void ewol::resource::Texture::flush() {
std11::unique_lock<std11::recursive_mutex> lock(m_mutex);
// request to the manager to be call at the next update ...
getManager().update(std::dynamic_pointer_cast<gale::Resource>(shared_from_this()));
}
bool PopupWindow::onProcessMessage(Message* msg)
{
switch (msg->type()) {
// There are cases where startFilteringMessages() is called when a
// kCloseMessage for this same PopupWindow is enqueued. Processing
// the kOpenMessage we ensure that the popup will be filtering
// messages if it's needed when it's visible (as kCloseMessage and
// kOpenMessage must be enqueued in the correct order).
case kOpenMessage:
if (!isMoveable())
startFilteringMessages();
break;
case kCloseMessage:
stopFilteringMessages();
break;
case kMouseLeaveMessage:
if (m_hotRegion.isEmpty() && !isMoveable())
closeWindow(nullptr);
break;
case kKeyDownMessage:
if (m_filtering) {
KeyMessage* keymsg = static_cast<KeyMessage*>(msg);
KeyScancode scancode = keymsg->scancode();
if (scancode == kKeyEsc)
closeWindow(nullptr);
if (m_enterBehavior == kCloseOnEnter &&
(scancode == kKeyEnter ||
scancode == kKeyEnterPad)) {
closeWindow(this);
return true;
}
}
break;
case kMouseDownMessage:
if (m_filtering) {
gfx::Point mousePos = static_cast<MouseMessage*>(msg)->position();
switch (m_clickBehavior) {
// If the user click outside the window, we have to close
// the tooltip window.
case kCloseOnClickInOtherWindow: {
Widget* picked = pick(mousePos);
if (!picked || picked->getRoot() != this) {
closeWindow(NULL);
}
break;
}
case kCloseOnClickOutsideHotRegion:
if (!m_hotRegion.contains(mousePos)) {
closeWindow(NULL);
}
break;
}
}
break;
case kMouseMoveMessage:
if (!isMoveable() &&
!m_hotRegion.isEmpty() &&
getManager()->getCapture() == NULL) {
gfx::Point mousePos = static_cast<MouseMessage*>(msg)->position();
// If the mouse is outside the hot-region we have to close the
// window.
if (!m_hotRegion.contains(mousePos))
closeWindow(NULL);
}
break;
}
return Window::onProcessMessage(msg);
}
void GoldpotView::draw(const GameTime& gameTime)
{
FBXRenderer::draw(model, gameTime, getManager(), getController().getWorld());
}
bool TUICore<T>::isFocus()
{
assert( getManager() );
return getManager()->getFocusUI() == this;
}
T& TUICore<T>::setFocus()
{
getManager()->setFocusUI( this );
return *_this();
}
bool Model::parseNode(TiXmlElement *xml, Model::Node *parent)
{
// Get name
const char *name = xml->Attribute("name");
if (!name)
{
getManager()->getLog()->error("%s: Node name missing.",
getName().c_str());
return false;
}
// Add node
Node *currentnode = addNode(name, parent);
// Read transformation
TiXmlElement *transelem = xml->FirstChildElement("Transformation");
math::Matrix4 transmat = math::Matrix4::Identity();
if (transelem)
{
std::istringstream matstream(transelem->GetText());
for (unsigned int i = 0; i < 16; i++)
{
matstream >> transmat.m[i];
char separator;
matstream >> separator;
}
}
currentnode->setTransformation(transmat);
// Read meshes
for (TiXmlElement *element = xml->FirstChildElement("Mesh");
element != 0;
element = element->NextSiblingElement("Mesh"))
{
// Read mesh info
const char *indexstr = element->Attribute("index");
if (!indexstr)
{
getManager()->getLog()->warning("%s: Mesh index missing.",
getName().c_str());
continue;
}
const char *materialfile = element->Attribute("material");
if (!materialfile)
{
getManager()->getLog()->warning("%s: Mesh material missing.",
getName().c_str());
continue;
}
unsigned int batchindex = atoi(indexstr);
if (batchindex >= batches.size())
{
getManager()->getLog()->warning("%s: Invalid batch index %d.",
getName().c_str(),
batchindex);
continue;
}
// Create and add mesh
std::string path = getPath();
std::string directory = core::FileSystem::getDirectory(path);
res::ResourceManager *rmgr = getManager();
core::FileSystem::Ptr fs = rmgr->getFileSystem();
Mesh mesh;
mesh.batch = batchindex;
std::string materialpath = fs->getPath(materialfile, directory);
mesh.material = rmgr->getOrLoad<Material>("Material", materialpath);
mesh.node = currentnode;
addMesh(mesh);
}
// Read child nodes
for (TiXmlElement *element = xml->FirstChildElement("Node");
element != 0;
element = element->NextSiblingElement("Node"))
{
if (!parseNode(element, currentnode))
return false;
}
return true;
}
void Unit::useDevice(int device,int port,int action,IOBuffer *buffer)
{
// LogFunction(*g_logger);
getManager()->useDevice(this,device,port,action,buffer);
}
// ######################################################################
void EndPointChannel::buildSubChans()
{
GVX_TRACE(__PRETTY_FUNCTION__);
// kill any subchans we may have had...
this->removeAllSubChans();
LINFO("Using %d orientations spanning [0..360]deg", itsNumOrients.getVal());
for (uint ori = 0; ori < 8; )
{
switch (ori)
{
case 0:
addSubChan(makeSharedComp
(new JunctionChannel(getManager(), itsOriChan,
visualFeature(),
1,0,0,0,0,0,0,0 )),
"", 1.0, /* exportOpts = */ true);
break;
case 1:
addSubChan(makeSharedComp
(new JunctionChannel(getManager(), itsOriChan,
visualFeature(),
0,1,0,0,0,0,0,0 )),
"", 1.0, /* exportOpts = */ true);
break;
case 2:
addSubChan(makeSharedComp
(new JunctionChannel(getManager(), itsOriChan,
visualFeature(),
0,0,1,0,0,0,0,0 )),
"", 1.0, /* exportOpts = */ true);
break;
case 3:
addSubChan(makeSharedComp
(new JunctionChannel(getManager(), itsOriChan,
visualFeature(),
0,0,0,1,0,0,0,0 )),
"", 1.0, /* exportOpts = */ true);
break;
case 4:
addSubChan(makeSharedComp
(new JunctionChannel(getManager(), itsOriChan,
visualFeature(),
0,0,0,0,1,0,0,0 )),
"", 1.0, /* exportOpts = */ true);
break;
case 5:
addSubChan(makeSharedComp
(new JunctionChannel(getManager(), itsOriChan,
visualFeature(),
0,0,0,0,0,1,0,0 )),
"", 1.0, /* exportOpts = */ true);
break;
case 6:
addSubChan(makeSharedComp
(new JunctionChannel(getManager(), itsOriChan,
visualFeature(),
0,0,0,0,0,0,1,0 )),
"", 1.0, /* exportOpts = */ true);
break;
case 7:
addSubChan(makeSharedComp
(new JunctionChannel(getManager(), itsOriChan,
visualFeature(),
0,0,0,0,0,0,0,1 )),
"", 1.0, /* exportOpts = */ true);
break;
default:
break;
}
ori += 8 / itsNumOrients.getVal();
}
}
Error TextureAtlasResource::load(const ResourceFilename& filename, Bool async)
{
XmlDocument doc;
ANKI_CHECK(openFileParseXml(filename, doc));
XmlElement rootel, el;
//
// <textureAtlas>
//
ANKI_CHECK(doc.getChildElement("textureAtlas", rootel));
//
// <texture>
//
ANKI_CHECK(rootel.getChildElement("texture", el));
CString texFname;
ANKI_CHECK(el.getText(texFname));
ANKI_CHECK(getManager().loadResource<TextureResource>(texFname, m_tex, async));
m_size[0] = m_tex->getWidth();
m_size[1] = m_tex->getHeight();
//
// <subTextureMargin>
//
ANKI_CHECK(rootel.getChildElement("subTextureMargin", el));
I64 margin = 0;
ANKI_CHECK(el.getNumber(margin));
if(margin >= I(m_tex->getWidth()) || margin >= I(m_tex->getHeight()) || margin < 0)
{
ANKI_RESOURCE_LOGE("Too big margin %d", U(margin));
return Error::USER_DATA;
}
m_margin = margin;
//
// <subTextures>
//
// Get counts
PtrSize namesSize = 0;
PtrSize subTexesCount = 0;
XmlElement subTexesEl, subTexEl;
ANKI_CHECK(rootel.getChildElement("subTextures", subTexesEl));
ANKI_CHECK(subTexesEl.getChildElement("subTexture", subTexEl));
do
{
ANKI_CHECK(subTexEl.getChildElement("name", el));
CString name;
ANKI_CHECK(el.getText(name));
if(name.getLength() < 1)
{
ANKI_RESOURCE_LOGE("Something wrong with the <name> tag. Probably empty");
return Error::USER_DATA;
}
namesSize += name.getLength() + 1;
++subTexesCount;
ANKI_CHECK(subTexEl.getNextSiblingElement("subTexture", subTexEl));
} while(subTexEl);
// Allocate
m_subTexNames.create(getAllocator(), namesSize);
m_subTexes.create(getAllocator(), subTexesCount);
// Iterate again and populate
subTexesCount = 0;
char* names = &m_subTexNames[0];
ANKI_CHECK(subTexesEl.getChildElement("subTexture", subTexEl));
do
{
ANKI_CHECK(subTexEl.getChildElement("name", el));
CString name;
ANKI_CHECK(el.getText(name));
memcpy(names, &name[0], name.getLength() + 1);
m_subTexes[subTexesCount].m_name = names;
ANKI_CHECK(subTexEl.getChildElement("uv", el));
Vec4 uv;
ANKI_CHECK(el.getVec4(uv));
m_subTexes[subTexesCount].m_uv = {{uv[0], uv[1], uv[2], uv[3]}};
names += name.getLength() + 1;
++subTexesCount;
ANKI_CHECK(subTexEl.getNextSiblingElement("subTexture", subTexEl));
} while(subTexEl);
return Error::NONE;
}
//---------------------------------------------------------------------
void PagedWorldSection::setStrategy(const String& stratName)
{
setStrategy(getManager()->getStrategy(stratName));
}
void PipeBase::processEvents()
{
DWORD dwWait = WaitForMultipleObjects(getNumEvents(), m_hEventsArr, FALSE, 500);
if (isStopped())
return;
if (dwWait == WAIT_TIMEOUT)
return;
if (dwWait == WAIT_FAILED)
{
DWORD lErr = GetLastError();
return;
}
// dwWait shows which pipe completed the operation.
size_t i = dwWait - WAIT_OBJECT_0; // determines which pipe
if (i < 0 || i > (getNumEvents() - 1))
{
printf("Index out of range.\n");
return;
}
PipeData* data = getData(i);
DWORD cbRet = 0;
#ifdef IPC_DEBUG
if (fh)
{
fprintf(fh, "Triggered event %d\n", i);
fflush(fh);
}
#endif
//printf("Event %d, P: %d\n", i, data->fPendingIO);
// Get the result if the operation was pending.
if (data->fPendingIO)
{
BOOL fSuccess = GetOverlappedResult(data->hPipe, &data->oOverlap, &cbRet, FALSE);
//printf("Pending S: %d A: %d P: %d\n", fSuccess, cbRet, data->pendingConnection);
if (data->pendingConnection)
{
if (!fSuccess)
throw gcException(ERR_PIPE, GetLastError(), gcString("Error {0}.\n", GetLastError()));
data->pendingConnection = false;
data->fPendingIO = FALSE;
}
else
{
DWORD err = GetLastError();
//Buffer is full. Wait for space
if (err == ERROR_IO_INCOMPLETE)
fSuccess = GetOverlappedResult(data->hPipe, &data->oOverlap, &cbRet, TRUE);
if (!fSuccess || (cbRet == 0 && data->sender == false)) // || (cbRet != data->size && data->sender == true)
{
disconnectAndReconnect(i);
ResetEvent(m_hEventsArr[i]);
printf("Disconnect pending!\n");
return;
}
if (!data->sender)
{
data->size = cbRet;
finishRead(data, getManager(i));
}
}
}
bool res = false;
// The pipe state determines which operation to do next.
if (data->sender)
res = performWrite(data, getManager(i));
else
res = performRead(data, getManager(i));
if (res)
ResetEvent(m_hEventsArr[i]);
}
const sf::Texture TextureManager::getTexture(std::string texture)
{
//Påkalla funktionen med namnet till rätt animationen
return getManager().mTextureMap[texture];
};
int TransferManagerAdapter::verifyTicket(string ticket){
return getManager()->verifyTicket(ticket);
}
string TransferManagerAdapter::createTicket(int userId, int time) {
return getManager()->createTicket(userId, time);
}
bool Model::load()
{
std::string path = getPath();
std::string directory = core::FileSystem::getDirectory(path);
// Open XML file
TiXmlDocument xml(path.c_str());
if (!loadResourceFile(xml))
{
finishLoading(false);
return false;
}
// Load XML file
TiXmlNode *root = xml.FirstChild("Model");
if (!root || !root->ToElement())
{
getManager()->getLog()->error("%s: <Model> not found.",
getName().c_str());
finishLoading(false);
return false;
}
// Get geometry file
const char *geofilename = root->ToElement()->Attribute("geometry");
if (!geofilename)
{
getManager()->getLog()->error("%s: No geometry file specified.",
getName().c_str());
finishLoading(false);
return false;
}
// Open geometry file
core::FileSystem::Ptr fs = getManager()->getFileSystem();
if (!loadGeometryFile(fs->getPath(geofilename, directory)))
{
finishLoading(false);
return false;
}
// Load nodes
TiXmlElement *rootnodeelem = root->FirstChildElement("Node");
if (!rootnodeelem)
{
getManager()->getLog()->error("%s: No node available.",
getName().c_str());
finishLoading(false);
return false;
}
if (!parseNode(rootnodeelem, 0))
{
finishLoading(false);
return false;
}
// Load joints
for (TiXmlElement *element = root->FirstChildElement("Armature");
element != 0;
element = element->NextSiblingElement("Armature"))
{
// Get batch index
const char *batchstr = element->Attribute("batch");
if (!batchstr)
{
getManager()->getLog()->warning("%s: Armature batch missing.",
getName().c_str());
continue;
}
unsigned int batchidx = atoi(batchstr);
if (batchidx >= batches.size())
{
getManager()->getLog()->warning("%s: Invalid armature batch.",
getName().c_str());
continue;
}
// Load joints
for (TiXmlElement *jointelem = element->FirstChildElement("Joint");
jointelem != 0;
jointelem = jointelem->NextSiblingElement("Joint"))
{
// Get and check joint index
const char *indexstr = jointelem->Attribute("index");
if (!indexstr)
{
getManager()->getLog()->warning("%s: Joint index missing.",
getName().c_str());
continue;
}
unsigned int index = atoi(indexstr);
if (index >= batches[batchidx].joints.size())
{
getManager()->getLog()->warning("%s: Joint index invalid.",
getName().c_str());
continue;
}
// Get and check joint name
const char *name = jointelem->Attribute("name");
if (!name)
{
getManager()->getLog()->warning("%s: Joint name missing.",
getName().c_str());
continue;
}
Node *node = getNode(name);
if (!node)
{
getManager()->getLog()->warning("%s: Joint node \"%s\" not found.",
getName().c_str(), name);
continue;
}
batches[batchidx].joints[index].name = name;
batches[batchidx].joints[index].node = node;
}
}
finishLoading(true);
return true;
}
bool ProtocolUDPGeneric::init_derived()
{
if (!peerIface) {
HAGGLE_ERR("%s No peer interface\n", getName());
return false;
}
if (!localIface) {
HAGGLE_ERR("%s No local interface\n", getName());
return false;
}
SOCKET sockets[2];
if (0 > socketpair(AF_UNIX, SOCK_DGRAM, 0, sockets)) {
HAGGLE_ERR("%s Could not create socket pair for receiver: %s\n", getName(), STRERROR(ERRNO));
HAGGLE_ERR("FATAL ERROR - EMERGENCY SHUTDOWN INITIATED\n"); // MOS
getKernel()->setFatalError();
getKernel()->shutdown();
return false;
}
else
{
HAGGLE_DBG2("%s Opening socketpair (%d,%d)\n", getName(), sockets[0], sockets[1]);
}
writeEndOfReceiveSocket =
new SocketWrapper(getKernel(), getManager(), sockets[0]);
if (!writeEndOfReceiveSocket) {
HAGGLE_ERR("%s Could not allocate write end\n", getName());
return false;
}
if (!writeEndOfReceiveSocket->multiplySndBufferSize(2)) {
HAGGLE_ERR("%s Could not multiply buffer size.\n", getName());
return false;
}
readEndOfReceiveSocket =
new SocketWrapper(getKernel(), getManager(), sockets[1]);
if (!readEndOfReceiveSocket) {
HAGGLE_ERR("%s Could not allocate read end\n", getName());
return false;
}
if (!readEndOfReceiveSocket->multiplyRcvBufferSize(2)) {
HAGGLE_ERR("%s Could not multiply buffer size.\n", getName());
return false;
}
srcIP = interfaceToIP(localIface);
if (0 == srcIP) {
HAGGLE_ERR("%s Could not get source IP.\n");
return false;
}
destIP = interfaceToIP(peerIface);
if (0 == destIP) {
HAGGLE_ERR("%s Could not get dest IP.\n");
return false;
}
return initbase();
}
bool Model::loadGeometryFile(std::string filename)
{
// Open file
core::FileSystem::Ptr fs = getManager()->getFileSystem();
core::File::Ptr file = fs->open(filename, core::FileAccess::Read);
if (!file)
{
getManager()->getLog()->error("Could not open file \"%s\".",
filename.c_str());
return false;
}
// Read header
// TODO: Adapt all this to big-endian
GeometryFile::Header header;
if (file->read(sizeof(header), &header) != sizeof(header))
{
getManager()->getLog()->error("%s: Could not read geometry header.",
getName().c_str());
return false;
}
if (header.tag != GeometryFile::tag
|| header.version != GeometryFile::version)
{
getManager()->getLog()->error("%s: Invalid geometry file.",
getName().c_str());
return false;
}
// Read vertex and index data
void *vertexdata = malloc(header.vertexdatasize);
if (file->read(header.vertexdatasize, vertexdata) != (int)header.vertexdatasize)
{
getManager()->getLog()->error("%s: Could not read vertex data.",
getName().c_str());
free(vertexdata);
return false;
}
void *indexdata = malloc(header.indexdatasize);
if (file->read(header.indexdatasize, indexdata) != (int)header.indexdatasize)
{
getManager()->getLog()->error("%s: Could not read index data.",
getName().c_str());
free(vertexdata);
free(indexdata);
return false;
}
// Construct vertex/index buffers
res::ResourceManager *rmgr = getManager();
vertexbuffer = rmgr->createResource<VertexBuffer>("VertexBuffer");
indexbuffer = rmgr->createResource<IndexBuffer>("IndexBuffer");
if (!vertexbuffer || !indexbuffer)
{
getManager()->getLog()->error("%s: Could not create buffers.",
getName().c_str());
free(vertexdata);
free(indexdata);
return false;
}
vertexbuffer->set(header.vertexdatasize,
vertexdata,
VertexBufferUsage::Static,
false);
indexbuffer->set(header.indexdatasize, indexdata, false);
// Read batch info
std::vector<GeometryFile::Batch> batchdata(header.batchcount, GeometryFile::Batch());
for (unsigned int i = 0; i < header.batchcount; i++)
{
GeometryFile::AttribInfo &attribs = batchdata[i].attribs;
GeometryFile::GeometryInfo &geom = batchdata[i].geom;
if (file->read(sizeof(attribs), &attribs) != sizeof(attribs)
|| file->read(sizeof(geom), &geom) != sizeof(geom))
{
getManager()->getLog()->error("%s: Could not read batch.",
getName().c_str());
return false;
}
// Joint matrices
if (geom.jointcount == 0)
continue;
int jointsize = sizeof(float) * geom.jointcount * 16;
batchdata[i].jointmatrices = std::vector<float>(geom.jointcount * 16);
if (file->read(jointsize, &batchdata[i].jointmatrices[0]) != jointsize)
{
getManager()->getLog()->error("%s: Could not joint matrices.",
getName().c_str());
return false;
}
}
// Construct batch info
std::vector<Batch> batches(header.batchcount);
for (unsigned int i = 0; i < header.batchcount; i++)
{
batches[i].layout = createVertexLayout(batchdata[i].attribs);
if (!batches[i].layout)
{
getManager()->getLog()->error("%s: Could not create vertex layout.",
getName().c_str());
return false;
}
GeometryFile::AttribInfo &attribs = batchdata[i].attribs;
GeometryFile::GeometryInfo &geom = batchdata[i].geom;
batches[i].basevertex = geom.basevertex;
batches[i].indextype = geom.indextype;
batches[i].indexcount = geom.indexcount;
batches[i].startindex = geom.indexoffset / geom.indextype;
batches[i].vertexoffset = geom.vertexoffset;
batches[i].vertexcount = geom.vertexsize / attribs.stride;
// Create joints
batches[i].joints = std::vector<Joint>(batchdata[i].geom.jointcount);
for (unsigned int j = 0; j < batchdata[i].geom.jointcount; j++)
{
math::Matrix4 &jointmat = batches[i].joints[j].jointmat;
memcpy(&jointmat.m[0],
&batchdata[i].jointmatrices[j * 16],
sizeof(float) * 16);
}
}
this->batches = batches;
return true;
}
ProtocolEvent ProtocolUDPGeneric::sendDataObjectNowNoControl(
const DataObjectRef& dObj)
{
NodeRef currentPeer;
{ Mutex::AutoLocker l(mutex); currentPeer = peerNode; } // MOS
NodeRef actualPeer = getManager()->getKernel()->getNodeStore()->retrieve(currentPeer, true);
if (!actualPeer) {
HAGGLE_ERR("%s Peer not in node store\n", getName());
return PROT_EVENT_ERROR;
}
// check if already in peers bloomfilter
if (actualPeer->hasThisOrParentDataObject(dObj)) { // MOS
HAGGLE_DBG("%s Peer already had data object.\n", getName());
return PROT_EVENT_SUCCESS;
}
// done
// SW: we move the hook here to minimize race condition where we send
// too many redundant node descriptions
// TODO: we may want to synchronize on the dObj or have some serial
// queue so this is not probabilistic
sendDataObjectNowSuccessHook(dObj);
HAGGLE_DBG("%s Sending data object [%s] to peer \'%s\'\n",
getName(), dObj->getIdStr(), peerDescription().c_str());
DataObjectDataRetrieverRef retriever = dObj->getDataObjectDataRetriever();
if (!retriever || !retriever->isValid()) {
HAGGLE_ERR("%s unable to start reading data\n", getName());
return PROT_EVENT_ERROR;
}
ProtocolEvent pEvent = PROT_EVENT_SUCCESS;
ssize_t len = retriever->retrieve(buffer, bufferSize, false);
if (0 == len) {
HAGGLE_ERR("%s DataObject is empty\n", getName());
return PROT_EVENT_ERROR;
}
if (len < 0) {
HAGGLE_ERR("%s Could not retrieve data from data object\n", getName());
return PROT_EVENT_ERROR;
}
if ((size_t) len == bufferSize) {
HAGGLE_ERR("%s Buffer is too small for message\n", getName());
return PROT_EVENT_ERROR;
}
Timeval t_start;
t_start.setNow();
setSessionNo(dObj->getId()); // MOS
setSeqNo(0); // MOS
size_t bytesSent = 0;
// MOS - simple way to increase udp redundancy
for(int i = 0; i <= getConfiguration()->getRedundancy(); i++) {
pEvent = sendData(buffer, (size_t) len, 0, &bytesSent);
if (bytesSent != (size_t) len) {
pEvent = PROT_EVENT_ERROR;
}
if (pEvent != PROT_EVENT_SUCCESS) {
HAGGLE_ERR("%s Broadcast - Error\n", getName());
return pEvent;
}
}
#ifdef DEBUG
Timeval tx_time = Timeval::now() - t_start;
HAGGLE_DBG("%s Sent %lu bytes data in %.3lf seconds, average speed = %.2lf kB/s\n",
getName(), len, tx_time.getTimeAsSecondsDouble(),
(double)len / (1000*tx_time.getTimeAsSecondsDouble()));
#endif
dataObjectsOutgoing += 1; // MOS
dataObjectsSent += 1; // MOS
if(!dObj->isControlMessage()) dataObjectsOutgoingNonControl += 1; // MOS
dataObjectBytesOutgoing += bytesSent; // MOS
dataObjectBytesSent += len; // MOS
if(dObj->isNodeDescription()) { nodeDescSent += 1; nodeDescBytesSent += len; } // MOS
return PROT_EVENT_SUCCESS;
}
ememory::SharedPtr<ewol::resource::TextureFile> ewol::resource::TextureFile::create(const std::string& _filename, ivec2 _size, ivec2 _sizeRegister) {
EWOL_VERBOSE("KEEP: TextureFile: '" << _filename << "' size=" << _size << " sizeRegister=" << _sizeRegister);
if (_filename == "") {
ememory::SharedPtr<ewol::resource::TextureFile> object(new ewol::resource::TextureFile());
if (object == nullptr) {
EWOL_ERROR("allocation error of a resource : ??TEX??");
return nullptr;
}
object->init();
getManager().localAdd(object);
return object;
}
if (_size.x() == 0) {
_size.setX(-1);
//EWOL_ERROR("Error Request the image size.x() =0 ???");
}
if (_size.y() == 0) {
_size.setY(-1);
//EWOL_ERROR("Error Request the image size.y() =0 ???");
}
std::string tmpFilename = _filename;
if (etk::end_with(_filename, ".svg") == false) {
_size = ewol::resource::TextureFile::sizeAuto;
}
if (_size.x()>0 && _size.y()>0) {
EWOL_VERBOSE(" == > specific size : " << _size);
#if defined(__TARGET_OS__Android) \
|| defined(__TARGET_OS__MacOs) \
|| defined(__TARGET_OS__IOs)
_size.setValue(nextP2(_size.x()), nextP2(_size.y()));
#endif
if (_sizeRegister != ewol::resource::TextureFile::sizeAuto) {
if (_sizeRegister != ewol::resource::TextureFile::sizeDefault) {
tmpFilename += ":";
tmpFilename += etk::to_string(_size.x());
tmpFilename += "x";
tmpFilename += etk::to_string(_size.y());
}
}
}
EWOL_VERBOSE("KEEP: TextureFile: '" << tmpFilename << "' new size=" << _size);
ememory::SharedPtr<ewol::resource::TextureFile> object = nullptr;
ememory::SharedPtr<gale::Resource> object2 = getManager().localKeep(tmpFilename);
if (object2 != nullptr) {
object = ememory::dynamicPointerCast<ewol::resource::TextureFile>(object2);
if (object == nullptr) {
EWOL_CRITICAL("Request resource file : '" << tmpFilename << "' With the wrong type (dynamic cast error)");
return nullptr;
}
}
if (object != nullptr) {
return object;
}
EWOL_INFO("CREATE: TextureFile: '" << tmpFilename << "' size=" << _size);
// need to crate a new one ...
object = ememory::SharedPtr<ewol::resource::TextureFile>(new ewol::resource::TextureFile());
if (object == nullptr) {
EWOL_ERROR("allocation error of a resource : " << _filename);
return nullptr;
}
object->init(tmpFilename, _filename, _size);
getManager().localAdd(object);
return object;
}
void
CacheStrategyUtility::_onConfig(
const Metadata& m)
{
const char *param;
const Metadata *dm;
if (m.getName() != getName()) {
HAGGLE_ERR("Wrong config.\n");
return;
}
// load knapsack optimizer
param = m.getParameter("knapsack_optimizer");
if (!param) {
HAGGLE_DBG("No knapsack optimizer specified, using default.\n");
ksOptimizer = CacheKnapsackOptimizerFactory::getNewKnapsackOptimizer(getManager()->getKernel());
}
else {
ksOptimizer = CacheKnapsackOptimizerFactory::getNewKnapsackOptimizer(getManager()->getKernel(), param);
}
if (!ksOptimizer) {
HAGGLE_ERR("Could not initialize knapsack optimizer.\n");
return;
}
dm = m.getMetadata(param);
if (dm) {
ksOptimizer->onConfig(*dm);
}
// load global optimizer
param = m.getParameter("global_optimizer");
if (!param) {
HAGGLE_DBG("No specified, using default.\n");
globalOptimizer = CacheGlobalOptimizerFactory::getNewGlobalOptimizer(getManager()->getKernel());
}
else {
globalOptimizer = CacheGlobalOptimizerFactory::getNewGlobalOptimizer(getManager()->getKernel(), param);
}
if (!globalOptimizer) {
HAGGLE_ERR("Could not initialize global optimizer.\n");
return;
}
dm = m.getMetadata(param);
if (dm) {
globalOptimizer->onConfig(*dm);
}
// load utility function
param = m.getParameter("utility_function");
if (!param) {
HAGGLE_DBG("No utility function specified, using default.\n");
utilFunction = CacheUtilityFunctionFactory::getNewUtilityFunction(getManager(), globalOptimizer);
}
else {
utilFunction = CacheUtilityFunctionFactory::getNewUtilityFunction(getManager(), globalOptimizer, param);
}
if (!utilFunction) {
HAGGLE_ERR("Could not initialize utility function.\n");
return;
}
dm = m.getMetadata(param);
if (dm) {
utilFunction->onConfig(*dm);
}
param = m.getParameter("max_capacity_kb");
if (!param) {
HAGGLE_ERR("No maximum capacity specified\n");
return;
}
max_capacity_kb = atoi(param);
if (max_capacity_kb < 0) {
HAGGLE_ERR("Invalid max capacity.\n");
return;
}
param = m.getParameter("watermark_capacity_kb");
if (!param) {
HAGGLE_ERR("No watermark capacity specified\n");
return;
}
watermark_capacity_kb = atoi(param);
if ((watermark_capacity_kb < 0) || (watermark_capacity_kb > max_capacity_kb)) {
HAGGLE_ERR("Invalid watermark capacity.\n");
return;
}
param = m.getParameter("compute_period_ms");
if (param) {
computePeriodMs = atoi(param);
}
if (computePeriodMs < 0) {
HAGGLE_ERR("Invalid compute period.\n");
return;
}
param = m.getParameter("purge_poll_period_ms");
if (param) {
pollPeriodMs = atoi(param);
}
if (pollPeriodMs < 0) {
HAGGLE_ERR("Invalid poll period.\n");
return;
}
param = m.getParameter("purge_on_insert");
if (param) {
purgeOnInsert = (0 == strcmp("true", param));
}
param = m.getParameter("manage_only_remote_files");
if (param) {
manage_only_remote_files = (0 == strcmp("true", param));
}
param = m.getParameter("manage_locally_sent_files");
if (param) {
manage_locally_sent_files = (0 == strcmp("true", param));
}
param = m.getParameter("publish_stats_dataobject");
if (param) {
publish_stats_dataobject = (0 == strcmp("true", param));
}
param = m.getParameter("keep_in_bloomfilter");
if (param) {
keep_in_bloomfilter = (0 == strcmp("true", param));
}
param = m.getParameter("handle_zero_size");
if (param) {
handle_zero_size = (0 == strcmp("true", param));
}
//JM: START DB
param = m.getParameter("manage_db_purging");
if (param) {
allow_db_purging = (0 == strcmp("true", param));
}
param = m.getParameter("db_size_threshold");
if (param) {
db_size_threshold = atoll(param);
}
param = m.getParameter("self_benchmark_test");
if (param) {
self_test = (0 == strcmp("true", param));
}
//JM: END
param = m.getParameter("bloomfilter_remove_delay_ms");
if (param) {
bloomfilter_remove_delay_ms = atoi(param);
}
// SW: START: remove from local bloomfilter.
if (bloomfilter_remove_delay_ms >= 0) {
bloomfilterRemoveDelayEventType = registerEventType("BFRemoveDelay", onBloomfilterRemoveDelay);
if (bloomfilterRemoveDelayEventType <= 0) {
HAGGLE_ERR("Could not register bloomfilter remove delay event.\n");
}
}
//SW: END: remove from local bloomfilter.
if (publish_stats_dataobject) {
CacheReplacementTotalOrder *replacement =
new CacheReplacementTotalOrder(
getManager(),
"Timestamp",
"PublisherID",
"CacheStrategyUtility",
"stats");
// only keep the most up to date stats in the data base
stats_replacement_strat =
new CacheStrategyReplacementPurger(
getManager(),
replacement,
NULL,
false);
if (!stats_replacement_strat) {
HAGGLE_ERR("Could not allocate replacement strat\n");
}
else {
stats_replacement_strat->start();
}
}
periodicPurgeEventType = registerEventType("periodic purge event", onPeriodicEvent);
periodicPurgeEvent = new Event(periodicPurgeEventType);
// we re-use the event
periodicPurgeEvent->setAutoDelete(false);
firePeriodic();
if (!purgeOnInsert && (pollPeriodMs <= 0)) {
HAGGLE_DBG("WARNING: All purging is disabled, was this intended?\n");
}
// add debug printing
HAGGLE_DBG("Successfully initialized utiltiy cache strategy, knapsack optimizer: %s, global optimizer: %s, utiltiy function: %s, max capacity kb: %lld, watermark capacity kb: %lld, compute period ms: %d, purge poll period ms: %d, purge on insert; %s, manage only remote files: %s, publish stats dataobject: %s, db_purge: %s (%lld), self test:%s \n", getKnapsackOptimizer()->getName().c_str(), getGlobalOptimizer()->getName().c_str(), getUtilityFunction()->getName().c_str(), max_capacity_kb, watermark_capacity_kb, computePeriodMs, pollPeriodMs, purgeOnInsert ? "yes" : "no", manage_only_remote_files ? "yes" : "no", publish_stats_dataobject ? "yes (CacheStrategyUtility=stats)" : "no", allow_db_purging ? "yes" : "no", db_size_threshold, self_test ? "yes" : "no");
}
bool Entry::onProcessMessage(Message* msg)
{
switch (msg->type()) {
case kTimerMessage:
if (hasFocus() && static_cast<TimerMessage*>(msg)->timer() == &m_timer) {
// Blinking caret
m_state = m_state ? false: true;
invalidate();
}
break;
case kFocusEnterMessage:
m_timer.start();
m_state = true;
invalidate();
if (m_lock_selection) {
m_lock_selection = false;
}
else {
selectAllText();
m_recent_focused = true;
}
break;
case kFocusLeaveMessage:
invalidate();
m_timer.stop();
if (!m_lock_selection)
deselectText();
m_recent_focused = false;
break;
case kKeyDownMessage:
if (hasFocus() && !isReadOnly()) {
// Command to execute
EntryCmd cmd = EntryCmd::NoOp;
KeyMessage* keymsg = static_cast<KeyMessage*>(msg);
KeyScancode scancode = keymsg->scancode();
switch (scancode) {
case kKeyLeft:
if (msg->ctrlPressed() || msg->altPressed())
cmd = EntryCmd::BackwardWord;
else if (msg->cmdPressed())
cmd = EntryCmd::BeginningOfLine;
else
cmd = EntryCmd::BackwardChar;
break;
case kKeyRight:
if (msg->ctrlPressed() || msg->altPressed())
cmd = EntryCmd::ForwardWord;
else if (msg->cmdPressed())
cmd = EntryCmd::EndOfLine;
else
cmd = EntryCmd::ForwardChar;
break;
case kKeyHome:
cmd = EntryCmd::BeginningOfLine;
break;
case kKeyEnd:
cmd = EntryCmd::EndOfLine;
break;
case kKeyDel:
if (msg->shiftPressed())
cmd = EntryCmd::Cut;
else
cmd = EntryCmd::DeleteForward;
break;
case kKeyInsert:
if (msg->shiftPressed())
cmd = EntryCmd::Paste;
else if (msg->ctrlPressed())
cmd = EntryCmd::Copy;
break;
case kKeyBackspace:
cmd = EntryCmd::DeleteBackward;
break;
default:
// Map common Windows shortcuts for Cut/Copy/Paste
#if defined __APPLE__
if (msg->onlyCmdPressed())
#else
if (msg->onlyCtrlPressed())
#endif
{
switch (scancode) {
case kKeyX: cmd = EntryCmd::Cut; break;
case kKeyC: cmd = EntryCmd::Copy; break;
case kKeyV: cmd = EntryCmd::Paste; break;
case kKeyA: cmd = EntryCmd::SelectAll; break;
}
}
else if (getManager()->isFocusMovementKey(msg)) {
break;
}
else if (keymsg->unicodeChar() >= 32) {
// Ctrl and Alt must be unpressed to insert a character
// in the text-field.
if ((msg->keyModifiers() & (kKeyCtrlModifier | kKeyAltModifier)) == 0) {
cmd = EntryCmd::InsertChar;
}
}
break;
}
if (cmd == EntryCmd::NoOp)
break;
executeCmd(cmd, keymsg->unicodeChar(),
(msg->shiftPressed()) ? true: false);
return true;
}
break;
case kMouseDownMessage:
captureMouse();
case kMouseMoveMessage:
if (hasCapture()) {
gfx::Point mousePos = static_cast<MouseMessage*>(msg)->position();
base::utf8_const_iterator utf8_begin = base::utf8_const_iterator(getText().begin());
base::utf8_const_iterator utf8_end = base::utf8_const_iterator(getText().end());
int textlen = base::utf8_length(getText());
int c, x;
bool move = true;
bool is_dirty = false;
// Backward scroll
if (mousePos.x < getBounds().x) {
if (m_scroll > 0) {
m_caret = --m_scroll;
move = false;
is_dirty = true;
invalidate();
}
}
// Forward scroll
else if (mousePos.x >= getBounds().x2()) {
if (m_scroll < textlen - getAvailableTextLength()) {
m_scroll++;
x = getBounds().x + this->border_width.l;
for (c=m_scroll; utf8_begin != utf8_end; ++c) {
int ch = (c < textlen ? *(utf8_begin+c) : ' ');
x += getFont()->charWidth(ch);
if (x > getBounds().x2()-this->border_width.r) {
c--;
break;
}
}
m_caret = c;
move = false;
is_dirty = true;
invalidate();
}
}
c = getCaretFromMouse(static_cast<MouseMessage*>(msg));
if (static_cast<MouseMessage*>(msg)->left() ||
(move && !isPosInSelection(c))) {
// Move caret
if (move) {
if (m_caret != c) {
m_caret = c;
is_dirty = true;
invalidate();
}
}
// Move selection
if (m_recent_focused) {
m_recent_focused = false;
m_select = m_caret;
}
else if (msg->type() == kMouseDownMessage)
m_select = m_caret;
}
// Show the caret
if (is_dirty) {
m_timer.start();
m_state = true;
}
return true;
}
break;
case kMouseUpMessage:
if (hasCapture()) {
releaseMouse();
MouseMessage* mouseMsg = static_cast<MouseMessage*>(msg);
if (mouseMsg->right()) {
// This flag is disabled in kFocusEnterMessage message handler.
m_lock_selection = true;
showEditPopupMenu(mouseMsg->position());
requestFocus();
}
}
return true;
case kDoubleClickMessage:
forwardWord();
m_select = m_caret;
backwardWord();
invalidate();
return true;
case kMouseEnterMessage:
case kMouseLeaveMessage:
// TODO theme stuff
if (isEnabled())
invalidate();
break;
}
return Widget::onProcessMessage(msg);
}
/*
* Callback when a new data object is inserted. Updates the utility strategy
* state and notifies the utility functions.
*/
void
CacheStrategyUtility::_handleNewDataObject(
DataObjectRef &dObj)
{
if (!isResponsibleForDataObject(dObj)) {
//HAGGLE_DBG("Ignoring data object, in-eligible for caching\n");
return;
}
if (stats_replacement_strat && stats_replacement_strat->isResponsibleForDataObject(dObj)) {
stats_replacement_strat->handleNewDataObject(dObj);
return;
}
string id = string(dObj->getIdStr());
if (utilMetadata.find(id) != utilMetadata.end()) {
// the DO is already in the cache!
HAGGLE_DBG("Received data object already in the cache: %s\n", id.c_str());
current_dupe_do_recv++;
return;
}
getUtilityFunction()->notifyInsertion(dObj);
int cost = dObj->getOrigDataLen();
// NOTE: we handle zero sized data objects by "faking"
// a size of 1.
if (cost == 0) {
cost = 1;
}
string strResults="";
if (Trace::trace.getTraceType() == TRACE_TYPE_DEBUG2) {
strResults.append(id);
strResults.append("[I]=");
}
double utiltiy = getUtilityFunction()->compute(id, strResults);
HAGGLE_DBG2("%s --> %f\n", strResults.c_str(), utiltiy);
Timeval now = Timeval::now();
bool purgeNow = false;
if (utiltiy < getGlobalOptimizer()->getMinimumThreshold()) {
HAGGLE_DBG("Minimum threshold for incoming data object %s is insufficient: %f < %f\n", id.c_str(), utiltiy, getGlobalOptimizer()->getMinimumThreshold());
current_drop_on_insert++;
purgeNow = true;
}
if (!purgeOnInsert && ((current_size + cost) > max_capacity_kb*1024)) {
HAGGLE_DBG("Cache is full and purge on insert is disabled, evicting new data object!\n");
purgeNow = true;
total_do_hard_evicted++;
total_do_hard_evicted_bytes += cost;
}
if (purgeNow) {
// we need to properly remove from bloomfilter even when capacity is violated
getUtilityFunction()->notifyDelete(dObj);
// CBMEN, HL - Begin
// Remove any pending send events for this data object
HAGGLE_STAT("purging send events for dObj %s\n", dObj->getIdStr());
getManager()->getKernel()->cancelEvents(EVENT_TYPE_DATAOBJECT_SEND, dObj);
// CBMEN, HL, End
// delayed delete (although never inserted)
if (!keep_in_bloomfilter) {
int delay = (bloomfilter_remove_delay_ms <= 0) ? 1000 : bloomfilter_remove_delay_ms;
DataObjectId_t *heapId = (DataObjectId_t *)malloc(sizeof(DataObjectId_t));
DataObject::idStrToId(id, *heapId);
getManager()->getKernel()->addEvent(new Event(bloomfilterRemoveDelayEventType, heapId, delay/(double)1000));
}
return;
}
DataObjectUtilityMetadata *do_metadata = new DataObjectUtilityMetadata(
dObj,
id,
cost,
utiltiy,
now,
dObj->getCreateTime());
if (purgeOnInsert) {
do_metadata->setEnableDeletion(false);
}
if (false == utilMetadata.insert(make_pair(id, do_metadata)).second) {
HAGGLE_ERR("Somehow data object already in cache\n");
delete do_metadata;
return;
}
current_size += cost;
current_num_do++;
total_do_inserted++;
total_do_inserted_bytes += cost;
if (!purgeOnInsert) {
getManager()->insertDataObjectIntoDataStore(dObj);
return;
}
bool was_deleted = false;
_purgeCache(id, &was_deleted);
if (was_deleted) {
HAGGLE_DBG("Purged incoming data object %s on insert.\n", id.c_str());
current_drop_on_insert++;
return;
}
// DO still in cache, mark to allow deletion in future
do_metadata->setEnableDeletion(true);
getManager()->insertDataObjectIntoDataStore(dObj);
}
bool TUICore<T>::isTopUI()
{
return getManager()->isTopUI( this );
}
/**
* The main function to purge the cache and recompute utilities.
* If HAGGLE_DEBUG2 is set, this will add a new debug printout per utility computation,
* which wills how the results of each individual utility value per data object.
* Useful for verifying new utilities are acting correctly, not recommended for production
* run. To use this feature, pass any non empty string to getUtilityFunction()->compute(id, string).
* The compute() routines will append current values and status for the data object identified by 'id'
* only if the string being passed is non empty. If the string is empty, the routines ignore it.
*
*/
void
CacheStrategyUtility::_purgeCache(string doid, bool *o_was_deleted)
{
List<DataObjectUtilityMetadata *> process_dos;
List<DataObjectUtilityMetadata *> delete_dos;
long long total_size = 0;
// iterate across data objects and compute utilities for
// DOS that have not been computed recently
for (do_util_metadata_t::iterator it = utilMetadata.begin(); it != utilMetadata.end(); it++) {
DataObjectUtilityMetadata *do_info = (*it).second;
Timeval now = Timeval::now();
if (!do_info) {
HAGGLE_ERR("NULL DO in cache\n");
continue;
}
total_size += do_info->getCost();
// was the utility recently computed?
double delta = now.getTimeAsMilliSecondsDouble() - do_info->getComputedTime().getTimeAsMilliSecondsDouble();
if (delta > computePeriodMs) {
string strResults="";
if (Trace::trace.getTraceType() == TRACE_TYPE_DEBUG2) {
strResults.append(do_info->getId());
strResults.append("[T]=");
}
double new_utility = getUtilityFunction()->compute(do_info->getId(), strResults);
do_info->setUtility(new_utility, now);
HAGGLE_DBG2("%s --> %f\n", strResults.c_str(), new_utility);
}
// does the utility meet the threshold?
if (do_info->getUtility() < getGlobalOptimizer()->getMinimumThreshold()) {
delete_dos.push_front(do_info);
}
else {
process_dos.push_front(do_info);
}
}
if (total_size != current_size) {
HAGGLE_ERR("Fatal error: count mismatch of cache sizes! (%lld != %lld)\n", total_size, current_size);
return;
}
if (total_size > (watermark_capacity_kb*1024)) {
CacheKnapsackOptimizerResults results = getKnapsackOptimizer()->solve(&process_dos, &delete_dos, watermark_capacity_kb*1024 );
if (results.getHadError()) {
HAGGLE_ERR("Knapsack optimizer failed\n");
}
}
else {
//HAGGLE_DBG("High water mark short-circuit, bypassing knapsack...\n");
}
int num_deleted = 0;
long long bytes_freed = 0;
while (!delete_dos.empty()) {
DataObjectUtilityMetadata *to_delete = delete_dos.front();
delete_dos.pop_front();
if (!to_delete) {
HAGGLE_ERR("NULL utility\n");
continue;
}
DataObjectId_t id;
DataObject::idStrToId(to_delete->getId(), id);
bool deletionEnabled = to_delete->getEnableDeletion();
if (to_delete->getId() == doid && o_was_deleted) {
*o_was_deleted = true;
}
bytes_freed += to_delete->getCost();
num_deleted++;
// some DOs should not be deleted immedaitely
// (they may not even be inserted yet)
if (deletionEnabled) {
getManager()->getKernel()->getDataStore()->deleteDataObject(id, true);
}
DataObjectRef stale_dobj = to_delete->getDataObject();
// SW: this will delete "to_delete"
_handleDeletedDataObject(stale_dobj);
}
// sanity check
if (current_size > (watermark_capacity_kb*1024)) {
HAGGLE_ERR("Optimizer failed (did not remove enough bytes)\n");
return;
}
//JM: start mem purging
if (allow_db_purging && (current_num_do > db_size_threshold)) {
CacheKnapsackOptimizerResults results = getKnapsackOptimizer()->solve(&process_dos, &delete_dos, db_size_threshold+1, true );
if (results.getHadError()) {
HAGGLE_ERR("Knapsack optimizer failed\n");
}
}
unsigned int db_num_deleted = 0;
while (!delete_dos.empty()) {
DataObjectUtilityMetadata *to_delete = delete_dos.front();
delete_dos.pop_front();
if (!to_delete) {
HAGGLE_ERR("NULL utility\n");
continue;
}
DataObjectId_t id;
DataObject::idStrToId(to_delete->getId(), id);
bool deletionEnabled = to_delete->getEnableDeletion();
if (to_delete->getId() == doid && o_was_deleted) {
*o_was_deleted = true;
}
db_num_deleted++;
// some DOs should not be deleted immedaitely
// (they may not even be inserted yet)
if (deletionEnabled) {
getManager()->getKernel()->getDataStore()->deleteDataObject(id, true);
}
DataObjectRef stale_dobj = to_delete->getDataObject();
// SW: this will delete "to_delete"
_handleDeletedDataObject(stale_dobj, true);
}
// JM: End
if (publish_stats_dataobject) {
_publishStatsDataObject();
}
// SW: NOTE: these numbers will be updated when the delete callbacks occur
HAGGLE_DBG("Removed %d data objects, freed: %lld bytes: total capacity: %.2f\%, watermark capacity: %.2f\% , Purged %d DB entries\n", num_deleted, bytes_freed, 100*current_size/((double)max_capacity_kb * 1024), 100*current_size/((double)watermark_capacity_kb * 1024), db_num_deleted);
}
//---------------------------------------------------------------------
PageContent* SimplePageContentCollection::createContent(const String& typeName)
{
PageContent* c = getManager()->createContent(typeName);
mContentList.push_back(c);
return c;
}
void ItemController::collectItem(unsigned itemType)
{
((LuckyLeprechauns&)getManager()).getPlayer().getLeprechaun().collectItem(itemType);
setEnabled(false);
}
