RunningImageMeanAndStandardDeviationCL::RunningImageMeanAndStandardDeviationCL(const uvec2& layerDimension, const size2_t& workgroupSize)
: pingPongIndex_(0)
, workGroupSize_(workgroupSize)
, kernel_(nullptr) {
standardDeviation_[0] = Layer(layerDimension, DataVec4Float32::get());
standardDeviation_[1] = Layer(layerDimension, DataVec4Float32::get());
mean_[0] = Layer(layerDimension, DataVec4Float32::get());
mean_[1] = Layer(layerDimension, DataVec4Float32::get());
kernel_ = addKernel("statistics/runningmeanandstandarddeviationkernel.cl", "runningMeanAndStandardDeviationKernel");
}
void Scanmatcher::initializeNdt(pose_t &pose, points2_t &points) {
// initialize layers
layer_.clear();
points_=std::move(points);
layer_.push_back(Layer(&points_, 8, max_range_));
for (size_t i = 1; i < layers_count_; ++i) {
layer_.push_back(Layer(&points_, static_cast<size_t>(std::pow(8, i)), max_range_));
}
pose_ = std::move(pose);
initialized_ = true;
}
Net::Net(const std::vector<int>& topology) {
// Create 'topology.size' layers
size_t numLayers = topology.size();
// For all news layers
for (size_t layerNum = 0; layerNum < numLayers; ++layerNum) {
// Add a new layer
layers.push_back(Layer());
// Get the size of the next layer, used to create neurons that have numOuputs Connections
size_t numOutputs = layerNum == topology.size() - 1 ? 0 : topology[layerNum + 1];
// We have a new layer, now fill it with neurons, and
// add a bias neuron in each layer.
for (size_t neuronNum = 0; neuronNum <= topology[layerNum]; ++neuronNum) {
// Add Neuronof neuroNums size
layers.back().push_back(Neuron(numOutputs, neuronNum));
}
// Force the bias node's output to 1.0 (it was the last neuron pushed in this layer):
layers.back().back().setOutputVal(1.0);
}
}
void aRTstatictable::Create(SEXP options)
{
string id = GET_STRING_ELEMENT (options, aRTstrId);
int length = GET_INTEGER_ELEMENT (options, "length");
bool genids = GET_BOOL_ELEMENT (options, "generateids");
TeAttributeList attList;
TeAttribute at;
at.rep_.type_ = TeSTRING;
at.rep_.numChar_ = length;
at.rep_.name_ = id;
at.rep_.isPrimaryKey_ = true;
attList.push_back(at);
TeTable attTable(TableName, attList, id, id, TeAttrStatic);
PrintSilent("Creating static table \'%s\' on layer \'%s\' ... ", TableName.c_str(), LayerName.c_str());
if( !Layer()->createAttributeTable(attTable) )
{
stringstream err;
err << "Could not create the table:"
<< Database->errorMessage() << endl;
error( StreamToChar(err) );
}
PrintSilentYes;
if(genids) CreateLinkIds(id);
}
void DBGridIF::DiscreteStats() {
DBInt recordID, layerID;
DBFloat area, sumArea = 0.0;
DBPosition pos;
DBObjTableField *areaFLD = ItemTable->Field(DBrNGridArea);
DBObjTableField *percentFLD = ItemTable->Field(DBrNGridPercent);
DBObjRecord *layerRec, *record;
for (recordID = 0; recordID < ItemTable->ItemNum(); ++recordID) {
record = ItemTable->Item(recordID);
areaFLD->Float(record, 0.0);
percentFLD->Float(record, 0.0);
}
for (layerID = 0; layerID < LayerNum(); ++layerID) {
layerRec = Layer(layerID);
for (pos.Row = 0; pos.Row < RowNum(); ++pos.Row)
for (pos.Col = 0; pos.Col < ColNum(); ++pos.Col)
if ((record = GridItem(layerRec, pos)) != (DBObjRecord *) NULL) {
area = CellArea(pos);
sumArea += area;
areaFLD->Float(record, areaFLD->Float(record) + area);
}
}
for (recordID = 0; recordID < ItemTable->ItemNum(); ++recordID) {
record = ItemTable->Item(recordID);
percentFLD->Float(record, areaFLD->Float(record) * 100.0 / sumArea);
}
}
/**
* \brief Returns control to the hero after its hookshot movement.
*
* This function is called when the hero has finished the hookshot movement.
* It checks the validity of the destination position.
*/
void Hero::HookshotState::finish_movement() {
Hero& hero = get_hero();
const Rectangle& hero_position = hero.get_bounding_box();
Layer layer = hero.get_layer();
Map& map = get_map();
MapEntities& entities = get_entities();
if (layer == LAYER_LOW || !map.has_empty_ground(layer, hero_position)) {
// the hero is totally on the same layer: no problem
hero.start_state_from_ground();
}
else {
// a part of the hero is on empty tiles: this is often illegal, especially
// if there are jumpers; allow this only if tiles on
// the lower layer are not obstacles, and go to this layer
layer = Layer(layer - 1);
if (!map.test_collision_with_obstacles(layer, hero_position, hero)) {
Sound::play("hero_lands");
entities.set_entity_layer(hero, layer);
hero.start_state_from_ground();
}
else {
// illegal position: get back to the start point
// TODO: get back to the closest valid point from the destination instead
Sound::play("hero_hurt");
hero.set_state(new BackToSolidGroundState(hero, false, 0, true));
}
}
}
void XMLWriter::Scene(QDomElement& body){
for(int i=0; i<mpMng->mList.count(); i++){
auto scene = doc.createElement("Scene"+QString::number(i+1));
scene.setAttribute("id",mpMng->mList[i]->ID());
body.appendChild(scene);
Layer(scene,i);
}
}
Layer
EditorMap::get_layer(int i)
{
if (i >= 0 && i < static_cast<int>(impl->layers.size()))
return impl->layers[i];
else
return Layer();
}
Net::Net(vector<int> &topology){
for(int i = 0; i < topology.size(); i++){
if(i==0){
m_topology.push_back(Layer(topology[i], 'i')); // Creates input layer
}
else if(i==topology.size()-1){
m_topology.push_back(Layer(topology[i], 'o')); // Creates output layer
}
else{
m_topology.push_back(Layer(topology[i], 'h')); // Creates hidden layer
}
}
};
Background::Background(sf::Vector2u targetSize) {
_pivot = sf::Vector2f(targetSize.x/2.0,targetSize.y/2.0);
_test.setTexture(Resources::textureTest);
layers.push_back(Layer(10));
layers.push_back(Layer(10));
layers.push_back(Layer(10));
layers[0].setFactor(0.0);
layers[1].setFactor(0.3);
layers[2].setFactor(2.5);
layers[0].setTexture(Resources::layer0,3);
layers[1].setTexture(Resources::layer2,5);
layers[2].setTexture(Resources::layer1,5);
}
void UILayerManager::PushTopLayer(UILayer* pkLayer, const UIUserDataPtr& spUserData)
{
if(pkLayer)
{
addChild(pkLayer, 3);
m_kTopLayerStack.PushBack(Layer(pkLayer, spUserData));
pkLayer->SetActive(true, spUserData);
}
}
Network::Network(vector<int> arch)
{
for (unsigned int i=1; i < arch.size(); ++i)
{
layers.push_back(Layer(arch[i],arch[i-1]));
}
printout();
}
/**
* @brief Creates an instance from an input stream.
*
* The input stream must respect the syntax of this entity type.
*
* @param game the game that will contain the entity created
* @param is an input stream
* @param layer the layer
* @param x x coordinate of the entity
* @param y y coordinate of the entity
* @return the instance created
*/
MapEntity* Stairs::parse(Game &game, std::istream &is, Layer layer, int x, int y) {
std::string name;
int direction, subtype;
FileTools::read(is, name);
FileTools::read(is, direction);
FileTools::read(is, subtype);
return new Stairs(name, Layer(layer), x, y, direction, Subtype(subtype));
}
ForwardRenderQueue::Layer& ForwardRenderQueue::GetLayer(int i)
{
auto it = layers.find(i);
if (it == layers.end())
it = layers.insert(std::make_pair(i, Layer())).first;
Layer& layer = it->second;
layer.clearCount = 0;
return layer;
}
/**
* @brief Creates an instance from an input stream.
*
* The input stream must respect the syntax of this entity type.
*
* @param game the game that will contain the entity created
* @param is an input stream
* @param layer the layer
* @param x x coordinate of the entity
* @param y y coordinate of the entity
* @return the instance created
*/
MapEntity* Sensor::parse(Game &game, std::istream &is, Layer layer, int x, int y) {
std::string name;
int width, height, subtype;
FileTools::read(is, width);
FileTools::read(is, height);
FileTools::read(is, name);
FileTools::read(is, subtype);
return new Sensor(name, Layer(layer), x, y, width, height, Subtype(subtype));
}
/**
* @brief Creates an instance from an input stream.
*
* The input stream must respect the syntax of this entity type.
*
* @param game the game that will contain the entity created
* @param is an input stream
* @param layer the layer
* @param x x coordinate of the entity
* @param y y coordinate of the entity
* @return the instance created
*/
MapEntity* DynamicTile::parse(Game &game, std::istream &is, Layer layer, int x, int y) {
int width, height, tile_pattern_id, enabled;
std::string name;
FileTools::read(is, width);
FileTools::read(is, height);
FileTools::read(is, name);
FileTools::read(is, tile_pattern_id);
FileTools::read(is, enabled);
return new DynamicTile(name, Layer(layer), x, y, width, height, tile_pattern_id, enabled != 0);
}
/**
* @brief Creates an instance from an input stream.
*
* The input stream must respect the syntax of this entity type.
*
* @param game the game that will contain the entity created
* @param is an input stream
* @param layer the layer
* @param x x coordinate of the entity
* @param y y coordinate of the entity
* @return the instance created
*/
MapEntity* Jumper::parse(Game &game, std::istream &is, Layer layer, int x, int y) {
int jump_length, width, height, direction;
std::string name;
FileTools::read(is, width);
FileTools::read(is, height);
FileTools::read(is, name);
FileTools::read(is, direction);
FileTools::read(is, jump_length);
return new Jumper(name, Layer(layer), x, y, width, height, direction, jump_length);
}
/**
* @brief Creates an instance from an input stream.
*
* The input stream must respect the syntax of this entity type.
*
* @param game the game that will contain the entity created
* @param is an input stream
* @param layer the layer
* @param x x coordinate of the entity
* @param y y coordinate of the entity
* @return the instance created
*/
MapEntity* Chest::parse(Game &game, std::istream &is, Layer layer, int x, int y) {
std::string name, treasure_name;
int big_chest, treasure_variant, treasure_savegame_variable;
FileTools::read(is, name);
FileTools::read(is, big_chest);
FileTools::read(is, treasure_name);
FileTools::read(is, treasure_variant);
FileTools::read(is, treasure_savegame_variable);
return new Chest(name, Layer(layer), x, y, (big_chest != 0),
Treasure(game, treasure_name, treasure_variant, treasure_savegame_variable));
}
bool FrameParser::FrameHeader::IsValid(int aPos) const {
if (aPos >= SIZE) {
return true;
}
if (aPos == frame_header::SYNC1) {
return Sync1() == 0xFF;
}
if (aPos == frame_header::SYNC2_VERSION_LAYER_PROTECTION) {
return Sync2() == 7 && RawVersion() != 1 && Layer() == 3;
}
if (aPos == frame_header::BITRATE_SAMPLERATE_PADDING_PRIVATE) {
return RawBitrate() != 0xF && RawBitrate() != 0 && RawSampleRate() != 3;
}
return true;
}
/**
* @brief Creates an instance from an input stream.
*
* The input stream must respect the syntax of this entity type.
*
* @param game the game that will contain the entity created
* @param is an input stream
* @param layer the layer
* @param x x coordinate of the entity
* @param y y coordinate of the entity
* @return the instance created
*/
MapEntity* Block::parse(Game &game, std::istream &is, Layer layer, int x, int y) {
int direction, maximum_moves, can_be_pushed, can_be_pulled;
std::string name, sprite_name;
FileTools::read(is, name);
FileTools::read(is, direction);
FileTools::read(is, sprite_name);
FileTools::read(is, can_be_pushed);
FileTools::read(is, can_be_pulled);
FileTools::read(is, maximum_moves);
return new Block(name, Layer(layer), x, y, direction, sprite_name,
bool(can_be_pushed), bool(can_be_pulled), maximum_moves);
}
luabind::object LuaProxy::findlayer(const std::string& layername, lua_State *L)
{
std::wstring tarLayerName = Str2WStr(layername);
for(int i = 0; i < 100; ++i){
LayerControl* ctrl = ::Layer::Get(i);
if(ctrl){
if(!ctrl->ptLayerName)
continue;
std::wstring sourceLayerName(ctrl->ptLayerName);
if(tarLayerName == sourceLayerName){
return luabind::object(L, Layer(i));
}
}
}
return luabind::object();
}
Net::Net(const std::vector<unsigned int> &_topology)
{
uint numLayers = _topology.size();
for (uint layerNum = 0; layerNum < numLayers; ++layerNum)
{
//creaitng a layer
m_layers.push_back(Layer());
for (uint neuronNum = 0; neuronNum <= _topology[layerNum]; ++neuronNum)
{
m_layers.back().push_back(Neuron());
std::cout << "New Neuron created." << std::endl;
}
}
}
/**
* \brief Starts this state.
* \param previous_state the previous state
*/
void Hero::StairsState::start(const State* previous_state) {
State::start(previous_state);
// movement
int speed = stairs.is_inside_floor() ? 40 : 24;
std::string path = stairs.get_path(way);
std::shared_ptr<PathMovement> movement = std::make_shared<PathMovement>(
path, speed, false, true, false
);
// sprites and sound
HeroSprites& sprites = get_sprites();
if (carried_item == nullptr) {
sprites.set_animation_walking_normal();
}
else {
sprites.set_lifted_item(carried_item);
sprites.set_animation_walking_carrying();
}
sprites.set_animation_direction((path[0] - '0') / 2);
get_keys_effect().set_action_key_effect(KeysEffect::ACTION_KEY_NONE);
Hero& hero = get_hero();
if (stairs.is_inside_floor()) {
if (way == Stairs::NORMAL_WAY) {
// Towards an upper layer: change the layer now
Layer layer = stairs.get_layer();
Debug::check_assertion(layer != LAYER_HIGH, "Invalid stairs layer");
get_entities().set_entity_layer(hero, Layer(layer + 1));
}
}
else {
sprites.set_clipping_rectangle(stairs.get_clipping_rectangle(way));
if (way == Stairs::REVERSE_WAY) {
Point dxy = movement->get_xy_change();
int fix_y = 8;
if (path[path.size() - 1] == '2') {
fix_y *= -1;
}
hero.set_xy(hero.get_x() - dxy.x, hero.get_y() - dxy.y + fix_y);
}
}
hero.set_movement(movement);
}
/**
* @brief Creates an instance from an input stream.
*
* The input stream must respect the syntax of this entity type.
*
* @param game the game that will contain the entity created
* @param is an input stream
* @param layer the layer
* @param x x coordinate of the entity
* @param y y coordinate of the entity
* @return the instance created
*/
MapEntity* Teletransporter::parse(Game &game, std::istream &is, Layer layer, int x, int y) {
int width, height, subtype, transition_style;
MapId destination_map_id;
std::string name, destination_point_name;
FileTools::read(is, width);
FileTools::read(is, height);
FileTools::read(is, name);
FileTools::read(is, subtype);
FileTools::read(is, transition_style);
FileTools::read(is, destination_map_id);
FileTools::read(is, destination_point_name);
return new Teletransporter(name, Layer(layer), x, y, width, height,
Subtype(subtype), Transition::Style(transition_style),
destination_map_id, destination_point_name);
}
void NeuralNetwork::mirror(const Layer& layer)
{
size_t blocks = getGreatestCommonDivisor(layer.blocks(),
getGreatestCommonDivisor(getOutputCount(), layer.getInputCount()));
assertM(getOutputCount() % blocks == 0, "Input count " << getOutputCount()
<< " not divisible by " << blocks << ".");
assertM(layer.getInputCount() % blocks == 0, "Output count " << layer.getInputCount()
<< " not divisivle by " << blocks << ".");
size_t newInputs = getOutputCount() / blocks;
size_t newOutputs = layer.getInputCount() / blocks;
assert(newInputs > 0);
assert(newOutputs > 0);
util::log("NeuralNetwork") << "Mirroring neural network output layer ("
<< back().blocks() << " blocks, " << back().getInputBlockingFactor()
<< " inputs, " << back().getOutputBlockingFactor()
<< " outputs) to (" << blocks << " blocks, " << newInputs
<< " inputs, " << newOutputs << " outputs)\n";
addLayer(Layer(blocks, newInputs, newOutputs));
std::default_random_engine engine;
// TODO: should wire this out of the neural network
bool shouldSeedWithTime = util::KnobDatabase::getKnobValue(
"NeuralNetwork::SeedWithTime", false);
if(shouldSeedWithTime)
{
engine.seed(std::time(0));
}
else
{
engine.seed(0);
}
// should be pseudo inverse
back().initializeRandomly(engine);
}
/**
* \brief Destroys the item after it finishes its thrown movement.
*
* How the item breaks depends on the ground where it lands.
*/
void CarriedItem::break_item_on_ground() {
get_movement()->stop();
Ground ground = get_ground_below();
switch (ground) {
case Ground::EMPTY:
// Nothing here: fall one layer below.
{
int layer = get_layer();
if (layer == LAYER_LOW) {
// Cannot fall lower.
break_item();
}
else {
get_entities().set_entity_layer(*this, Layer(layer - 1));
break_item_on_ground(); // Do this again on the next layer.
}
break;
}
case Ground::HOLE:
Sound::play("jump");
remove_from_map();
break;
case Ground::DEEP_WATER:
case Ground::LAVA:
Sound::play("walk_on_water");
remove_from_map();
break;
default:
// Break the item normally.
break_item();
break;
}
is_throwing = false;
is_breaking = true;
}
void Net::setNetwork(std::vector<unsigned> &topology)
{
//std::cout<<"Made a Network!"<<std::endl;
numLayers = topology.size();
for(unsigned int i=0;i<numLayers; ++i)
{
layers.push_back(Layer());
// std::cout<<"Made Layer:"<<i+1<<std::endl;
for(unsigned int j=0; j<=topology[i]; ++j)
{
if(i+1!= topology.size())
layers.back().push_back(Neuron(topology[i+1], j));
else
layers.back().push_back(Neuron(0, j));
}
}
layers.back().back().setOutputVal(0.1);
//for(unsigned layerNum=0; layerNum<layers.size()-1 ;layerNum++)
//layers[layerNum].back().setOutputVal(1.0);
}
/**
* @brief Sets the layer of the pickable item that just appeared.
*
* This function should be called only when there a current pickable item,
* i.e. from the event_appear() function.
*
* - Argument 1 (integer): layer of the pickable item
*
* @param l the Lua context that is calling this function
*/
int Script::item_api_set_layer(lua_State *l) {
Script *script;
called_by_script(l, 1, &script);
int layer = luaL_checkinteger(l, 1);
// retrieve the pickable item
const std::string &item_name = script->get_item_properties().get_name();
Equipment &equipment = script->get_game().get_equipment();
ItemScript &item_script = equipment.get_item_script(item_name);
PickableItem *pickable_item = item_script.get_pickable_item();
Debug::check_assertion(pickable_item != NULL,
"Cannot call sol.item.set_layer(): there is no current pickable item");
MapEntities &entities = script->get_map().get_entities();
entities.set_entity_layer(pickable_item, Layer(layer));
return 0;
}
Neural::Net::Net(const std::vector<unsigned> &topology)
{
free();
for (unsigned layerNum = 0; layerNum < topology.size(); ++layerNum)
{
layers.push_back(Layer());
// numOutputs of layer[i] is the numInputs of layer[i+1]
// numOutputs of last layer is 0
unsigned numOutputs = layerNum == topology.size() - 1 ? 0 : topology[layerNum + 1];
// We have made a new Layer, now fill it with neurons, and add a bias neuron to the layer
for (unsigned neuronNum = 0; neuronNum <= topology[layerNum]; ++neuronNum)
{
layers.back().push_back(Neuron(numOutputs, neuronNum));
}
// Force the bias node's output value to 1.0. It's the last neuron created above
layers.back().back().setOutputValue(1.0);
}
}
Background::Background(int levelNum, int roomNum)
:nonMovingLayer(*TextureManager::GetInstance().retrieveTexture(
Global::GetInstance().roomSizes.at("Level"+ std::to_string(levelNum) + "Room" + std::to_string(roomNum)).nonMovinglayer)),
vel(-300.0f, 99.0f), hitGround(false), timerForStep(-1.0f), goliathStepWait(3.0f)
{
RoomStruct temp = Global::GetInstance().roomSizes.at("Level"+ std::to_string(levelNum) + "Room" + std::to_string(roomNum));
for (int i = 0; i < temp.movingLayers.size(); i++)
{
if(temp.movingLayers.at(i).scale.x == 0 && temp.movingLayers.at(i).scale.y == 0)
{
//sf::Sprite test = sf::Sprite(*TextureManager::GetInstance().retrieveTexture(temp.movingLayers[i].imageName));
//test.setPosition(temp.movingLayers.at(i).posOffset.x, temp.movingLayers.at(i).posOffset.y);
//test.setScale(temp.movingLayers.at(i).sizeScale.x, temp.movingLayers.at(i).sizeScale.y);
nonMovingLayers.push_back(NonMovingLayer(temp, i));
//nonMovingLayers.push_back(sf::Sprite(*TextureManager::GetInstance().retrieveTexture(temp.movingLayers[i].imageName)));
//nonMovingLayers[nonMovingLayers.size() - 1].setPosition(temp.movingLayers.at(i).posOffset.x, temp.movingLayers.at(i).posOffset.y);
//nonMovingLayers[nonMovingLayers.size() - 1].setScale(temp.movingLayers.at(i).sizeScale.x, temp.movingLayers.at(i).sizeScale.y);
}
else
movingLayers.push_back(Layer(temp, i));
}
nonMovingLayer.setPosition(temp.posOffset.x, temp.posOffset.y);
}