DTboolean ScriptingVector3Switcher::compute (const PlugBase *plug)
{
PROFILER(SCRIPTING);
if (super_type::compute(plug)) return true;
if (plug == &_out) {
if (_in8)
_out = _in_vector8;
else if (_in7)
_out = _in_vector7;
else if (_in6)
_out = _in_vector6;
else if (_in5)
_out = _in_vector5;
else if (_in4)
_out = _in_vector4;
else if (_in3)
_out = _in_vector3;
else if (_in2)
_out = _in_vector2;
else if (_in1)
_out = _in_vector1;
else if (!_buffer_output)
_out = Vector3(0.0F,0.0F,0.0F);
_out.set_clean();
return true;
}
return false;
}
DTboolean ScriptingIntSwitcher::compute (const PlugBase *plug)
{
PROFILER(SCRIPTING);
if (super_type::compute(plug)) return true;
if (plug == &_out) {
if (_in4)
_out = _in_int4;
else if (_in3)
_out = _in_int3;
else if (_in2)
_out = _in_int2;
else if (_in1)
_out = _in_int1;
else if (!_buffer_output)
_out = 0;
_out.set_clean();
return true;
}
return false;
}
DTboolean ScriptingStringSwitcher::compute (const PlugBase *plug)
{
PROFILER(SCRIPTING);
if (super_type::compute(plug)) return true;
if (plug == &_out) {
if (_in16) _out = _in_string16;
else if (_in15) _out = _in_string15;
else if (_in14) _out = _in_string14;
else if (_in13) _out = _in_string13;
else if (_in12) _out = _in_string12;
else if (_in11) _out = _in_string11;
else if (_in10) _out = _in_string10;
else if (_in9) _out = _in_string9;
else if (_in8) _out = _in_string8;
else if (_in7) _out = _in_string7;
else if (_in6) _out = _in_string6;
else if (_in5) _out = _in_string5;
else if (_in4) _out = _in_string4;
else if (_in3) _out = _in_string3;
else if (_in2) _out = _in_string2;
else if (_in1) _out = _in_string1;
else if (!_buffer_output) _out = "";
_out.set_clean();
return true;
}
return false;
}
void ScriptingParticleVelocityAdder::dump_code(const std::string &object_name, Stream &s)
{
PROFILER(PARTICLES);
s << object_name << "->set_continuous(" << _continuous << ");\n";
s << object_name << "->set_velocity(Vector3(" << _velocity->x << "," << _velocity->y << "," << _velocity->z << "));\n";
}
DTboolean ScriptingSoundRandomizer::compute (const PlugBase *plug)
{
PROFILER(SOUND);
if (super_type::compute(plug)) return true;
if (plug == &_sound_packet_out) {
switch (_current_input) {
case 0:
_sound_packet_out = _sound_packet_in_1.as_ref_no_compute();
break;
case 1:
_sound_packet_out = _sound_packet_in_2.as_ref_no_compute();
break;
case 2:
_sound_packet_out = _sound_packet_in_3.as_ref_no_compute();
break;
default:
_sound_packet_out = _sound_packet_in_4.as_ref_no_compute();
break;
}
_sound_packet_out.set_clean();
return true;
}
return false;
}
void DeviceAudioDX11::setNumberOfChannels (const DTint num_channels)
{
#if DT2_MULTITHREADED_AUDIO
AutoSpinLockRecursive lock(&_lock);
#endif
PROFILER(PROFILER_SOUND);
clearChannels();
_channels.resize(num_channels);
for (DTuint c = 0; c < _channels.size(); ++c) {
DeviceAudioDX11Channel &channel = _channels[c];
channel._x_voice = NULL;
// Initialize channel
::memset(&channel._x_format, 0, sizeof(WAVEFORMATEX));
initializeChannel(channel, 44100, 16, 1);
// Initialize 3D emitter
::memset(&channel._x3_emitter,0,sizeof(X3DAUDIO_EMITTER));
channel._x3_emitter.ChannelCount = 1;
channel._x3_emitter.CurveDistanceScaler = FLT_MIN;
channel._current_packet = 0;
channel._source = NULL;
channel._ready_to_start = false;
channel._needs_priming = false;
channel._is_playing = false;
}
}
void ScriptingKeyframesBool::set_key (void)
{
PROFILER(SCRIPTING);
const std::vector<PlugBase*> &outgoing = _out.outgoing_connections();
if (outgoing.size() > 0) {
// get first connected plug
Plug<DTboolean> *outplug = static_cast<Plug<DTboolean>*>(*(outgoing.begin()));
// get the value of the first connected plug
DTboolean val = outplug->value_without_compute();
// clear any existing key
clear_key();
// add the keyframe
keyframe k;
k._time = _t;
k._value = val;
k._id = _id++;
_keyframes.push_back(k);
std::sort(_keyframes.begin(), _keyframes.end());
}
}
void ScriptingKeyframesMaterialResource::clear_key (DTint k)
{
PROFILER(SCRIPTING);
auto i = _keyframes.begin() + k;
_keyframes.erase(i);
}
void ScriptingVector3Filter2Pole::tick (const DTfloat dt)
{
PROFILER(SCRIPTING);
if (!_initialized) {
_passes.resize(_num_passes);
for (DTuint i = 0; i < _passes.size(); ++i) {
_passes[i]._fx.initialize(_type, _num_passes, _freq_3db, _freq_sampling, _in->x);
_passes[i]._fy.initialize(_type, _num_passes, _freq_3db, _freq_sampling, _in->y);
_passes[i]._fz.initialize(_type, _num_passes, _freq_3db, _freq_sampling, _in->z);
}
_initialized = true;
}
Vector3 out = _in;
for (DTuint i = 0; i < _passes.size(); ++i) {
out.x = _passes[i]._fx.filter(out.x);
out.y = _passes[i]._fy.filter(out.y);
out.z = _passes[i]._fz.filter(out.z);
}
_out = out;
_out.set_dirty();
}
DTboolean ScriptingParticleSizeSequencer::compute (const PlugBase *plug)
{
PROFILER(PARTICLES);
if (super_type::compute(plug)) return true;
if (plug == &_out) {
// Make sure there are input particles
std::shared_ptr<Particles> particles = _in;
if (!particles || particles->translations_stream().size() <= 0) {
_out.set_clean();
return true;
}
// Build the sizes stream
if (particles->sizes_stream().size() <= 0) {
particles->build_sizes_stream();
}
// allocate the cache
if (_cache.size() != particles->translations_stream().size())
_cache.resize(particles->translations_stream().size(), 0);
// Do processing
std::vector<DTfloat> &lifetimes = particles->lifetimes_stream();
std::vector<DTfloat> &sizes = particles->sizes_stream();
for (DTint i = particles->active_start(); i != particles->active_end(); i = (i + 1) % particles->translations_stream().size()) {
DTfloat &lifetime = lifetimes[i];
DTint &cache = _cache[i];
DTfloat &size = sizes[i];
// If lifetime is less than the cache entry, just start over
if (lifetime < _t[cache]) {
cache = 0;
}
// Search the cache
while (cache < NUM_ENTRIES-1 && lifetime >= _t[cache+1]) {
++cache;
}
// lerp the color value
DTfloat lerp = (lifetime - _t[cache]) / (_t[cache+1] - _t[cache]);
DTfloat one_minus_lerp = 1.0F - lerp;
size = _s[cache] * one_minus_lerp + _s[cache+1] * lerp;
}
_out = particles;
_out.set_clean();
return true;
}
return false;
}
void ScriptingGlobalWriter::write (PlugNode *sender)
{
PROFILER(SCRIPTING);
LOG_MESSAGE << "Writing global " << _global << " = " << _value;
Globals::set_global(_global, _value, (_persistent ? Globals::PERSISTENT : Globals::VOLATILE) );
}
void ScriptingTouch::draw (const std::shared_ptr<CameraObject> &camera, const DTfloat lag)
{
PROFILER(SCRIPTING);
_touch_vel_1 = Vector2(0.0F,0.0F);
_touch_vel_2 = Vector2(0.0F,0.0F);
_touch_vel_3 = Vector2(0.0F,0.0F);
}
DTboolean ScriptingKeyframesMatrix3::compute (const PlugBase *plug)
{
PROFILER(SCRIPTING);
if (super_type::compute(plug)) return true;
if (plug == &_out) {
DTfloat t = _t;
// Special cases
if (_keyframes.size() == 0) {
_out.set_clean();
return true;
}
if (_keyframes.size() == 1) {
_out = Matrix3(_keyframes[0]._value);
return true;
}
// Scan for the best key
if (_keyframe_cache < 0) _keyframe_cache = 0;
else if (_keyframe_cache > (DTint) _keyframes.size() - 2) _keyframe_cache = (DTint) _keyframes.size() - 2;
while (1) {
if (t < _keyframes[_keyframe_cache]._time) {
--_keyframe_cache;
if (_keyframe_cache < 0) {
_keyframe_cache = 0;
_out = Matrix3(_keyframes[_keyframe_cache]._value);
break;
}
} else if (t > _keyframes[_keyframe_cache+1]._time) {
++_keyframe_cache;
if (_keyframe_cache > (DTint) _keyframes.size() - 2) {
_keyframe_cache = (DTint) _keyframes.size() - 2;
_out = Matrix3(_keyframes[_keyframe_cache+1]._value);
break;
}
} else {
DTfloat interp = (t - _keyframes[_keyframe_cache]._time) / (_keyframes[_keyframe_cache+1]._time - _keyframes[_keyframe_cache]._time);
Quaternion out = Quaternion::slerp(_keyframes[_keyframe_cache]._value, _keyframes[_keyframe_cache+1]._value, interp);
_out = Matrix3(out);
break;
}
}
_out.set_clean();
return true;
}
return false;
}
DTboolean DeviceAudioDX11::isPlaying (SoundSource *source)
{
#if DT2_MULTITHREADED_AUDIO
AutoSpinLockRecursive lock(&_lock);
#endif
PROFILER(PROFILER_SOUND);
return getChannel(source) >= 0;
}
void ScriptingGyro::accelerate (const Vector3 &a)
{
PROFILER(SCRIPTING);
const DTfloat FILTER_FACTOR = 0.1F;
_out = a;
_out_low_freq = (a * FILTER_FACTOR) + (_out_low_freq * (1.0F - FILTER_FACTOR));
_out_high_freq = a - _out_low_freq;
}
void DeviceAudioDX11::clearChannels (void)
{
#if DT2_MULTITHREADED_AUDIO
AutoSpinLockRecursive lock(&_lock);
#endif
PROFILER(PROFILER_SOUND);
stopAll();
destroyChannels();
}
void ScriptingKeyframesBool::clear_key (void)
{
PROFILER(SCRIPTING);
FOR_EACH (i,_keyframes) {
if (_t <= i->_time + (1.0F/30.0F) && _t > i->_time - (1.0F/30.0F)) {
_keyframes.erase(i);
return;
}
}
}
DTboolean DeviceAudioDX11::play (SoundSource *source, ScriptingSound *sound_loader)
{
#if DT2_MULTITHREADED_AUDIO
AutoSpinLockRecursive lock(&_lock);
#endif
PROFILER(PROFILER_SOUND);
// Don't bother if gain is too low
if (_gain < 0.01F)
return false;
// Search for this source already playing
for (DTuint c = 0; c < _channels.size(); ++c) {
DeviceAudioDX11Channel &channel = _channels[c];
if (channel._source == source) {
playOnChannel(channel, source, sound_loader);
return true;
}
}
// Search for an empty channel
for (DTuint c = 0; c < _channels.size(); ++c) {
DeviceAudioDX11Channel &channel = _channels[c];
if (channel._source == NULL) {
playOnChannel(channel, source, sound_loader);
return true;
}
}
// No empty spots on list so we can check if we should
// bump an existing sound. Find the lowest priority object.
DTfloat smallest_pri = std::numeric_limits<DTfloat>::infinity();
DTuint smallest_pri_index = 0;
for (DTuint c = 0; c < _channels.size(); ++c) {
DTfloat pri = estimatePriority(_channels[c]._source);
if (pri < smallest_pri) {
smallest_pri_index = c;
smallest_pri = pri;
}
}
// Check if the new sound is more important
if (smallest_pri < estimatePriority(source)) {
playOnChannel(_channels[smallest_pri_index], source, sound_loader);
return true;
}
return false;
}
void PackageList::showData(const String& pattern) {
// clear
packages.clear();
// find matching packages
vector<PackagedP> matching;
{
PROFILER(_("find matching packages"));
package_manager.findMatching(pattern, matching);
}
FOR_EACH(p, matching) {
// open image
PROFILER(_("load package image"));
InputStreamP stream = p->openIconFile();
Image img;
Bitmap bmp;
if (stream && img.LoadFile(*stream)) {
bmp = Bitmap(img);
}
// add to list
packages.push_back(PackageData(p, bmp));
}
void DeviceAudioDX11::stopAll (void)
{
#if DT2_MULTITHREADED_AUDIO
AutoSpinLockRecursive lock(&_lock);
#endif
PROFILER(PROFILER_SOUND);
for (DTuint c = 0; c < _channels.size(); ++c) {
stopOnChannel(_channels[c]);
}
}
DTboolean PlugBase::set_incoming_connection (PlugBase* incoming)
{
PROFILER(SCRIPTING);
//
// Lock this owner and the incoming owner
//
std::unique_lock<std::recursive_mutex> lock_this(owner()->lock(),std::try_to_lock);
std::unique_lock<std::recursive_mutex> lock_incoming(incoming->owner()->lock(),std::try_to_lock);
DTboolean lock_this_status = lock_this.owns_lock();
DTboolean lock_incoming_status = lock_incoming.owns_lock();
while (!lock_this_status || !lock_incoming_status) {
if (lock_this_status) lock_this.unlock();
if (lock_incoming_status) lock_incoming.unlock();
lock_this_status = lock_this.owns_lock();
lock_incoming_status = lock_incoming.owns_lock();
}
//
// Do modifications
//
PlugBase *&incoming_ref = connections()._incoming;
if (is_compatible(incoming) && incoming_ref != incoming) {
// Disconnect old node
if (incoming_ref) {
owner()->incoming_plug_was_disconnected(incoming_ref, this);
incoming_ref->remove_outgoing_connection(this);
}
// Connect new node
incoming_ref = incoming;
// Add this plug to the outgoing connections
incoming_ref->add_outgoing_connection(this);
set_dirty();
owner()->incoming_plug_was_attached(incoming_ref, this);
return true;
} else {
if (!is_compatible(incoming))
LOG_MESSAGE << plug_type() << " doesn't match " << incoming->plug_type();
}
return false;
}
void Images::load_texture( ClutterTexture * texture, TPImage * image , guint x , guint y , guint w , guint h )
{
PROFILER( "Images::load_texture/clutter" , PROFILER_INTERNAL_CALLS );
g_assert( texture );
g_assert( image );
const guchar * pixels = ( const guchar * ) image->pixels;
guint width = image->width;
guint height = image->height;
if ( w != 0 && h != 0 )
{
pixels += x * image->depth + y * image->pitch;
width = w;
height = h;
}
ClutterTextureFlags flags = image->bgr ? CLUTTER_TEXTURE_RGB_FLAG_BGR : CLUTTER_TEXTURE_NONE;
if ( image->depth == 4 && image->pm_alpha )
{
flags = ( ClutterTextureFlags ) ( flags | CLUTTER_TEXTURE_RGB_FLAG_PREMULT );
}
clutter_texture_set_from_rgb_data(
texture,
pixels,
image->depth == 4,
width,
height,
image->pitch,
image->depth,
flags,
NULL );
#ifndef TP_PRODUCTION
ImageInfo info( image );
if ( w !=0 && h != 0 )
{
info.width = w;
info.height = h;
info.bytes = w * h * image->depth;
}
add_to_image_list( texture , info );
#endif
}
void ScriptingGlobalPoll::tick (const DTfloat dt)
{
PROFILER(SCRIPTING);
if (_read) {
if (_substitute) {
_value = Globals::substitute_global(_global);
} else {
_value = Globals::global(_global);
}
}
}
void Event::add_incoming_connection (Event* incoming)
{
PROFILER(SCRIPTING);
std::vector<Event*> &incoming_ref = connections()._incoming;
if (std::find(incoming_ref.begin(), incoming_ref.end(), incoming) == incoming_ref.end()) {
incoming_ref.push_back(incoming);
incoming->add_outgoing_connection(this);
owner()->incoming_event_was_attached(incoming, this);
}
}
void ScriptingIsTransitioning::tick (const DTfloat dt)
{
PROFILER(SCRIPTING);
_is_transitioning = System::application()->is_transitioning();
if (_is_transitioning && !_last_is_transitioning)
_begin_transition_e.send(this);
else if (!_is_transitioning && _last_is_transitioning)
_end_transition_e.send(this);
_last_is_transitioning = _is_transitioning;
}
DTboolean PlugBase::add_outgoing_connection (PlugBase* outgoing)
{
PROFILER(SCRIPTING);
//
// Lock this owner and the outgoing owner
//
std::unique_lock<std::recursive_mutex> lock_this(owner()->lock(),std::try_to_lock);
std::unique_lock<std::recursive_mutex> lock_outgoing(outgoing->owner()->lock(),std::try_to_lock);
DTboolean lock_this_status = lock_this.owns_lock();
DTboolean lock_outgoing_status = lock_outgoing.owns_lock();
while (!lock_this_status || !lock_outgoing_status) {
if (lock_this_status) lock_this.unlock();
if (lock_outgoing_status) lock_outgoing.unlock();
lock_this_status = lock_this.owns_lock();
lock_outgoing_status = lock_outgoing.owns_lock();
}
//
// Do modifications
//
std::vector<PlugBase*> &outgoing_ref = connections()._outgoing;
// Check if only a single output is allowed
if (!info().is_single_output() || (info().is_single_output() && outgoing_ref.size() == 0)) {
// Check compatibility
if (is_compatible(outgoing)) {
auto i = std::find(outgoing_ref.begin(), outgoing_ref.end(), outgoing);
if (i == outgoing_ref.end()) {
outgoing_ref.push_back(outgoing);
outgoing->set_dirty();
outgoing->set_incoming_connection(this);
// Increasse Ref count for owner
owner()->outgoing_plug_was_attached(this, outgoing);
}
return true;
}
}
return false;
}
void ScriptingDelayOff::tick (const DTfloat dt)
{
PROFILER(SCRIPTING);
_time += dt;
if (_in) {
_time = 0.0F;
_out = true;
} else {
if (_time >= _delay) _out = false;
else _out = true;
}
}
DTboolean ScriptingNotEqual::compute (const PlugBase *plug)
{
PROFILER(SCRIPTING);
if (super_type::compute(plug)) return true;
if (plug == &_out) {
_out = (_in1) != (_in2);
_out.set_clean();
return true;
}
return false;
}
TPImage * Images::decode_image( const char * filename )
{
PROFILER( "Images::decode_image/file" , PROFILER_INTERNAL_CALLS );
if ( ! g_file_test( filename, G_FILE_TEST_IS_REGULAR ) )
{
tpwarn( "IMAGE DOES NOT EXIST %s", filename );
return NULL;
}
TPImage image;
memset( &image, 0, sizeof( TPImage ) );
DecoderList decoders = get_decoders( filename );
for ( DecoderList::const_iterator it = decoders.begin(); it != decoders.end(); ++it )
{
tplog( "TRYING TO DECODE '%s' USING %s", filename, ( * it )->name() );
int r = ( * it )->decode( filename, &image );
if ( r == TP_IMAGE_UNSUPPORTED_FORMAT )
{
tplog( " UNSUPPORTED" );
continue;
}
if ( r == TP_IMAGE_DECODE_FAILED )
{
tplog( " FAILED" );
break;
}
tplog( " DECODED" );
// It was decoded
g_assert( image.pixels );
g_assert( image.depth == 3 || image.depth == 4 );
g_assert( image.width * image.depth <= image.pitch );
g_assert( image.bgr == 0 || image.bgr == 1 );
return g_slice_dup( TPImage, &image );
}
tpwarn( "FAILED TO DECODE %s", filename );
return NULL;
}
DTint ScriptingKeyframesBool::set_key_time (DTint k, DTfloat time)
{
PROFILER(SCRIPTING);
DTint oldid = _keyframes[k]._id;
_keyframes[k]._time = time;
std::sort(_keyframes.begin(), _keyframes.end());
for (std::size_t i = 0; i < _keyframes.size(); ++i)
if (oldid == _keyframes[i]._id)
return static_cast<DTint>(i);
return -1;
}