void XmlElement::dumpToFile(FILE* file, int depth) const {
std::string text;
std::vector<XmlElement*>::const_iterator seIt;
std::vector<XmlAttribute*>::const_iterator attIt;
std::string indention = "";
for (int i=0; i < depth; i++) {
indention += "\t";
}
text = indention + "<" + elementName;
for (attIt = attributes.begin(); attIt != attributes.end(); ++attIt) {
text += " " + (*attIt)->getKey() + "=\"" + (*attIt)->getValue() + "\"";
} // for
if (hasSubElements() || hasContent())
text = text + ">";
else
text = text + "/>";
fprintf(file, "%s\n", text.c_str());
if (hasContent()) {
fprintf(file, "%s\t%s\n", indention.c_str(), content.c_str());
} // if
for (seIt = subElements.begin(); seIt != subElements.end(); ++seIt) {
(*seIt)->dumpToFile(file, depth+1);
} // for
if (hasSubElements() || hasContent())
fprintf(file, "%s</%s>\n", indention.c_str(), elementName.c_str());
} // dumpToFile
unsigned NetworkResourcesData::ResourceData::removeContent()
{
unsigned result = 0;
if (hasData()) {
ASSERT(!hasContent());
result = m_dataBuffer->size();
m_dataBuffer = nullptr;
}
if (hasContent()) {
ASSERT(!hasData());
result = contentSizeInBytes(m_content);
m_content = String();
}
return result;
}
void NetworkResourcesData::ResourceData::setContent(const String& content, bool base64Encoded)
{
ASSERT(!hasData());
ASSERT(!hasContent());
m_content = content;
m_base64Encoded = base64Encoded;
}
// public virtual [kpAbstractSelection]
void kpTextSelection::deleteContent ()
{
if (!hasContent ())
return;
setTextLines (QList <QString> ());
}
size_t NetworkResourcesData::ResourceData::decodeDataToContent()
{
ASSERT(!hasContent());
size_t dataLength = m_dataBuffer->size();
m_content = m_decoder->decodeAndFlush(m_dataBuffer->data(), m_dataBuffer->size());
m_dataBuffer = nullptr;
return contentSizeInBytes(m_content) - dataLength;
}
void NetworkResourcesData::ResourceData::appendData(const char* data, size_t dataLength)
{
ASSERT(!hasContent());
if (!m_dataBuffer)
m_dataBuffer = SharedBuffer::create(data, dataLength);
else
m_dataBuffer->append(data, dataLength);
}
int NetworkResourcesData::ResourceData::decodeDataToContent()
{
ASSERT(!hasContent());
int dataLength = m_dataBuffer->size();
m_content = m_decoder->decode(m_dataBuffer->data(), m_dataBuffer->size());
m_content += m_decoder->flush();
m_dataBuffer = nullptr;
return 2 * m_content.length() - dataLength;
}
void PrintTo(const SourceLocation &sourceLocation, std::ostream *os)
{
auto filePath = sourceLocation.filePath();
if (filePath.hasContent())
*os << filePath.constData() << ", ";
*os << "line: " << sourceLocation.line()
<< ", column: "<< sourceLocation.column()
<< ", offset: "<< sourceLocation.offset();
}
bool OctreeElement::findDetailedRayIntersection(const glm::vec3& origin, const glm::vec3& direction,
bool& keepSearching, OctreeElement*& element, float& distance, BoxFace& face,
void** intersectedObject, bool precisionPicking, float distanceToElementCube) {
// we did hit this element, so calculate appropriate distances
if (hasContent()) {
element = this;
distance = distanceToElementCube;
if (intersectedObject) {
*intersectedObject = this;
}
keepSearching = false;
return true; // we did intersect
}
return false; // we did not intersect
}
// There are two types of nodes for which we want to "render"
// 1) Leaves that are in the LOD
// 2) Non-leaves are more complicated though... usually you don't want to render them, but if their children
// wouldn't be rendered, then you do want to render them. But sometimes they have some children that ARE
// in the LOD, and others that are not. In this case we want to render the parent, and none of the children.
//
// Since, if we know the camera position and orientation, we can know which of the corners is the "furthest"
// corner. We can use we can use this corner as our "voxel position" to do our distance calculations off of.
// By doing this, we don't need to test each child voxel's position vs the LOD boundary
bool OctreeElement::calculateShouldRender(const ViewFrustum* viewFrustum, float voxelScaleSize, int boundaryLevelAdjust) const {
bool shouldRender = false;
if (hasContent()) {
float furthestDistance = furthestDistanceToCamera(*viewFrustum);
float childBoundary = boundaryDistanceForRenderLevel(getLevel() + 1 + boundaryLevelAdjust, voxelScaleSize);
bool inChildBoundary = (furthestDistance <= childBoundary);
if (hasDetailedContent() && inChildBoundary) {
shouldRender = true;
} else {
float boundary = childBoundary * 2.0f; // the boundary is always twice the distance of the child boundary
bool inBoundary = (furthestDistance <= boundary);
shouldRender = inBoundary && !inChildBoundary;
}
}
return shouldRender;
}
bool WriteMail::saveChangesOnRequest()
{
// ideally, you'd also check to see if the message is the same as it was
// when we started working on it
// don't bother with a prompt for empty composers. Not likely to want to save empty draft.
if (m_hasMessageChanged && hasContent() &&
QMessageBox::warning(this,
tr("Save to drafts"),
tr("Do you wish to save the message to drafts?"),
QMessageBox::Yes,
QMessageBox::No) == QMessageBox::Yes) {
draft();
} else {
discard();
}
return true;
}
void PrintTo(const Cursor &cursor, ::std::ostream*os)
{
if (cursor.isValid()) {
ClangString cursorKindSpelling(clang_getCursorKindSpelling(cursor.kind()));
*os << cursorKindSpelling.cString() << " ";
auto identifier = cursor.displayName();
if (identifier.hasContent()) {
*os << "\""
<< identifier.constData()
<< "\": ";
}
PrintTo(cursor.sourceLocation(), os);
} else {
*os << "Invalid cursor!";
}
}
void ClippingNode::visit(Renderer *renderer, const Mat4 &parentTransform, uint32_t parentFlags)
{
if (!_visible || !hasContent())
return;
uint32_t flags = processParentFlags(parentTransform, parentFlags);
// IMPORTANT:
// To ease the migration to v3.0, we still support the Mat4 stack,
// but it is deprecated and your code should not rely on it
Director* director = Director::getInstance();
CCASSERT(nullptr != director, "Director is null when setting matrix stack");
director->pushMatrix(MATRIX_STACK_TYPE::MATRIX_STACK_MODELVIEW);
director->loadMatrix(MATRIX_STACK_TYPE::MATRIX_STACK_MODELVIEW, _modelViewTransform);
//Add group command
_groupCommand.init(_globalZOrder);
renderer->addCommand(&_groupCommand);
renderer->pushGroup(_groupCommand.getRenderQueueID());
_beforeVisitCmd.init(_globalZOrder);
_beforeVisitCmd.func = CC_CALLBACK_0(StencilStateManager::onBeforeVisit, _stencilStateManager);
renderer->addCommand(&_beforeVisitCmd);
auto alphaThreshold = this->getAlphaThreshold();
if (alphaThreshold < 1)
{
#if CC_CLIPPING_NODE_OPENGLES
// since glAlphaTest do not exists in OES, use a shader that writes
// pixel only if greater than an alpha threshold
GLProgram *program = GLProgramCache::getInstance()->getGLProgram(GLProgram::SHADER_NAME_POSITION_TEXTURE_ALPHA_TEST_NO_MV);
GLint alphaValueLocation = glGetUniformLocation(program->getProgram(), GLProgram::UNIFORM_NAME_ALPHA_TEST_VALUE);
// set our alphaThreshold
program->use();
program->setUniformLocationWith1f(alphaValueLocation, alphaThreshold);
// we need to recursively apply this shader to all the nodes in the stencil node
// FIXME: we should have a way to apply shader to all nodes without having to do this
setProgram(_stencil, program);
#endif
}
_stencil->visit(renderer, _modelViewTransform, flags);
_afterDrawStencilCmd.init(_globalZOrder);
_afterDrawStencilCmd.func = CC_CALLBACK_0(StencilStateManager::onAfterDrawStencil, _stencilStateManager);
renderer->addCommand(&_afterDrawStencilCmd);
int i = 0;
bool visibleByCamera = isVisitableByVisitingCamera();
if(!_children.empty())
{
sortAllChildren();
// draw children zOrder < 0
for(auto size = _children.size(); i < size; ++i)
{
auto node = _children.at(i);
if ( node && node->getLocalZOrder() < 0 )
node->visit(renderer, _modelViewTransform, flags);
else
break;
}
// self draw
if (visibleByCamera)
this->draw(renderer, _modelViewTransform, flags);
for(auto it=_children.cbegin()+i, itCend = _children.cend(); it != itCend; ++it)
(*it)->visit(renderer, _modelViewTransform, flags);
}
else if (visibleByCamera)
{
this->draw(renderer, _modelViewTransform, flags);
}
_afterVisitCmd.init(_globalZOrder);
_afterVisitCmd.func = CC_CALLBACK_0(StencilStateManager::onAfterVisit, _stencilStateManager);
renderer->addCommand(&_afterVisitCmd);
renderer->popGroup();
director->popMatrix(MATRIX_STACK_TYPE::MATRIX_STACK_MODELVIEW);
}
OctreeElement::AppendState EntityTreeElement::appendElementData(OctreePacketData* packetData,
EncodeBitstreamParams& params) const {
OctreeElement::AppendState appendElementState = OctreeElement::COMPLETED; // assume the best...
// first, check the params.extraEncodeData to see if there's any partial re-encode data for this element
OctreeElementExtraEncodeData* extraEncodeData = params.extraEncodeData;
EntityTreeElementExtraEncodeData* entityTreeElementExtraEncodeData = NULL;
bool hadElementExtraData = false;
if (extraEncodeData && extraEncodeData->contains(this)) {
entityTreeElementExtraEncodeData =
static_cast<EntityTreeElementExtraEncodeData*>(extraEncodeData->value(this));
hadElementExtraData = true;
} else {
// if there wasn't one already, then create one
entityTreeElementExtraEncodeData = new EntityTreeElementExtraEncodeData();
entityTreeElementExtraEncodeData->elementCompleted = !hasContent();
for (int i = 0; i < NUMBER_OF_CHILDREN; i++) {
EntityTreeElementPointer child = getChildAtIndex(i);
if (!child) {
entityTreeElementExtraEncodeData->childCompleted[i] = true; // if no child exists, it is completed
} else {
if (child->hasEntities()) {
entityTreeElementExtraEncodeData->childCompleted[i] = false;
} else {
// if the child doesn't have enities, it is completed
entityTreeElementExtraEncodeData->childCompleted[i] = true;
}
}
}
forEachEntity([&](EntityItemPointer entity) {
entityTreeElementExtraEncodeData->entities.insert(entity->getEntityItemID(), entity->getEntityProperties(params));
});
}
//assert(extraEncodeData);
//assert(extraEncodeData->contains(this));
//entityTreeElementExtraEncodeData = static_cast<EntityTreeElementExtraEncodeData*>(extraEncodeData->value(this));
LevelDetails elementLevel = packetData->startLevel();
// write our entities out... first determine which of the entities are in view based on our params
uint16_t numberOfEntities = 0;
uint16_t actualNumberOfEntities = 0;
int numberOfEntitiesOffset = 0;
withReadLock([&] {
QVector<uint16_t> indexesOfEntitiesToInclude;
// It's possible that our element has been previous completed. In this case we'll simply not include any of our
// entities for encoding. This is needed because we encode the element data at the "parent" level, and so we
// need to handle the case where our sibling elements need encoding but we don't.
if (!entityTreeElementExtraEncodeData->elementCompleted) {
for (uint16_t i = 0; i < _entityItems.size(); i++) {
EntityItemPointer entity = _entityItems[i];
bool includeThisEntity = true;
if (!params.forceSendScene && entity->getLastChangedOnServer() < params.lastViewFrustumSent) {
includeThisEntity = false;
}
if (hadElementExtraData) {
includeThisEntity = includeThisEntity &&
entityTreeElementExtraEncodeData->entities.contains(entity->getEntityItemID());
}
if (includeThisEntity && params.viewFrustum) {
// we want to use the maximum possible box for this, so that we don't have to worry about the nuance of
// simulation changing what's visible. consider the case where the entity contains an angular velocity
// the entity may not be in view and then in view a frame later, let the client side handle it's view
// frustum culling on rendering.
bool success;
AACube entityCube = entity->getQueryAACube(success);
if (!success || !params.viewFrustum->cubeIntersectsKeyhole(entityCube)) {
includeThisEntity = false; // out of view, don't include it
} else {
// Check the size of the entity, it's possible that a "too small to see" entity is included in a
// larger octree cell because of its position (for example if it crosses the boundary of a cell it
// pops to the next higher cell. So we want to check to see that the entity is large enough to be seen
// before we consider including it.
success = true;
// we can't cull a parent-entity by its dimensions because the child may be larger. we need to
// avoid sending details about a child but not the parent. the parent's queryAACube should have
// been adjusted to encompass the queryAACube of the child.
AABox entityBounds = entity->hasChildren() ? AABox(entityCube) : entity->getAABox(success);
if (!success) {
// if this entity is a child of an avatar, the entity-server wont be able to determine its
// AABox. If this happens, fall back to the queryAACube.
entityBounds = AABox(entityCube);
}
auto renderAccuracy = params.viewFrustum->calculateRenderAccuracy(entityBounds,
params.octreeElementSizeScale,
params.boundaryLevelAdjust);
if (renderAccuracy <= 0.0f) {
includeThisEntity = false; // too small, don't include it
#ifdef WANT_LOD_DEBUGGING
qDebug() << "skipping entity - TOO SMALL - \n"
<< "......id:" << entity->getID() << "\n"
<< "....name:" << entity->getName() << "\n"
<< "..bounds:" << entityBounds << "\n"
<< "....cell:" << getAACube();
#endif
}
}
}
if (includeThisEntity) {
#ifdef WANT_LOD_DEBUGGING
qDebug() << "including entity - \n"
<< "......id:" << entity->getID() << "\n"
<< "....name:" << entity->getName() << "\n"
<< "....cell:" << getAACube();
#endif
indexesOfEntitiesToInclude << i;
numberOfEntities++;
} else {
// if the extra data included this entity, and we've decided to not include the entity, then
// we can treat it as if it was completed.
entityTreeElementExtraEncodeData->entities.remove(entity->getEntityItemID());
}
}
}
numberOfEntitiesOffset = packetData->getUncompressedByteOffset();
bool successAppendEntityCount = packetData->appendValue(numberOfEntities);
if (successAppendEntityCount) {
foreach(uint16_t i, indexesOfEntitiesToInclude) {
EntityItemPointer entity = _entityItems[i];
LevelDetails entityLevel = packetData->startLevel();
OctreeElement::AppendState appendEntityState = entity->appendEntityData(packetData,
params, entityTreeElementExtraEncodeData);
// If none of this entity data was able to be appended, then discard it
// and don't include it in our entity count
if (appendEntityState == OctreeElement::NONE) {
packetData->discardLevel(entityLevel);
} else {
// If either ALL or some of it got appended, then end the level (commit it)
// and include the entity in our final count of entities
packetData->endLevel(entityLevel);
actualNumberOfEntities++;
}
// If the entity item got completely appended, then we can remove it from the extra encode data
if (appendEntityState == OctreeElement::COMPLETED) {
entityTreeElementExtraEncodeData->entities.remove(entity->getEntityItemID());
}
// If any part of the entity items didn't fit, then the element is considered partial
// NOTE: if the entity item didn't fit or only partially fit, then the entity item should have
// added itself to the extra encode data.
if (appendEntityState != OctreeElement::COMPLETED) {
appendElementState = OctreeElement::PARTIAL;
}
}
} else {
std::istream& InputProvider::getAsStream()
{
assert(hasContent() && "should have gotten some content before using content");
return pimpl->stream;
}
void NetworkResourcesData::ResourceData::setContent(const String& content)
{
ASSERT(!hasData());
ASSERT(!hasContent());
m_content = content;
}
