ImageImPro_OpenCvImpl::ImageImPro_OpenCvImpl(ImSize size, ImageImProDepth depth, int channels){
createImage(size, depth, channels);
}
int main( int argc, const char* argv[] )
{
setDevice();
float maxFloat = std::numeric_limits<float>::max();
// Prepad border bigger than we need for simplicity and profiling (256px border is silly big; we can have an SE length of 512).
rect2d border = { 256,0 };
cudaPaddedImage paddedImage = loadPaddedImageToDevice("../images/test.pgm", border, 255.0f);
rect2d imageSize = getNoBorderSize(paddedImage);
cudaImage output = createImage(imageSize.width, imageSize.height);
/*cudaImage test = loadImageToDevice("../images/test.pgm");
cudaImage test1 = cloneImage(test);
cudaPaddedImage test2 = createPaddedFromImage(test, border, 255.0f);
float *host = new float[test2.image.width*test2.image.height];
copyImageToHost(test2.image, host);
savePGM("fillTest.pgm", host, test2.image.width, test2.image.height);
cudaFree(getData(test));
cudaFree(getData(test1));
cudaFree(getData(test2));
*/
/*
Diagonal erosion 3x3
*/
/*
unsigned char diag[] = {1,0,0,0,1,0,0,0,1};
morphMask diag3x3mask = createTBTMask(diag);
testErosion(paddedImage, output, imageSize, diag3x3mask, "diag3x3.pgm", "Diagonal VHGW Test");
*/
/*
VHGW erosion: Horizontal, vertical, diagonal
*/
morphMask hozMask = createVHGWMask(43, HORIZONTAL);
testErosion(paddedImage, output, imageSize, hozMask, "horizontalVHGW.pgm", "VHGW Horizontal kernel"); // replaced with TVT below
cudaFree(getData(paddedImage));
/*morphMask slashMask = createVHGWMask(43, DIAGONAL_SLASH);
morphMask bsMask = createVHGWMask(51, DIAGONAL_BACKSLASH);
morphMask vertMask = createVHGWMask(51, VERTICAL);
testErosion(paddedImage, output, imageSize, slashMask, "slashVHGW.pgm", "VHGW Diagonal kernel");
//testErosion(paddedImage, output, imageSize, bsMask, "bsVHGW.pgm", "VHGW Backslash kernel");
cudaPaddedImage paddedOut = createPaddedImage(border, imageSize.width, imageSize.height, 255.0f);
performErosion(getData(paddedImage), getPitch(paddedImage), getBorderOffsetImagePtr(paddedOut), getPitch(paddedOut), imageSize, slashMask, border);
float *host_out = copyImageToHost(paddedOut.image);
printf("output width: %d , height: %d\n", paddedOut.image.width, paddedOut.image.height);
savePGM("testEdges.pgm", host_out, paddedOut.image.width, paddedOut.image.height);
freeHost(host_out, PINNED);
*/
// Horizontal Erosion Test Mark 2: Transpose + Vertical+ Transpose
/*cudaImage flippedImage = createTransposedImage(paddedImage.image);
cudaFree(getData(paddedImage));
rect2d flippedSize = {imageSize.height, imageSize.width};
cudaImage flippedOut;
flippedOut.width = flippedSize.width;
flippedOut.height = flippedSize.height;
deviceAllocImage(flippedOut);
rect2d flippedBorder = {border.height, border.width};
performErosion(getData(flippedImage), getPitch(flippedImage), getData(flippedOut), getPitch(flippedOut), flippedSize, vertMask, flippedBorder);
exitOnError("VHGW Horizontal Transpose Test");
cudaFree(getData(flippedImage));
flippedImage = createTransposedImage(flippedOut);
float *host_out = copyImageToHost(flippedImage);
savePGM("horizontalTransposeVHGW.pgm", host_out, flippedImage.width, flippedImage.height);
freeHost(host_out, PINNED);
cudaFree(getData(flippedImage));
cudaFree(getData(flippedOut));
cudaFree(hozMask.data);*/
/*cudaFree(vertMask.data);
cudaFree(slashMask.data);
cudaFree(bsMask.data);*/
cudaFree(output.data);
printf("After:");
//showMemUsage();
printf("-------------------\nAll tests Done.");
return resetDevice();
}
void TuiManager::parseControl(Node* container,xml_node<char> *item)
{
int tag = atof(item->first_attribute("tag")->value());
int x = atof(item->first_attribute("x")->value());
int y = atof(item->first_attribute("y")->value());
int w = atoi(item->first_attribute("width")->value());
int h = atoi(item->first_attribute("height")->value());
int rotation = atof(item->first_attribute("rotation")->value());
if(strcmp(item->first_attribute("type")->value(), kTuiContainerPanel) == 0){//panel
CWidgetWindow* pPanel = createPanel(tag,x,y,w,h,rotation);
container->addChild(pPanel);
//recursive
for( xml_node<char> *iitem = item->first_node( kTuiNodeControl );iitem != NULL; iitem = iitem->next_sibling()){
parseControl(pPanel,iitem);
}
}else if (strcmp(item->first_attribute("type")->value(), kTuiControlCell) == 0){//cell
//recursive
for (xml_node<char> *iitem = item->first_node(kTuiNodeControl); iitem != NULL; iitem = iitem->next_sibling()){
parseControl(container, iitem);
}
}else if(strcmp(item->first_attribute("type")->value(),kTuiControlImage) == 0){//image
const char* file = item->first_attribute("image")->value();
float scaleX = atof(item->first_attribute("scaleX")->value());
float scaleY = atof(item->first_attribute("scaleY")->value());
CImageView *pImg = createImage(tag, file, scaleX, scaleY, x, y, rotation);
container->addChild(pImg);
}else if(strcmp(item->first_attribute("type")->value(),kTuiControlImage9) == 0){//image9
const char* file = item->first_attribute("image")->value();
float w = atof(item->first_attribute("width")->value());
float h = atof(item->first_attribute("height")->value());
float up = atof(item->first_attribute("up")->value());
float down = atof(item->first_attribute("down")->value());
float left = atof(item->first_attribute("left")->value());
float right = atof(item->first_attribute("right")->value());
CImageViewScale9 *pImg = createImage9(tag,file,x,y,w,h,up,down,left,right,rotation);
container->addChild(pImg);
}else if(strcmp(item->first_attribute("type")->value(),kTuiControlButton) == 0){//button
const char* normal = item->first_attribute("normal")->value();
const char* select = item->first_attribute("select")->value();
const char* disable = item->first_attribute("disable")->value();
float w = atof(item->first_attribute("width")->value());
float h = atof(item->first_attribute("height")->value());
CButton *pBtn = createBtn(tag,normal,select,disable,x,y,w,h,rotation);
container->addChild(pBtn);
}else if(strcmp(item->first_attribute("type")->value(),kTuiControlToggleView) == 0){//toggleView
const char* normal = item->first_attribute("normal")->value();
const char* select = item->first_attribute("select")->value();
const char* disable = item->first_attribute("disable")->value();
float exclusion = atof(item->first_attribute("exclusion")->value());
CToggleView* toggle = createToggleView(tag,exclusion,normal,select,disable,x,y,rotation);
container->addChild(toggle);
}else if(strcmp(item->first_attribute("type")->value(),kTuiControlSlider) == 0){//slider
const char* bg = item->first_attribute("bg")->value();
const char* progress = item->first_attribute("progress")->value();
const char* thumb = item->first_attribute("thumb")->value();
CSlider *pSlider = createSlider(tag,bg,progress,thumb,x,y,rotation);
container->addChild(pSlider);
}else if(strcmp(item->first_attribute("type")->value(),kTuiControlProgress) == 0){//progress
const char* bg = item->first_attribute("bg")->value();
const char* progress = item->first_attribute("progress")->value();
CProgressBar *pProgress = createProgress(tag,bg,progress,x,y,rotation);
container->addChild(pProgress);
}else if(strcmp(item->first_attribute("type")->value(),kTuiControlLabel) == 0){//label
float size = atof(item->first_attribute("textSize")->value());
int alignment = atoi(item->first_attribute("alignment")->value());
const char* text = item->first_attribute("text")->value();
const char* font = item->first_attribute("textFont")->value();
float w = atof(item->first_attribute("width")->value());
float h = atof(item->first_attribute("height")->value());
int r = atoi(item->first_attribute("red")->value());
int g = atoi(item->first_attribute("green")->value());
int b = atoi(item->first_attribute("blue")->value());
int r2 = atoi(item->first_attribute("strokeRed")->value());
int g2 = atoi(item->first_attribute("strokeGreen")->value());
int b2 = atoi(item->first_attribute("strokeBlue")->value());
int strokeSize = atoi(item->first_attribute("strokeSize")->value());
int shadowDistance = atoi(item->first_attribute("shadowDistance")->value());
int shadowBlur = atoi(item->first_attribute("shadowBlur")->value());
CLabel *pLabel = createLabel(tag, text, font, alignment, size, r, g, b, x, y, w, h,
r2,g2,b2,strokeSize,shadowDistance,shadowBlur,rotation);
container->addChild(pLabel);
}else if(strcmp(item->first_attribute("type")->value(),kTuiControlLabelAtlas) == 0){//labelAtlas
const char* imgPath = item->first_attribute("image")->value();
float w = atof(item->first_attribute("width")->value());
float h = atof(item->first_attribute("height")->value());
CLabelAtlas *pLabAtlas = createLabelAtlas(tag,imgPath,x,y,w,h,rotation);
container->addChild(pLabAtlas);
}else if(strcmp(item->first_attribute("type")->value(),kTuiControlArmature) == 0){//armature
const char* xml = item->first_attribute("xml")->value();
const char* png = item->first_attribute("png")->value();
const char* plist = item->first_attribute("plist")->value();
const char* name = item->first_attribute("name")->value();
Armature *pArmature = createArmature(tag,name,png,plist,xml,x,y,rotation);
container->addChild(pArmature);
}else if(strcmp(item->first_attribute("type")->value(),kTuiControlAnim) == 0){//animation
const char* png = item->first_attribute("png")->value();
const char* plist = item->first_attribute("plist")->value();
const char* name = item->first_attribute("name")->value();
Sprite *pSprite = createAnim(tag,name,png,plist,x,y,rotation);
container->addChild(pSprite);
}else if(strcmp(item->first_attribute("type")->value(),kTuiControlControl) == 0){//controlView
const char* baseboard = item->first_attribute("baseboard")->value();
const char* joystick = item->first_attribute("joystick")->value();
CControlView *pControl = createControl(tag,baseboard,joystick,x,y,rotation);
container->addChild(pControl);
}else if (strcmp(item->first_attribute("type")->value(), kTuiContainerScroll) == 0){//scrollView
float w = atof(item->first_attribute("width")->value());
float h = atof(item->first_attribute("height")->value());
int direction = atof(item->first_attribute("direction")->value());
int innerWidth = atoi(item->first_attribute("innerWidth")->value());
int innerHeight = atoi(item->first_attribute("innerHeight")->value());
CScrollView *pView = createScrollView(tag, direction, innerWidth, innerHeight, x, y, w, h, rotation);
container->addChild(pView);
//recursive
for (xml_node<char> *iitem = item->first_node(kTuiNodeControl); iitem != NULL; iitem = iitem->next_sibling()){
parseControl(pView->getContainer(), iitem);
}
}else if (strcmp(item->first_attribute("type")->value(), kTuiContainerLayout) == 0){//layout
float w = atof(item->first_attribute("width")->value());
float h = atof(item->first_attribute("height")->value());
CLayout *pLayout = createLayout(tag, x, y, w, h, rotation);
container->addChild(pLayout);
//recursive
for (xml_node<char> *iitem = item->first_node(kTuiNodeControl); iitem != NULL; iitem = iitem->next_sibling()){
parseControl(pLayout, iitem);
}
Vector<Node*> vet = pLayout->getChildren();
for (Node *pChild : vet){//Offset coordinates Because CLayout zero point in the lower left corner
pChild->setPosition(pChild->getPosition() + Point(w / 2, h / 2));
}
}else if(strcmp(item->first_attribute("type")->value(),kTuiControlListView) == 0){//listView
float w = atof(item->first_attribute("width")->value());
float h = atof(item->first_attribute("height")->value());
const char* img = item->first_attribute("image")->value();
float num = atof(item->first_attribute("num")->value());
CListView* pList = createListView(tag,img,x,y,w,h,rotation);
container->addChild(pList);
for(int i=0; i<num;i++){//add item
xml_node<char> *iitem = item->first_node( kTuiNodeControl );
w = atof(iitem->first_attribute("width")->value());
h = atof(iitem->first_attribute("height")->value());
CLayout *pLayout = createLayout(i,0,0,w,h,rotation);
for( xml_node<char> *iiitem = iitem->first_node( kTuiNodeControl );iiitem!=NULL; iiitem = iiitem->next_sibling()){
parseControl(pLayout,iiitem);
}
Vector<Node*> vet = pLayout->getChildren();
for(Node *pChild : vet){//Offset coordinates Because CLayout zero point in the lower left corner
if(pChild->getTag() > 0)
pChild->setPosition(pChild->getPosition()+Point(w/2,h/2));
}
pList->insertNodeAtLast(pLayout);
}
pList->reloadData();
}else if(strcmp(item->first_attribute("type")->value(),kTuiControlPageView) == 0){//pageView
float w = atof(item->first_attribute("width")->value());
float h = atof(item->first_attribute("height")->value());
float num = atoi(item->first_attribute("num")->value());
int dir = atoi(item->first_attribute("direction")->value());
const char* img = item->first_attribute("image")->value();
CPageView *pPageView = createPageView(tag, img, dir, num, x, y, w, h, rotation);
container->addChild(pPageView);
}else if(strcmp(item->first_attribute("type")->value(),kTuiControlCheckBox) == 0){//checkBox
const char* normal1 = item->first_attribute("normal1")->value();
const char* normal2 = item->first_attribute("normal2")->value();
const char* select1 = item->first_attribute("select1")->value();
const char* select2 = item->first_attribute("select2")->value();
const char* disable1 = item->first_attribute("disable1")->value();
const char* disable2 = item->first_attribute("disable2")->value();
CCheckBox *pCheckBox = createCheckBox(tag,normal1,normal2,select1,select2,disable1,disable2,x,y,rotation);
container->addChild(pCheckBox);
}else if(strcmp(item->first_attribute("type")->value(),kTuiControlArmatureBtn) == 0){//ArmatureBtn
const char* png = item->first_attribute("png")->value();
const char* plist = item->first_attribute("plist")->value();
const char* name = item->first_attribute("name")->value();
const char* xml = item->first_attribute("xml")->value();
ArmatureBtn *pArmBtn = createArmatureBtn(tag,name,png,plist,xml,x,y,rotation);
container->addChild(pArmBtn);
}else if(strcmp(item->first_attribute("type")->value(),kTuiControlNumbericStepper) == 0){//NumbericStepper
const char* lnormal = item->first_attribute("lnormal")->value();
const char* rnormal = item->first_attribute("rnormal")->value();
const char* lselect = item->first_attribute("lselect")->value();
const char* rselect = item->first_attribute("rselect")->value();
const char* ldisable = item->first_attribute("ldisable")->value();
const char* rdisable = item->first_attribute("rdisable")->value();
const char* stepBg = item->first_attribute("stepBg")->value();
NumericStepper *pNumStep = createNumStep(tag,lnormal,lselect,ldisable,rnormal,rselect,rdisable,stepBg,x,y,rotation);
container->addChild(pNumStep);
}else if(strcmp(item->first_attribute("type")->value(),kTuiControlPaticle) == 0){//Paticle
const char* plist = item->first_attribute("plist")->value();
ParticleSystem *pPartical = createParticle(tag,plist,x,y);
container->addChild(pPartical);
}else if (strcmp(item->first_attribute("type")->value(), kTuiControlTable) == 0){//TableView
float w = atof(item->first_attribute("width")->value());
float h = atof(item->first_attribute("height")->value());
float num = atoi(item->first_attribute("num")->value());
int dir = atoi(item->first_attribute("direction")->value());
int cellWidth = atoi(item->first_attribute("cellWidth")->value());
int cellHeight = atoi(item->first_attribute("cellHeight")->value());
const char* img = item->first_attribute("image")->value();
CTableView *pView = createTableView(tag, img, dir, num, cellWidth, cellHeight, x, y, w, h, rotation);
container->addChild(pView);
}else if (strcmp(item->first_attribute("type")->value(), kTuiControlGridView) == 0){//GridView
float w = atof(item->first_attribute("width")->value());
float h = atof(item->first_attribute("height")->value());
int cellWidth = atoi(item->first_attribute("cellWidth")->value());
int cellHeight = atoi(item->first_attribute("cellHeight")->value());
int column = atoi(item->first_attribute("column")->value());
int num = atoi(item->first_attribute("num")->value());
const char* img = item->first_attribute("image")->value();
CGridView *pView = createGridView(tag, img, column, num, cellWidth, cellHeight, x, y, w, h, rotation);
container->addChild(pView);
}else if (strcmp(item->first_attribute("type")->value(), kTuiControlGridPageView) == 0){//GridPageView
float w = atof(item->first_attribute("width")->value());
float h = atof(item->first_attribute("height")->value());
int cellWidth = atoi(item->first_attribute("cellWidth")->value());
int cellHeight = atoi(item->first_attribute("cellHeight")->value());
int column = atoi(item->first_attribute("column")->value());
int row = atoi(item->first_attribute("row")->value());
int num = atoi(item->first_attribute("num")->value());
int dir = atoi(item->first_attribute("direction")->value());
const char* img = item->first_attribute("image")->value();
CGridPageView *pView = createGridPageView(tag, img, dir, column, row, num, cellWidth, cellHeight, x, y, w, h, rotation);
container->addChild(pView);
}else if(strcmp(item->first_attribute("type")->value(),kTuiControlEditBox) == 0){//EditBox
float w = atof(item->first_attribute("width")->value());
float h = atof(item->first_attribute("height")->value());
const char* img = item->first_attribute("image")->value();
int inputMode = atoi(item->first_attribute("inputMode")->value());
int inputFlag = atoi(item->first_attribute("inputFlag")->value());
EditBox *pEdit = createEditBox(tag, img, inputMode, inputFlag, x, y, w, h, rotation);
container->addChild(pEdit);
}else if (strcmp(item->first_attribute("type")->value(), kTuiControlMovieView) == 0){//MovieView
const char* png = item->first_attribute("png")->value();
const char* plist = item->first_attribute("plist")->value();
const char* json = item->first_attribute("json")->value();
MovieView *pMovieView = createMovieView(tag, json, plist, png, x, y, rotation);
container->addChild(pMovieView);
}else if (strcmp(item->first_attribute("type")->value(), kTuiContainerCircleMenu) == 0){//CircleMenu
float w = atof(item->first_attribute("width")->value());
float h = atof(item->first_attribute("height")->value());
CircleMenu *pMenu = createCircleMenu(tag, x, y, w, h, rotation);
container->addChild(pMenu);
//recursive
for (xml_node<char> *iitem = item->first_node(kTuiNodeControl); iitem != NULL; iitem = iitem->next_sibling()){
parseControl(pMenu, iitem);
}
pMenu->reloadData();
}
}
status_t SurfaceTexture::updateTexImage() {
ST_LOGV("updateTexImage");
Mutex::Autolock lock(mMutex);
if (mAbandoned) {
ST_LOGE("calling updateTexImage() on an abandoned SurfaceTexture");
return NO_INIT;
}
// In asynchronous mode the list is guaranteed to be one buffer
// deep, while in synchronous mode we use the oldest buffer.
if (!mQueue.empty()) {
Fifo::iterator front(mQueue.begin());
int buf = *front;
// Update the GL texture object.
EGLImageKHR image = mSlots[buf].mEglImage;
EGLDisplay dpy = eglGetCurrentDisplay();
#ifdef QCOM_HARDWARE
if (isGPUSupportedFormat(mSlots[buf].mGraphicBuffer->format)) {
// Update the GL texture object.
EGLImageKHR image = mSlots[buf].mEglImage;
#else
if (image == EGL_NO_IMAGE_KHR) {
if (mSlots[buf].mGraphicBuffer == 0) {
ST_LOGE("buffer at slot %d is null", buf);
return BAD_VALUE;
}
image = createImage(dpy, mSlots[buf].mGraphicBuffer);
mSlots[buf].mEglImage = image;
mSlots[buf].mEglDisplay = dpy;
#endif
if (image == EGL_NO_IMAGE_KHR) {
#ifdef QCOM_HARDWARE
EGLDisplay dpy = eglGetCurrentDisplay();
if (mSlots[buf].mGraphicBuffer == 0) {
ST_LOGE("buffer at slot %d is null", buf);
return BAD_VALUE;
}
image = createImage(dpy, mSlots[buf].mGraphicBuffer);
mSlots[buf].mEglImage = image;
mSlots[buf].mEglDisplay = dpy;
if (image == EGL_NO_IMAGE_KHR) {
#endif
// NOTE: if dpy was invalid, createImage() is guaranteed to
// fail. so we'd end up here.
return -EINVAL;
}
}
GLint error;
while ((error = glGetError()) != GL_NO_ERROR) {
ST_LOGW("updateTexImage: clearing GL error: %#04x", error);
}
glBindTexture(mTexTarget, mTexName);
glEGLImageTargetTexture2DOES(mTexTarget, (GLeglImageOES)image);
bool failed = false;
while ((error = glGetError()) != GL_NO_ERROR) {
ST_LOGE("error binding external texture image %p (slot %d): %#04x",
image, buf, error);
failed = true;
}
if (failed) {
return -EINVAL;
}
#ifdef QCOM_HARDWARE
}
#endif
if (mCurrentTexture != INVALID_BUFFER_SLOT) {
if (mUseFenceSync) {
EGLSyncKHR fence = eglCreateSyncKHR(dpy, EGL_SYNC_FENCE_KHR,
NULL);
if (fence == EGL_NO_SYNC_KHR) {
LOGE("updateTexImage: error creating fence: %#x",
eglGetError());
return -EINVAL;
}
glFlush();
mSlots[mCurrentTexture].mFence = fence;
}
}
ST_LOGV("updateTexImage: (slot=%d buf=%p) -> (slot=%d buf=%p)",
mCurrentTexture,
mCurrentTextureBuf != NULL ? mCurrentTextureBuf->handle : 0,
buf, mSlots[buf].mGraphicBuffer->handle);
if (mCurrentTexture != INVALID_BUFFER_SLOT) {
// The current buffer becomes FREE if it was still in the queued
// state. If it has already been given to the client
// (synchronous mode), then it stays in DEQUEUED state.
if (mSlots[mCurrentTexture].mBufferState == BufferSlot::QUEUED) {
mSlots[mCurrentTexture].mBufferState = BufferSlot::FREE;
}
}
// Update the SurfaceTexture state.
mCurrentTexture = buf;
mCurrentTextureBuf = mSlots[buf].mGraphicBuffer;
mCurrentCrop = mSlots[buf].mCrop;
mCurrentTransform = mSlots[buf].mTransform;
mCurrentScalingMode = mSlots[buf].mScalingMode;
mCurrentTimestamp = mSlots[buf].mTimestamp;
computeCurrentTransformMatrix();
// Now that we've passed the point at which failures can happen,
// it's safe to remove the buffer from the front of the queue.
mQueue.erase(front);
mDequeueCondition.signal();
} else {
// We always bind the texture even if we don't update its contents.
glBindTexture(mTexTarget, mTexName);
}
return OK;
}
bool SurfaceTexture::isExternalFormat(uint32_t format)
{
switch (format) {
// supported YUV formats
case HAL_PIXEL_FORMAT_YV12:
// Legacy/deprecated YUV formats
case HAL_PIXEL_FORMAT_YCbCr_422_SP:
case HAL_PIXEL_FORMAT_YCrCb_420_SP:
case HAL_PIXEL_FORMAT_YCbCr_422_I:
return true;
}
// Any OEM format needs to be considered
if (format>=0x100 && format<=0x1FF)
return true;
return false;
}
GLenum SurfaceTexture::getCurrentTextureTarget() const {
return mTexTarget;
}
void SurfaceTexture::getTransformMatrix(float mtx[16]) {
Mutex::Autolock lock(mMutex);
memcpy(mtx, mCurrentTransformMatrix, sizeof(mCurrentTransformMatrix));
}
status_t SurfaceTexture::updateTexImage(BufferRejecter* rejecter) {
ATRACE_CALL();
ST_LOGV("updateTexImage");
Mutex::Autolock lock(mMutex);
status_t err = NO_ERROR;
if (mAbandoned) {
ST_LOGE("updateTexImage: SurfaceTexture is abandoned!");
return NO_INIT;
}
if (!mAttached) {
ST_LOGE("updateTexImage: SurfaceTexture is not attached to an OpenGL "
"ES context");
return INVALID_OPERATION;
}
EGLDisplay dpy = eglGetCurrentDisplay();
EGLContext ctx = eglGetCurrentContext();
if ((mEglDisplay != dpy && mEglDisplay != EGL_NO_DISPLAY) ||
dpy == EGL_NO_DISPLAY) {
ST_LOGE("updateTexImage: invalid current EGLDisplay");
return INVALID_OPERATION;
}
if ((mEglContext != ctx && mEglContext != EGL_NO_CONTEXT) ||
ctx == EGL_NO_CONTEXT) {
ST_LOGE("updateTexImage: invalid current EGLContext");
return INVALID_OPERATION;
}
mEglDisplay = dpy;
mEglContext = ctx;
BufferQueue::BufferItem item;
// In asynchronous mode the list is guaranteed to be one buffer
// deep, while in synchronous mode we use the oldest buffer.
err = mBufferQueue->acquireBuffer(&item);
if (err == NO_ERROR) {
int buf = item.mBuf;
// This buffer was newly allocated, so we need to clean up on our side
if (item.mGraphicBuffer != NULL) {
mEGLSlots[buf].mGraphicBuffer = 0;
if (mEGLSlots[buf].mEglImage != EGL_NO_IMAGE_KHR) {
eglDestroyImageKHR(dpy, mEGLSlots[buf].mEglImage);
mEGLSlots[buf].mEglImage = EGL_NO_IMAGE_KHR;
}
mEGLSlots[buf].mGraphicBuffer = item.mGraphicBuffer;
}
// we call the rejecter here, in case the caller has a reason to
// not accept this buffer. this is used by SurfaceFlinger to
// reject buffers which have the wrong size
if (rejecter && rejecter->reject(mEGLSlots[buf].mGraphicBuffer, item)) {
mBufferQueue->releaseBuffer(buf, dpy, mEGLSlots[buf].mFence);
mEGLSlots[buf].mFence = EGL_NO_SYNC_KHR;
glBindTexture(mTexTarget, mTexName);
return NO_ERROR;
}
// Update the GL texture object. We may have to do this even when
// item.mGraphicBuffer == NULL, if we destroyed the EGLImage when
// detaching from a context but the buffer has not been re-allocated.
EGLImageKHR image = mEGLSlots[buf].mEglImage;
if (image == EGL_NO_IMAGE_KHR) {
if (mEGLSlots[buf].mGraphicBuffer == NULL) {
ST_LOGE("updateTexImage: buffer at slot %d is null", buf);
err = BAD_VALUE;
} else {
image = createImage(dpy, mEGLSlots[buf].mGraphicBuffer);
mEGLSlots[buf].mEglImage = image;
if (image == EGL_NO_IMAGE_KHR) {
// NOTE: if dpy was invalid, createImage() is guaranteed to
// fail. so we'd end up here.
err = UNKNOWN_ERROR;
}
}
}
if (err == NO_ERROR) {
GLint error;
while ((error = glGetError()) != GL_NO_ERROR) {
ST_LOGW("updateTexImage: clearing GL error: %#04x", error);
}
glBindTexture(mTexTarget, mTexName);
glEGLImageTargetTexture2DOES(mTexTarget, (GLeglImageOES)image);
while ((error = glGetError()) != GL_NO_ERROR) {
ST_LOGE("updateTexImage: error binding external texture image %p "
"(slot %d): %#04x", image, buf, error);
err = UNKNOWN_ERROR;
}
if (err == NO_ERROR) {
err = syncForReleaseLocked(dpy);
}
}
if (err != NO_ERROR) {
// Release the buffer we just acquired. It's not safe to
// release the old buffer, so instead we just drop the new frame.
mBufferQueue->releaseBuffer(buf, dpy, mEGLSlots[buf].mFence);
mEGLSlots[buf].mFence = EGL_NO_SYNC_KHR;
return err;
}
ST_LOGV("updateTexImage: (slot=%d buf=%p) -> (slot=%d buf=%p)",
mCurrentTexture,
mCurrentTextureBuf != NULL ? mCurrentTextureBuf->handle : 0,
buf, item.mGraphicBuffer != NULL ? item.mGraphicBuffer->handle : 0);
// release old buffer
if (mCurrentTexture != BufferQueue::INVALID_BUFFER_SLOT) {
status_t status = mBufferQueue->releaseBuffer(mCurrentTexture, dpy,
mEGLSlots[mCurrentTexture].mFence);
mEGLSlots[mCurrentTexture].mFence = EGL_NO_SYNC_KHR;
if (status == BufferQueue::STALE_BUFFER_SLOT) {
freeBufferLocked(mCurrentTexture);
} else if (status != NO_ERROR) {
ST_LOGE("updateTexImage: released invalid buffer");
err = status;
}
}
// Update the SurfaceTexture state.
mCurrentTexture = buf;
mCurrentTextureBuf = mEGLSlots[buf].mGraphicBuffer;
mCurrentCrop = item.mCrop;
mCurrentTransform = item.mTransform;
mCurrentScalingMode = item.mScalingMode;
mCurrentTimestamp = item.mTimestamp;
computeCurrentTransformMatrix();
} else {
if (err < 0) {
ALOGE("updateTexImage failed on acquire %d", err);
}
// We always bind the texture even if we don't update its contents.
glBindTexture(mTexTarget, mTexName);
return OK;
}
return err;
}
static Image*
readGif ( GifFileType *gf )
{
Image* firstImg = 0;
Image* img = 0;
int i, extCode, width, height, row, cmapSize;
int trans = -1, nFrames = 0, delay = 0;
GifRecordType rec;
GifByteType *ext;
ColorMapObject *cmap;
GifColorType *clrs;
GifPixelType *rowBuf = (GifPixelType*) AWT_MALLOC( gf->SWidth * sizeof( GifPixelType) );
do {
CHECK( DGifGetRecordType( gf, &rec));
switch ( rec ) {
case IMAGE_DESC_RECORD_TYPE:
CHECK( DGifGetImageDesc( gf));
width = gf->Image.Width;
height = gf->Image.Height;
cmap = (gf->Image.ColorMap) ? gf->Image.ColorMap : gf->SColorMap;
clrs = cmap->Colors;
cmapSize = cmap->ColorCount;
/*
* create our image objects and keep track of frames
*/
if ( !firstImg ) { /* this is the first (maybe only) frame */
firstImg = img = createImage( width, height);
}
else { /* this is a subsequent gif-movie frame, link it in */
img->next = createImage( width, height);
img = img->next;
}
/*
* The trans index might have been cached by a preceeding extension record. Now
* that we have the Image object, it's time to store it in img and to create the
* mask
*/
if ( trans != -1 ) {
img->trans = trans;
createXMaskImage( X, img);
trans = -1;
}
/*
* Some browsers seem to assume minimal values, and some animations
* seem to rely on this. But there's no safe guess, so we
* skip it completely
*/
/*
if ( delay == 0 )
delay = 1000;
else if ( delay < 100 )
delay = 100;
*/
img->latency = delay;
img->left = gf->Image.Left;
img->top = gf->Image.Top;
img->frame = nFrames;
nFrames++;
createXImage( X, img);
/*
* start reading in the image data
*/
if ( gf->Image.Interlace ) {
/* Need to perform 4 passes on the images: */
for ( i = 0; i < 4; i++ ) {
for (row = iOffset[i]; row < height; row += iJumps[i]) {
memset( rowBuf, gf->SBackGroundColor, width);
CHECK( DGifGetLine( gf, rowBuf, width));
writeRow( img, rowBuf, clrs, row);
}
}
}
else {
for ( row = 0; row < height; row++) {
memset( rowBuf, gf->SBackGroundColor, width);
CHECK( DGifGetLine(gf, rowBuf, width));
writeRow( img, rowBuf, clrs, row);
}
}
break;
case EXTENSION_RECORD_TYPE:
CHECK( DGifGetExtension( gf, &extCode, &ext));
if ( extCode == 0xf9 ) { /* graphics extension */
/*
* extension record with transparency spec are preceeding description records
* (which create new Images), so just cache the transp index, here
*/
if ( ext[1] & 1 ) { /* transparent index following */
trans = ext[4];
}
delay = ((ext[3] << 8) | ext[2]) * 10; /* delay in 1/100 secs */
}
else if ( extCode == 0xff ) { /* application extension block */
}
while ( ext != NULL ) {
CHECK( DGifGetExtensionNext( gf, &ext));
}
break;
case TERMINATE_RECORD_TYPE:
break;
default: /* Should be traps by DGifGetRecordType. */
break;
}
} while ( rec != TERMINATE_RECORD_TYPE );
if ( firstImg && (img != firstImg) ){
img->next = firstImg; /* link it together (as a ring) */
}
return firstImg;
}
/* MapEntryPanel::onBtnSaveImage
* Called when the 'Save Map Image' button is clicked
*******************************************************************/
void MapEntryPanel::onBtnSaveImage(wxCommandEvent& e)
{
createImage();
}
QVBoxLayout* ColormapEditWidget::createButtonPanel()
{
QVBoxLayout* vLayout = new QVBoxLayout();
QHBoxLayout* hLayout = new QHBoxLayout();
m_cLabel = new QLabel( this );
m_sliders.clear();
QImage* image;
image = createImage( this->width() - 20 );
QPixmap pix( this->width() - 20, 20 );
pix.convertFromImage( *image );
m_cLabel->setPixmap( pix );
hLayout->addStretch();
hLayout->addWidget( m_cLabel );
hLayout->addStretch();
vLayout->addLayout( hLayout );
vLayout->addSpacing( 5 );
int i = 0;
{
QHBoxLayout* hLayout2 = new QHBoxLayout();
PushButtonWithId* insertButton = new PushButtonWithId( "+", i );
insertButton->setStyleSheet( "QPushButton { font: bold 12px; max-width: 14px; max-height: 14px; } ");
connect( insertButton, SIGNAL( signalClicked( int ) ), this, SLOT( newEntry( int ) ) );
insertButton->setDisabled( true );
PushButtonWithId* deleteButton = new PushButtonWithId( "-", i );
deleteButton->setStyleSheet( "QPushButton { font: bold 12px; max-width: 14px; max-height: 14px; } ");
connect( deleteButton, SIGNAL( signalClicked( int ) ), this, SLOT( removeEntry( int ) ) );
deleteButton->setDisabled( true );
PushButtonWithId* upButton = new PushButtonWithId( "^", i );
upButton->setStyleSheet( "QPushButton { font: bold 12px; max-width: 14px; max-height: 14px; } ");
upButton->setDisabled( true );
//connect( upButton, SIGNAL( signalClicked( int ) ), this, SLOT( moveUp( int ) ) );
PushButtonWithId* downButton = new PushButtonWithId( "v", i );
downButton->setStyleSheet( "QPushButton { font: bold 12px; max-width: 14px; max-height: 14px; } ");
connect( downButton, SIGNAL( signalClicked( int ) ), this, SLOT( moveDown( int ) ) );
SliderWithEdit* slider = new SliderWithEdit( tr(""), Fn::Position::EAST, i );
m_sliders.push_back( slider );
slider->setMin( 0.0f );
slider->setMax( m_colormap.get( i + 1 ).value );
slider->setValue( m_colormap.get( i ).value );
connect( slider, SIGNAL( valueChanged( float, int ) ), this, SLOT( sliderChanged( float, int ) ) );
ColorWidgetWithLabel* colorWidget = new ColorWidgetWithLabel( QString::number( i ), i );
colorWidget->setValue( m_colormap.get( i ).color );
connect( colorWidget, SIGNAL( colorChanged( QColor, int ) ), this, SLOT( colorChanged( QColor, int ) ) );
hLayout2->addWidget( insertButton );
hLayout2->addWidget( deleteButton );
hLayout2->addWidget( upButton );
hLayout2->addWidget( downButton );
hLayout2->addWidget( slider );
hLayout2->addWidget( colorWidget );
vLayout->addLayout( hLayout2 );
}
for ( int i = 1; i < m_colormap.size() - 1; ++i )
{
QHBoxLayout* hLayout4 = new QHBoxLayout();
PushButtonWithId* insertButton = new PushButtonWithId( "+", i );
hLayout4->addWidget( insertButton );
insertButton->setStyleSheet( "QPushButton { font: bold 12px; max-width: 14px; max-height: 14px; } ");
connect( insertButton, SIGNAL( signalClicked( int ) ), this, SLOT( newEntry( int ) ) );
PushButtonWithId* deleteButton = new PushButtonWithId( "-", i );
hLayout4->addWidget( deleteButton );
deleteButton->setStyleSheet( "QPushButton { font: bold 12px; max-width: 14px; max-height: 14px; } ");
connect( deleteButton, SIGNAL( signalClicked( int ) ), this, SLOT( removeEntry( int ) ) );
PushButtonWithId* upButton = new PushButtonWithId( "^", i );
hLayout4->addWidget( upButton );
upButton->setStyleSheet( "QPushButton { font: bold 12px; max-width: 14px; max-height: 14px; } ");
connect( upButton, SIGNAL( signalClicked( int ) ), this, SLOT( moveUp( int ) ) );
PushButtonWithId* downButton = new PushButtonWithId( "v", i );
hLayout4->addWidget( downButton );
downButton->setStyleSheet( "QPushButton { font: bold 12px; max-width: 14px; max-height: 14px; } ");
connect( downButton, SIGNAL( signalClicked( int ) ), this, SLOT( moveDown( int ) ) );
SliderWithEdit* slider = new SliderWithEdit( tr(""), Fn::Position::EAST, i );
m_sliders.push_back( slider );
slider->setMin( m_colormap.get( i - 1 ).value );
slider->setMax( m_colormap.get( i + 1 ).value );
slider->setValue( m_colormap.get( i ).value );
connect( slider, SIGNAL( valueChanged( float, int ) ), this, SLOT( sliderChanged( float, int ) ) );
hLayout4->addWidget( slider );
ColorWidgetWithLabel* colorWidget = new ColorWidgetWithLabel( QString::number( i ), i );
colorWidget->setValue( m_colormap.get( i ).color );
connect( colorWidget, SIGNAL( colorChanged( QColor, int ) ), this, SLOT( colorChanged( QColor, int ) ) );
hLayout4->addWidget( colorWidget );
vLayout->addLayout( hLayout4 );
}
{
i = m_colormap.size() - 1;
QHBoxLayout* hLayout2 = new QHBoxLayout();
PushButtonWithId* insertButton = new PushButtonWithId( "+", i );
insertButton->setStyleSheet( "QPushButton { font: bold 12px; max-width: 14px; max-height: 14px; } ");
connect( insertButton, SIGNAL( signalClicked( int ) ), this, SLOT( newEntry( int ) ) );
PushButtonWithId* deleteButton = new PushButtonWithId( "-", i );
deleteButton->setStyleSheet( "QPushButton { font: bold 12px; max-width: 14px; max-height: 14px; } ");
connect( deleteButton, SIGNAL( signalClicked( int ) ), this, SLOT( removeEntry( int ) ) );
deleteButton->setDisabled( true );
PushButtonWithId* upButton = new PushButtonWithId( "^", i );
upButton->setStyleSheet( "QPushButton { font: bold 12px; max-width: 14px; max-height: 14px; } ");
connect( upButton, SIGNAL( signalClicked( int ) ), this, SLOT( moveUp( int ) ) );
PushButtonWithId* downButton = new PushButtonWithId( "v", i );
downButton->setStyleSheet( "QPushButton { font: bold 12px; max-width: 14px; max-height: 14px; } ");
downButton->setDisabled( true );
//connect( downButton, SIGNAL( signalClicked( int ) ), this, SLOT( moveDown( int ) ) );
SliderWithEdit* slider = new SliderWithEdit( tr(""), Fn::Position::EAST, i );
m_sliders.push_back( slider );
slider->setMin( m_colormap.get( i - 1 ).value );
slider->setMax( 1.0f );
slider->setValue( m_colormap.get( i ).value );
connect( slider, SIGNAL( valueChanged( float, int ) ), this, SLOT( sliderChanged( float, int ) ) );
ColorWidgetWithLabel* colorWidget = new ColorWidgetWithLabel( QString::number( i ), i );
colorWidget->setValue( m_colormap.get( i ).color );
connect( colorWidget, SIGNAL( colorChanged( QColor, int ) ), this, SLOT( colorChanged( QColor, int ) ) );
hLayout2->addWidget( insertButton );
hLayout2->addWidget( deleteButton );
hLayout2->addWidget( upButton );
hLayout2->addWidget( downButton );
hLayout2->addWidget( slider );
hLayout2->addWidget( colorWidget );
vLayout->addLayout( hLayout2 );
}
vLayout->addStretch();
return vLayout;
}
//% weight=74 help=images/create-big-image
//% blockId=device_build_big_image block="create big image" imageLiteral=2
//% parts="ledmatrix"
Image createBigImage(ImageLiteral leds) {
return createImage(leds);
}
void DemoState::valueUpdate(ComboBox& comboBox, const std::string& selectedValue) {
if (comboBox == "imageCombo") {
if (selectedValue == "Bat-smiley") {
createImage("demo/images/batsmiley.tga");
}
if (selectedValue == "Derby") {
createImage("demo/images/derby.tga");
}
if (selectedValue == "Rage") {
createImage("demo/images/rage.tga");
}
if (selectedValue == "Red John") {
createImage("demo/images/redjohn.tga");
}
if (selectedValue == "You tried") {
createImage("demo/images/youtried.tga");
}
}
if (comboBox == "cursorCombo") {
if (selectedValue == "Standard") {
p_gui->setCursor("");
}
if (selectedValue == "Arrow") {
p_gui->setCursor("images/cursor/arrow.tga");
}
if (selectedValue == "Diamond sword") {
p_gui->setCursor("images/cursor/minesword.tga");
}
if (selectedValue == "Dragon scimitar") {
p_gui->setCursor("images/cursor/runescim.tga");
}
if (selectedValue == "Sonic screwdriver") {
p_gui->setCursor("images/cursor/dwsonic.tga");
}
if (selectedValue == "Portal gun") {
p_gui->setAnimatedCursor("images/cursor/portalgun.tga", 2, 500, false);
}
}
if (comboBox == "setGeneralEffect") {
image->addEffect(GENERIC, getEffectForName(selectedValue));
}
if (comboBox == "setOnHoverEffect") {
image->addEffect(TRIG_HOVER, getEffectForName(selectedValue));
}
if (comboBox == "setOnHoverOffEffect") {
image->addEffect(TRIG_HOVER_OFF, getEffectForName(selectedValue));
}
if (comboBox == "gradiantCombo") {
if (selectedValue == "To bottom") {
plainWindow->setGradiant(TO_BOTTOM, 4.0f);
}
if (selectedValue == "To top") {
plainWindow->setGradiant(TO_TOP, 4.0f);
}
if (selectedValue == "To left") {
plainWindow->setGradiant(TO_LEFT, 4.0f);
}
if (selectedValue == "To right") {
plainWindow->setGradiant(TO_RIGHT, 4.0f);
}
if (selectedValue == "None") {
plainWindow->setGradiant(NO_GRADIANT);
}
}
}
Scene createScene(char* filename){
Scene scene = {};
scene.max_depth = 10;
scene.num_samples = 100;
scene.image = createImage(500, 500);
Vector position = {278, 273, -800};
Vector look_at = {278, 273, 0};
Vector up = {0, 1, 0};
scene.camera = createCamera(position, look_at, up, 39, (float)(scene.image.width/scene.image.height));
scene.num_materials = 4;
scene.materials = malloc(scene.num_materials * sizeof(Material));
scene.materials[0] = createMaterial(createColor(.95, .25, .25), .6, .4, false);
scene.materials[1] = createMaterial(createColor(.25, .95, .25), .6, .4, false);
scene.materials[2] = createMaterial(createColor(.95, .95, .85), .6, .4, false);
scene.materials[3] = createMaterial(createColor(.9, .9, .9), .6, .4, true);
scene.num_triangles = 32;
scene.triangles = malloc(scene.num_triangles * sizeof(Triangle));
// Right Wall
scene.triangles[0] = createTriangle(&scene.materials[1], createVector(0.0, 0.0, 559.2), createVector(0.0, 0.0, 0.0), createVector(0.0, 548.8, 0.0));
scene.triangles[1] = createTriangle(&scene.materials[1], createVector(0.0, 0.0, 559.2), createVector(0.0, 548.8, 0.0), createVector(0.0, 548.8, 559.2));
// Floor
scene.triangles[2] = createTriangle(&scene.materials[2], createVector(556.0, 0.0, 0.0), createVector(0.0, 0.0, 0.0), createVector(0.0, 0.0, 559.2));
scene.triangles[3] = createTriangle(&scene.materials[2], createVector(556.0, 0.0, 0.0), createVector(0.0, 0.0, 559.2), createVector(556.0, 0.0, 559.2));
// Left Wall
scene.triangles[4] = createTriangle(&scene.materials[0], createVector(556.0, 0.0, 0.0), createVector(556.0, 0.0, 559.2), createVector(556.0, 548.8, 559.2));
scene.triangles[5] = createTriangle(&scene.materials[0], createVector(556.0, 0.0, 0.0), createVector(556.0, 548.8, 559.2), createVector(556.0, 548.8, 0.0));
// Ceiling
scene.triangles[6] = createTriangle(&scene.materials[2], createVector(556.0, 548.8, 0.0), createVector(0.0, 548.8, 559.2), createVector(0.0, 548.8, 0.0));
scene.triangles[7] = createTriangle(&scene.materials[2], createVector(556.0, 548.8, 0.0), createVector(556.0, 548.8, 559.2), createVector(0.0, 548.8, 559.2));
// Backwall
scene.triangles[8] = createTriangle(&scene.materials[2], createVector(556.0, 0.0, 559.2), createVector(0.0, 0.0, 559.2), createVector(0.0, 548.8, 559.2));
scene.triangles[9] = createTriangle(&scene.materials[2], createVector(556.0, 0.0, 559.2), createVector(0.0, 548.8, 559.2), createVector(556.0, 548.8, 559.2));
// Short Block
scene.triangles[10] = createTriangle(&scene.materials[2], createVector(130.0, 165.0, 65.0), createVector(82.0, 165.0, 225.0), createVector(240.0, 165.0, 272.0));
scene.triangles[11] = createTriangle(&scene.materials[2], createVector(130.0, 165.0, 65.0), createVector(240.0, 165.0, 272.0), createVector(290.0, 165.0, 114.0));
scene.triangles[12] = createTriangle(&scene.materials[2], createVector(290.0, 0.0, 114.0), createVector(290.0, 165.0, 114.0), createVector(240.0, 165.0, 272.0));
scene.triangles[13] = createTriangle(&scene.materials[2], createVector(290.0, 0.0, 114.0), createVector(240.0, 165.0, 272.0), createVector(240.0, 0.0, 272.0));
scene.triangles[14] = createTriangle(&scene.materials[2], createVector(130.0, 0.0, 65.0), createVector(130.0, 165.0, 65.0), createVector(290.0, 165.0, 114.0));
scene.triangles[15] = createTriangle(&scene.materials[2], createVector(130.0, 0.0, 65.0), createVector(290.0, 165.0, 114.0), createVector(290.0, 0.0, 114.0));
scene.triangles[16] = createTriangle(&scene.materials[2], createVector(82.0, 0.0, 225.0), createVector(82.0, 165.0, 225.0), createVector(130.0, 165.0, 65.0));
scene.triangles[17] = createTriangle(&scene.materials[2], createVector(82.0, 0.0, 225.0), createVector(130.0, 165.0, 65.0), createVector(130.0, 0.0, 65.0));
scene.triangles[18] = createTriangle(&scene.materials[2], createVector(240.0, 0.0, 272.0), createVector(240.0, 165.0, 272.0), createVector(82.0, 165.0, 225.0));
scene.triangles[19] = createTriangle(&scene.materials[2], createVector(240.0, 0.0, 272.0), createVector(82.0, 165.0, 225.0), createVector(82.0, 0.0, 225.0));
// Tall Block
scene.triangles[20] = createTriangle(&scene.materials[2], createVector(423.0, 330.0, 247.0), createVector(265.0, 330.0, 296.0), createVector(314.0, 330.0, 456.0));
scene.triangles[21] = createTriangle(&scene.materials[2], createVector(423.0, 330.0, 247.0), createVector(314.0, 330.0, 456.0), createVector(472.0, 330.0, 406.0));
scene.triangles[22] = createTriangle(&scene.materials[2], createVector(423.0, 0.0, 247.0), createVector(423.0, 330.0, 247.0), createVector(472.0, 330.0, 406.0));
scene.triangles[23] = createTriangle(&scene.materials[2], createVector(423.0, 0.0, 247.0), createVector(472.0, 330.0, 406.0), createVector(472.0, 0.0, 406.0));
scene.triangles[24] = createTriangle(&scene.materials[2], createVector(472.0, 0.0, 406.0), createVector(472.0, 330.0, 406.0), createVector(314.0, 330.0, 456.0));
scene.triangles[25] = createTriangle(&scene.materials[2], createVector(472.0, 0.0, 406.0), createVector(314.0, 330.0, 456.0), createVector(314.0, 0.0, 456.0));
scene.triangles[26] = createTriangle(&scene.materials[2], createVector(314.0, 0.0, 456.0), createVector(314.0, 330.0, 456.0), createVector(265.0, 330.0, 296.0));
scene.triangles[27] = createTriangle(&scene.materials[2], createVector(314.0, 0.0, 456.0), createVector(265.0, 330.0, 296.0), createVector(265.0, 0.0, 296.0));
scene.triangles[28] = createTriangle(&scene.materials[2], createVector(265.0, 0.0, 296.0), createVector(265.0, 330.0, 296.0), createVector(423.0, 330.0, 247.0));
scene.triangles[29] = createTriangle(&scene.materials[2], createVector(265.0, 0.0, 296.0), createVector(423.0, 330.0, 247.0), createVector(423.0, 0.0, 247.0));
// Area Light
scene.triangles[30] = createTriangle(&scene.materials[3], createVector(343.0, 548.7, 227.0), createVector(343.0, 548.7, 332.0), createVector(213.0, 548.7, 332.0));
scene.triangles[31] = createTriangle(&scene.materials[3], createVector(343.0, 548.7, 227.0), createVector(213.0, 548.7, 332.0), createVector(213.0, 548.7, 227.0));
scene.num_lights = 2;
scene.lights = malloc(scene.num_lights * sizeof(Triangle));
scene.lights[0] = createTriangle(&scene.materials[3], createVector(343.0, 548.7, 227.0), createVector(343.0, 548.7, 332.0), createVector(213.0, 548.7, 332.0));
scene.lights[1] = createTriangle(&scene.materials[3], createVector(343.0, 548.7, 227.0), createVector(213.0, 548.7, 332.0), createVector(213.0, 548.7, 227.0));
return scene;
}
// 1.
// CreateAndRunWithSequenceGrabber
void QuicktimeLiveImageStream::createAndRunWithSequenceGrabber(std::string fileName)
{
std::string::size_type idx = fileName.find(':');
if (idx == std::string::npos)
{
OSG_FATAL << "Error while parsing deviceID:deviceInputID.live path : " << fileName << std::endl;
}
// Better c++ code is to use istrstream
std::string deviceIDStr = fileName.substr(0, idx);
std::string deviceInputIDStr = fileName.substr(idx + 1);
m_videoDeviceID = static_cast<short>(atoi(deviceIDStr.c_str()));
m_videoDeviceInputID = static_cast<short>(atoi(deviceInputIDStr.c_str()));
// Get Video Digitizer Rectangle bounds from a Sequence Grabber proxy (using IDs)
get_video_device_bounds_idstr(m_videoDeviceID, m_videoDeviceInputID, m_videoRectWidth, m_videoRectHeight, m_videoDeviceIDStr);
// Sound
m_soundDeviceID = 2; m_soundDeviceInputID = 0;
// get_sound_device_idstr(m_soundDeviceID, m_soundDeviceInputID, m_soundDeviceIDStr);
// Create the Image
createImage();
// Create the offscreen GWorld (using Image as target memory)
createGWorld();
// Create the Sequence Grabber (using GWorld as target memory)
createSequenceGrabber();
// Create the Sequence Grabber Video Channel
createSequenceGrabberVideoChannel();
if (g_s_use_sg_record)
{
// Create the Sequence Grabber DataProc setup for Record
createSequenceGrabberDataProc();
}
// Create the Sequence Grabber Audio Channel
createSequenceGrabberAudioChannel();
// Start the engine Jack!
// Callbacks
createSequenceGrabberVideoBottlenecks();
ComponentResult result = noErr;
result = SGPrepare(m_gSeqGrabber, TRUE, FALSE);
if (result != noErr)
{
OSG_FATAL << "SGPrepare : error" << std::endl;
}
if (g_s_use_sg_record)
{
result = SGStartRecord(m_gSeqGrabber);
if (result != noErr)
{
OSG_FATAL << "SGStartRecord : error" << std::endl;
}
}
else
{
result = SGStartPreview(m_gSeqGrabber);
if (result != noErr)
{
OSG_FATAL << "SGStartPreview : error" << std::endl;
}
}
_status = ImageStream::PLAYING;
// Ticker
start();
}
// conversion function should format by format, chip by chip
// currently input is MTK_I420, and output is IMG_YV12/ABGR
status_t SurfaceTexture::convertToAuxSlotLocked(bool isForce) {
// check invalid buffer
if (BufferQueue::INVALID_BUFFER_SLOT == mCurrentTexture) {
mAuxSlotConvert = false;
return INVALID_OPERATION;
}
ATRACE_CALL();
// 1) normal BufferQueue needs conversion now
// 2) SurfaceTextureLayer neesd conversion after HWC
bool isNeedConversionNow =
(BufferQueue::TYPE_BufferQueue == mBufferQueue->getType()) ||
((true == isForce) && (BufferQueue::TYPE_SurfaceTextureLayer == mBufferQueue->getType()));
//if ((true == isNeedConversionNow) && (BufferQueue::NO_CONNECTED_API != getConnectedApi())) {
if (true == isNeedConversionNow) {
XLOGI("do convertToAuxSlot...");
Slot &src = mSlots[mCurrentTexture];
AuxSlot &dst = *mBackAuxSlot;
// fence sync here for buffer not used by G3D
EGLSyncKHR fence = mFrontAuxSlot->eglSlot.mEglFence;
if (fence != EGL_NO_SYNC_KHR) {
EGLint result = eglClientWaitSyncKHR(mEglDisplay, fence, 0, 1000000000);
if (result == EGL_FALSE) {
XLOGW("[%s] FAILED waiting for front fence: %#x, tearing risk", __func__, eglGetError());
} else if (result == EGL_TIMEOUT_EXPIRED_KHR) {
XLOGW("[%s] TIMEOUT waiting for front fence, tearing risk", __func__);
}
eglDestroySyncKHR(mEglDisplay, fence);
mFrontAuxSlot->eglSlot.mEglFence = EGL_NO_SYNC_KHR;
}
#ifdef USE_MDP
uint32_t hal_out_fmt;
uint32_t mdp_in_fmt;
uint32_t mdp_out_fmt;
//if (NATIVE_WINDOW_API_CAMERA == getConnectedApi()) {
hal_out_fmt = HAL_PIXEL_FORMAT_RGBA_8888;
// camera path needs RGBA for MDP resource
mdp_out_fmt = MHAL_FORMAT_ABGR_8888;
//} else {
// hal_out_fmt = HAL_PIXEL_FORMAT_YV12;
// mdp_out_fmt = MHAL_FORMAT_IMG_YV12;
//}
// !!! only convert for I420 now !!!
mdp_in_fmt = MHAL_FORMAT_YUV_420;
// source graphic buffer
sp<GraphicBuffer> sg = src.mGraphicBuffer;
// destination graphic buffer
sp<GraphicBuffer> dg = dst.slot.mGraphicBuffer;
// free if current aux slot exist and not fit
if ((EGL_NO_IMAGE_KHR != dst.eglSlot.mEglImage && dg != NULL) &&
((sg->width != dg->width) || (sg->height != dg->height) || (hal_out_fmt != (uint32_t)dg->format))) {
XLOGI("[%s] free old aux slot ", __func__);
XLOGI(" src[w:%d, h:%d, f:0x%x] dst[w:%d, h:%d, f:0x%x] required format:0x%x",
sg->width, sg->height, sg->format,
dg->width, dg->height, dg->format,
hal_out_fmt);
freeAuxSlotLocked(dst);
}
// create aux buffer if current is NULL
if ((EGL_NO_IMAGE_KHR == dst.eglSlot.mEglImage) && (dst.slot.mGraphicBuffer == NULL)) {
XLOGI("[%s] create dst buffer and image", __func__);
XLOGI(" before create new aux buffer: %p", __func__, dg.get());
dg = dst.slot.mGraphicBuffer = new GraphicBuffer(sg->width,
sg->height,
hal_out_fmt,
sg->usage);
if (dg == NULL) {
XLOGE(" create aux GraphicBuffer FAILED", __func__);
freeAuxSlotLocked(dst);
return BAD_VALUE;
} else {
XLOGI(" create aux GraphicBuffer: %p", __func__, dg.get());
}
dst.eglSlot.mEglImage = createImage(mEglDisplay, dg);
if (EGL_NO_IMAGE_KHR == dst.eglSlot.mEglImage) {
XLOGE("[%s] create aux eglImage FAILED", __func__);
freeAuxSlotLocked(dst);
return BAD_VALUE;
}
XLOGI("[%s] create aux slot success", __func__);
XLOGI(" src[w:%d, h:%d, f:0x%x], dst[w:%d, h:%d, f:0x%x]",
sg->width, sg->height, sg->format,
dg->width, dg->height, dg->format);
dst.mMva = registerMva(dg);
}
status_t lockret;
uint8_t *src_yp, *dst_yp;
lockret = sg->lock(LOCK_FOR_MDP, (void**)&src_yp);
if (NO_ERROR != lockret) {
XLOGE("[%s] buffer lock fail: %s", __func__, strerror(lockret));
return INVALID_OPERATION;
}
lockret = dg->lock(LOCK_FOR_MDP, (void**)&dst_yp);
if (NO_ERROR != lockret) {
XLOGE("[%s] buffer lock fail: %s", __func__, strerror(lockret));
return INVALID_OPERATION;
}
{
mHalBltParam_t bltParam;
memset(&bltParam, 0, sizeof(bltParam));
bltParam.srcAddr = (MUINT32)src_yp;
bltParam.srcX = 0;
bltParam.srcY = 0;
bltParam.srcW = sg->width;
// !!! I420 content is forced 16 align !!!
bltParam.srcWStride = ALIGN(sg->width, 16);
bltParam.srcH = sg->height;
bltParam.srcHStride = sg->height;
bltParam.srcFormat = mdp_in_fmt;
bltParam.dstAddr = (MUINT32)dst_yp;
bltParam.dstW = dg->width;
// already 32 align
bltParam.pitch = dg->stride;
bltParam.dstH = dg->height;
bltParam.dstFormat = mdp_out_fmt;
#ifdef MTK_75DISPLAY_ENHANCEMENT_SUPPORT
bltParam.doImageProcess = (NATIVE_WINDOW_API_MEDIA == getConnectedApi()) ? 1 : 0;
#endif
// mdp bitblt and check
if (MHAL_NO_ERROR != ipcBitBlt(&bltParam)) {
if (1 == bltParam.doImageProcess) {
XLOGW("[%s] bitblt FAILED with PQ, disable and try again", __func__);
bltParam.doImageProcess = 0;
if (MHAL_NO_ERROR != ipcBitBlt(&bltParam)) {
XLOGE("[%s] bitblt FAILED, unlock buffer and return", __func__);
dst.slot.mGraphicBuffer->unlock();
src.mGraphicBuffer->unlock();
return INVALID_OPERATION;
}
} else {
XLOGE("[%s] bitblt FAILED, unlock buffer and return", __func__);
dst.slot.mGraphicBuffer->unlock();
src.mGraphicBuffer->unlock();
return INVALID_OPERATION;
}
} else {
// for drawing debug line
if (true == mLine) {
int _stride = bltParam.pitch;
uint8_t *_ptr = (uint8_t*)bltParam.dstAddr;
static uint32_t offset = bltParam.dstH / 4;
//ST_XLOGI("!!!!! draw line, ptr: %p, offset: %d, stride: %d, height: %d", _ptr, offset, _stride, bltParam.dstH);
if (NULL != _ptr) {
memset((void*)(_ptr + offset * _stride * 3 / 2), 0xFF, _stride * 20 * 3 / 2);
}
offset += 20;
if (offset >= bltParam.dstH * 3 / 4)
offset = bltParam.dstH / 4;
}
}
}
dg->unlock();
sg->unlock();
#else // ! USE_MDP
status_t err = swConversionLocked(src, dst);
if (NO_ERROR != err)
return err;
#endif // USE_MDP
mAuxSlotConvert = false;
mAuxSlotDirty = true;
}
return NO_ERROR;
}
void * QgsSingleBandGrayRenderer::readBlock( int bandNo, QgsRectangle const & extent, int width, int height )
{
Q_UNUSED( bandNo );
if ( !mInput )
{
return 0;
}
QgsRasterInterface::DataType rasterType = ( QgsRasterInterface::DataType )mInput->dataType( mGrayBand );
QgsRasterInterface::DataType alphaType = QgsRasterInterface::UnknownDataType;
if ( mAlphaBand > 0 )
{
alphaType = ( QgsRasterInterface::DataType )mInput->dataType( mAlphaBand );
}
void* rasterData = mInput->block( mGrayBand, extent, width, height );
if ( !rasterData ) return 0;
void* alphaData = 0;
double currentAlpha = mOpacity;
int grayVal;
QRgb myDefaultColor = qRgba( 0, 0, 0, 0 );
if ( mAlphaBand > 0 && mGrayBand != mAlphaBand )
{
alphaData = mInput->block( mAlphaBand, extent, width, height );
if ( !alphaData )
{
free( rasterData );
return 0;
}
}
else if ( mAlphaBand > 0 )
{
alphaData = rasterData;
}
QImage *img = createImage( width, height, QImage::Format_ARGB32_Premultiplied );
QRgb* imageScanLine = 0;
int currentRasterPos = 0;
for ( int i = 0; i < height; ++i )
{
imageScanLine = ( QRgb* )( img->scanLine( i ) );
for ( int j = 0; j < width; ++j )
{
grayVal = readValue( rasterData, rasterType, currentRasterPos );
//alpha
currentAlpha = mOpacity;
if ( mRasterTransparency )
{
currentAlpha = mRasterTransparency->alphaValue( grayVal, mOpacity * 255 ) / 255.0;
}
if ( mAlphaBand > 0 )
{
currentAlpha *= ( readValue( alphaData, alphaType, currentRasterPos ) / 255.0 );
}
if ( mContrastEnhancement )
{
if ( !mContrastEnhancement->isValueInDisplayableRange( grayVal ) )
{
imageScanLine[ j ] = myDefaultColor;
++currentRasterPos;
continue;
}
grayVal = mContrastEnhancement->enhanceContrast( grayVal );
}
if ( mInvertColor )
{
grayVal = 255 - grayVal;
}
if ( doubleNear( currentAlpha, 1.0 ) )
{
imageScanLine[j] = qRgba( grayVal, grayVal, grayVal, 255 );
}
else
{
imageScanLine[j] = qRgba( currentAlpha * grayVal, currentAlpha * grayVal, currentAlpha * grayVal, currentAlpha * 255 );
}
++currentRasterPos;
}
}
free( rasterData );
if ( mAlphaBand > 0 && mGrayBand != mAlphaBand )
{
free( alphaData );
}
void * data = ( void * )img->bits();
delete img;
return data; // OK, the image was created with extraneous data
}
void ScreenWidget::setImage(QImage &image)
{
originalImage = image;
createImage();
invertButton->setEnabled(true);
}
bool ResJPEG::init(const std::string& name)
{
rstream f;
path = name;
if(!f.open(name, "jpg"))
{
//log_msg("warning res image tga", std::string("Res/Image/TGA: cannot open file ")+ name.c_str());
return false;
}
struct jpeg_decompress_struct cinfo;
my_error_mgr jerr;
cinfo.err = jpeg_std_error(&jerr.pub);
jerr.pub.error_exit = my_error_exit;
if (setjmp(jerr.setjmp_buffer))
{
jpeg_destroy_decompress(&cinfo);
return false;
}
jpeg_create_decompress(&cinfo);
jpeg_stdio_src(&cinfo, &f);
jpeg_read_header(&cinfo, TRUE);
jpeg_start_decompress(&cinfo);
int stride = cinfo.output_width * cinfo.output_components;
unsigned char** buffer = (*cinfo.mem->alloc_sarray) ((j_common_ptr) &cinfo, JPOOL_IMAGE, stride, 1);
if(createImage(cinfo.output_width, cinfo.output_height, 24) == false)
{
f.close();
return false;
}
unsigned char* pBitmap = (unsigned char*)bitmap;
const int a = 255;
while (cinfo.output_scanline < cinfo.output_height)
{
jpeg_read_scanlines(&cinfo, buffer, 1);
unsigned char* pcomp = *buffer;
// in first implementation we move all bytes manually. if this will work, we will replace with memcpy
for (unsigned int i = 0; i < cinfo.output_width; i++)
{
for(int c = 0; c < 3; c++){
*pBitmap=*pcomp;
pBitmap++;
pcomp++;
}
}
}
jpeg_finish_decompress(&cinfo);
jpeg_destroy_decompress(&cinfo);
dimension = IMAGE_2D;
format = IMAGE_RGB;
flipV();
return true;
}
void PHIEllipseItem::html( const PHIRequest *req, QByteArray &out, QByteArray &script, const QByteArray &indent ) const
{
if ( dirtyFlags() & DFColor || dirtyFlags() & DFBackgroundColor || dirtyFlags() & DFDoNotCache )
setImagePath( PHIDataParser::createImage( req, this, createImage(), PHIData::c(), -1 ) );
PHIAbstractShapeItem::html( req, out, script, indent );
}
EntityCEGUITexture::EntityCEGUITexture(const std::string& imageSetName, int width, int height)
: mImage(0), mImageSet(0), mWidth(width), mHeight(height), mRenderContext(new SimpleRenderContext(imageSetName, width, height)), mCeguiTexture(0)
{
createImage(imageSetName);
}
inline vk::Move<vk::VkImage> makeImage (const vk::DeviceInterface& vk, const vk::VkDevice device, const vk::VkImageCreateInfo& createInfo)
{
return createImage(vk, device, &createInfo);
}
//-------------------------------------------------
void ImageWriter::saveAllImages ()
{
GriddedPlotter *plotter = terre->getGriddedPlotter ();
if (!plotter || !plotter->isReaderOk()) {
return;
}
int W = Util::getSetting("imageSaveWidth", 640).toInt();
int H = Util::getSetting("imageSaveHeight", 480).toInt();
int Q = Util::getSetting("imageSaveQuality", 90).toInt();
int Winit = terre->getProjection()->getW();
int Hinit = terre->getProjection()->getH();
bool rsz = Util::getSetting("imageSaveResizeAfter", false).toBool();
ImageWriterDialog dial (parent, W,H,Q,rsz, Winit,Hinit);
dial.exec ();
if (dial.isAccepted())
{
QString filename = Util::getSetting("imageSaveFilename", "").toString();
filename = QFileDialog::getSaveFileName (terre,
tr("Save all images (JPEG)"),
filename,
tr("Images (*.jpg *.jpeg)") );
if (filename != "")
{
QRegExp reg ("(.jpeg$|.jpg$)");
reg.setCaseSensitivity(Qt::CaseInsensitive);
QString prefix = filename.replace(reg, "");
reg.setPattern ("(_$|_\\d\\d\\d$)");
prefix = filename.replace(reg, "");
int nb = plotter->getNumberOfDates ();
QString nom1 = createAnimImageFilename (prefix, 1);
QString nom2 = createAnimImageFilename (prefix, nb);
if ( QMessageBox::question (terre,
tr("Save all images"),
tr("This operation will create %1 files :").arg(nb)
+ "\n\n"
+ QString("%1\n...\n%2").arg(nom1).arg(nom2)
+ "\n\n"
+ tr("Warning: existing files will be deleted !")
,
QMessageBox::Ok|QMessageBox::Cancel
)
== QMessageBox::Ok )
{
QCursor oldcursor = terre->cursor();
saveSettings (dial, filename);
terre->setCursor(Qt::WaitCursor);
std::set<time_t>::iterator iter;
int num=1;
for (iter=plotter->getListDates()->begin();
iter!=plotter->getListDates()->end(); iter++, num++)
{
time_t date = *iter;
QImage * image = createImage (date, dial, Winit,Hinit);
if (image)
{
QString filename = createAnimImageFilename (prefix, num);
image->save (filename, "JPEG", Q);
delete image;
}
}
terre->setCursor(oldcursor);
}
}
}
}
// List1-6
// BMPデータをファイルより読み込む
int readBMPfile(char *fname, ImageData **img)
{
int i, c;
int errcode = 0;
BITMAPFILEHEADER BMPFile;
int fsize;
BITMAPINFOHEADER BMPInfo;
BITMAPCOREHEADER BMPCore;
int colors;
int colorTableSize;
int bitsSize;
int BISize;
int x, y;
int mx, my, depth;
int pad;
int mxb, myb;
int isPM = FALSE; // BMPの形式を記録するフラグ
FILE *fp;
WORD HEAD_bfType;
DWORD HEAD_bfSize;
WORD HEAD_bfReserved1;
WORD HEAD_bfReserved2;
DWORD HEAD_bfOffBits;
DWORD INFO_bfSize;
Pixel palet[MAXCOLORS];
Pixel setcolor;
errno_t error;
if(error=fopen_s(&fp, fname, "rb") != 0){
return -1;
}
// BMPファイルは必ず'BM(0x4d42)'で始まる．それ以外の場合はBMPではないので，中止する
if (!freadWORD(&HEAD_bfType, fp)) {
errcode = -2;
goto $ABORT;
}
if (HEAD_bfType != 0x4d42) {
errcode = -10;
goto $ABORT;
}
// ヘッダ部のサイズ(Byte)
if (!freadDWORD(&HEAD_bfSize, fp)) {
errcode = -10;
goto $ABORT;
}
// 予約用領域（未使用）
if (!freadWORD(&HEAD_bfReserved1, fp)) {
errcode = -10;
goto $ABORT;
}
// 予約用領域（未使用）
if (!freadWORD(&HEAD_bfReserved2, fp)) {
errcode = -10;
goto $ABORT;
}
// オフセット
if (!freadDWORD(&HEAD_bfOffBits, fp)) {
errcode = -10;
goto $ABORT;
}
// ヘッダ部のサイズ
if (!freadDWORD(&INFO_bfSize, fp)) {
errcode = -10;
goto $ABORT;
}
// ヘッダ部のサイズが規定外ならばエラーとする
if (INFO_bfSize == 40/*sizeof(BITMAPINFOHEADER)*/ || INFO_bfSize == 12/*sizeof(BITMAPCOREHEADER)*/) {
BMPInfo.biSize = INFO_bfSize;
// BITMAPCOREHEADER形式の場合
if (INFO_bfSize == sizeof(BITMAPCOREHEADER)) {
WORD tmp;
isPM = TRUE;
// 画像の横幅
if (!freadWORD(&tmp, fp)) {
errcode = -10;
goto $ABORT;
}
BMPInfo.biWidth = tmp;
// 画像の縦幅
if (!freadWORD(&tmp, fp)) {
errcode = -10;
goto $ABORT;
}
BMPInfo.biHeight = tmp;
// 画像のプレーン数
if (!freadWORD(&(BMPInfo.biPlanes), fp)) {
errcode = -10;
goto $ABORT;
}
// １画素あたりのビット数
if (!freadWORD(&(BMPInfo.biBitCount), fp)) {
errcode = -10;
goto $ABORT;
}
}
else { // BITMAPINFOHEADER形式の場合
// 画像の横幅
if (!freadDWORD(&(BMPInfo.biWidth), fp)) {
errcode = -10;
goto $ABORT;
}
// 画像の縦幅
if (!freadDWORD(&(BMPInfo.biHeight), fp)) {
errcode = -10;
goto $ABORT;
}
// 画像のプレーン数
if (!freadWORD(&(BMPInfo.biPlanes), fp)) {
errcode = -10;
goto $ABORT;
}
// １画素あたりのビット数
if (!freadWORD(&(BMPInfo.biBitCount), fp)) {
errcode = -10;
goto $ABORT;
}
}
// BITMAPINFOHEADERの場合のみ存在する情報を読み込む
if (!isPM) {
// 圧縮形式
if (!freadDWORD(&(BMPInfo.biCompression), fp)) {
errcode = -10;
goto $ABORT;
}
// 画像データ部のサイズ
if (!freadDWORD(&(BMPInfo.biSizeImage), fp)) {
errcode = -10;
goto $ABORT;
}
// X方向の解像度
if (!freadDWORD(&(BMPInfo.biXPelsPerMeter), fp)) {
errcode = -10;
goto $ABORT;
}
// Y方向の解像度
if (!freadDWORD(&(BMPInfo.biYPelsPerMeter), fp)) {
errcode = -10;
goto $ABORT;
}
// 格納されているパレットの色数
if (!freadDWORD(&(BMPInfo.biClrUsed), fp)) {
errcode = -10;
goto $ABORT;
}
// 重要なパレットのインデックス
if (!freadDWORD(&(BMPInfo.biClrImportant), fp)) {
errcode = -10;
goto $ABORT;
}
}
}
else {
errcode = -10;
goto $ABORT;
}
mx = BMPInfo.biWidth;
my = BMPInfo.biHeight;
depth = BMPInfo.biBitCount;
// 256色，フルカラー以外サポート外
if (depth != 8 && depth != 24) {
errcode = -3;
goto $ABORT;
}
// 非圧縮形式以外はサポート外
if (BMPInfo.biCompression != BI_RGB) {
errcode = -20;
goto $ABORT;
}
// ヘッダ部にパレットサイズの情報がない場合は１画素あたりのビット数から求める
if (BMPInfo.biClrUsed == 0) {
colors = countOfDIBColorEntries(BMPInfo.biBitCount);
}
else {
colors = BMPInfo.biClrUsed;
}
// パレット情報の読み込み
// BMPの種類によってフォーマットが異なるので処理をわける
if (!isPM) {
for (i = 0; i<colors; i++) {
// Blue成分
c = fgetc(fp);
if (c == EOF) {
errcode = -10;
goto $ABORT;
}
palet[i].b = c;
// Green成分
c = fgetc(fp);
if (c == EOF) {
errcode = -10;
goto $ABORT;
}
palet[i].g = c;
// Red成分
c = fgetc(fp);
if (c == EOF) {
errcode = -10;
goto $ABORT;
}
palet[i].r = c;
// あまり
c = fgetc(fp);
if (c == EOF) {
errcode = -10;
goto $ABORT;
}
}
}
else {
for (i = 0; i<colors; i++) {
c = fgetc(fp);
if (c == EOF) {
errcode = -10;
goto $ABORT;
}
palet[i].b = c;
c = fgetc(fp);
if (c == EOF) {
errcode = -10;
goto $ABORT;
}
palet[i].g = c;
c = fgetc(fp);
if (c == EOF) {
errcode = -10;
goto $ABORT;
}
palet[i].r = c;
}
}
// フルカラーで画像データを作成
*img = createImage(mx, my, 24);
mxb = getDIBxmax(mx, depth);
pad = mxb - mx*depth / 8;
// 画像データ読み込み
for (y = my - 1; y >= 0; y--) {
for (x = 0; x<mx; x++) {
if (depth == 8) { // 256色形式の場合はパレットからRGB値を求める
c = fgetc(fp);
if (c == EOF) {
errcode = -20;
goto $ABORT;
}
setcolor.r = palet[c].r;
setcolor.g = palet[c].g;
setcolor.b = palet[c].b;
}
else if (depth == 24) {
c = fgetc(fp);
if (c == EOF) {
errcode = -20;
goto $ABORT;
}
setcolor.b = c;
c = fgetc(fp);
if (c == EOF) {
errcode = -20;
goto $ABORT;
}
setcolor.g = c;
c = fgetc(fp);
if (c == EOF) {
errcode = -20;
goto $ABORT;
}
setcolor.r = c;
}
setPixel(*img, x, y, &setcolor);
}
// Padding部の読み飛ばし
for (i = 0; i<pad; i++) {
c = fgetc(fp);
if (c == EOF) {
errcode = -20;
goto $ABORT;
}
}
}
$ABORT: // エラー時の飛び先
fclose(fp);
return errcode;
}
status_t GLConsumer::updateAndReleaseLocked(const BufferQueue::BufferItem& item)
{
status_t err = NO_ERROR;
if (!mAttached) {
ST_LOGE("updateAndRelease: GLConsumer is not attached to an OpenGL "
"ES context");
return INVALID_OPERATION;
}
// Confirm state.
err = checkAndUpdateEglStateLocked();
if (err != NO_ERROR) {
return err;
}
int buf = item.mBuf;
// If the mEglSlot entry is empty, create an EGLImage for the gralloc
// buffer currently in the slot in ConsumerBase.
//
// We may have to do this even when item.mGraphicBuffer == NULL (which
// means the buffer was previously acquired), if we destroyed the
// EGLImage when detaching from a context but the buffer has not been
// re-allocated.
if (mEglSlots[buf].mEglImage == EGL_NO_IMAGE_KHR) {
EGLImageKHR image = createImage(mEglDisplay,
mSlots[buf].mGraphicBuffer, item.mCrop);
if (image == EGL_NO_IMAGE_KHR) {
ST_LOGW("updateAndRelease: unable to createImage on display=%p slot=%d",
mEglDisplay, buf);
return UNKNOWN_ERROR;
}
mEglSlots[buf].mEglImage = image;
mEglSlots[buf].mCropRect = item.mCrop;
}
// Do whatever sync ops we need to do before releasing the old slot.
err = syncForReleaseLocked(mEglDisplay);
if (err != NO_ERROR) {
// Release the buffer we just acquired. It's not safe to
// release the old buffer, so instead we just drop the new frame.
// As we are still under lock since acquireBuffer, it is safe to
// release by slot.
releaseBufferLocked(buf, mSlots[buf].mGraphicBuffer,
mEglDisplay, EGL_NO_SYNC_KHR);
return err;
}
ST_LOGV("updateAndRelease: (slot=%d buf=%p) -> (slot=%d buf=%p)",
mCurrentTexture,
mCurrentTextureBuf != NULL ? mCurrentTextureBuf->handle : 0,
buf, mSlots[buf].mGraphicBuffer->handle);
// release old buffer
if (mCurrentTexture != BufferQueue::INVALID_BUFFER_SLOT) {
status_t status = releaseBufferLocked(
mCurrentTexture, mCurrentTextureBuf, mEglDisplay,
mEglSlots[mCurrentTexture].mEglFence);
if (status < NO_ERROR) {
ST_LOGE("updateAndRelease: failed to release buffer: %s (%d)",
strerror(-status), status);
err = status;
// keep going, with error raised [?]
}
}
// Update the GLConsumer state.
mCurrentTexture = buf;
mCurrentTextureBuf = mSlots[buf].mGraphicBuffer;
mCurrentCrop = item.mCrop;
mCurrentTransform = item.mTransform;
mCurrentScalingMode = item.mScalingMode;
mCurrentTimestamp = item.mTimestamp;
mCurrentFence = item.mFence;
mCurrentFrameNumber = item.mFrameNumber;
computeCurrentTransformMatrixLocked();
return err;
}
constexpr int max_i = 64;
template <int i = 0>
void run_perlin() {
//not sure how to automatically test perlin noise, so just dump an image for now and manually check it
const int width = 1024;
const int height = 1024;
const int min = 0;
const int max = 255;
auto noise = get_perlin_noise<float, width, height, i>(0, 255);
auto render_device = irr::createDevice(irr::video::EDT_OPENGL, irr::core::dimension2du(800, 600), 32, false, false, true, nullptr);
ON_SCOPE_EXIT(render_device->drop(););
auto video_driver = render_device->getVideoDriver();
auto image = video_driver->createImage(irr::video::ECOLOR_FORMAT::ECF_R8G8B8, {width, height});
ON_SCOPE_EXIT(image->drop(););
for (int y = 0; y < height; y++) {
for (int x = 0; x < width; x++) {
auto &value = noise[x][y];
assert(value >= min);
assert(value <= max);
image->setPixel(x, y, {value, value, value});
}
}
bool success = video_driver->writeImageToFile(image, "media/perlin.png");
assert(success);
}
template <int i = 0>
void multi_test_perlin() {
HipaccImage hipaccCreateMemory(T *host_mem, size_t width, size_t height) {
T *mem = new T[width*height];
return createImage(host_mem, (void *)mem, width, height, width, 0);
}
status_t SurfaceTexture::attachToContext(GLuint tex) {
ATRACE_CALL();
ST_LOGV("attachToContext");
Mutex::Autolock lock(mMutex);
if (mAbandoned) {
ST_LOGE("attachToContext: abandoned SurfaceTexture");
return NO_INIT;
}
if (mAttached) {
ST_LOGE("attachToContext: SurfaceTexture is already attached to a "
"context");
return INVALID_OPERATION;
}
EGLDisplay dpy = eglGetCurrentDisplay();
EGLContext ctx = eglGetCurrentContext();
if (dpy == EGL_NO_DISPLAY) {
ST_LOGE("attachToContext: invalid current EGLDisplay");
return INVALID_OPERATION;
}
if (ctx == EGL_NO_CONTEXT) {
ST_LOGE("attachToContext: invalid current EGLContext");
return INVALID_OPERATION;
}
// We need to bind the texture regardless of whether there's a current
// buffer.
glBindTexture(mTexTarget, tex);
if (mCurrentTextureBuf != NULL) {
// The EGLImageKHR that was associated with the slot was destroyed when
// the SurfaceTexture was detached from the old context, so we need to
// recreate it here.
EGLImageKHR image = createImage(dpy, mCurrentTextureBuf);
if (image == EGL_NO_IMAGE_KHR) {
return UNKNOWN_ERROR;
}
// Attach the current buffer to the GL texture.
glEGLImageTargetTexture2DOES(mTexTarget, (GLeglImageOES)image);
GLint error;
status_t err = OK;
while ((error = glGetError()) != GL_NO_ERROR) {
ST_LOGE("attachToContext: error binding external texture image %p "
"(slot %d): %#04x", image, mCurrentTexture, error);
err = UNKNOWN_ERROR;
}
// We destroy the EGLImageKHR here because the current buffer may no
// longer be associated with one of the buffer slots, so we have
// nowhere to to store it. If the buffer is still associated with a
// slot then another EGLImageKHR will be created next time that buffer
// gets acquired in updateTexImage.
eglDestroyImageKHR(dpy, image);
if (err != OK) {
return err;
}
}
mEglDisplay = dpy;
mEglContext = ctx;
mTexName = tex;
mAttached = true;
return OK;
}
int main(int argc, char *argv[])
{
/* pixels per worker */
int ppw = 0;
/* number of workers */
int num_worker;
/* pixels of the entire image */
int dim;
/* dimension of the entire image */
int width,height;
/* time variables */
struct timeval tv1, tv2;
/* Dimension of the partitioned image */
int dimx = 0, dimy = 0;
/* fit of the Gaussian */
double fit[DIM_FIT];
/* image representing Gaussian fit */
unsigned char *image = NULL;
#ifdef PADDED
/* buffer for the padded image */
unsigned char *padded = NULL;
#endif
#ifdef MODULE
/* socket for the camera */
int new_sock;
#endif
/* local partition of the image*/
unsigned char *partition;
/* size of reduce buffer */
int buffer_size = DIM_FIT * (DIM_FIT + 1);
/* indexes */
int i = 0;
/* buffer for fit procedure */
double *data = (double *) malloc( sizeof(double) * buffer_size );
gsl_matrix_view matrice = gsl_matrix_view_array(data, DIM_FIT, DIM_FIT);
gsl_vector_view vettore = gsl_vector_view_array(data + (DIM_FIT * DIM_FIT), DIM_FIT);
/* output buffer of reduce */
double *ret = (double *) malloc( sizeof(double) * buffer_size );
gsl_matrix_view r_matrice = gsl_matrix_view_array(ret, DIM_FIT, DIM_FIT);
gsl_vector_view r_vettore = gsl_vector_view_array(ret + (DIM_FIT * DIM_FIT), DIM_FIT);
/*********************************************************************
INIT
*********************************************************************/
srand(time(NULL));
/* in order to recover from an error */
gsl_set_error_handler_off();
/* Initialize of MPI */
MPI_Init(&argc, &argv);
/* Check the input parameters */
if (argc != 3) {
fprintf(stderr, "Invalid number of parameters: %d\n",argc);
MPI_Abort(MPI_COMM_WORLD,MPI_ERR_ARG);
}
/* Every process takes their own rank */
MPI_Comm_rank(MPI_COMM_WORLD, &my_rank);
/* Total number of processes */
MPI_Comm_size(MPI_COMM_WORLD, &p);
/* Number of workers */
num_worker = p - PS;
if (my_rank == EMITTER) {
#if DEBUG
printf("Emitter with rank %d\n", my_rank);
#endif
#ifdef MODULE
new_sock = Connect();
if (Read(new_sock, &width, sizeof(int)) < 0)
error("Error reading the integers");
if (Read(new_sock, &height, sizeof(int)) < 0)
error("Error reading the integers");
dim = width * height;
image = (unsigned char *) malloc (dim);
/* read from the socket */
if (Read(new_sock, image, dim) < 0)
error("Error reading from socket");
#else
/* an image representing the gaussian is created and returned
as a unsigned char matrix */
width = atoi(argv[1]);
height = atoi(argv[2]);
/* y dimension of the image is adjusted (if needed) */
while (height % num_worker != 0) height++;
/* image is created */
image = createImage(width, height);
#endif
/* parameters of the gaussian are estimated */
initialization(image, width, height,fit);
#if DEBUG
printf("Emitter survived init\n");
#endif
}
/* broadcast data of the image */
MPI_Bcast(&width,1,MPI_INT,EMITTER,MPI_COMM_WORLD);
MPI_Bcast(&height,1,MPI_INT,EMITTER,MPI_COMM_WORLD);
MPI_Bcast(&fit,DIM_FIT,MPI_DOUBLE,EMITTER,MPI_COMM_WORLD);
/* dimension of the local partition are determined and relative buffers
are initialized */
dim = width * height;
dimx = width;
dimy = height / num_worker;
ppw = dimx * dimy;
partition = (unsigned char *) malloc(sizeof(unsigned char) * ppw);
initBuffers(ppw);
/* if I am the emitter I take the time */
if (my_rank == EMITTER)
gettimeofday(&tv1, NULL);
#ifdef PADDED
if (my_rank == EMITTER){
padded =(unsigned char*) malloc(sizeof(unsigned char) * ppw * p);
for (i=0; i < dim; i++){
padded[i + ppw] = image[i];
}
for(i=0;i<DIM_FIT * (DIM_FIT + 1);i++){
ret[i] = 0;
}
free(image);
image = padded;
}
#endif
/*********************************************************************
LOOP on ELEMENTS
*********************************************************************/
for (i = 0; i < STREAMLENGTH; i++) {
/* the emitter executes the scatter */
MPI_Scatter(image, ppw, MPI_UNSIGNED_CHAR, partition, ppw, MPI_UNSIGNED_CHAR, EMITTER, MPI_COMM_WORLD);
/* execute the procedure over my partition */
if(my_rank >= PS){
procedure(partition, dimx, dimy , fit, matrice, vettore, dimy*(my_rank-PS));
}
/* execute the reduce of matrix and vector */
MPI_Reduce(data, ret, buffer_size , MPI_DOUBLE, MPI_SUM, EMITTER, MPI_COMM_WORLD);
if (my_rank == EMITTER) {
/* adjust fit results */
postProcedure(r_matrice,r_vettore,fit);
}
/* broadcast of the result */
MPI_Bcast(fit, DIM_FIT, MPI_DOUBLE, EMITTER, MPI_COMM_WORLD);
#ifdef DEBUG
if (my_rank == EMITTER) {
printf("Image %d: %f\t%f\t%f\t%f\t%f\t%f\t%f\t%f\n", i, fit[PAR_A], fit[PAR_X],
fit[PAR_Y], fit[PAR_SX], fit[PAR_SY], fit[PAR_a], fit[PAR_b], fit[PAR_c]);
}
#endif
#ifdef MODULE
if (my_rank == EMITTER && i < STREAMLENGTH - 1) {
/* new image is stored in buffer image of the emitter*/
#ifdef PADDED
if (Read(new_sock, image + ppw, dim) < 0)
error("Error reading from socket");
#else
if (Read(new_sock, image, dim) < 0)
error("Error reading from socket");
#endif
}
#endif
}
if (my_rank == EMITTER) {
gettimeofday(&tv2, NULL);
/* print the parallelism degree, data size and the completion time */
printf("%d\t%d\t%ld\n", p, dim, (tv2.tv_sec - tv1.tv_sec) * 1000000 + tv2.tv_usec - tv1.tv_usec);
}
freeBuffers();
/* Finalize of MPI */
MPI_Finalize();
return 0;
}
std::string op = options->getOptionString();
size_t i = op.find("x");
std::stringstream ss1(op.substr(0, i));
std::stringstream ss2(op.substr(i+1, op.size()));
ss1 >> w;
ss2 >> h;
if (w==0 || h==0){
image = createImage(handle, dimensionData.width, dimensionData.height);
}
else{
image = createImage(handle, w, h);
}
}
else{
image = createImage(handle, dimensionData.width, dimensionData.height);
}
rsvg_handle_free(handle);
image->setFileName(file);
return image;
}
osg::Image* createImage(RsvgHandle *handle, unsigned int width, unsigned int height) const
{
RsvgDimensionData dimensionData;
rsvg_handle_get_dimensions( handle, &dimensionData);
// If image resollution < 128, cairo produces some artifacts.
// I don't know why, but we check the size...
if (width < 128) width = 128;
if (height < 128) height = 128;
width = osg::Image::computeNearestPowerOfTwo(width);
Image *resample(Image *source, unsigned int target_width, unsigned int target_height) {
Image *destination = createImage(target_width, target_height);
gdResample(destination, source, 0, 0, 0, 0, target_width, target_height, source->width, source->height);
return destination;
}
void StereoExhaustiveBM(const IplImage* left,const IplImage* right,IplImage* dst,IplImage* xdst,IplImage* ydst,const int blocksize,const float threshold,const int xlimit,const int ylimit)
{
int il,jl;
int ir,jr;
int i;
int irtempf,jrtempf;
int irtempt,jrtempt;
int ircorr,jrcorr;
int xshift,yshift;
float msosd;
float fsosd;
double arraycorr[10000];
int arraycount=0;
IplImage *leftm;
IplImage *rightm;
int stat[10000];
leftm=createImage(left->width,left->height,3);
rightm=createImage(right->width,right->height,3);
//printf("******done\n\n\n");
//cvNamedWindow("Disp",CV_WINDOW_NORMAL);
//printf("******done\n\n\n");
//cvNamedWindow("XDisp",CV_WINDOW_AUTOSIZE);
//cvNamedWindow("YDisp",CV_WINDOW_AUTOSIZE);
//cvNamedWindow("Position on Left",CV_WINDOW_AUTOSIZE);
//cvNamedWindow("Position on Right",CV_WINDOW_AUTOSIZE);
double min,max;
for(i=0;i<1000;i++)
{
arraycorr[i]=0;
}
for(i=0;i<1000;i++)
{
stat[i]=0;
}
for(il=0;il<=left->width-blocksize;il+=blocksize)
{
for(jl=0;jl<=left->height-blocksize;jl+=blocksize)
{
//msosd=100000000;
msosd=-5;
//printf("\n %d %d",il,jl);
//for(ir=0;ir<right->width-blocksize;ir++)
irtempf=il-xlimit;
jrtempf=jl-ylimit;
irtempt=il+xlimit;
jrtempt=jl+ylimit;
if(irtempf<0)
{
irtempf=0;
}
if(jrtempf<0)
{
jrtempf=0;
}
if(irtempt>left->width-blocksize)
{
irtempt=left->width-blocksize;
}
if(jrtempt>left->height-blocksize)
{
jrtempt=left->height-blocksize;
}
for(ir=irtempf;ir<irtempt;ir++)
//for(ir=0;ir<=right->width-blocksize;ir++)
{
//printf("\n Block In Right Image %d %d",ir,jr);
for(jr=jrtempf;jr<jrtempt;jr++)
//for(jr=0;jr<right->height-blocksize;jr++)
{
fsosd=newcorr(left,right,il,jl,ir,jr,blocksize);
//fsosd=ncorrelation(left,right,il,jl,ir,jr,blocksize);
//fsosd=sumofsquaredifference(left,right,il,jl,ir,jr,blocksize);
//printf("\n CORRELATON ~ %f",fsosd );
if(fsosd>msosd)
{
ircorr=ir;
jrcorr=jr;
//printf("\n FSOSD %f",fsosd);
//printf("\n Mininimum msosd %d",msosd);
msosd=fsosd;
xshift=abs(ir-il);
yshift=abs(jr-jl);
//printf("\nSHIFT~ %d %d ICORR~ %d JCORR~ %d",xshift,yshift,ircorr,jrcorr);
//cvWaitKey(100);
//assignDisparity(xdst,il,jl,blocksize,xshift,0);
//assignDisparity(ydst,il,jl,blocksize,yshift,0);
}
}
}
//cvWaitKey(10);
//printf("\nCORRELATON is %f",msosd);
arraycorr[arraycount]=msosd;
arraycount++;
//printf("\nCORRELATON ~ %f".msosd);
//cvDrawRectangle(left,leftm,blocksize,il,jl,1);
//cvDrawRectangle(right,rightm,blocksize,ircorr,jrcorr,2);
//cvShowImage("Position on Left",leftm);
//cvShowImage("Position on Right",rightm);
if(msosd>threshold)
{
assignDisparity(xdst,il,jl,blocksize,4*xshift,0);
assignDisparity(ydst,il,jl,blocksize,4*yshift,0);
//printf("\n Now at ~ %d %d",il,jl);
//cvWaitKey(100);
//cvShowImage("XDisp",xdst);
//cvShowImage("YDisp",ydst);
}
else{
//printf("\n Below Threshold");
assignDisparity(xdst,il,jl,blocksize,0,0);
assignDisparity(ydst,il,jl,blocksize,0,0);
//cvShowImage("XDisp",xdst);
//cvShowImage("YDisp",ydst);
}
}
//assignDisparity(dst,il,jl,blocksize,xshift,0);//B
//assignDisparity(dst,il,jl,blocksize,yshift,2);//R
//cvWaitKey(500);
}
cvNamedWindow("XDisp",CV_WINDOW_AUTOSIZE);
cvNamedWindow("YDisp",CV_WINDOW_AUTOSIZE);
cvShowImage("XDisp",xdst);
cvShowImage("YDisp",ydst);
printf("\nPress Escape TO Show Statistics for CORRELATON");
cvWaitKey(0);
min=1;
max=-1;
for(i=0;i<arraycount;i++)
{
//arraycorr[i]*1000;
if(arraycorr[i]>max)
{
max=arraycorr[i];
}
if(arraycorr[i]<min)
{
min=arraycorr[i];
}
//stat[(int)(arraycorr[i]*1000)]=stat[(int)(arraycorr[i]*1000)]+1;
}
printf("\nMAXIMUM nCORRELATON~ %lf \nMINIMUM nCORRELATON %lf \n",max,min);
/*
printf("\n ********STATISTICS******** \n");
for(i=0;i<1000;i++)
{
if(stat[i]!=0)
{
printf("\nCORRELATION IN RANGE [%lf,%lf]--> %d",(double)i/1000,(double)(i+1)/1000,stat[i]);
}
}
*/
cvWaitKey(0);
/*
cvNormalize(xdst,xdst,0,255, CV_MINMAX );
cvNormalize(ydst,ydst,0,255, CV_MINMAX );
cvShowImage("XDisp",xdst);
cvShowImage("YDisp",ydst);
cvWaitKey(0);
cvSmooth(xdst,xdst,CV_GAUSSIAN,5,0,0,0);
cvSmooth(ydst,ydst,CV_GAUSSIAN,5,0,0,0);
cvShowImage("XDisp",xdst);
cvShowImage("YDisp",ydst);
cvWaitKey(0);
*/
}
void
CaptionObject::load(fstream& fin)
{
clear();
int len;
bool done = false;
char keyword[100];
while (!done)
{
fin.getline(keyword, 100, 0);
if (strcmp(keyword, "captionobjectend") == 0)
done = true;
else if (strcmp(keyword, "position") == 0)
{
float x, y;
fin.read((char*)&x, sizeof(float));
fin.read((char*)&y, sizeof(float));
m_pos = QPointF(x,y);
}
else if (strcmp(keyword, "text") == 0)
{
fin.read((char*)&len, sizeof(int));
char *str = new char[len];
fin.read((char*)str, len*sizeof(char));
m_text = QString(str);
delete [] str;
}
else if (strcmp(keyword, "font") == 0)
{
fin.read((char*)&len, sizeof(int));
char *str = new char[len];
fin.read((char*)str, len*sizeof(char));
QString fontStr = QString(str);
m_font.fromString(fontStr);
delete [] str;
}
else if (strcmp(keyword, "color") == 0)
{
unsigned char r, g, b, a;
fin.read((char*)&r, sizeof(unsigned char));
fin.read((char*)&g, sizeof(unsigned char));
fin.read((char*)&b, sizeof(unsigned char));
fin.read((char*)&a, sizeof(unsigned char));
m_color = QColor(r,g,b,a);
}
else if (strcmp(keyword, "halocolor") == 0)
{
unsigned char r, g, b, a;
fin.read((char*)&r, sizeof(unsigned char));
fin.read((char*)&g, sizeof(unsigned char));
fin.read((char*)&b, sizeof(unsigned char));
fin.read((char*)&a, sizeof(unsigned char));
m_haloColor = QColor(r,g,b,a);
}
else if (strcmp(keyword, "angle") == 0)
{
fin.read((char*)&m_angle, sizeof(float));
}
}
QFontMetrics metric(m_font);
m_height = metric.height();
m_width = metric.width(m_text);
createImage();
}