [&](auto type_tag) {
using SocketDataType = typename decltype(type_tag)::type;
if (do_id_user) {
socket_data_id_user_decrement(get_socket_data_as<SocketDataType>(socket));
}
socket_data_free_impl(get_socket_data_as<SocketDataType>(socket), do_id_user);
});
}
/** \} */
/* -------------------------------------------------------------------- */
/** \name Copy Allocated Socket Data
* \{ */
template<typename T> void socket_data_copy_impl(T & /*dst*/, const T & /*src*/) {}
template<>
void socket_data_copy_impl(bNodeSocketValueMenu &dst, const bNodeSocketValueMenu & /*src*/)
{
/* Copy of shared data pointer. */
if (dst.enum_items) {
dst.enum_items->add_user();
}
}
static void socket_data_copy(bNodeTreeInterfaceSocket &dst,
const bNodeTreeInterfaceSocket &src,
int flag)
{
socket_data_to_static_type_tag(dst.socket_type, [&](auto type_tag) {
using SocketDataType = typename decltype(type_tag)::type;
dst.socket_data = MEM_dupallocN(src.socket_data);
socket_data_copy_impl(get_socket_data_as<SocketDataType>(dst),
get_socket_data_as<SocketDataType>(src));
if ((flag & LIB_ID_CREATE_NO_USER_REFCOUNT) == 0) {
socket_data_id_user_increment(get_socket_data_as<SocketDataType>(dst));
}
});
}
/* Copy socket data from a raw pointer, e.g. from a #bNodeSocket. */
static void socket_data_copy_ptr(bNodeTreeInterfaceSocket &dst,
const void *src_socket_data,
int flag)
{
socket_data_to_static_type_tag(dst.socket_type, [&](auto type_tag) {
using SocketDataType = typename decltype(type_tag)::type;
if (dst.socket_data != nullptr) {
socket_data_free(dst, true);
MEM_SAFE_FREE(dst.socket_data);
}
dst.socket_data = MEM_dupallocN(src_socket_data);
socket_data_copy_impl(get_socket_data_as<SocketDataType>(dst),
*static_cast<const SocketDataType *>(src_socket_data));
if ((flag & LIB_ID_CREATE_NO_USER_REFCOUNT) == 0) {
socket_data_id_user_increment(get_socket_data_as<SocketDataType>(dst));
}
});
}
/** \} */
/* -------------------------------------------------------------------- */
/** \name Write Socket Data to Blend File
* \{ */
/* Note: no default implementation, every used type must write at least the base struct. */
inline void socket_data_write_impl(BlendWriter *writer, bNodeSocketValueFloat &data)
{
BLO_write_struct(writer, bNodeSocketValueFloat, &data);
}
inline void socket_data_write_impl(BlendWriter *writer, bNodeSocketValueInt &data)
{
BLO_write_struct(writer, bNodeSocketValueInt, &data);
}
inline void socket_data_write_impl(BlendWriter *writer, bNodeSocketValueBoolean &data)
{
BLO_write_struct(writer, bNodeSocketValueBoolean, &data);
}
inline void socket_data_write_impl(BlendWriter *writer, bNodeSocketValueRotation &data)
{
BLO_write_struct(writer, bNodeSocketValueRotation, &data);
}
inline void socket_data_write_impl(BlendWriter *writer, bNodeSocketValueVector &data)
{
BLO_write_struct(writer, bNodeSocketValueVector, &data);
}
inline void socket_data_write_impl(BlendWriter *writer, bNodeSocketValueRGBA &data)
{
BLO_write_struct(writer, bNodeSocketValueRGBA, &data);
}
inline void socket_data_write_impl(BlendWriter *writer, bNodeSocketValueString &data)
{
BLO_write_struct(writer, bNodeSocketValueString, &data);
}
inline void socket_data_write_impl(BlendWriter *writer, bNodeSocketValueObject &data)
{
BLO_write_struct(writer, bNodeSocketValueObject, &data);
}
inline void socket_data_write_impl(BlendWriter *writer, bNodeSocketValueImage &data)
{
BLO_write_struct(writer, bNodeSocketValueImage, &data);
}
inline void socket_data_write_impl(BlendWriter *writer, bNodeSocketValueCollection &data)
{
BLO_write_struct(writer, bNodeSocketValueCollection, &data);
}
inline void socket_data_write_impl(BlendWriter *writer, bNodeSocketValueTexture &data)
{
BLO_write_struct(writer, bNodeSocketValueTexture, &data);
}
inline void socket_data_write_impl(BlendWriter *writer, bNodeSocketValueMaterial &data)
{
BLO_write_struct(writer, bNodeSocketValueMaterial, &data);
}
inline void socket_data_write_impl(BlendWriter *writer, bNodeSocketValueMenu &data)
{
BLO_write_struct(writer, bNodeSocketValueMenu, &data);
}
static void socket_data_write(BlendWriter *writer, bNodeTreeInterfaceSocket &socket)
{
socket_data_to_static_type_tag(socket.socket_type, [&](auto type_tag) {
using SocketDataType = typename decltype(type_tag)::type;
socket_data_write_impl(writer, get_socket_data_as<SocketDataType>(socket));
});
}
/** \} */
/* -------------------------------------------------------------------- */
/** \name Read Socket Data from Blend File
* \{ */
template<typename T> void socket_data_read_data_impl(BlendDataReader *reader, T **data)
{
BLO_read_data_address(reader, data);
}
template<> void socket_data_read_data_impl(BlendDataReader *reader, bNodeSocketValueMenu **data)
{
BLO_read_data_address(reader, data);
/* Clear runtime data. */
(*data)->enum_items = nullptr;
(*data)->runtime_flag = 0;
}
static void socket_data_read_data(BlendDataReader *reader, bNodeTreeInterfaceSocket &socket)
{
socket_data_to_static_type_tag(socket.socket_type, [&](auto type_tag) {
using SocketDataType = typename decltype(type_tag)::type;
socket_data_read_data_impl(reader, reinterpret_cast<SocketDataType **>(&socket.socket_data));
});
}
/** \} */
/* -------------------------------------------------------------------- */
/** \name Callback per ID Pointer
* \{ */
template<typename T>
void socket_data_foreach_id_impl(LibraryForeachIDData * /*data*/, T & /*data*/)
{
}
template<> void socket_data_foreach_id_impl(LibraryForeachIDData *cb, bNodeSocketValueObject &data)
{
BKE_LIB_FOREACHID_PROCESS_IDSUPER(cb, data.value, IDWALK_CB_USER);
}
template<> void socket_data_foreach_id_impl(LibraryForeachIDData *cb, bNodeSocketValueImage &data)
{
BKE_LIB_FOREACHID_PROCESS_IDSUPER(cb, data.value, IDWALK_CB_USER);
}
template<>
void socket_data_foreach_id_impl(LibraryForeachIDData *cb, bNodeSocketValueCollection &data)
{
BKE_LIB_FOREACHID_PROCESS_IDSUPER(cb, data.value, IDWALK_CB_USER);
}
template<>
void socket_data_foreach_id_impl(LibraryForeachIDData *cb, bNodeSocketValueTexture &data)
{
BKE_LIB_FOREACHID_PROCESS_IDSUPER(cb, data.value, IDWALK_CB_USER);
}
template<>
void socket_data_foreach_id_impl(LibraryForeachIDData *cb, bNodeSocketValueMaterial &data)
{
BKE_LIB_FOREACHID_PROCESS_IDSUPER(cb, data.value, IDWALK_CB_USER);
}
static void socket_data_foreach_id(LibraryForeachIDData *data, bNodeTreeInterfaceSocket &socket)
{
socket_data_to_static_type_tag(socket.socket_type, [&](auto type_tag) {
using SocketDataType = typename decltype(type_tag)::type;
socket_data_foreach_id_impl(data, get_socket_data_as<SocketDataType>(socket));
});
}
/** \} */
} // namespace socket_types
namespace item_types {
using UidGeneratorFn = blender::FunctionRef<int()>;
static void item_copy(bNodeTreeInterfaceItem &dst,
const bNodeTreeInterfaceItem &src,
int flag,
UidGeneratorFn generate_uid);
/**
* Copy the source items and give each a new unique identifier.
* \param generate_uid: Optional generator function for new item UIDs, copies existing identifiers
* if null.
*/
static void panel_init(bNodeTreeInterfacePanel &panel,
const Span<const bNodeTreeInterfaceItem *> items_src,
const int flag,
UidGeneratorFn generate_uid)
{
panel.items_num = items_src.size();
panel.items_array = MEM_cnew_array<bNodeTreeInterfaceItem *>(panel.items_num, __func__);
/* Copy buffers. */
for (const int i : items_src.index_range()) {
const bNodeTreeInterfaceItem *item_src = items_src[i];
panel.items_array[i] = static_cast<bNodeTreeInterfaceItem *>(MEM_dupallocN(item_src));
item_types::item_copy(*panel.items_array[i], *item_src, flag, generate_uid);
}
}
/**
* Copy data from a source item.
* \param generate_uid: Optional generator function for new item UIDs, copies existing identifiers
* if null.
*/
static void item_copy(bNodeTreeInterfaceItem &dst,
const bNodeTreeInterfaceItem &src,
const int flag,
UidGeneratorFn generate_uid)
{
switch (dst.item_type) {
case NODE_INTERFACE_SOCKET: {
bNodeTreeInterfaceSocket &dst_socket = reinterpret_cast<bNodeTreeInterfaceSocket &>(dst);
const bNodeTreeInterfaceSocket &src_socket =
reinterpret_cast<const bNodeTreeInterfaceSocket &>(src);
BLI_assert(src_socket.socket_type != nullptr);
dst_socket.name = BLI_strdup_null(src_socket.name);
dst_socket.description = BLI_strdup_null(src_socket.description);
dst_socket.socket_type = BLI_strdup(src_socket.socket_type);
dst_socket.default_attribute_name = BLI_strdup_null(src_socket.default_attribute_name);
dst_socket.identifier = generate_uid ? BLI_sprintfN("Socket_%d", generate_uid()) :
BLI_strdup(src_socket.identifier);
if (src_socket.properties) {
dst_socket.properties = IDP_CopyProperty_ex(src_socket.properties, flag);
}
if (src_socket.socket_data != nullptr) {
socket_types::socket_data_copy(dst_socket, src_socket, flag);
}
break;
}
case NODE_INTERFACE_PANEL: {
bNodeTreeInterfacePanel &dst_panel = reinterpret_cast<bNodeTreeInterfacePanel &>(dst);
const bNodeTreeInterfacePanel &src_panel = reinterpret_cast<const bNodeTreeInterfacePanel &>(
src);
dst_panel.name = BLI_strdup_null(src_panel.name);
dst_panel.description = BLI_strdup_null(src_panel.description);
dst_panel.identifier = generate_uid ? generate_uid() : src_panel.identifier;
panel_init(dst_panel, src_panel.items(), flag, generate_uid);
break;
}
}
}
static void item_free(bNodeTreeInterfaceItem &item, const bool do_id_user)
{
switch (item.item_type) {
case NODE_INTERFACE_SOCKET: {
bNodeTreeInterfaceSocket &socket = reinterpret_cast<bNodeTreeInterfaceSocket &>(item);
if (socket.socket_data != nullptr) {
socket_types::socket_data_free(socket, do_id_user);
MEM_SAFE_FREE(socket.socket_data);
}
MEM_SAFE_FREE(socket.name);
MEM_SAFE_FREE(socket.description);
MEM_SAFE_FREE(socket.socket_type);
MEM_SAFE_FREE(socket.default_attribute_name);
MEM_SAFE_FREE(socket.identifier);
if (socket.properties) {
IDP_FreePropertyContent_ex(socket.properties, do_id_user);
MEM_freeN(socket.properties);
}
break;
}
case NODE_INTERFACE_PANEL: {
bNodeTreeInterfacePanel &panel = reinterpret_cast<bNodeTreeInterfacePanel &>(item);
panel.clear(do_id_user);
MEM_SAFE_FREE(panel.name);
MEM_SAFE_FREE(panel.description);
break;
}
}
MEM_freeN(&item);
}
void item_write_struct(BlendWriter *writer, bNodeTreeInterfaceItem &item);
static void item_write_data(BlendWriter *writer, bNodeTreeInterfaceItem &item)
{
switch (item.item_type) {
case NODE_INTERFACE_SOCKET: {
bNodeTreeInterfaceSocket &socket = reinterpret_cast<bNodeTreeInterfaceSocket &>(item);
BLO_write_string(writer, socket.name);
BLO_write_string(writer, socket.identifier);
BLO_write_string(writer, socket.description);
BLO_write_string(writer, socket.socket_type);
BLO_write_string(writer, socket.default_attribute_name);
if (socket.properties) {
IDP_BlendWrite(writer, socket.properties);
}
socket_types::socket_data_write(writer, socket);
break;
}
case NODE_INTERFACE_PANEL: {
bNodeTreeInterfacePanel &panel = reinterpret_cast<bNodeTreeInterfacePanel &>(item);
BLO_write_string(writer, panel.name);
BLO_write_string(writer, panel.description);
BLO_write_pointer_array(writer, panel.items_num, panel.items_array);
for (bNodeTreeInterfaceItem *child_item : panel.items()) {
item_write_struct(writer, *child_item);
}
break;
}
}
}
void item_write_struct(BlendWriter *writer, bNodeTreeInterfaceItem &item)
{
switch (item.item_type) {
case NODE_INTERFACE_SOCKET: {
BLO_write_struct(writer, bNodeTreeInterfaceSocket, &item);
break;
}
case NODE_INTERFACE_PANEL: {
BLO_write_struct(writer, bNodeTreeInterfacePanel, &item);
break;
}
}
item_write_data(writer, item);
}
static void item_read_data(BlendDataReader *reader, bNodeTreeInterfaceItem &item)
{
switch (item.item_type) {
case NODE_INTERFACE_SOCKET: {
bNodeTreeInterfaceSocket &socket = reinterpret_cast<bNodeTreeInterfaceSocket &>(item);
BLO_read_data_address(reader, &socket.name);
BLO_read_data_address(reader, &socket.description);
BLO_read_data_address(reader, &socket.socket_type);
BLO_read_data_address(reader, &socket.default_attribute_name);
BLO_read_data_address(reader, &socket.identifier);
BLO_read_data_address(reader, &socket.properties);
IDP_BlendDataRead(reader, &socket.properties);
socket_types::socket_data_read_data(reader, socket);
break;
}
case NODE_INTERFACE_PANEL: {
bNodeTreeInterfacePanel &panel = reinterpret_cast<bNodeTreeInterfacePanel &>(item);
BLO_read_data_address(reader, &panel.name);
BLO_read_data_address(reader, &panel.description);
BLO_read_pointer_array(reader, reinterpret_cast<void **>(&panel.items_array));
for (const int i : blender::IndexRange(panel.items_num)) {
BLO_read_data_address(reader, &panel.items_array[i]);
item_read_data(reader, *panel.items_array[i]);
}
break;
}
}
}
static void item_foreach_id(LibraryForeachIDData *data, bNodeTreeInterfaceItem &item)
{
switch (item.item_type) {
case NODE_INTERFACE_SOCKET: {
bNodeTreeInterfaceSocket &socket = reinterpret_cast<bNodeTreeInterfaceSocket &>(item);
BKE_LIB_FOREACHID_PROCESS_FUNCTION_CALL(
data,
IDP_foreach_property(socket.properties,
IDP_TYPE_FILTER_ID,
BKE_lib_query_idpropertiesForeachIDLink_callback,
data));
socket_types::socket_data_foreach_id(data, socket);
break;
}
case NODE_INTERFACE_PANEL: {
bNodeTreeInterfacePanel &panel = reinterpret_cast<bNodeTreeInterfacePanel &>(item);
for (bNodeTreeInterfaceItem *item : panel.items()) {
item_foreach_id(data, *item);
}
break;
}
}
}
/* Move all child items to the new parent. */
static Span<bNodeTreeInterfaceItem *> item_children(bNodeTreeInterfaceItem &item)
{
switch (item.item_type) {
case NODE_INTERFACE_SOCKET: {
return {};
}
case NODE_INTERFACE_PANEL: {
bNodeTreeInterfacePanel &panel = reinterpret_cast<bNodeTreeInterfacePanel &>(item);
return panel.items();
}
}
return {};
}
} // namespace item_types
} // namespace blender::bke::node_interface
using namespace blender::bke::node_interface;
bNodeSocketType *bNodeTreeInterfaceSocket::socket_typeinfo() const
{
return nodeSocketTypeFind(socket_type);
}
blender::ColorGeometry4f bNodeTreeInterfaceSocket::socket_color() const
{
bNodeSocketType *typeinfo = this->socket_typeinfo();
if (typeinfo && typeinfo->draw_color_simple) {
float color[4];
typeinfo->draw_color_simple(typeinfo, color);
return blender::ColorGeometry4f(color);
}
else {
return blender::ColorGeometry4f(1.0f, 0.0f, 1.0f, 1.0f);
}
}
bool bNodeTreeInterfaceSocket::set_socket_type(const char *new_socket_type)
{
const char *idname = socket_types::try_get_supported_socket_type(new_socket_type);
if (idname == nullptr) {
return false;
}
if (this->socket_data != nullptr) {
socket_types::socket_data_free(*this, true);
MEM_SAFE_FREE(this->socket_data);
}
MEM_SAFE_FREE(this->socket_type);
this->socket_type = BLI_strdup(new_socket_type);
this->socket_data = socket_types::make_socket_data(new_socket_type);
return true;
}
void bNodeTreeInterfaceSocket::init_from_socket_instance(const bNodeSocket *socket)
{
const char *idname = socket_types::try_get_supported_socket_type(socket->idname);
BLI_assert(idname != nullptr);
if (this->socket_data != nullptr) {
socket_types::socket_data_free(*this, true);
MEM_SAFE_FREE(this->socket_data);
}
MEM_SAFE_FREE(this->socket_type);
if (socket->flag & SOCK_HIDE_VALUE) {
this->flag |= NODE_INTERFACE_SOCKET_HIDE_VALUE;
}
this->socket_type = BLI_strdup(idname);
this->socket_data = socket_types::make_socket_data(idname);
socket_types::socket_data_copy_ptr(*this, socket->default_value, 0);
}
blender::IndexRange bNodeTreeInterfacePanel::items_range() const
{
return blender::IndexRange(items_num);
}
blender::Span<const bNodeTreeInterfaceItem *> bNodeTreeInterfacePanel::items() const
{
return blender::Span(items_array, items_num);
}
blender::MutableSpan<bNodeTreeInterfaceItem *> bNodeTreeInterfacePanel::items()
{
return blender::MutableSpan(items_array, items_num);
}
bool bNodeTreeInterfacePanel::contains(const bNodeTreeInterfaceItem &item) const
{
return items().contains(&item);
}
bool bNodeTreeInterfacePanel::contains_recursive(const bNodeTreeInterfaceItem &item) const
{
bool is_child = false;
/* Have to capture item address here instead of just a reference,
* otherwise pointer comparison will not work. */
this->foreach_item(
[&](const bNodeTreeInterfaceItem &titem) {
if (&titem == &item) {
is_child = true;
return false;
}
return true;
},
true);
return is_child;
}
int bNodeTreeInterfacePanel::item_position(const bNodeTreeInterfaceItem &item) const
{
return items().first_index_try(&item);
}
int bNodeTreeInterfacePanel::item_index(const bNodeTreeInterfaceItem &item) const
{
int index = 0;
bool found = false;
/* Have to capture item address here instead of just a reference,
* otherwise pointer comparison will not work. */
this->foreach_item([&](const bNodeTreeInterfaceItem &titem) {
if (&titem == &item) {
found = true;
return false;
}
++index;
return true;
});
return found ? index : -1;
}
const bNodeTreeInterfaceItem *bNodeTreeInterfacePanel::item_at_index(int index) const
{
int i = 0;
const bNodeTreeInterfaceItem *result = nullptr;
this->foreach_item([&](const bNodeTreeInterfaceItem &item) {
if (i == index) {
result = &item;
return false;
}
++i;
return true;
});
return result;
}
bNodeTreeInterfacePanel *bNodeTreeInterfacePanel::find_parent_recursive(
const bNodeTreeInterfaceItem &item)
{
std::queue<bNodeTreeInterfacePanel *> queue;
if (this->contains(item)) {
return this;
}
queue.push(this);
while (!queue.empty()) {
bNodeTreeInterfacePanel *parent = queue.front();
queue.pop();
for (bNodeTreeInterfaceItem *titem : parent->items()) {
if (titem->item_type != NODE_INTERFACE_PANEL) {
continue;
}
bNodeTreeInterfacePanel *tpanel = get_item_as<bNodeTreeInterfacePanel>(titem);
if (tpanel->contains(item)) {
return tpanel;
}
queue.push(tpanel);
}
}
return nullptr;
}
int bNodeTreeInterfacePanel::find_valid_insert_position_for_item(
const bNodeTreeInterfaceItem &item, const int initial_pos) const
{
const bool sockets_above_panels = !(this->flag &
NODE_INTERFACE_PANEL_ALLOW_SOCKETS_AFTER_PANELS);
const blender::Span<const bNodeTreeInterfaceItem *> items = this->items();
/* True if item a should be above item b. */
auto item_compare = [sockets_above_panels](const bNodeTreeInterfaceItem &a,
const bNodeTreeInterfaceItem &b) -> bool {
if (a.item_type != b.item_type) {
/* Keep sockets above panels. */
if (sockets_above_panels) {
return a.item_type == NODE_INTERFACE_SOCKET;
}
}
else {
/* Keep outputs above inputs. */
if (a.item_type == NODE_INTERFACE_SOCKET) {
const bNodeTreeInterfaceSocket &sa = reinterpret_cast<const bNodeTreeInterfaceSocket &>(a);
const bNodeTreeInterfaceSocket &sb = reinterpret_cast<const bNodeTreeInterfaceSocket &>(b);
const bool is_output_a = sa.flag & NODE_INTERFACE_SOCKET_OUTPUT;
const bool is_output_b = sb.flag & NODE_INTERFACE_SOCKET_OUTPUT;
if (is_output_a != is_output_b) {
return is_output_a;
}
}
}
return false;
};
if (items.is_empty()) {
return initial_pos;
}
/* Insertion sort for a single item.
* items.size() is a valid position for appending. */
int test_pos = clamp_i(initial_pos, 0, items.size());
/* Move upward until valid position found. */
while (test_pos > 0 && item_compare(item, *items[test_pos - 1])) {
--test_pos;
}
/* Move downward until valid position found.
* Result can be out of range, this is valid, items get appended. */
while (test_pos < items.size() && item_compare(*items[test_pos], item)) {
++test_pos;
}
return test_pos;
}
void bNodeTreeInterfacePanel::add_item(bNodeTreeInterfaceItem &item)
{
/* Same as inserting at the end. */
insert_item(item, this->items_num);
}
void bNodeTreeInterfacePanel::insert_item(bNodeTreeInterfaceItem &item, int position)
{
/* Are child panels allowed? */
BLI_assert(item.item_type != NODE_INTERFACE_PANEL ||
(this->flag & NODE_INTERFACE_PANEL_ALLOW_CHILD_PANELS));
/* Apply any constraints on the item positions. */
position = find_valid_insert_position_for_item(item, position);
position = std::min(std::max(position, 0), items_num);
blender::MutableSpan<bNodeTreeInterfaceItem *> old_items = this->items();
items_num++;
items_array = MEM_cnew_array<bNodeTreeInterfaceItem *>(items_num, __func__);
this->items().take_front(position).copy_from(old_items.take_front(position));
this->items().drop_front(position + 1).copy_from(old_items.drop_front(position));
this->items()[position] = &item;
if (old_items.data()) {
MEM_freeN(old_items.data());
}
}
bool bNodeTreeInterfacePanel::remove_item(bNodeTreeInterfaceItem &item, const bool free)
{
const int position = this->item_position(item);
if (!this->items().index_range().contains(position)) {
return false;
}
blender::MutableSpan<bNodeTreeInterfaceItem *> old_items = this->items();
items_num--;
items_array = MEM_cnew_array<bNodeTreeInterfaceItem *>(items_num, __func__);
this->items().take_front(position).copy_from(old_items.take_front(position));
this->items().drop_front(position).copy_from(old_items.drop_front(position + 1));
/* Guaranteed not empty, contains at least the removed item */
MEM_freeN(old_items.data());
if (free) {
item_types::item_free(item, true);
}
return true;
}
void bNodeTreeInterfacePanel::clear(bool do_id_user)
{
for (bNodeTreeInterfaceItem *item : this->items()) {
item_types::item_free(*item, do_id_user);
}
MEM_SAFE_FREE(items_array);
items_array = nullptr;
items_num = 0;
}
bool bNodeTreeInterfacePanel::move_item(bNodeTreeInterfaceItem &item, int new_position)
{
const int old_position = this->item_position(item);
if (!this->items().index_range().contains(old_position)) {
return false;
}
if (old_position == new_position) {
/* Nothing changes. */
return true;
}
new_position = find_valid_insert_position_for_item(item, new_position);
new_position = std::min(std::max(new_position, 0), items_num);
if (old_position < new_position) {
/* Actual target position and all existing items shifted by 1. */
const blender::Span<bNodeTreeInterfaceItem *> moved_items = this->items().slice(
old_position + 1, new_position - old_position - 1);
bNodeTreeInterfaceItem *tmp = this->items()[old_position];
std::copy(
moved_items.begin(), moved_items.end(), this->items().drop_front(old_position).data());
this->items()[new_position - 1] = tmp;
}
else /* old_position > new_position */ {
const blender::Span<bNodeTreeInterfaceItem *> moved_items = this->items().slice(
new_position, old_position - new_position);
bNodeTreeInterfaceItem *tmp = this->items()[old_position];
std::copy_backward(
moved_items.begin(), moved_items.end(), this->items().drop_front(old_position + 1).data());
this->items()[new_position] = tmp;
}
return true;
}
void bNodeTreeInterfacePanel::foreach_item(
blender::FunctionRef<bool(bNodeTreeInterfaceItem &item)> fn, bool include_self)
{
using ItemSpan = blender::Span<bNodeTreeInterfaceItem *>;
blender::Stack<ItemSpan> stack;
if (include_self && fn(this->item) == false) {
return;
}
stack.push(this->items());
while (!stack.is_empty()) {
const ItemSpan current_items = stack.pop();
for (const int index : current_items.index_range()) {
bNodeTreeInterfaceItem *item = current_items[index];
if (fn(*item) == false) {
return;
}
if (item->item_type == NODE_INTERFACE_PANEL) {
bNodeTreeInterfacePanel *panel = reinterpret_cast<bNodeTreeInterfacePanel *>(item);
/* Reinsert remaining items. */
if (index < current_items.size() - 1) {
const ItemSpan remaining_items = current_items.drop_front(index + 1);
stack.push(remaining_items);
}
/* Handle child items first before continuing with current span. */
stack.push(panel->items());
break;
}
}
}
}
void bNodeTreeInterfacePanel::foreach_item(
blender::FunctionRef<bool(const bNodeTreeInterfaceItem &item)> fn, bool include_self) const
{
using ItemSpan = blender::Span<const bNodeTreeInterfaceItem *>;
blender::Stack<ItemSpan> stack;
if (include_self && fn(this->item) == false) {
return;
}
stack.push(this->items());
while (!stack.is_empty()) {
const ItemSpan current_items = stack.pop();
for (const int index : current_items.index_range()) {
const bNodeTreeInterfaceItem *item = current_items[index];
if (fn(*item) == false) {
return;
}
if (item->item_type == NODE_INTERFACE_PANEL) {
const bNodeTreeInterfacePanel *panel = reinterpret_cast<const bNodeTreeInterfacePanel *>(
item);
/* Reinsert remaining items. */
if (index < current_items.size() - 1) {
const ItemSpan remaining_items = current_items.drop_front(index + 1);
stack.push(remaining_items);
}
/* Handle child items first before continuing with current span. */
stack.push(panel->items());
break;
}
}
}
}
namespace blender::bke::node_interface {
static bNodeTreeInterfaceSocket *make_socket(const int uid,
const StringRef name,
const StringRef description,
const StringRef socket_type,
const NodeTreeInterfaceSocketFlag flag)
{
BLI_assert(!socket_type.is_empty());
const char *idname = socket_types::try_get_supported_socket_type(socket_type);
if (idname == nullptr) {
return nullptr;
}
bNodeTreeInterfaceSocket *new_socket = MEM_cnew<bNodeTreeInterfaceSocket>(__func__);
BLI_assert(new_socket);
/* Init common socket properties. */
new_socket->identifier = BLI_sprintfN("Socket_%d", uid);
new_socket->item.item_type = NODE_INTERFACE_SOCKET;
new_socket->name = BLI_strdupn(name.data(), name.size());
new_socket->description = description.is_empty() ?
nullptr :
BLI_strdupn(description.data(), description.size());
new_socket->socket_type = BLI_strdupn(socket_type.data(), socket_type.size());
new_socket->flag = flag;
new_socket->socket_data = socket_types::make_socket_data(socket_type);
return new_socket;
}
bNodeTreeInterfaceSocket *add_interface_socket_from_node(bNodeTree &ntree,
const bNode &from_node,
const bNodeSocket &from_sock,
const StringRef socket_type,
const StringRef name)
{
NodeTreeInterfaceSocketFlag flag = NodeTreeInterfaceSocketFlag(0);
SET_FLAG_FROM_TEST(flag, from_sock.in_out & SOCK_IN, NODE_INTERFACE_SOCKET_INPUT);
SET_FLAG_FROM_TEST(flag, from_sock.in_out & SOCK_OUT, NODE_INTERFACE_SOCKET_OUTPUT);
bNodeTreeInterfaceSocket *iosock = ntree.tree_interface.add_socket(
name, from_sock.description, socket_type, flag, nullptr);
if (iosock == nullptr) {
return nullptr;
}
const bNodeSocketType *typeinfo = iosock->socket_typeinfo();
if (typeinfo->interface_from_socket) {
typeinfo->interface_from_socket(&ntree.id, iosock, &from_node, &from_sock);
UNUSED_VARS(from_sock);
}
return iosock;
}
static bNodeTreeInterfacePanel *make_panel(const int uid,
const blender::StringRef name,
const blender::StringRef description,
const NodeTreeInterfacePanelFlag flag)
{
BLI_assert(!name.is_empty());
bNodeTreeInterfacePanel *new_panel = MEM_cnew<bNodeTreeInterfacePanel>(__func__);
new_panel->item.item_type = NODE_INTERFACE_PANEL;
new_panel->name = BLI_strdupn(name.data(), name.size());
new_panel->description = description.is_empty() ?
nullptr :
BLI_strdupn(description.data(), description.size());
new_panel->identifier = uid;
new_panel->flag = flag;
return new_panel;
}
} // namespace blender::bke::node_interface
void bNodeTreeInterface::init_data()
{
this->runtime = MEM_new<blender::bke::bNodeTreeInterfaceRuntime>(__func__);
this->tag_missing_runtime_data();
/* Root panel is allowed to contain child panels. */
root_panel.flag |= NODE_INTERFACE_PANEL_ALLOW_CHILD_PANELS;
}
void bNodeTreeInterface::copy_data(const bNodeTreeInterface &src, int flag)
{
item_types::panel_init(this->root_panel, src.root_panel.items(), flag, nullptr);
this->active_index = src.active_index;
this->runtime = MEM_new<blender::bke::bNodeTreeInterfaceRuntime>(__func__);
this->tag_missing_runtime_data();
}
void bNodeTreeInterface::free_data()
{
MEM_delete(this->runtime);
/* Called when freeing the main database, don't do user refcount here. */
this->root_panel.clear(false);
}
void bNodeTreeInterface::write(BlendWriter *writer)
{
/* Don't write the root panel struct itself, it's nested in the interface struct. */
item_types::item_write_data(writer, this->root_panel.item);
}
void bNodeTreeInterface::read_data(BlendDataReader *reader)
{
item_types::item_read_data(reader, this->root_panel.item);
this->runtime = MEM_new<blender::bke::bNodeTreeInterfaceRuntime>(__func__);
this->tag_missing_runtime_data();
}
bNodeTreeInterfaceItem *bNodeTreeInterface::active_item()
{
bNodeTreeInterfaceItem *active = nullptr;
int count = active_index;
this->foreach_item([&](bNodeTreeInterfaceItem &item) {
if (count == 0) {
active = &item;
return false;
}
--count;
return true;
});
return active;
}
const bNodeTreeInterfaceItem *bNodeTreeInterface::active_item() const
{
const bNodeTreeInterfaceItem *active = nullptr;
int count = active_index;
this->foreach_item([&](const bNodeTreeInterfaceItem &item) {
if (count == 0) {
active = &item;
return false;
}
--count;
return true;
});
return active;
}
void bNodeTreeInterface::active_item_set(bNodeTreeInterfaceItem *item)
{
active_index = 0;
int count = 0;
this->foreach_item([&](bNodeTreeInterfaceItem &titem) {
if (&titem == item) {
active_index = count;
return false;
}
++count;
return true;
});
}
bNodeTreeInterfaceSocket *bNodeTreeInterface::add_socket(const blender::StringRef name,
const blender::StringRef description,
const blender::StringRef socket_type,
const NodeTreeInterfaceSocketFlag flag,
bNodeTreeInterfacePanel *parent)
{
if (parent == nullptr) {
parent = &root_panel;
}
BLI_assert(this->find_item(parent->item));
bNodeTreeInterfaceSocket *new_socket = make_socket(
next_uid++, name, description, socket_type, flag);
if (new_socket) {
parent->add_item(new_socket->item);
}
this->tag_items_changed();
return new_socket;
}
bNodeTreeInterfaceSocket *bNodeTreeInterface::insert_socket(const blender::StringRef name,
const blender::StringRef description,
const blender::StringRef socket_type,
const NodeTreeInterfaceSocketFlag flag,
bNodeTreeInterfacePanel *parent,
const int position)
{
if (parent == nullptr) {
parent = &root_panel;
}
BLI_assert(this->find_item(parent->item));
bNodeTreeInterfaceSocket *new_socket = make_socket(
next_uid++, name, description, socket_type, flag);
if (new_socket) {
parent->insert_item(new_socket->item, position);
}
this->tag_items_changed();
return new_socket;
}
bNodeTreeInterfacePanel *bNodeTreeInterface::add_panel(const blender::StringRef name,
const blender::StringRef description,
const NodeTreeInterfacePanelFlag flag,
bNodeTreeInterfacePanel *parent)
{
if (parent == nullptr) {
parent = &root_panel;
}
BLI_assert(this->find_item(parent->item));
if (!(parent->flag & NODE_INTERFACE_PANEL_ALLOW_CHILD_PANELS)) {
/* Parent does not allow adding child panels. */
return nullptr;
}
bNodeTreeInterfacePanel *new_panel = make_panel(next_uid++, name, description, flag);
if (new_panel) {
parent->add_item(new_panel->item);
}
this->tag_items_changed();
return new_panel;
}
bNodeTreeInterfacePanel *bNodeTreeInterface::insert_panel(const blender::StringRef name,
const blender::StringRef description,
const NodeTreeInterfacePanelFlag flag,
bNodeTreeInterfacePanel *parent,
const int position)
{
if (parent == nullptr) {
parent = &root_panel;
}
BLI_assert(this->find_item(parent->item));
if (!(parent->flag & NODE_INTERFACE_PANEL_ALLOW_CHILD_PANELS)) {
/* Parent does not allow adding child panels. */
return nullptr;
}
bNodeTreeInterfacePanel *new_panel = make_panel(next_uid++, name, description, flag);
if (new_panel) {
parent->insert_item(new_panel->item, position);
}
this->tag_items_changed();
return new_panel;
}
bNodeTreeInterfaceItem *bNodeTreeInterface::add_item_copy(const bNodeTreeInterfaceItem &item,
bNodeTreeInterfacePanel *parent)
{
if (parent == nullptr) {
parent = &root_panel;
}
BLI_assert(this->find_item(item));
BLI_assert(this->find_item(parent->item));
if (item.item_type == NODE_INTERFACE_PANEL &&
!(parent->flag & NODE_INTERFACE_PANEL_ALLOW_CHILD_PANELS))
{
/* Parent does not allow adding child panels. */
return nullptr;
}
bNodeTreeInterfaceItem *citem = static_cast<bNodeTreeInterfaceItem *>(MEM_dupallocN(&item));
item_types::item_copy(*citem, item, 0, [&]() { return this->next_uid++; });
parent->add_item(*citem);
this->tag_items_changed();
return citem;
}
bNodeTreeInterfaceItem *bNodeTreeInterface::insert_item_copy(const bNodeTreeInterfaceItem &item,
bNodeTreeInterfacePanel *parent,
int position)
{
if (parent == nullptr) {
parent = &root_panel;
}
BLI_assert(this->find_item(item));
BLI_assert(this->find_item(parent->item));
if (item.item_type == NODE_INTERFACE_PANEL &&
!(parent->flag & NODE_INTERFACE_PANEL_ALLOW_CHILD_PANELS))
{
/* Parent does not allow adding child panels. */
return nullptr;
}
bNodeTreeInterfaceItem *citem = static_cast<bNodeTreeInterfaceItem *>(MEM_dupallocN(&item));
item_types::item_copy(*citem, item, 0, [&]() { return this->next_uid++; });
parent->insert_item(*citem, position);
this->tag_items_changed();
return citem;
}
bool bNodeTreeInterface::remove_item(bNodeTreeInterfaceItem &item, bool move_content_to_parent)
{
bNodeTreeInterfacePanel *parent = this->find_item_parent(item, true);
if (parent == nullptr) {
return false;
}
if (move_content_to_parent) {
int position = parent->item_position(item);
/* Cache children to avoid invalidating the iterator. */
blender::Array<bNodeTreeInterfaceItem *> children(item_types::item_children(item));
for (bNodeTreeInterfaceItem *child : children) {
this->move_item_to_parent(*child, parent, position++);
}
}
if (parent->remove_item(item, true)) {
this->tag_items_changed();
return true;
}
return false;
}
void bNodeTreeInterface::clear_items()
{
root_panel.clear(true);
this->tag_items_changed();
}
bool bNodeTreeInterface::move_item(bNodeTreeInterfaceItem &item, const int new_position)
{
bNodeTreeInterfacePanel *parent = this->find_item_parent(item, true);
if (parent == nullptr) {
return false;
}
if (parent->move_item(item, new_position)) {
this->tag_items_changed();
return true;
}
return false;
}
bool bNodeTreeInterface::move_item_to_parent(bNodeTreeInterfaceItem &item,
bNodeTreeInterfacePanel *new_parent,
int new_position)
{
bNodeTreeInterfacePanel *parent = this->find_item_parent(item, true);
if (parent == nullptr) {
return false;
}
if (item.item_type == NODE_INTERFACE_PANEL && new_parent &&
!(new_parent->flag & NODE_INTERFACE_PANEL_ALLOW_CHILD_PANELS))
{
/* Parent does not allow adding child panels. */
return false;
}
if (parent == new_parent) {
if (parent->move_item(item, new_position)) {
this->tag_items_changed();
return true;
}
}
else {
/* Note: only remove and reinsert when parents different, otherwise removing the item can
* change the desired target position! */
if (parent->remove_item(item, false)) {
new_parent->insert_item(item, new_position);
this->tag_items_changed();
return true;
}
}
return false;
}
void bNodeTreeInterface::foreach_id(LibraryForeachIDData *cb)
{
item_types::item_foreach_id(cb, root_panel.item);
}
bool bNodeTreeInterface::items_cache_is_available() const
{
return !this->runtime->items_cache_mutex_.is_dirty();
}
void bNodeTreeInterface::ensure_items_cache() const
{
blender::bke::bNodeTreeInterfaceRuntime &runtime = *this->runtime;
runtime.items_cache_mutex_.ensure([&]() {
/* Rebuild draw-order list of interface items for linear access. */
runtime.items_.clear();
runtime.inputs_.clear();
runtime.outputs_.clear();
/* Items in the cache are mutable pointers, but node tree update considers ID data to be
* immutable when caching. DNA ListBase pointers can be mutable even if their container is
* const, but the items returned by #foreach_item inherit qualifiers from the container. */
bNodeTreeInterface &mutable_self = const_cast<bNodeTreeInterface &>(*this);
mutable_self.foreach_item([&](bNodeTreeInterfaceItem &item) {
runtime.items_.append(&item);
if (bNodeTreeInterfaceSocket *socket = get_item_as<bNodeTreeInterfaceSocket>(&item)) {
if (socket->flag & NODE_INTERFACE_SOCKET_INPUT) {
runtime.inputs_.append(socket);
}
if (socket->flag & NODE_INTERFACE_SOCKET_OUTPUT) {
runtime.outputs_.append(socket);
}
}
return true;
});
});
}
void bNodeTreeInterface::tag_missing_runtime_data()
{
this->runtime->changed_flag_ |= NODE_INTERFACE_CHANGED_ALL;
this->runtime->items_cache_mutex_.tag_dirty();
}
bool bNodeTreeInterface::is_changed() const
{
return this->runtime->changed_flag_ != NODE_INTERFACE_CHANGED_NOTHING;
}
void bNodeTreeInterface::tag_items_changed()
{
this->runtime->changed_flag_ |= NODE_INTERFACE_CHANGED_ITEMS;
this->runtime->items_cache_mutex_.tag_dirty();
}
void bNodeTreeInterface::reset_changed_flags()
{
this->runtime->changed_flag_ = NODE_INTERFACE_CHANGED_NOTHING;
}
Reference in New Issue View Git Blame Copy Permalink