voxelizer_generate_voxel_list_fragment(const gl::rendering_system &rs,
voxel_storage *voxels,
const scene *s)
: Base(rs,
gl::device_pipeline_graphics_configurations{},
"sparse_voxelizer.vert",
"sparse_voxelizer.geom",
"sparse_voxelizer.frag"),
s(s),
voxels(voxels),
empty_fb(lib::allocate_unique<gl::framebuffer>(rs.get_creating_context(),
"voxelizer framebuffer",
gl::framebuffer_layout(),
glm::u32vec2{ voxelizer_fb_extent, voxelizer_fb_extent })) {
draw_task.attach_pipeline(pipeline());
draw_task.attach_vertex_buffer(s->get_object_group().get_draw_buffers().get_vertex_buffer());
draw_task.attach_index_buffer(s->get_object_group().get_draw_buffers().get_index_buffer());
// Attach empty framebuffer
pipeline().attach_framebuffer(*empty_fb);
// Configure voxelization pipeline
pipeline()["voxel_assembly_list_counter_binding"] = gl::bind(voxels->voxel_assembly_list_counter_buffer());
pipeline()["voxel_assembly_list_binding"] = gl::bind(voxels->voxel_assembly_list_buffer());
voxels->configure_voxel_pipeline(pipeline());
}
virtual void keyPressEvent(unsigned int, vl::EKey key)
{
if (key == vl::Key_F10)
{
_camera_read_pixels ->setup( 0, 0, pipeline()->camera()->viewport()->width(), pipeline()->camera()->viewport()->width(), vl::RDB_BACK_LEFT );
pipeline()->camera()->addRenderFinishedCallback(_camera_read_pixels .get());
_camera_read_pixels ->setRemoveAfterCall(true);
std::string filename = vl::Say( title() + "-%n.tif") << (int)vl::Time::timerSeconds();
_camera_read_pixels ->setSavePath( filename );
vl::Log::print( vl::Say("Screenshot: '%s'\n") << filename );
}
}
StatusWith<ResolvedView> ViewCatalog::resolveView(OperationContext* txn,
const NamespaceString& nss) {
stdx::lock_guard<stdx::mutex> lk(_mutex);
const NamespaceString* resolvedNss = &nss;
std::vector<BSONObj> resolvedPipeline;
for (int i = 0; i < ViewGraph::kMaxViewDepth; i++) {
auto view = _lookup_inlock(txn, resolvedNss->ns());
if (!view)
return StatusWith<ResolvedView>({*resolvedNss, resolvedPipeline});
resolvedNss = &(view->viewOn());
// Prepend the underlying view's pipeline to the current working pipeline.
const std::vector<BSONObj>& toPrepend = view->pipeline();
resolvedPipeline.insert(resolvedPipeline.begin(), toPrepend.begin(), toPrepend.end());
// If the first stage is a $collStats, then we return early with the viewOn namespace.
if (toPrepend.size() > 0 && !toPrepend[0]["$collStats"].eoo()) {
return StatusWith<ResolvedView>({*resolvedNss, resolvedPipeline});
}
}
return {ErrorCodes::ViewDepthLimitExceeded,
str::stream() << "View depth too deep or view cycle detected; maximum depth is "
<< ViewGraph::kMaxViewDepth};
}
void GrOpFlushState::executeDrawsAndUploadsForMeshDrawOp(
const GrOp* op, const SkRect& chainBounds, GrProcessorSet&& processorSet,
GrPipeline::InputFlags pipelineFlags, const GrUserStencilSettings* stencilSettings) {
SkASSERT(this->rtCommandBuffer());
GrPipeline::InitArgs pipelineArgs;
pipelineArgs.fInputFlags = pipelineFlags;
pipelineArgs.fDstProxy = this->dstProxy();
pipelineArgs.fCaps = &this->caps();
pipelineArgs.fResourceProvider = this->resourceProvider();
pipelineArgs.fUserStencil = stencilSettings;
GrPipeline pipeline(pipelineArgs, std::move(processorSet), this->detachAppliedClip());
while (fCurrDraw != fDraws.end() && fCurrDraw->fOp == op) {
GrDeferredUploadToken drawToken = fTokenTracker->nextTokenToFlush();
while (fCurrUpload != fInlineUploads.end() &&
fCurrUpload->fUploadBeforeToken == drawToken) {
this->rtCommandBuffer()->inlineUpload(this, fCurrUpload->fUpload);
++fCurrUpload;
}
this->rtCommandBuffer()->draw(
*fCurrDraw->fGeometryProcessor, pipeline, fCurrDraw->fFixedDynamicState,
fCurrDraw->fDynamicStateArrays, fCurrDraw->fMeshes, fCurrDraw->fMeshCnt,
chainBounds);
fTokenTracker->flushToken();
++fCurrDraw;
}
}
void
Consumer::run(const Name& prefix,
const size_t pipelineSize,
const bool mustBeFresh,
const time::milliseconds& lifetime,
const bool isVerbose)
{
m_nextToPrint = 0;
Face face;
engine::PipelineInterests pipeline(face, pipelineSize,
bind(&Consumer::onData, this, _1, _2),
bind(&Consumer::onFailure, this, _1),
mustBeFresh, lifetime, 3, isVerbose);
engine::DiscoverVersion discover(face, prefix,
bind(&engine::PipelineInterests::runWithData, &pipeline, _2),
bind(&Consumer::onFailure, this, _1),
mustBeFresh, lifetime, isVerbose);
discover.run();
try
{
face.processEvents();
}
catch (std::exception& e)
{
std::cerr << "ERROR: " << e.what() << std::endl;
}
}
int main() {
int loop = 1;
int input = -1;
while(loop) {
printf("Pipelined/Superscalar instruction performance\n");
printf("---------------------------------------------\n");
printf("1) Enter instructions\n");
printf("2) Calculate total cycle count on a 6-stage pipelined architecture\n");
printf("3) Calculate total cycle count on a 6-stage superscalar architecture\n");
printf("4) Quit\n");
printf("\n");
printf("Enter selection: ");
scanf("%d", &input);
switch(input) {
case 1:
enterInstr();
break;
case 2:
pipeline();
break;
case 3:
superscalar();
break;
case 4:
loop = 0;
break;
default:
printf("Invalid selection.");
}
printf("\n\n");
}
return 0;
}
/**
* Processes a recorded video or live view from web-camera and allows you to adjust homography refinement and
* reprojection threshold in runtime.
*/
void processVideo(const cv::Mat& patternImage, CameraCalibration& calibration, cv::VideoCapture& capture)
{
// Grab first frame to get the frame dimensions
cv::Mat currentFrame;
capture >> currentFrame;
// Check the capture succeeded:
if (currentFrame.empty())
{
std::cout << "Cannot open video capture device" << std::endl;
return;
}
cv::Size frameSize(currentFrame.cols, currentFrame.rows);
ARPipeline pipeline(patternImage, calibration);
ARDrawingContext drawingCtx("Markerless AR", frameSize, calibration);
bool shouldQuit = false;
do
{
capture >> currentFrame;
if (currentFrame.empty())
{
shouldQuit = true;
continue;
}
shouldQuit = processFrame(currentFrame, pipeline, drawingCtx);
} while (!shouldQuit);
}
bool prompt_init()
{
bool is_running;
bool is_success;
char* cmd;
int parser_ret;
t_cmd_list* cmd_current;
t_cmd_list* cmd_list;
is_running = true;
is_success = true;
parser_ret = 0;
while (is_running)
{
prompt_show();
cmd = prompt_cmd_read();
if (cmd == NULL)
{
is_success = false;
free(cmd);
break;
}
if (my_strlen(cmd) > 0)
{
cmd_list = prompt_cmd_split(cmd);
if (cmd_list == NULL)
{
is_success = false;
break;
}
cmd_current = cmd_list;
while(cmd_current != NULL)
{
if (cmd_current->is_piped)
{
cmd_current = pipeline(cmd_current, -1);
}
else if ((cmd_current->is_redirect_input) || (cmd_current->is_redirect_output))
{
cmd_current = redirections(cmd_current);
}
else
{
parser_ret = parser(cmd_current->cmd);
}
cmd_current = cmd_current->next;
}
prompt_cmd_split_free(cmd_list);
}
else
{
free(cmd);
}
if (parser_ret == BUILTIN_EXIT)
{
is_running = false;
}
}
return (is_success);
}
int main()
{
vpp::ContextSettings settings = { /* ... */ };
auto window = initWindow();
auto context = vpp::Win32Context(settings, hinstance, window);
vpp::VertexBufferLayout vbLayout({vpp::VertexBufferLayout::Point3fColor3f});
vpp::DescriptorSetLayout dsLayout(context.device(), {vk::DescriptorType::UniformBuffer});
vpp::GraphicsPipeline::CreateInfo createInfo;
createInfo.renderPass = context.swapChain().vkRenderPass();
createInfo.vertexBufferLayouts = vblayout;
createInfo.descriptorSetLayouts = dsLayout;
createInfo.shaderProgram = vpp::ShaderProgram({
{vk::ShaderStageFlags::Vertex, "vert.sprv"},
{vk::ShaderStageFlags::Fragment, "frag.sprv"}
});
vpp::GraphicsPipeline pipeline(context.device(), createInfo);
//buffer, descriptors
vpp::Buffer vertexBuffer(context.device(), vertices);
vpp::Buffer uniformBuffer(context.device(), someTransformMatrix);
vpp::DescriptorSet descriptorSet(dsLayout);
static_cast<vpp::BufferDescriptor>(descriptorSet[0]).write(uniformBuffer); //#1
descriptorSet.writeBuffers(0, {uniformBuffer}) //#2;
//later
pipeline.drawCommands(commandBuffer, {vertexBuffer}, {descriptorSet});
}
nsresult
LocalSourceStreamInfo::TakePipelineFrom(RefPtr<LocalSourceStreamInfo>& info,
const std::string& oldTrackId,
MediaStreamTrack& aNewTrack,
const std::string& newTrackId)
{
if (mPipelines.count(newTrackId)) {
CSFLogError(logTag, "%s: Pipeline already exists for %s/%s",
__FUNCTION__, mId.c_str(), newTrackId.c_str());
return NS_ERROR_INVALID_ARG;
}
RefPtr<MediaPipeline> pipeline(info->ForgetPipelineByTrackId_m(oldTrackId));
if (!pipeline) {
// Replacetrack can potentially happen in the middle of offer/answer, before
// the pipeline has been created.
CSFLogInfo(logTag, "%s: Replacing track before the pipeline has been "
"created, nothing to do.", __FUNCTION__);
return NS_OK;
}
nsresult rv =
static_cast<MediaPipelineTransmit*>(pipeline.get())->ReplaceTrack(aNewTrack);
NS_ENSURE_SUCCESS(rv, rv);
mPipelines[newTrackId] = pipeline;
return NS_OK;
}
//parses a pipeline, returning command struct
//modifies global variable t
CMD *pipeline()
{
CMD *cmd = 0, *tmp = 0;
cmd = stage();
while (t && ISPIPE(t->type))
{
if (!cmd)
{
DIE("Parse: null command\n");
freeCMD(cmd);
return 0;
}
if (cmd->toType != NONE)
{
DIE("Parse: two output redirects\n");
freeCMD(cmd);
return 0;
}
tmp = cmd;
cmd = mallocCMD();
cmd->type = t->type;
cmd->left = tmp;
t = t->next;
cmd->right = pipeline();
if (!cmd->right)
{
DIE("Parse: null command\n");
freeCMD(cmd);
return 0;
}
}
return cmd;
}
//parses an and-or statement, returning command struct
//modifies global variable t
CMD *andOr()
{
CMD *cmd = 0 /*output*/, *tmp = 0; //swap
cmd = pipeline();
while (t && (t->type == SEP_AND || t->type == SEP_OR))
{
if (!cmd)
{
DIE("Parse: null command\n");
freeCMD(cmd);
return 0;
}
tmp = cmd;
cmd = mallocCMD();
cmd->type = t->type;
cmd->left = tmp;
t = t->next;
cmd->right = andOr();
if (!cmd->right)
{
DIE("Parse: null command\n");
freeCMD(cmd);
return 0;
}
}
return cmd;
}
linked_light_lists_gen_fragment(const gl::rendering_system &rs,
linked_light_lists *lll)
: Base(rs,
"linked_light_lists_gen.comp"),
lll(lll)
{
dispatch_task.attach_pipeline(pipeline());
}
void MilkdropPreset::Render(const BeatDetect &music, const PipelineContext &context)
{
_presetInputs.update(music, context);
evaluateFrame();
pipeline().Render(music, context);
}
bool vtkBalloonWidgetTest::Run(bool run)
{
vtkBalloonWidgetTest test;
vtkWidgetsTestPipelineTemplate<vtkBalloonWidgetTest> pipeline(test);
pipeline.StartInteractor();
return true;
}
StatusWith<intrusive_ptr<Pipeline>> Pipeline::create(
SourceContainer stages, const intrusive_ptr<ExpressionContext>& expCtx) {
intrusive_ptr<Pipeline> pipeline(new Pipeline(stages, expCtx));
auto status = pipeline->ensureAllStagesAreInLegalPositions();
if (!status.isOK()) {
return status;
}
pipeline->stitch();
return pipeline;
}
/**
* Processes single image. The processing goes in a loop.
* It allows you to control the detection process by adjusting homography refinement switch and
* reprojection threshold in runtime.
*/
void processSingleImage(const cv::Mat& patternImage, CameraCalibration& calibration, const cv::Mat& image)
{
cv::Size frameSize(image.cols, image.rows);
ARPipeline pipeline(patternImage, calibration);
ARDrawingContext drawingCtx("Markerless AR", frameSize, calibration);
bool shouldQuit = false;
do
{
shouldQuit = processFrame(image, pipeline, drawingCtx);
} while (!shouldQuit);
}
void onExecute(GrOpFlushState* state) override {
GrRenderTarget* rt = state->drawOpArgs().fRenderTarget;
GrPipeline pipeline(rt, fScissorState, SkBlendMode::kSrc);
SkSTArray<kNumMeshes, GrMesh> meshes;
for (int i = 0; i < kNumMeshes; ++i) {
GrMesh& mesh = meshes.emplace_back(GrPrimitiveType::kTriangleStrip);
mesh.setNonIndexedNonInstanced(4);
mesh.setVertexData(fVertexBuffer.get(), 4 * i);
}
state->commandBuffer()->draw(pipeline, GrPipelineDynamicStateTestProcessor(),
meshes.begin(), kDynamicStates, 4,
SkRect::MakeIWH(kScreenSize, kScreenSize));
}
void GrDrawPathOp::onExecute(GrOpFlushState* state, const SkRect& chainBounds) {
GrAppliedClip appliedClip = state->detachAppliedClip();
GrPipeline::FixedDynamicState fixedDynamicState(appliedClip.scissorState().rect());
GrPipeline pipeline(this->pipelineInitArgs(*state), this->detachProcessors(),
std::move(appliedClip));
sk_sp<GrPathProcessor> pathProc(GrPathProcessor::Create(this->color(), this->viewMatrix()));
GrStencilSettings stencil;
init_stencil_pass_settings(*state, this->fillType(), &stencil);
state->gpu()->pathRendering()->drawPath(state->drawOpArgs().renderTarget(),
state->drawOpArgs().origin(),
*pathProc, pipeline, fixedDynamicState, stencil,
fPath.get());
}
STATIC union node *
andor() {
union node *n1, *n2, *n3;
int t;
n1 = pipeline();
for (;;) {
if ((t = readtoken()) == TAND) {
t = NAND;
} else if (t == TOR) {
t = NOR;
} else {
tokpushback++;
return n1;
}
n2 = pipeline();
n3 = (union node *)stalloc(sizeof (struct nbinary));
n3->type = t;
n3->nbinary.ch1 = n1;
n3->nbinary.ch2 = n2;
n1 = n3;
}
}
int main(int argc, char** argv)
{
/**
* Argument parsing
*/
po::options_description desc("Available options");
desc.add_options()
("help", "Show this message")
("data-path,d", po::value<std::string>(), "Input dataset folder path")
("show-clouds,s", po::bool_switch()->default_value(false), "Show result point clouds")
("no-save-clouds,n", po::bool_switch()->default_value(false), "Don't save cloud outputs")
;
po::positional_options_description p;
p.add("data-path", -1);
po::variables_map vm;
po::store(po::command_line_parser(argc, argv).options(desc).positional(p).run(), vm);
po::notify(vm);
if (vm.size() == 0 || vm.count("help") || !vm.count("data-path")) {
std::cout << "Usage: " << argv[0]
<< " [options] data-path" << std::endl
<< desc;
return 1;
}
std::string folder_path = vm["data-path"].as<std::string>();
bool show_clouds = vm["show-clouds"].as<bool>();
bool save_clouds = !vm["no-save-clouds"].as<bool>();
/**
* Pipeline
*/
// Create instance of pipeline
Pipeline pipeline(folder_path);
// and run
pipeline.run(save_clouds, show_clouds);
/**
* End
*/
return 0;
}
/*
Build a pipeline from a JSON filter specification.
*/
void TranslateKernel::makeJSONPipeline()
{
std::string json;
if (pdal::FileUtils::fileExists(m_filterJSON))
json = pdal::FileUtils::readFileIntoString(m_filterJSON);
if (json.empty())
json = m_filterJSON;
Json::Reader jsonReader;
Json::Value filters;
jsonReader.parse(json, filters);
if (filters.type() != Json::arrayValue || filters.empty())
throw pdal_error("JSON must be an array of filter specifications");
Json::Value pipeline(Json::arrayValue);
// Add the input file, the filters (as provided) and the output file.
if (m_readerType.size())
{
Json::Value node(Json::objectValue);
node["filename"] = m_inputFile;
node["type"] = m_readerType;
pipeline.append(node);
}
else
pipeline.append(Json::Value(m_inputFile));
for (Json::ArrayIndex i = 0; i < filters.size(); ++i)
pipeline.append(filters[i]);
if (m_writerType.size())
{
Json::Value node(Json::objectValue);
node["filename"] = m_outputFile;
node["type"] = m_writerType;
pipeline.append(node);
}
else
pipeline.append(Json::Value(m_outputFile));
Json::Value root;
root["pipeline"] = pipeline;
std::stringstream pipeline_str;
pipeline_str << root;
m_manager.readPipeline(pipeline_str);
}
bool RemoteSourceStreamInfo::SetUsingBundle_m(int aLevel, bool decision) {
ASSERT_ON_THREAD(mParent->GetMainThread());
RefPtr<MediaPipeline> pipeline(GetPipelineByLevel_m(aLevel));
if (pipeline) {
RUN_ON_THREAD(mParent->GetSTSThread(),
WrapRunnable(
pipeline,
&MediaPipeline::SetUsingBundle_s,
decision
),
NS_DISPATCH_NORMAL);
return true;
}
return false;
}
void ShapeRenderer::drawRectangle(m2::AnyRectD const & r, graphics::Color const & c, double depth)
{
uint32_t id = base_t::mapInfo(Brush::Info(c));
Resource const * res = base_t::fromID(id);
if (res == 0)
{
LOG(LDEBUG, ("cannot map color"));
return;
}
m2::PointD rectPts[4];
r.GetGlobalPoints(rectPts);
swap(rectPts[2], rectPts[3]);
m2::PointF rectPtsF[4];
for (int i = 0; i < 4; ++i)
rectPtsF[i] = m2::PointF(rectPts[i].x, rectPts[i].y);
GeometryPipeline & p = pipeline(res->m_pipelineID);
shared_ptr<gl::BaseTexture> texture = p.texture();
if (!texture)
{
LOG(LDEBUG, ("returning as no texture is reserved"));
return;
}
m2::PointF texPt = texture->mapPixel(m2::RectF(res->m_texRect).Center());
m2::PointF normal(0, 0);
addTexturedStripStrided(
rectPtsF,
sizeof(m2::PointF),
&normal,
0,
&texPt,
0,
4,
depth,
res->m_pipelineID);
}
void ShapeRenderer::drawRectangle(m2::RectD const & r, graphics::Color const & c, double depth)
{
uint32_t id = base_t::mapInfo(Brush::Info(c));
Resource const * res = base_t::fromID(id);
if (res == 0)
{
LOG(LDEBUG, ("cannot map color"));
return;
}
m2::PointF rectPts[4] = {
m2::PointF(r.minX(), r.minY()),
m2::PointF(r.maxX(), r.minY()),
m2::PointF(r.minX(), r.maxY()),
m2::PointF(r.maxX(), r.maxY())
};
GeometryPipeline & p = pipeline(res->m_pipelineID);
shared_ptr<gl::BaseTexture> texture = p.texture();
if (!texture)
{
LOG(LDEBUG, ("returning as no texture is reserved"));
return;
}
m2::PointF texPt = texture->mapPixel(m2::RectF(res->m_texRect).Center());
m2::PointF normal(0, 0);
addTexturedStripStrided(
rectPts,
sizeof(m2::PointF),
&normal,
0,
&texPt,
0,
4,
depth,
res->m_pipelineID
);
}
StatusWith<ResolvedView> ViewCatalog::resolveView(OperationContext* opCtx,
const NamespaceString& nss) {
stdx::lock_guard<stdx::mutex> lk(_mutex);
const NamespaceString* resolvedNss = &nss;
std::vector<BSONObj> resolvedPipeline;
BSONObj collation;
for (int i = 0; i < ViewGraph::kMaxViewDepth; i++) {
auto view = _lookup_inlock(opCtx, resolvedNss->ns());
if (!view) {
// Return error status if pipeline is too large.
int pipelineSize = 0;
for (auto obj : resolvedPipeline) {
pipelineSize += obj.objsize();
}
if (pipelineSize > ViewGraph::kMaxViewPipelineSizeBytes) {
return {ErrorCodes::ViewPipelineMaxSizeExceeded,
str::stream() << "View pipeline exceeds maximum size; maximum size is "
<< ViewGraph::kMaxViewPipelineSizeBytes};
}
return StatusWith<ResolvedView>(
{*resolvedNss, std::move(resolvedPipeline), std::move(collation)});
}
resolvedNss = &(view->viewOn());
collation = view->defaultCollator() ? view->defaultCollator()->getSpec().toBSON()
: CollationSpec::kSimpleSpec;
// Prepend the underlying view's pipeline to the current working pipeline.
const std::vector<BSONObj>& toPrepend = view->pipeline();
resolvedPipeline.insert(resolvedPipeline.begin(), toPrepend.begin(), toPrepend.end());
// If the first stage is a $collStats, then we return early with the viewOn namespace.
if (toPrepend.size() > 0 && !toPrepend[0]["$collStats"].eoo()) {
return StatusWith<ResolvedView>(
{*resolvedNss, std::move(resolvedPipeline), std::move(collation)});
}
}
return {ErrorCodes::ViewDepthLimitExceeded,
str::stream() << "View depth too deep or view cycle detected; maximum depth is "
<< ViewGraph::kMaxViewDepth};
}
already_AddRefed<MediaPipeline>
LocalSourceStreamInfo::ForgetPipelineByTrackId_m(const std::string& trackId)
{
ASSERT_ON_THREAD(mParent->GetMainThread());
// Refuse to hand out references if we're tearing down.
// (Since teardown involves a dispatch to and from STS before MediaPipelines
// are released, it is safe to start other dispatches to and from STS with a
// RefPtr<MediaPipeline>, since that reference won't be the last one
// standing)
if (mMediaStream) {
if (mPipelines.count(trackId)) {
RefPtr<MediaPipeline> pipeline(mPipelines[trackId]);
mPipelines.erase(trackId);
return pipeline.forget();
}
}
return nullptr;
}
SkColor4f SkColorFilter::filterColor4f(const SkColor4f& c, SkColorSpace* colorSpace) const {
SkPMColor4f dst, src = c.premul();
// determined experimentally, seems to cover compose+colormatrix
constexpr size_t kEnoughForCommonFilters = 512;
SkSTArenaAlloc<kEnoughForCommonFilters> alloc;
SkRasterPipeline pipeline(&alloc);
pipeline.append_constant_color(&alloc, src.vec());
SkPaint dummyPaint;
SkStageRec rec = {
&pipeline, &alloc, kRGBA_F32_SkColorType, colorSpace, dummyPaint, nullptr, SkMatrix::I()
};
this->onAppendStages(rec, c.fA == 1);
SkRasterPipeline_MemoryCtx dstPtr = { &dst, 0 };
pipeline.append(SkRasterPipeline::store_f32, &dstPtr);
pipeline.run(0,0, 1,1);
return dst.unpremul();
}
cx::CompositeTimedAlgorithmPtr ReconstructionExecuter::assembleReconstructionPipeline(std::vector<ReconstructCorePtr> cores, ReconstructCore::InputParams par, USReconstructInputData fileData)
{
cx::CompositeSerialTimedAlgorithmPtr pipeline(new cx::CompositeSerialTimedAlgorithm("US Reconstruction"));
ReconstructPreprocessorPtr preprocessor = this->createPreprocessor(par, fileData);
pipeline->append(ThreadedTimedReconstructPreprocessor::create(mPatientModelService, preprocessor, cores));
cx::CompositeTimedAlgorithmPtr temp = pipeline;
if(this->canCoresRunInParallel(cores) && cores.size()>1)
{
cx::CompositeParallelTimedAlgorithmPtr parallel(new cx::CompositeParallelTimedAlgorithm());
pipeline->append(parallel);
temp = parallel;
reportDebug("Running reconstruction cores in parallel.");
}
for (unsigned i=0; i<cores.size(); ++i)
temp->append(ThreadedTimedReconstructCore::create(mPatientModelService, mViewService, cores[i]));
return pipeline;
}
int run(handle_t module_ptr, handle_t function,
const buffer *input_buffersPtrs, int input_buffersLen,
buffer *output_buffersPtrs, int output_buffersLen,
const buffer *input_scalarsPtrs, int input_scalarsLen) {
// Get a pointer to the argv version of the pipeline.
typedef int (*pipeline_argv_t)(void **);
pipeline_argv_t pipeline = reinterpret_cast<pipeline_argv_t>(function);
// Construct a list of arguments. This is only part of a
// buffer_t. We know that the only field of buffer_t that the
// generated code should access is the host field (any other
// fields should be passed as their own scalar parameters) so we
// can just make this dummy buffer_t type.
struct buffer_t {
uint64_t dev;
uint8_t* host;
};
void **args = (void **)__builtin_alloca((input_buffersLen + input_scalarsLen + output_buffersLen) * sizeof(void *));
buffer_t *buffers = (buffer_t *)__builtin_alloca((input_buffersLen + output_buffersLen) * sizeof(buffer_t));
void **next_arg = &args[0];
buffer_t *next_buffer_t = &buffers[0];
// Input buffers come first.
for (int i = 0; i < input_buffersLen; i++, next_arg++, next_buffer_t++) {
next_buffer_t->host = input_buffersPtrs[i].data;
*next_arg = next_buffer_t;
}
// Output buffers are next.
for (int i = 0; i < output_buffersLen; i++, next_arg++, next_buffer_t++) {
next_buffer_t->host = output_buffersPtrs[i].data;
*next_arg = next_buffer_t;
}
// Input scalars are last.
for (int i = 0; i < input_scalarsLen; i++, next_arg++) {
*next_arg = input_scalarsPtrs[i].data;
}
// Call the pipeline and return the result.
return pipeline(args);
}
