HMDState::HMDState(const OVR::HMDInfo& hmdInfo, Profile* profile) :
pProfile(profile),
pHmdDesc(0),
pWindow(0),
pClient(0),
NetId(InvalidVirtualHmdId),
NetInfo(),
OurHMDInfo(hmdInfo),
pLastError(NULL),
EnabledHmdCaps(0),
EnabledServiceHmdCaps(0),
SharedStateReader(),
TheSensorStateReader(),
TheLatencyTestStateReader(),
LatencyTestActive(false),
//LatencyTestDrawColor(),
LatencyTest2Active(false),
//LatencyTest2DrawColor(),
TimeManager(true),
RenderState(),
pRenderer(),
pHSWDisplay(),
LastFrameTimeSeconds(0.),
LastGetFrameTimeSeconds(0.),
//LastGetStringValue(),
RenderingConfigured(false),
BeginFrameCalled(false),
BeginFrameThreadId(),
RenderAPIThreadChecker(),
BeginFrameTimingCalled(false)
{
sharedInit(profile);
}
void DeadState::Init(FSMState * stateOwner)
{
// Attach the handle to the state owner
FSMState::Init(stateOwner);
sharedInit();
}
/*
====================
Sphere::Sphere
Takes in the input stream and creates a Sphere object from the parsed input
====================
*/
Sphere::Sphere(ifstream &f) {
string textureName;
while(!f.eof()) {
string line;
getline(f,line);
queue<string> lineContents;
explode(line," ",&lineContents);
if(lineContents.size() == 0) continue;
string word = lineContents.front();
lineContents.pop();
if(word[0] == '#' || line[0] == '\n' || line[0] == '\r') continue;
//words with three string arguments
if(word == "origin" || word == "color") {
double num1 = 0;
double num2 = 0;
double num3 = 0;
if(lineContents.size() < 3) break;
num1 = atof(lineContents.front().c_str());
lineContents.pop();
num2 = atof(lineContents.front().c_str());
lineContents.pop();
num3 = atof(lineContents.front().c_str());
lineContents.pop();
if(word == "origin") this->origin = Point(num1,num2,num3);
else if(word == "color") this->material.color = Color(num1,num2,num3);
}
//words with one argument
else if(word == "radius" || word == "reflect" || word == "transparency") {
double num1 = 0;
if(lineContents.size() < 1) break;
num1 = atof(lineContents.front().c_str());
lineContents.pop();
if(word == "radius") this->radius = num1;
else if(word == "reflect") this->material.reflection = num1;
else if(word == "transparency") this->material.transparency = num1;
}
//words with one string argument
else if(word == "texture") {
//TODO: attempt load texture from local directory first
if(lineContents.size() < 1) break;
textureName = lineContents.front();
lineContents.pop();
}
else break;
}
sharedInit(origin,material,radius,textureName);
}
void BinaryDeserializationContext_initWithBytes(BinaryDeserializationContext * self, const void * bytes, size_t length) {
void * bytesMutable;
bytesMutable = malloc(length);
memcpy(bytesMutable, bytes, length);
self->bytes = bytesMutable;
self->length = length;
sharedInit(self);
}
/*
====================
Tube::Tube
Takes in the input stream and creates a Tube object from the parsed input
====================
*/
Tube::Tube(ifstream &f)
{
while(!f.eof()) {
string line;
getline(f,line);
queue<string> lineContents;
explode(line," ",&lineContents);
if(lineContents.size() == 0) continue;
string word = lineContents.front();
lineContents.pop();
if(word[0] == '#' || line[0] == '\n' || line[0] == '\r') continue;
//words with three string arguments
if(word == "origin" || word == "color" || word == "up") {
double num1 = 0;
double num2 = 0;
double num3 = 0;
if(lineContents.size() < 3) break;
num1 = atof(lineContents.front().c_str());
lineContents.pop();
num2 = atof(lineContents.front().c_str());
lineContents.pop();
num3 = atof(lineContents.front().c_str());
lineContents.pop();
if(word == "origin") this->origin = Point(num1,num2,num3);
else if(word == "color") this->material.color = Color(num1,num2,num3);
else if(word == "up") {
this->up = Vector(num1,num2,num3);
}
}
//words with one argument
else if(word == "radius" || word == "reflect" || word == "transparency" || word == "height") {
double num1 = 0;
if(lineContents.size() < 1) break;
num1 = atof(lineContents.front().c_str());
lineContents.pop();
if(word == "radius") this->radius = num1;
else if(word == "reflect") this->material.reflection = num1;
else if(word == "transparency") this->material.transparency = num1;
else if(word == "height") this->height = num1;
}
else break;
}
sharedInit(material,radius,height,up,origin);
}
bool BitmapImage_init(BitmapImage * self,
enum BitmapPixelFormat pixelFormat,
unsigned int width,
unsigned int height,
unsigned int bytesPerRow) {
sharedInit(self, pixelFormat, width, height, bytesPerRow);
self->pixels = malloc(width * height * BitmapImage_pixelFormatBytes(pixelFormat));
self->private_ivar(freePixelsOnDispose) = false;
return true;
}
void GLBitmapFont_init(GLBitmapFont * self, struct GLBitmapFont_charEntry characters[GLBITMAPFONT_NUM_CHARS]) {
unsigned int charIndex;
sharedInit(self);
memcpy(self->characters, characters, sizeof(struct GLBitmapFont_charEntry) * GLBITMAPFONT_NUM_CHARS);
for (charIndex = 0; charIndex < GLBITMAPFONT_NUM_CHARS; charIndex++) {
if (characters[charIndex].kernChars != NULL) {
self->characters[charIndex].kernChars = malloc(sizeof(struct GLBitmapFont_kernEntry) * characters[charIndex].kernCharCount);
memcpy(self->characters[charIndex].kernChars, characters[charIndex].kernChars, sizeof(struct GLBitmapFont_kernEntry) * characters[charIndex].kernCharCount);
}
}
}
bool BitmapImage_initWithPixelsNoCopy(BitmapImage * self,
enum BitmapPixelFormat pixelFormat,
unsigned int width,
unsigned int height,
unsigned int bytesPerRow,
unsigned char * pixels,
bool takeOwnership) {
sharedInit(self, pixelFormat, width, height, bytesPerRow);
self->pixels = pixels;
self->private_ivar(freePixelsOnDispose) = takeOwnership;
return true;
}
void iniciar_mundo ()
{
int i, x, y;
/* Criar a memória partilhada para o mundo */
mundo = sharedInit ("shm.pesca-mundo", sizeof (Mundo));
/* Inicializar a memória partilhada do mundo */
mundo->estado_capitao = C_PLANEAR;
for (x = 0; x < DIMENSAO_MAR; x++) {
for (y = 0; y < DIMENSAO_MAR; y++) {
mundo->mar [x][y].barco = VAZIO;
mundo->mar [x][y].cardume = VAZIO;
}
}
mundo->hora_regressar = 0;
fifoInit (&mundo->espera_barcos);
mundo->barcos_cais = num_barcos;
mundo->peixes_cais = 0;
mundo->jornadas_pesca = num_jornadas_pesca;
/* Criar e inicializar os semáforos */
char *nome;
int max_digitos;
/* ... semáforos dos barcos... */
max_digitos = log (num_barcos) / log (10) + 1;
nome = malloc (strlen ("pesca-barco") + max_digitos + 1);
sem_barcos = semInit (*nome, max_digitos);
free (nome);
/* .. semáforos dos cardumes... */
max_digitos = log (num_cardumes) / log (10) + 1;
nome = malloc (strlen ("pesca-cardume") + max_digitos + 1);
sem_cardumes = semInit (*nome, max_digitos);
free (nome);
/* .. semaforos do mutex .. */
nome = malloc (strlen ("pesca-mutex"));
sem_cardumes = semInit (*nome, 0);
free (nome);
}
bool BitmapImage_initWithPixels(BitmapImage * self,
enum BitmapPixelFormat pixelFormat,
unsigned int width,
unsigned int height,
unsigned int bytesPerRow,
const unsigned char * pixels) {
unsigned int bytesPerPixel;
sharedInit(self, pixelFormat, width, height, bytesPerRow);
bytesPerPixel = BitmapImage_pixelFormatBytes(pixelFormat);
self->pixels = malloc(bytesPerRow * height * bytesPerPixel);
memcpy(self->pixels, pixels, bytesPerRow * height);
self->private_ivar(freePixelsOnDispose) = true;
return true;
}
/*
====================
Light::Light
Takes in the input stream and creates a Light object from the parsed input
====================
*/
Light::Light(ifstream &f) {
this->material = Material();
while(!f.eof()) {
string line;
getline(f,line);
queue<string> lineContents;
explode(line," ",&lineContents);
if(lineContents.size() == 0) continue;
string word = lineContents.front();
lineContents.pop();
if(word[0] == '#' || line[0] == '\n' || line[0] == '\r') continue;
double num1 = 0;
double num2 = 0;
double num3 = 0;
if(lineContents.size() < 3) break;
num1 = atof(lineContents.front().c_str());
lineContents.pop();
num2 = atof(lineContents.front().c_str());
lineContents.pop();
num3 = atof(lineContents.front().c_str());
lineContents.pop();
if(word == "origin") this->origin = Point(num1,num2,num3);
else if(word == "color") this->material.color = Color(num1,num2,num3);
else break;
}
sharedInit(origin,material);
}
void DeadState::Init(NPC * FSMOwner)
{
FSMState::Init(FSMOwner);
sharedInit();
}
/*
====================
Tube::Tube
Takes information for creation from parameters instead of input stream
so that it can be created by a complex object
====================
*/
Tube::Tube(Material m, double radius, double height, Vector up, Point origin) {
sharedInit(m,radius,height,up,origin);
}
/*
====================
Light::Light
Takes in variables and creates a Light object
====================
*/
Light::Light(Point origin, Material material) {
sharedInit(origin,material);
}
bool BinaryDeserializationContext_initWithFile(BinaryDeserializationContext * self, const char * filePath) {
self->bytes = readFileSimple(filePath, &self->length);
sharedInit(self);
return true;
}
/*
====================
Sphere::Sphere
Takes in arguments and creates a Sphere object
====================
*/
Sphere::Sphere(Point origin, Material material, double radius, string textureName) {
sharedInit(origin,material,radius,textureName);
}
bool GLBitmapFont_loadSerializedData(GLBitmapFont * self, DeserializationContext * context) {
size_t kernCharIndex, kernCharIndex2, nchars;
unsigned int charIndex;
const char * key, * key2;
const char * textureName;
sharedInit(self);
memset(self->characters, 0x00, sizeof(self->characters));
context->beginStructure(context, "glbitmapfont");
textureName = context->readString(context, "texture_name");
nchars = context->beginDictionary(context, "characters");
if (nchars != GLBITMAPFONT_NUM_CHARS) {
self->dispose(self);
return false;
}
for (charIndex = 0; charIndex < GLBITMAPFONT_NUM_CHARS; charIndex++) {
key = context->readNextDictionaryKey(context);
if (key[0] < GLBITMAPFONT_PRINTABLE_MIN || key[0] > GLBITMAPFONT_PRINTABLE_MAX || strlen(key) > 1) {
self->dispose(self);
return false;
}
context->beginStructure(context, key);
self->characters[key[0] - GLBITMAPFONT_PRINTABLE_MIN].advance = context->readFloat(context, "advance");
self->characters[key[0] - GLBITMAPFONT_PRINTABLE_MIN].glyphOffset = context->readFloat(context, "glyph_offset");
self->characters[key[0] - GLBITMAPFONT_PRINTABLE_MIN].glyphWidth = context->readFloat(context, "glyph_width");
context->beginArray(context, "texture_bounds");
self->characters[key[0] - GLBITMAPFONT_PRINTABLE_MIN].textureLeft = context->readFloat(context, NULL);
self->characters[key[0] - GLBITMAPFONT_PRINTABLE_MIN].textureRight = context->readFloat(context, NULL);
self->characters[key[0] - GLBITMAPFONT_PRINTABLE_MIN].textureBottom = context->readFloat(context, NULL);
self->characters[key[0] - GLBITMAPFONT_PRINTABLE_MIN].textureTop = context->readFloat(context, NULL);
context->endArray(context);
self->characters[key[0] - GLBITMAPFONT_PRINTABLE_MIN].kernCharCount = context->beginDictionary(context, "kerning_table");
if (self->characters[key[0] - GLBITMAPFONT_PRINTABLE_MIN].kernCharCount == 0) {
self->characters[key[0] - GLBITMAPFONT_PRINTABLE_MIN].kernChars = NULL;
} else {
self->characters[key[0] - GLBITMAPFONT_PRINTABLE_MIN].kernChars = malloc(sizeof(struct GLBitmapFont_kernEntry) * self->characters[key[0] - GLBITMAPFONT_PRINTABLE_MIN].kernCharCount);
}
for (kernCharIndex = 0; kernCharIndex < self->characters[key[0] - GLBITMAPFONT_PRINTABLE_MIN].kernCharCount; kernCharIndex++) {
key2 = context->readNextDictionaryKey(context);
for (kernCharIndex2 = 0; kernCharIndex2 < kernCharIndex; kernCharIndex2++) {
if (self->characters[key[0] - GLBITMAPFONT_PRINTABLE_MIN].kernChars[kernCharIndex2].previous == key2[0]) {
self->dispose(self);
return false;
}
}
self->characters[key[0] - GLBITMAPFONT_PRINTABLE_MIN].kernChars[kernCharIndex].previous = key2[0];
self->characters[key[0] - GLBITMAPFONT_PRINTABLE_MIN].kernChars[kernCharIndex].offset = context->readFloat(context, key2);
}
context->endDictionary(context);
context->endStructure(context);
}
context->endDictionary(context);
context->endStructure(context);
if (context->status != SERIALIZATION_ERROR_OK) {
self->dispose(self);
return false;
}
self->textureName = malloc(strlen(textureName) + 1);
strcpy(self->textureName, textureName);
self->textureNameOwned = true;
return true;
}