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oak-editor/app/node/input.cpp
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27 KiB
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/***
Olive - Non-Linear Video Editor
Copyright (C) 2019 Olive Team
This program is free software: you can redistribute it and/or modify
it under the terms of the GNU General Public License as published by
the Free Software Foundation, either version 3 of the License, or
(at your option) any later version.
This program is distributed in the hope that it will be useful,
but WITHOUT ANY WARRANTY; without even the implied warranty of
MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
GNU General Public License for more details.
You should have received a copy of the GNU General Public License
along with this program. If not, see <http://www.gnu.org/licenses/>.
***/
#include "input.h"
#include <QVector2D>
#include <QVector3D>
#include <QVector4D>
#include "common/bezier.h"
#include "common/lerp.h"
#include "common/xmlreadloop.h"
#include "node.h"
#include "output.h"
#include "inputarray.h"
#include "project/item/footage/stream.h"
NodeInput::NodeInput(const QString& id, const DataType &type, const QVariant &default_value) :
NodeParam(id),
data_type_(type),
keyframable_(true),
keyframing_(false)
{
int track_size;
switch (data_type_) {
case kVec2:
track_size = 2;
break;
case kVec3:
track_size = 3;
break;
case kVec4:
track_size = 4;
break;
default:
track_size = 1;
}
keyframe_tracks_.resize(track_size);
if (!default_value.isNull()) {
standard_value_ = split_normal_value_into_track_values(default_value);
Q_ASSERT(standard_value_.size() == track_size);
} else {
standard_value_.resize(track_size);
}
}
bool NodeInput::IsArray()
{
return false;
}
NodeParam::Type NodeInput::type()
{
return kInput;
}
QString NodeInput::name()
{
if (name_.isEmpty()) {
return tr("Input");
}
return NodeParam::name();
}
void NodeInput::Load(QXmlStreamReader *reader, QHash<quintptr, NodeOutput*>& param_ptrs, QList<SerializedConnection> &input_connections, QList<FootageConnection>& footage_connections, const QAtomicInt *cancelled)
{
XMLAttributeLoop(reader, attr) {
if (cancelled && *cancelled) {
return;
}
if (attr.name() == "keyframing") {
set_is_keyframing(attr.value() == "1");
}
}
XMLReadLoop(reader, "input") {
if (cancelled && *cancelled) {
return;
}
if (reader->isStartElement()) {
if (reader->name() == "standard") {
// Load standard value
int val_index = 0;
XMLReadLoop(reader, "standard") {
if (cancelled && *cancelled) {
return;
}
if (reader->isStartElement() && reader->name() == "value") {
reader->readNext();
QString value_text = reader->text().toString();
if (value_text.isEmpty()) {
standard_value_.replace(val_index, QVariant());
} else {
standard_value_.replace(val_index, StringToValue(value_text, footage_connections));
}
val_index++;
}
}
} else if (reader->name() == "keyframes") {
int track = 0;
XMLReadLoop(reader, "keyframes") {
if (cancelled && *cancelled) {
return;
}
if (reader->isStartElement() && reader->name() == "track") {
XMLReadLoop(reader, "track") {
if (cancelled && *cancelled) {
return;
}
if (reader->name() == "key") {
rational key_time;
NodeKeyframe::Type key_type;
QVariant key_value;
QPointF key_in_handle;
QPointF key_out_handle;
XMLAttributeLoop(reader, attr) {
if (cancelled && *cancelled) {
return;
}
if (attr.name() == "time") {
key_time = rational::fromString(attr.value().toString());
} else if (attr.name() == "type") {
key_type = static_cast<NodeKeyframe::Type>(attr.value().toInt());
} else if (attr.name() == "inhandlex") {
key_in_handle.setX(attr.value().toDouble());
} else if (attr.name() == "inhandley") {
key_in_handle.setY(attr.value().toDouble());
} else if (attr.name() == "outhandlex") {
key_out_handle.setX(attr.value().toDouble());
} else if (attr.name() == "outhandley") {
key_out_handle.setY(attr.value().toDouble());
}
}
reader->readNext();
key_value = StringToValue(reader->text().toString(), footage_connections);
NodeKeyframePtr key = NodeKeyframe::Create(key_time, key_value, key_type, track);
key->set_bezier_control_in(key_in_handle);
key->set_bezier_control_out(key_out_handle);
key->set_parent(this);
keyframe_tracks_[track].append(key);
}
}
track++;
}
}
} else if (reader->name() == "connections") {
XMLReadLoop(reader, "connections") {
if (cancelled && *cancelled) {
return;
}
if (reader->isStartElement() && reader->name() == "connection") {
reader->readNext();
input_connections.append({this, reader->text().toULongLong()});
}
}
} else {
LoadInternal(reader, param_ptrs, input_connections, footage_connections, cancelled);
}
}
}
}
void NodeInput::Save(QXmlStreamWriter *writer) const
{
writer->writeStartElement("input");
writer->writeAttribute("id", id());
writer->writeAttribute("keyframing", QString::number(keyframing_));
// Write standard value
writer->writeStartElement("standard");
foreach (const QVariant& v, standard_value_) {
writer->writeTextElement("value", ValueToString(v));
}
writer->writeEndElement(); // standard
// Write keyframes
writer->writeStartElement("keyframes");
foreach (const KeyframeTrack& track, keyframe_tracks()) {
writer->writeStartElement("track");
foreach (NodeKeyframePtr key, track) {
writer->writeStartElement("key");
writer->writeAttribute("time", key->time().toString());
writer->writeAttribute("type", QString::number(key->type()));
writer->writeAttribute("inhandlex", QString::number(key->bezier_control_in().x()));
writer->writeAttribute("inhandley", QString::number(key->bezier_control_in().y()));
writer->writeAttribute("outhandlex", QString::number(key->bezier_control_out().x()));
writer->writeAttribute("outhandley", QString::number(key->bezier_control_out().y()));
writer->writeCharacters(ValueToString(key->value()));
writer->writeEndElement(); // key
}
writer->writeEndElement(); // track
}
writer->writeEndElement(); // keyframes
SaveConnections(writer);
SaveInternal(writer);
writer->writeEndElement(); // input
}
void NodeInput::SaveConnections(QXmlStreamWriter *writer) const
{
writer->writeStartElement("connections");
foreach (NodeEdgePtr edge, edges_) {
writer->writeTextElement("connection",
QString::number(reinterpret_cast<quintptr>(edge->output())));
}
writer->writeEndElement(); // connections
}
const NodeParam::DataType &NodeInput::data_type() const
{
return data_type_;
}
void NodeInput::LoadInternal(QXmlStreamReader*, QHash<quintptr, NodeOutput *>&, QList<SerializedConnection>&, QList<FootageConnection>&, const QAtomicInt*)
{
}
void NodeInput::SaveInternal(QXmlStreamWriter*) const
{
}
QString NodeInput::ValueToString(const QVariant &value) const
{
switch (data_type_) {
case kRational:
return value.value<rational>().toString();
case kFootage:
return QString::number(reinterpret_cast<quintptr>(value.value<StreamPtr>().get()));
default:
if (value.canConvert<QString>()) {
return value.toString();
}
qWarning() << "Failed to convert type" << data_type_ << "to string";
return QString();
}
}
QVariant NodeInput::StringToValue(const QString &string, QList<NodeInput::FootageConnection>& footage_connections)
{
switch (data_type_) {
case kRational:
return QVariant::fromValue(rational::fromString(string));
case kFootage:
footage_connections.append({this, string.toULongLong()});
/* fall through */
default:
return string;
}
}
NodeOutput *NodeInput::get_connected_output() const
{
if (!edges_.isEmpty()) {
return edges_.first()->output();
}
return nullptr;
}
Node *NodeInput::get_connected_node() const
{
NodeOutput* output = get_connected_output();
if (output) {
return output->parentNode();
}
return nullptr;
}
bool NodeInput::type_can_be_interpolated(NodeParam::DataType type)
{
return type == kFloat
|| type == kVec2
|| type == kVec3
|| type == kVec4
|| type == kColor;
}
QVariant NodeInput::get_value_at_time(const rational &time) const
{
return combine_track_values_into_normal_value(get_split_values_at_time(time));
}
QVector<QVariant> NodeInput::get_split_values_at_time(const rational &time) const
{
QVector<QVariant> vals;
for (int i=0;i<get_number_of_keyframe_tracks();i++) {
if (is_using_standard_value(i)) {
vals.append(standard_value_.at(i));
} else {
vals.append(get_value_at_time_for_track(time, i));
}
}
return vals;
}
QVariant NodeInput::get_value_at_time_for_track(const rational& time, int track) const
{
if (!is_using_standard_value(track)) {
const KeyframeTrack& key_track = keyframe_tracks_.at(track);
if (key_track.first()->time() >= time) {
// This time precedes any keyframe, so we just return the first value
return key_track.first()->value();
}
if (key_track.last()->time() <= time) {
// This time is after any keyframes so we return the last value
return key_track.last()->value();
}
// If we're here, the time must be somewhere in between the keyframes
for (int i=0;i<key_track.size()-1;i++) {
NodeKeyframePtr before = key_track.at(i);
NodeKeyframePtr after = key_track.at(i+1);
if (before->time() == time
|| !type_can_be_interpolated(data_type())
|| (before->time() < time && before->type() == NodeKeyframe::kHold)) {
// Time == keyframe time, so value is precise
return before->value();
} else if (after->time() == time) {
// Time == keyframe time, so value is precise
return after->value();
} else if (before->time() < time && after->time() > time) {
// We must interpolate between these keyframes
if (before->type() == NodeKeyframe::kBezier && after->type() == NodeKeyframe::kBezier) {
// Perform a cubic bezier with two control points
double t = Bezier::CubicXtoT(time.toDouble(),
before->time().toDouble(),
before->time().toDouble() + before->bezier_control_out().x(),
after->time().toDouble() + after->bezier_control_in().x(),
after->time().toDouble());
double y = Bezier::CubicTtoY(before->value().toDouble(),
before->value().toDouble() + before->bezier_control_out().y(),
after->value().toDouble() + after->bezier_control_in().y(),
after->value().toDouble(),
t);
return y;
} else if (before->type() == NodeKeyframe::kBezier || after->type() == NodeKeyframe::kBezier) {
// Perform a quadratic bezier with only one control point
QPointF control_point;
double control_point_time;
double control_point_value;
if (before->type() == NodeKeyframe::kBezier) {
control_point = before->bezier_control_out();
control_point_time = before->time().toDouble() + control_point.x();
control_point_value = before->value().toDouble() + control_point.y();
} else {
control_point = after->bezier_control_in();
control_point_time = after->time().toDouble() + control_point.x();
control_point_value = after->value().toDouble() + control_point.y();
}
// Generate T from time values - used to determine bezier progress
double t = Bezier::QuadraticXtoT(time.toDouble(), before->time().toDouble(), control_point_time, after->time().toDouble());
// Generate value using T
double y = Bezier::QuadraticTtoY(before->value().toDouble(), control_point_value, after->value().toDouble(), t);
return y;
} else {
// To have arrived here, the keyframes must both be linear
qreal period_progress = (time.toDouble() - before->time().toDouble()) / (after->time().toDouble() - before->time().toDouble());
return lerp(before->value().toDouble(), after->value().toDouble(), period_progress);
}
}
}
}
return standard_value_.at(track);
}
QList<NodeKeyframePtr> NodeInput::get_keyframe_at_time(const rational &time) const
{
QList<NodeKeyframePtr> keys;
for (int i=0;i<keyframe_tracks_.size();i++) {
NodeKeyframePtr key_at_time = get_keyframe_at_time_on_track(time, i);
if (key_at_time) {
keys.append(key_at_time);
}
}
return keys;
}
NodeKeyframePtr NodeInput::get_keyframe_at_time_on_track(const rational &time, int track) const
{
if (!is_using_standard_value(track)) {
foreach (NodeKeyframePtr key, keyframe_tracks_.at(track)) {
if (key->time() == time) {
return key;
}
}
}
return nullptr;
}
NodeKeyframePtr NodeInput::get_closest_keyframe_to_time_on_track(const rational &time, int track) const
{
if (is_using_standard_value(track)) {
return nullptr;
}
const KeyframeTrack& key_track = keyframe_tracks_.at(track);
if (time <= key_track.first()->time()) {
return key_track.first();
}
if (time >= key_track.last()->time()) {
return key_track.last();
}
for (int i=1;i<key_track.size();i++) {
NodeKeyframePtr prev_key = key_track.at(i-1);
NodeKeyframePtr next_key = key_track.at(i);
if (prev_key->time() <= time && next_key->time() >= time) {
// Return whichever is closer
rational prev_diff = time - prev_key->time();
rational next_diff = next_key->time() - time;
if (next_diff < prev_diff) {
return next_key;
} else {
return prev_key;
}
}
}
return nullptr;
}
NodeKeyframePtr NodeInput::get_closest_keyframe_before_time(const rational &time) const
{
NodeKeyframePtr key = nullptr;
foreach (const KeyframeTrack& track, keyframe_tracks_) {
foreach (NodeKeyframePtr k, track) {
if (k->time() >= time) {
break;
} else if (!key || k->time() > key->time()) {
key = k;
}
}
}
return key;
}
NodeKeyframePtr NodeInput::get_closest_keyframe_after_time(const rational &time) const
{
NodeKeyframePtr key = nullptr;
foreach (const KeyframeTrack& track, keyframe_tracks_) {
for (int i=track.size()-1;i>=0;i--) {
NodeKeyframePtr k = track.at(i);
if (k->time() <= time) {
break;
} else if (!key || k->time() < key->time()) {
key = k;
}
}
}
return key;
}
NodeKeyframe::Type NodeInput::get_best_keyframe_type_for_time(const rational &time, int track) const
{
NodeKeyframePtr closest_key = get_closest_keyframe_to_time_on_track(time, track);
if (closest_key) {
return closest_key->type();
}
return NodeKeyframe::kDefaultType;
}
int NodeInput::get_number_of_keyframe_tracks() const
{
return keyframe_tracks_.size();
}
NodeKeyframePtr NodeInput::get_earliest_keyframe() const
{
NodeKeyframePtr earliest = nullptr;
foreach (const KeyframeTrack& track, keyframe_tracks_) {
if (!track.isEmpty()) {
NodeKeyframePtr earliest_in_track = track.first();
if (!earliest
|| earliest_in_track->time() < earliest->time()) {
earliest = earliest_in_track;
}
}
}
return earliest;
}
NodeKeyframePtr NodeInput::get_latest_keyframe() const
{
NodeKeyframePtr latest = nullptr;
foreach (const KeyframeTrack& track, keyframe_tracks_) {
if (!track.isEmpty()) {
NodeKeyframePtr latest_in_track = track.last();
if (!latest
|| latest_in_track->time() > latest->time()) {
latest = latest_in_track;
}
}
}
return latest;
}
void NodeInput::insert_keyframe(NodeKeyframePtr key)
{
Q_ASSERT(is_keyframable());
insert_keyframe_internal(key);
connect(key.get(), &NodeKeyframe::TimeChanged, this, &NodeInput::KeyframeTimeChanged);
connect(key.get(), &NodeKeyframe::ValueChanged, this, &NodeInput::KeyframeValueChanged);
connect(key.get(), &NodeKeyframe::TypeChanged, this, &NodeInput::KeyframeTypeChanged);
connect(key.get(), &NodeKeyframe::BezierControlInChanged, this, &NodeInput::KeyframeBezierInChanged);
connect(key.get(), &NodeKeyframe::BezierControlOutChanged, this, &NodeInput::KeyframeBezierOutChanged);
emit KeyframeAdded(key);
emit_range_affected_by_keyframe(key.get());
}
void NodeInput::remove_keyframe(NodeKeyframePtr key)
{
Q_ASSERT(is_keyframable());
TimeRange time_affected = get_range_affected_by_keyframe(key.get());
disconnect(key.get(), &NodeKeyframe::TimeChanged, this, &NodeInput::KeyframeTimeChanged);
disconnect(key.get(), &NodeKeyframe::ValueChanged, this, &NodeInput::KeyframeValueChanged);
disconnect(key.get(), &NodeKeyframe::TypeChanged, this, &NodeInput::KeyframeTypeChanged);
disconnect(key.get(), &NodeKeyframe::BezierControlInChanged, this, &NodeInput::KeyframeBezierInChanged);
disconnect(key.get(), &NodeKeyframe::BezierControlOutChanged, this, &NodeInput::KeyframeBezierOutChanged);
keyframe_tracks_[key->track()].removeOne(key);
key->set_parent(nullptr);
emit KeyframeRemoved(key);
emit_time_range(time_affected);
}
void NodeInput::KeyframeTimeChanged()
{
NodeKeyframe* key = static_cast<NodeKeyframe*>(sender());
int keyframe_index = FindIndexOfKeyframeFromRawPtr(key);
Q_ASSERT(keyframe_index > -1);
TimeRange original_range = get_range_around_index(keyframe_index, key->track());
if (!(original_range.in() < key->time() && original_range.out() > key->time())) {
// This keyframe needs resorting, store it and remove it from the list
NodeKeyframePtr key_shared_ptr = keyframe_tracks_.at(key->track()).at(keyframe_index);
keyframe_tracks_[key->track()].removeAt(keyframe_index);
// Automatically insertion sort
insert_keyframe_internal(key_shared_ptr);
// Invalidate new area that the keyframe has been moved to
emit_time_range(get_range_around_index(FindIndexOfKeyframeFromRawPtr(key), key->track()));
}
// Invalidate entire area surrounding the keyframe (either where it currently is, or where it used to be before it
// was resorted in the if block above)
emit_time_range(original_range);
}
void NodeInput::KeyframeValueChanged()
{
emit_range_affected_by_keyframe(static_cast<NodeKeyframe*>(sender()));
}
void NodeInput::KeyframeTypeChanged()
{
NodeKeyframe* key = static_cast<NodeKeyframe*>(sender());
int keyframe_index = FindIndexOfKeyframeFromRawPtr(key);
if (keyframe_tracks_.at(key->track()).size() == 1) {
// If there are no other frames, the interpolation won't do anything
return;
}
// Invalidate entire range
emit_time_range(get_range_around_index(keyframe_index, key->track()));
}
void NodeInput::KeyframeBezierInChanged()
{
NodeKeyframe* key = static_cast<NodeKeyframe*>(sender());
int keyframe_index = FindIndexOfKeyframeFromRawPtr(key);
rational start = RATIONAL_MIN;
rational end = key->time();
if (keyframe_index > 0) {
start = keyframe_tracks_.at(key->track()).at(keyframe_index - 1)->time();
}
emit ValueChanged(start, end);
}
void NodeInput::KeyframeBezierOutChanged()
{
NodeKeyframe* key = static_cast<NodeKeyframe*>(sender());
int keyframe_index = FindIndexOfKeyframeFromRawPtr(key);
rational start = key->time();
rational end = RATIONAL_MAX;
if (keyframe_index < keyframe_tracks_.at(key->track()).size() - 1) {
end = keyframe_tracks_.at(key->track()).at(keyframe_index + 1)->time();
}
emit ValueChanged(start, end);
}
int NodeInput::FindIndexOfKeyframeFromRawPtr(NodeKeyframe *raw_ptr) const
{
const KeyframeTrack& track = keyframe_tracks_.at(raw_ptr->track());
for (int i=0;i<track.size();i++) {
if (track.at(i).get() == raw_ptr) {
return i;
}
}
return -1;
}
void NodeInput::insert_keyframe_internal(NodeKeyframePtr key)
{
KeyframeTrack& key_track = keyframe_tracks_[key->track()];
key->set_parent(this);
for (int i=0;i<key_track.size();i++) {
NodeKeyframePtr compare = key_track.at(i);
// Ensure we aren't trying to insert two keyframes at the same time
Q_ASSERT(compare->time() != key->time());
if (compare->time() > key->time()) {
key_track.insert(i, key);
return;
}
}
key_track.append(key);
}
bool NodeInput::is_using_standard_value(int track) const
{
return (!is_keyframing() || keyframe_tracks_.at(track).isEmpty());
}
TimeRange NodeInput::get_range_affected_by_keyframe(NodeKeyframe *key) const
{
int keyframe_index = FindIndexOfKeyframeFromRawPtr(key);
TimeRange range = get_range_around_index(keyframe_index, key->track());
const KeyframeTrack& key_track = keyframe_tracks_.at(key->track());
// If a previous key exists and it's a hold, we don't need to invalidate those frames
if (key_track.size() > 1
&& keyframe_index > 0
&& key_track.at(keyframe_index - 1)->type() == NodeKeyframe::kHold) {
range.set_in(key->time());
}
return range;
}
TimeRange NodeInput::get_range_around_index(int index, int track) const
{
rational range_begin = RATIONAL_MIN;
rational range_end = RATIONAL_MAX;
const KeyframeTrack& key_track = keyframe_tracks_.at(track);
if (key_track.size() > 1) {
if (index > 0) {
// If this is not the first key, we'll need to limit it to the key just before
range_begin = key_track.at(index - 1)->time();
}
if (index < key_track.size() - 1) {
// If this is not the last key, we'll need to limit it to the key just after
range_end = key_track.at(index + 1)->time();
}
}
return TimeRange(range_begin, range_end);
}
void NodeInput::emit_time_range(const TimeRange &range)
{
emit ValueChanged(range.in(), range.out());
}
void NodeInput::emit_range_affected_by_keyframe(NodeKeyframe *key)
{
emit_time_range(get_range_affected_by_keyframe(key));
}
bool NodeInput::has_keyframe_at_time(const rational &time) const
{
if (!is_keyframing()) {
return false;
}
// Loop through keyframes to see if any match
foreach (const KeyframeTrack& track, keyframe_tracks_) {
foreach (NodeKeyframePtr key, track) {
if (key->time() == time) {
return true;
}
}
}
// None match
return false;
}
bool NodeInput::is_keyframing() const
{
return keyframing_;
}
void NodeInput::set_is_keyframing(bool k)
{
keyframing_ = k;
emit KeyframeEnableChanged(keyframing_);
}
bool NodeInput::is_keyframable() const
{
return keyframable_;
}
QVariant NodeInput::get_standard_value() const
{
return combine_track_values_into_normal_value(standard_value_);
}
const QVector<QVariant> &NodeInput::get_split_standard_value() const
{
return standard_value_;
}
void NodeInput::set_standard_value(const QVariant &value, int track)
{
standard_value_.replace(track, value);
if (is_using_standard_value(track)) {
// If this standard value is being used, we need to send a value changed signal
emit ValueChanged(RATIONAL_MIN, RATIONAL_MAX);
}
}
const QVector<NodeInput::KeyframeTrack> &NodeInput::keyframe_tracks() const
{
return keyframe_tracks_;
}
void NodeInput::set_is_keyframable(bool k)
{
keyframable_ = k;
}
void NodeInput::CopyValues(NodeInput *source, NodeInput *dest, bool include_connections)
{
Q_ASSERT(source->id() == dest->id());
// Copy standard value
dest->standard_value_ = source->standard_value_;
// Copy keyframes
for (int i=0;i<source->keyframe_tracks_.size();i++) {
dest->keyframe_tracks_[i].clear();
foreach (NodeKeyframePtr key, source->keyframe_tracks_.at(i)) {
dest->keyframe_tracks_[i].append(key->copy());
}
}
// Copy keyframing state
dest->set_is_keyframing(source->is_keyframing());
// Copy connections
if (include_connections && source->get_connected_output() != nullptr) {
ConnectEdge(source->get_connected_output(), dest);
}
// If these inputs are an array, copy the subparams too
if (dest->IsArray()) {
NodeInputArray* src_array = static_cast<NodeInputArray*>(source);
NodeInputArray* dst_array = static_cast<NodeInputArray*>(dest);
dst_array->SetSize(src_array->GetSize());
for (int i=0;i<dst_array->GetSize();i++) {
CopyValues(src_array->At(i), dst_array->At(i), include_connections);
}
}
emit dest->ValueChanged(RATIONAL_MIN, RATIONAL_MAX);
}
void NodeInput::set_property(const QString &key, const QVariant &value)
{
properties_.insert(key, value);
emit PropertyChanged(key, value);
}
QVariant NodeInput::get_property(const QString &key) const
{
return properties_.value(key);
}
bool NodeInput::has_property(const QString &key) const
{
return properties_.contains(key);
}
const QHash<QString, QVariant> &NodeInput::properties() const
{
return properties_;
}
QVector<QVariant> NodeInput::split_normal_value_into_track_values(const QVariant &value) const
{
QVector<QVariant> vals(get_number_of_keyframe_tracks());
switch (data_type_) {
case kVec2:
{
QVector2D vec = value.value<QVector2D>();
vals.replace(0, vec.x());
vals.replace(1, vec.y());
break;
}
case kVec3:
{
QVector3D vec = value.value<QVector3D>();
vals.replace(0, vec.x());
vals.replace(1, vec.y());
vals.replace(2, vec.z());
break;
}
case kVec4:
{
QVector4D vec = value.value<QVector4D>();
vals.replace(0, vec.x());
vals.replace(1, vec.y());
vals.replace(2, vec.z());
vals.replace(3, vec.w());
break;
}
default:
vals.replace(0, value);
}
return vals;
}
QVariant NodeInput::combine_track_values_into_normal_value(const QVector<QVariant> &split) const
{
switch (data_type_) {
case kVec2:
{
return QVector2D(split.at(0).toFloat(),
split.at(1).toFloat());
}
case kVec3:
{
return QVector3D(split.at(0).toFloat(),
split.at(1).toFloat(),
split.at(2).toFloat());
}
case kVec4:
{
return QVector4D(split.at(0).toFloat(),
split.at(1).toFloat(),
split.at(2).toFloat(),
split.at(3).toFloat());
}
default:
return split.first();
}
}