void OctreeBrickPoolManagerDisk::BrickEntry::decreaseAllInUse() {
tgtAssert(isInUse(0,0), "Underflow. No thread is using the brick in 1.channel!");
tgtAssert(isInUse(1,0), "Underflow. No thread is using the brick in 2.channel!");
tgtAssert(isInUse(2,0), "Underflow. No thread is using the brick in 3.channel!");
tgtAssert(isInUse(3,0), "Underflow. No thread is using the brick in 4.channel!");
entry_ -= 9360; //0010010010010000
}
void OctreeBrickPoolManagerDisk::BrickEntry::increaseAllInUse() {
tgtAssert(!isInUse(0,6), "Overflow. More than 7 threads are using the brick in 1.channel!");
tgtAssert(!isInUse(1,6), "Overflow. More than 7 threads are using the brick in 2.channel!");
tgtAssert(!isInUse(2,6), "Overflow. More than 7 threads are using the brick in 3.channel!");
tgtAssert(!isInUse(3,6), "Overflow. More than 7 threads are using the brick in 4.channel!");
entry_ += 9360; //0010010010010000
}
void ShaderProgram::setUniform(const GLchar *name, float x, float y, float z, float w)
{
if (!isInUse())
use();
glUniform4f(getUniformLocation(name), x, y, z, w);
}
void EventableResource::eventableSetInUseOff()
{
if (!isInUse())
return;
clearOwner();
Resource::setInUse(false);
}
const std::vector< GLSLProgram::UniformInformations > GLSLProgram::getActiveUniforms() const
{
if ( isInUse() )
{
// number of active uniforms
GLint numUniforms;
glGetProgramiv( getProgramObject(), GL_ACTIVE_UNIFORMS, &numUniforms );
GLint maxLength;
glGetProgramiv( getProgramObject(), GL_ACTIVE_UNIFORM_MAX_LENGTH, &maxLength );
std::vector< UniformInformations > uniforms(numUniforms, UniformInformations(maxLength) );
// for each uniform, do
for( GLint index = 0; index< numUniforms; ++index )
{
UniformInformations& uniform = uniforms[index];
glGetActiveUniform( getProgramObject(), index,
uniform.name.size(), 0,
&uniform.size, &uniform.type, &uniform.name[0] );
}
return uniforms;
}
else
{
std::vector< UniformInformations > uniforms;
return uniforms;
}
}
void ShaderProgram::setUniform(const GLchar *name, bool x)
{
if (!isInUse())
use();
glUniform1i(getUniformLocation(name), x);
}
void ShaderProgram::setUniform(const GLchar *name, unsigned int x)
{
if (!isInUse())
use();
glUniform1ui(getUniformLocation(name), x);
}
void EventableResource::eventableSetInUseOn(Thread &t)
{
if (isInUse())
clearOwner();
vector = 0;
EV = getID();
eventsEnabled = false;
interruptMode = false;
owner = &t;
Resource::setInUse(true);
}
// add a next setpoint for the stepper to go to, will wait if queue is full
void setpointAdd (const Setpoint& s) {
// TODO: silly approach, should use first/last indices into circular buffer
for (int i = 0; i <= SETPOINT_QUEUE_SIZE; ++i)
if (!isInUse(i)) {
setInUse(i);
setpoint.setpoints[i] = s;
chMBPost(&setpoint.mailbox, i, TIME_INFINITE);
return;
}
// never reached
}
// Spins until frame becomes available or decoding
// gets canceled.
// If the requested frame is available the method returns true.
// If decoding was interupted before the requested frame becomes
// available, the method returns false.
bool
FrameQueue::waitUntilFrameAvailable(int nPictureIndex)
{
while (isInUse(nPictureIndex))
{
sleep(1); // Decoder is getting too far ahead from display
if (isEndOfDecode())
return false;
}
return true;
}
static ScheduledLightEvent * findUnusedEvent(void)
{
int i;
ScheduledLightEvent * event = eventList;
for (i = 0; i < MAX_EVENTS; i++, event++)
{
if (!isInUse(event))
return event;
}
return NULL;
}
bool FrameQueue::waitUntilFrameAvailable(int nPictureIndex)
{
while (isInUse(nPictureIndex))
{
sleep(1);
if (bEndOfDecode_){
return false;
}
}
return true;
}
void ALAuxiliaryEffectSlot::release()
{
CheckContext(mContext);
if(isInUse())
throw std::runtime_error("AuxiliaryEffectSlot is in use");
alGetError();
mContext->alDeleteAuxiliaryEffectSlots(1, &mId);
if(alGetError() != AL_NO_ERROR)
throw std::runtime_error("AuxiliaryEffectSlot failed to delete");
mId = 0;
delete this;
}
static ScheduledLightEvent * findUnusedEvent(void)
{
int i;
ScheduledLightEvent * event = 0;
for (i = 0; i < MAX_EVENTS; i++)
{
if (!isInUse(&eventList[i]))
{
event = &eventList[i];
return event;
}
}
return NULL;
}
void AnimSkeleton::onGameLoop() {
Anim::onGameLoop();
if (isInUse() && _totalTime) {
uint32 newTime = _currentTime + StarkGlobal->getMillisecondsPerGameloop();
if (!_loop && newTime > _totalTime) {
if (_actionItem) {
_actionItem->resetActionAnim();
_actionItem = nullptr;
}
} else {
_currentTime = newTime % _totalTime;
_visual->setTime(_currentTime);
}
}
}
void AnimVideo::onGameLoop() {
if (!_smacker || !isInUse()) {
return; // Animation not in use, no need to update the movie
}
if (_smacker->isDone()) {
// The last frame has been reached
if (!_loop && _actionItem) {
// Reset our item if needed
_actionItem->resetActionAnim();
_actionItem = nullptr;
}
if (_loop) {
_smacker->rewind();
}
}
if (!_smacker->isDone()) {
_smacker->update();
updateSmackerPosition();
}
}
bool TankEngine::findNextSlot( TankSectionRackSlot & tsrs )
{
// Is there a currently selected tank to use
if( sli.rackSlots == BRUNKNOWN_INT ){return false; }
TankSectionRackSlot t1=tsrs;
//
if( t1.slot >= sli.rackSlots )
{
// Move on to the first slot in the next Rack
t1.slot = 1;
int lastRack,firstRack;
lastRack= BRUNKNOWN_INT;
for( Range< LCDbSectionDef > r = LCDbSectionDefs::records(); r.isValid(); ++ r )
{
if( r->getTankLayoutCID() == sli.rackLayoutID && tsrs.fillOrder == r->getFillOrder() )
{
lastRack= r->getLastRack();
firstRack= r->getFirstRack();
}
}
if( t1.rack >= lastRack )
{
// All the racks in the section are full move on to the next section.
t1.rack = firstRack;
bool isNextSection; isNextSection = false;
std::string nextSection; nextSection = "";
int nextFillOrder; nextFillOrder= BRUNKNOWN_INT;
// isNextSection=incSection(t1.section,nextSection,sli.tankCID);
isNextSection=incSection(t1.fillOrder,sli.tankCID, nextFillOrder,nextSection,t1.rack);
if( ! isNextSection )
{
// All the sections in the tank have been used up. Ask for a new tank.
return false;
}
t1.fillOrder= nextFillOrder;
// t1.section=nextSection;
}
else t1.rack++; // moved: NG, 19/5/09
}else
{
t1.slot ++;
}
// The next slot in the storage system has already been taken up.
if(isInUse(t1))
{
return false;
}else
{
tsrs.tank = t1.tank;
tsrs.fillOrder = t1.fillOrder;
// tsrs.section = t1.section;
tsrs.rack = t1.rack;
tsrs.slot = t1.slot;
return true;
}
}
void ShaderProgram::use() const
{
if (!isInUse())
glUseProgram(m_program);
}
void ShaderProgram::checkInUse() const
{
if (!isInUse())
panic("ShaderProgram not is use.");
}
void ShaderProgram::stopUsing() const
{
if (isInUse())
glUseProgram(0);
}
void ShaderProgram::use() const
{
if (!isInUse())
glUseProgram(handle);
}
bool OctreeBrickPoolManagerDisk::BrickEntry::isInUse(uint16_t threshold) {
return (isInUse(0,threshold) || isInUse(1,threshold) || isInUse(2,threshold) || isInUse(3,threshold));
}
void OctreeBrickPoolManagerDisk::BrickEntry::decreaseInUse(size_t channel) {
tgtAssert(channel < 4, "channel not between 0 and 3!");
tgtAssert(isInUse(channel,0), "Underflow. No thread is using the brick!");
entry_ -= (uint16_t)(1) << (4+3*channel);
}
void ShaderProgram::stopUsing()const{
assert(isInUse());
glUseProgram(0);
}
void ShaderProgram::setUniform(const GLchar* name, const glm::mat4& m, GLboolean transpose) {
assert(isInUse());
glUniformMatrix4fv(uniform(name), 1, transpose, glm::value_ptr(m));
}
void ShaderProgram::setUniformMatrix4(const GLchar* name, const GLfloat* v, GLsizei count, GLboolean transpose) {
assert(isInUse());
glUniformMatrix4fv(uniform(name), count, transpose, v);
}
// test if an index position is valid in this table.
inline bool isIndexValid(ItemLink i)
{
return i < totalSize && isInUse(i);
}
