void GraphicsContext::strokeEllipseAsPath(const FloatRect& ellipse)
{
Path path;
path.addEllipse(ellipse);
strokePath(path);
}
void LowLevelGraphicsSoftwareRenderer::drawLine (const Line <float>& line)
{
Path p;
p.addLineSegment (line, 1.0f);
fillPath (p, AffineTransform::identity);
}
void Oscilloscope::paint(juce::Graphics &g)
{
g.fillAll (Colours::white);
Path path;
float xOffset = 21.f;
float yOffset = 120.f;
Rectangle<float> rect = logoPath.getBounds();
Rectangle<int> rect2 = getLocalBounds();
g.setColour (Colours::black);
g.fillPath (logoPath, RectanglePlacement (RectanglePlacement::stretchToFit)
.getTransformToFit (logoPath.getBounds(),
getLocalBounds().toFloat()));
// Horizontal zero line.
path.addLineSegment(Line<float> (xOffset, yOffset, getLocalBounds().getWidth() - xOffset, yOffset), 1.);
g.setColour (Colours::lightgrey);
g.fillPath (path);
float xIncrement = (getLocalBounds().getWidth() - 2 * xOffset) / (UIConstants::NUMBER_SCOPE_POINTS - 1);
// Now iterate over points.
int count = 0;
float alpha = 0;
for (auto& points : allPoints)
{
if ((currentPointsIndex - count + UIConstants::NUMBER_SCOPE_BUFFERS) % UIConstants::NUMBER_SCOPE_BUFFERS == 0)
{
// Current array is 'brightest'
alpha = 1;
} else
{
// Set older immediately to less than 0.5 alpha.
alpha = 0.3 - ((currentPointsIndex - count + UIConstants::NUMBER_SCOPE_BUFFERS) % UIConstants::NUMBER_SCOPE_BUFFERS) * 0.03 ;
}
// g.setColour(Colour::fromFloatRGBA(0, 255 , 0, alpha)) ;
g.setColour(scopeTraceColour.withAlpha(alpha));
path.clear();
float x = 0;
path.startNewSubPath(xOffset, yOffset);
for (auto& point : points)
{
// g.setPixel(x + xOffset, yOffset - 30 * point.x); // point.x in this case is the right value of the stereo pair.
path.lineTo(x + xOffset, yOffset - 30 * point.x);
x += xIncrement;
}
// path.closeSubPath();
g.strokePath (path, PathStrokeType (1.0f));
count++;
}
}
void RenderDemoDlg::RenderControl(ReDrawInfoType* ExtraInfo)
{
// Go get a render region
DocRect VirtualSize(-ExtraInfo->dx/2, -ExtraInfo->dy/2, ExtraInfo->dx/2, ExtraInfo->dy/2);
RenderRegion* pRender = CreateGRenderRegion(&VirtualSize, ExtraInfo);
if (pRender!=NULL)
{
DialogColourInfo RedrawColours; // Get a supplier for default dlg colours
// Render stuff in here
// Build a Linear fill attribute
LinearFillAttribute MyGradFill;
MyGradFill.Colour = DocColour(255, 255, 0);
MyGradFill.EndColour = DocColour(0, 255, 255);
MyGradFill.StartPoint = DocCoord(0, ExtraInfo->dy);
MyGradFill.EndPoint = DocCoord(ExtraInfo->dx, 0);
// Build a path
Path InkPath;
InkPath.Initialise(12,12);
InkPath.FindStartOfPath();
// Get the coords used to build a shape
INT32 dx = ExtraInfo->dx / 2;
INT32 dy = ExtraInfo->dy / 2;
INT32 Midx = ExtraInfo->dx / 4;
INT32 Midy = ExtraInfo->dy / 4;
// build a circle in the middle of the control
InkPath.InsertMoveTo(DocCoord(Midx, dy));
InkPath.InsertCurveTo(DocCoord(Midx+Midx/2, dy), DocCoord(dx, Midy+Midy/2), DocCoord(dx, Midy));
InkPath.InsertCurveTo(DocCoord(dx, Midy-Midy/2), DocCoord(Midx+Midx/2, 0), DocCoord(Midx, 0));
InkPath.InsertCurveTo(DocCoord(Midx-Midx/2, 0), DocCoord(0, Midy-Midy/2), DocCoord(0, Midy));
InkPath.InsertCurveTo(DocCoord(0, Midy+Midy/2), DocCoord(Midx-Midx/2, dy), DocCoord(Midx, dy));
InkPath.IsFilled = TRUE;
// A Grey colour [...hmmm, it's not a very grey grey any more... oragnge more like]
DocColour Grey(255,200,0);
// Render the attributes and the a rectangle
pRender->SaveContext();
pRender->SetLineColour(Grey);
// Draw a rectangle to fill in the background - Fill with Dialogue Background colour
DocRect DrawMe(0, 0, ExtraInfo->dx, ExtraInfo->dy);
pRender->SetFillColour(RedrawColours.DialogBack());
pRender->DrawRect(&VirtualSize);
// Draw some shapes and stuff
pRender->SetFillGeometry(&MyGradFill, FALSE);
pRender->DrawPath(&InkPath);
// Build a path
Path TriPath;
TriPath.Initialise(12,12);
TriPath.FindStartOfPath();
// build a circle in the middle of the control
TriPath.InsertMoveTo(VirtualSize.lo);
TriPath.InsertLineTo(DocCoord(VirtualSize.hi.x, VirtualSize.lo.y));
TriPath.InsertLineTo(DocCoord(0, VirtualSize.hi.y));
TriPath.InsertLineTo(VirtualSize.lo);
TriPath.IsFilled = TRUE;
LinearFillAttribute MyTriFill;
MyTriFill.Colour = ShowFirst ? First : Second;
MyTriFill.EndColour = DocColour(0,0,0);
MyTriFill.StartPoint = DocCoord(ExtraInfo->dx, 0);
MyTriFill.EndPoint = DocCoord(0, ExtraInfo->dy);
pRender->SetFillGeometry(&MyTriFill, FALSE);
pRender->DrawPath(&TriPath);
pRender->RestoreContext();
// Get rid of the render region
DestroyGRenderRegion(pRender);
}
// and animate it!
if (ShowFirst)
{
INT32 Red, Green, Blue;
First.GetRGBValue(&Red, &Green, &Blue);
if (Blue>0)
{
// Set the colour back again
Blue -= 10;
First.SetRGBValue(Red, Green, Blue);
// redraw it
InvalidateGadget(_R(IDC_REDRAW_ME));
}
}
else
{
// Set the colour back to how it was
First.SetRGBValue(255, 0, 250);
}
}
// Evaluate the contributions of the given eye and light paths
void evaluate(GBDPTWorkResult *wr,
Path &emitterSubpath, std::vector<Path> &sensorSubpath, std::vector<ShiftPathData> &pathData, int vert_b,
std::vector<Spectrum> &value, std::vector<Float> &miWeight, std::vector<Float> &valuePdf,
std::vector<double> &jacobianLP, std::vector<double> &genGeomTermLP, bool *pathSuccess) {
/* we use fixed neighborhood kernel! Future work will be to extend this to structurally-adaptive neighbours!!! */
Vector2 shifts[4] = { Vector2(0, -1), Vector2(-1, 0), Vector2(1, 0), Vector2(0, 1) };
int neighbourCount = 4;
Point2 initialSamplePos = sensorSubpath[0].vertex(1)->getSamplePosition();
int pixelIndex = (int)initialSamplePos[0] + (int)initialSamplePos[1] * m_sensor->getFilm()->getSize().x;
const Scene *scene = m_scene;
PathEdge connectionEdge;
/* combined weights along the two subpaths */
Spectrum *importanceWeights = (Spectrum *)alloca(emitterSubpath.vertexCount() * sizeof(Spectrum));
Spectrum **radianceWeights = (Spectrum **)alloca((neighbourCount + 1) * sizeof(Spectrum*));
/* combined Pdfs along the two subpaths */
Float *importancePdf = (Float*)alloca(emitterSubpath.vertexCount() * sizeof(Float));
Float **radiancePdf = (Float **)alloca((neighbourCount + 1) * sizeof(Float*));
for (int k = 0; k <= neighbourCount; k++){
radianceWeights[k] = (Spectrum *)alloca(sensorSubpath[0].vertexCount() * sizeof(Spectrum));
radiancePdf[k] = (Float *)alloca(sensorSubpath[0].vertexCount() * sizeof(Float));
}
/* Compute the importance and radiance data */
combineImportanceData(emitterSubpath, importanceWeights, importancePdf);
combineRadianceData(sensorSubpath, pathData, neighbourCount, radianceWeights, radiancePdf);
/* Allocate space for gradients */
Spectrum primal = Spectrum(0.f);
Spectrum *gradient = (Spectrum *)alloca(neighbourCount * sizeof(Spectrum));
for (int k = 0; k<neighbourCount; k++){
gradient[k] = Spectrum(0.f);
}
Path offsetEmitterSubpath, connectedBasePath;
Spectrum geomTermBase, connectionPartsBase, offsetImportanceWeight;
PathEdge connectionEdgeBase;
bool successConnectBase, successOffsetGen, lightpathSuccess, samplePosValid;
Float offsetImportancePdf, offsetImportanceGeom;
Point2 samplePos;
Spectrum visibility = Spectrum(0.f);
Spectrum light = Spectrum(0.f);
for (int s = (int)emitterSubpath.vertexCount() - 1; s >= 0; --s) {
/* Determine the range of sensor vertices to be traversed, while respecting the specified maximum path length */
int minT = std::max(2 - s, m_config.lightImage ? 1 : 2), // disable t=0 paths
maxT = (int)sensorSubpath[0].vertexCount() - 1;
if (m_config.maxDepth != -1)
maxT = std::min(maxT, m_config.maxDepth + 1 - s);
for (int t = maxT; t >= minT; --t) {
samplePosValid = true;
/* neighbour count and sample position for non-light paths */
samplePos = initialSamplePos;
/* if light path can be computed: recalculate pixel position and neighbours*/
if (t == 1){
if (sensorSubpath[0].vertex(t)->isSensorSample()&& !sensorSubpath[0].vertex(t)->getSamplePosition(emitterSubpath.vertex(s), samplePos)
|| !Path::isConnectable_GBDPT(emitterSubpath.vertex(s), m_config.m_shiftThreshold))
continue;
}
int memPointer;
for (int k = 0; k <= neighbourCount; k++){
miWeight[k] = 1.f / (s + t + 1);
pathSuccess[k] = pathData[k].success;
value[k] = Spectrum(0.f);
valuePdf[k] = 0.f;
/* for radiance make sure that offset light paths have the correct value */
const Spectrum *importanceWeightTmp = &importanceWeights[s],
*radianceWeightTmp = &radianceWeights[t == 1 ? 0 : k][t];
const Float *importancePdfTmp = &importancePdf[s],
*radiancePdfTmp = &radiancePdf[t == 1 ? 0 : k][t];
const Path *sensorSubpathTmp = &sensorSubpath[k],
*emitterSubpathTmp = &emitterSubpath;
MutationRecord muRec;
/* create the base path on which the shift is applied. changes for every light tracing path */
if (t == 1 && k == 0){
pathSuccess[0] = createShiftablePath(connectedBasePath, emitterSubpath, sensorSubpath[0], s, 1, memPointer);
m_offsetGenerator->computeMuRec(connectedBasePath, muRec);
genGeomTermLP[0] = connectedBasePath.calcSpecularPDFChange(muRec.extra[2], m_offsetGenerator, true);
}
/* if we have a light tracing path we need to modify the emitter-sub path */
if (t == 1 && k>0 && !value[0].isZero()){
if (!pathSuccess[0])
pathSuccess[k] = false;
else{
createShiftedLightPath(connectedBasePath, offsetEmitterSubpath, jacobianLP[k - 1], pathSuccess[k], offsetImportanceWeight, offsetImportancePdf, muRec, samplePos, shifts[k-1]/*nIdxL[k - 1]*/, s);
if (pathSuccess[k]){
genGeomTermLP[k] = offsetEmitterSubpath.calcSpecularPDFChange(muRec.extra[2], m_offsetGenerator, true);
importanceWeightTmp = &offsetImportanceWeight;
importancePdfTmp = &offsetImportancePdf;
emitterSubpathTmp = &offsetEmitterSubpath;
}
sensorSubpathTmp = &sensorSubpath[0];
}
}
Spectrum geomTerm = Spectrum(0.0);
do{ //this should really go away at some point...
if (pathSuccess[k] && pathSuccess[0] && (k == 0 || (valuePdf[0]>0 && !value[0].isZero()))){
if (!pathData[k].couldConnectAfterB && t > vert_b)
break;
PathVertex
*vsPred = emitterSubpathTmp->vertexOrNull(s - 1),
*vtPred = sensorSubpathTmp->vertexOrNull(t - 1),
*vs = emitterSubpathTmp->vertex(s), //connecting vertex from emitter side
*vt = sensorSubpathTmp->vertex(t); //connecting vertex from sensor side
PathEdge
*vsEdge = emitterSubpathTmp->edgeOrNull(s - 1),
*vtEdge = sensorSubpathTmp->edgeOrNull(t - 1);
/* Allowed remaining number of ENull vertices that can be bridged via pathConnect (negative=arbitrarily many) */
int remaining = m_config.maxDepth - s - t + 1;
/* Account for the terms of the measurement contribution function that are coupled to the connection endpoints, i.e. s==0*/
if (vs->isEmitterSupernode()) {
/* If possible, convert 'vt' into an emitter sample */
if (!vt->cast(scene, PathVertex::EEmitterSample) || vt->isDegenerate()){
valuePdf[k] = *radiancePdfTmp;
break;
}
Spectrum connectionParts = (k > 0 && t > vert_b + 1) ? connectionPartsBase : vs->eval(scene, vsPred, vt, EImportance) * vt->eval(scene, vtPred, vs, ERadiance);
if (k == 0) connectionPartsBase = connectionParts;
value[k] = *radianceWeightTmp * connectionParts;
valuePdf[k] = *radiancePdfTmp;
}
/* Accounts for direct hits of light-subpaths to sensor, i.e t==0. If this happens do not compute gradients but fall back to the T0 mapping */
else if (vt->isSensorSupernode()) {
if (!vs->cast(scene, PathVertex::ESensorSample) || vs->isDegenerate() || k > 0) //Note the k>0...
{
valuePdf[k] = *importancePdfTmp;
break;
}
/* Make note of the changed pixel sample position */
if (!vs->getSamplePosition(vsPred, samplePos)){
valuePdf[k] = *importancePdfTmp;
break;
}
value[k] = *importanceWeightTmp * vs->eval(scene, vsPred, vt, EImportance) * vt->eval(scene, vtPred, vs, ERadiance);
valuePdf[k] = *importancePdfTmp;
}
else {
if (!Path::isConnectable_GBDPT(vs, m_config.m_shiftThreshold)
|| !Path::isConnectable_GBDPT(vt, m_config.m_shiftThreshold)
|| vs->getType() == 0 || vt->getType() == 0){
valuePdf[k] = *importancePdfTmp * *radiancePdfTmp;
break;
}
Spectrum connectionParts = (k>0 && t>vert_b + 1) ? connectionPartsBase : vs->eval(scene, vsPred, vt, EImportance) * vt->eval(scene, vtPred, vs, ERadiance);
if (k == 0) connectionPartsBase = connectionParts;
value[k] = *importanceWeightTmp * *radianceWeightTmp * connectionParts;
valuePdf[k] = *importancePdfTmp * *radiancePdfTmp ;
vs->measure = vt->measure = EArea;
}
if (value[k].isZero() || valuePdf[k]==0) //early exit
break;
/* Attempt to connect the two endpoints, which could result in the creation of additional vertices (index-matched boundaries etc.) */
//only required when connection segment changed from base to offset path
int interactions = remaining; // backup
bool successConnect = (k>0 && t>vert_b) ? successConnectBase : connectionEdge.pathConnectAndCollapse(scene, vsEdge, vs, vt, vtEdge, interactions);
if (k == 0) successConnectBase = successConnect;
if (!successConnect){ //early exit
value[k] = Spectrum(0.f);
break;
}
//this is the missing geometry factor in c_{s,t} of f_j mentioned in veach thesis equation 10.8
geomTerm = (k>0 && t>vert_b) ? geomTermBase : connectionEdge.evalCached(vs, vt, PathEdge::EGeneralizedGeometricTerm);
value[k] *= geomTerm;
valuePdf[k] *= (t < 2 ? genGeomTermLP[k] : pathData[k].genGeomTerm[t]);
if (value[k].isZero() || valuePdf[k]==0) //early exit
break;
if (k == 0){
connectionEdgeBase = connectionEdge;
geomTermBase = geomTerm;
// using the original routine Path::miWeight is more efficient, but we use the balance heuristic for numberical stability...
// miWeight[0] = Path::miWeight(scene, emitterSubpath, &connectionEdge, sensorSubpath[0], s, t, m_config.sampleDirect, m_config.lightImage) / valuePdf[0];
miWeight[0] = Path::miWeightBaseNoSweep_GBDPT(scene, emitterSubpath, &connectionEdgeBase, sensorSubpath[0],
*emitterSubpathTmp, &connectionEdge, *sensorSubpathTmp, s, t, m_config.sampleDirect, m_config.lightImage,
1.0, 2.0, (t<2 ? genGeomTermLP[0] : pathData[0].genGeomTerm[t]), 0.f, vert_b, m_config.m_shiftThreshold) / valuePdf[0];
}
else {
/* compute MIS weight for gradients: 1/sum(p_st(x)^n+p_st(y)^n)*/
// Note: we use the balance heuristic, not the power heuristic! The latter may cause numerical errors with long paths (since we compute the pdf explicitly)
// some smarter computation should be done at some point to handle this
miWeight[k] = Path::miWeightGradNoSweep_GBDPT(scene, emitterSubpath, &connectionEdgeBase, sensorSubpath[0],
*emitterSubpathTmp, &connectionEdge, *sensorSubpathTmp, s, t, m_config.sampleDirect, m_config.lightImage,
(t<2 ? jacobianLP[k - 1] : pathData[k].jacobianDet[t] ), 1.0,
(t<2 ? genGeomTermLP[0] : pathData[0].genGeomTerm[t]), (t<2 ? genGeomTermLP[k] : pathData[k].genGeomTerm[t]),
vert_b, m_config.m_shiftThreshold) / valuePdf[0];
}
}
} while (false);
/* release offset emitter path for light path if needed */
if (t == 1 && k>0 && pathSuccess[k] && !value[0].isZero())
offsetEmitterSubpath.release(muRec.l, muRec.m + 1, m_pool);
/* use T0 if base or offset is occluded with at least one strategy */
if (value[k].isZero() || value[0].isZero()){
value[k] = Spectrum(0.f);
miWeight[k] = miWeight[0];
valuePdf[k] = valuePdf[0];
}
}
if (t == 1)
connectedBasePath.release(memPointer, memPointer + 2, m_pool);
if (value[0].isZero()) //if basepath is zero everything is zero!
continue;
/* store primal paths contribution */
Spectrum mainRad = valuePdf[0] * miWeight[0] * value[0];
if (t >= 2)
primal += mainRad;
else
wr->putLightSample(samplePos, mainRad, 0);
/* compute and store gradients */
Spectrum fx = value[0] * valuePdf[0];
for (int n = 0; n<neighbourCount; n++)
{
Spectrum fy = value[n + 1] * valuePdf[n + 1] * (t<2 ? jacobianLP[n] : pathData[n+1].jacobianDet[t]);
Spectrum gradVal = Float(2.f)*miWeight[n + 1] * (fy - fx);
if (t >= 2)
gradient[n] += gradVal;
else
wr->putLightSample(samplePos, gradVal, n + 1);
}
}
}
/* store accumulated primal and gradient samples with t>=2 */
wr->putSample(initialSamplePos, primal, 0);
for (int k = 0; k < neighbourCount; ++k)
wr->putSample(initialSamplePos , gradient[k], k + 1);
}
void GraphicsContext::addPath(const Path& path)
{
m_data->currentPath = *(path.platformPath());
}
int main(int argc, char** argv)
{
if (argc != 4)
{
Log.info() << "Need 3 arguments: <INIFile> <input.pdb> <output.hin>" << endl;
Log.info() << "Note: exemplary rules can be found in BALL/data/solvation/PARSE.rul." << endl;
return(1);
}
Path path;
String filename = path.find(argv[1]);
if (filename == "")
{
cerr << "Could not find rule file " << argv[1] << std::endl;
return(1);
}
INIFile charge_rules(filename);
charge_rules.read();
RadiusRuleProcessor proc(charge_rules, "RadiusRules");
PDBFile infile(argv[2]);
if (!infile)
{
// if file does not exist: complain and abort
Log.error() << "error opening " << argv[2] << " for input." << endl;
return 2;
}
System system;
infile >> system;
infile.close();
Log << "Initializing FragmentDB..." << endl;
FragmentDB db("");
Log << " done." << endl;
Log << "Normalizing names..." << endl;
system.apply(db.normalize_names);
Log << " done." << endl;
Log << "Building Bonds..." << endl;
system.apply(db.build_bonds);
Log << " done." << endl;
Log << "Applying RadiusRuleProcessor..." << endl;
system.apply(proc);
Log << " done." << endl;
Log << "Checking results..." << endl;
// PARANOIA
ResidueConstIterator res_it = system.beginResidue();
for (; +res_it; ++res_it)
{
AtomConstIterator it = res_it->beginAtom();
for (; +it; ++it)
{
float c = it->getCharge();
if (fabs(c) > 4.0f)
{
Log.warn() << "WARNING: atom " << it->getFullName() << ":"
<< res_it->getID() << " has suspect charge " << c << endl;
}
}
}
Log << " done." << endl;
HINFile outfile(argv[3], std::ios::out);
outfile << system;
outfile.close();
Log << "Outputfile " << argv[3] << " written." << endl;
}
void JobScheduler::startJobs()
{
static Path rp;
if (rp.isEmpty()) {
rp = Rct::executablePath().parentDir() + "rp";
if (!rp.isFile()) {
rp = Rct::executablePath();
rp.resolve();
rp = rp.parentDir() + "rp";
if (!rp.isFile()) // should be in $PATH
rp = "rp";
}
}
const auto &options = Server::instance()->options();
std::shared_ptr<Node> node = mPendingJobs.first();
auto cont = [&node, this]() {
auto tmp = node->next;
mPendingJobs.remove(node);
node = tmp;
};
while (mActiveByProcess.size() < options.jobCount && node) {
assert(node);
assert(node->job);
assert(!(node->job->flags & (IndexerJob::Running|IndexerJob::Complete|IndexerJob::Crashed|IndexerJob::Aborted)));
std::shared_ptr<Project> project = Server::instance()->project(node->job->project);
if (!project) {
cont();
debug() << node->job->sourceFile << "doesn't have a project, discarding";
continue;
}
uint32_t headerError = 0;
if (!mHeaderErrors.isEmpty()) {
headerError = hasHeaderError(node->job->source.fileId, project);
if (headerError) {
// error() << "We got a headerError" << Location::path(headerError) << "for" << node->job->source.sourceFile()
// << mHeaderErrorMaxJobs << mHeaderErrorJobIds;
if (options.headerErrorJobCount <= mHeaderErrorJobIds.size()) {
warning() << "Holding off on" << node->job->sourceFile << "it's got a header error from" << Location::path(headerError);
node = node->next;
continue;
}
}
}
const uint64_t jobId = node->job->id;
Process *process = new Process;
debug() << "Starting process for" << jobId << node->job->source.key() << node->job.get();
List<String> arguments;
for (int i=logLevel().toInt(); i>0; --i)
arguments << "-v";
process->readyReadStdOut().connect([this](Process *proc) {
std::shared_ptr<Node> node = mActiveByProcess[proc];
assert(node);
node->stdOut.append(proc->readAllStdOut());
std::regex rx("@CRASH@([^@]*)@CRASH@");
std::smatch match;
while (std::regex_search(node->stdOut.ref(), match, rx)) {
error() << match[1].str();
node->stdOut.remove(match.position(), match.length());
}
});
if (!process->start(rp, arguments)) {
error() << "Couldn't start rp" << rp << process->errorString();
delete process;
node->job->flags |= IndexerJob::Crashed;
debug() << "job crashed (didn't start)" << jobId << node->job->source.key() << node->job.get();
std::shared_ptr<IndexDataMessage> msg(new IndexDataMessage(node->job));
msg->setFlag(IndexDataMessage::ParseFailure);
jobFinished(node->job, msg);
rp.clear(); // in case rp was missing for a moment and we fell back to searching $PATH
cont();
continue;
}
if (headerError) {
node->job->priority = IndexerJob::HeaderError;
warning() << "Letting" << node->job->sourceFile << "go even with a headerheader error from" << Location::path(headerError);
mHeaderErrorJobIds.insert(jobId);
}
process->finished().connect([this, jobId](Process *proc) {
EventLoop::deleteLater(proc);
auto node = mActiveByProcess.take(proc);
assert(!node || node->process == proc);
const String stdErr = proc->readAllStdErr();
if ((node && !node->stdOut.isEmpty()) || !stdErr.isEmpty()) {
error() << (node ? ("Output from " + node->job->sourceFile + ":") : String("Orphaned process:"))
<< '\n' << stdErr << (node ? node->stdOut : String());
}
if (node) {
assert(node->process == proc);
node->process = 0;
assert(!(node->job->flags & IndexerJob::Aborted));
if (!(node->job->flags & IndexerJob::Complete) && proc->returnCode() != 0) {
auto nodeById = mActiveById.take(jobId);
assert(nodeById);
assert(nodeById == node);
// job failed, probably no IndexDataMessage coming
node->job->flags |= IndexerJob::Crashed;
debug() << "job crashed" << jobId << node->job->source.key() << node->job.get();
std::shared_ptr<IndexDataMessage> msg(new IndexDataMessage(node->job));
msg->setFlag(IndexDataMessage::ParseFailure);
jobFinished(node->job, msg);
}
}
mHeaderErrorJobIds.remove(jobId);
startJobs();
});
node->process = process;
assert(!(node->job->flags & ~IndexerJob::Type_Mask));
node->job->flags |= IndexerJob::Running;
process->write(node->job->encode());
mActiveByProcess[process] = node;
// error() << "STARTING JOB" << node->job->source.sourceFile();
mInactiveById.remove(jobId);
mActiveById[jobId] = node;
cont();
}
}
virtual bool apply( const Path &p ) {
if ( !boost::filesystem::exists( p ) )
return false;
boostRenameWrapper( p, newPath_ / p.leaf() );
return true;
}
void PlatformGraphicsContextSkia::clip(const Path& path)
{
mCanvas->clipPath(*path.platformPath(), SkRegion::kIntersect_Op, true);
}
void PlatformGraphicsContextSkia::clipOut(const Path& path)
{
mCanvas->clipPath(*path.platformPath(), SkRegion::kDifference_Op);
}
Process::ExecState Process::startInternal(const Path &command, const List<String> &a, const List<String> &environment,
int timeout, unsigned int execFlags)
{
mErrorString.clear();
const char *path = 0;
for (const auto &it : environment) {
if (it.startsWith("PATH=")) {
path = it.constData() + 5;
break;
}
}
Path cmd = findCommand(command, path);
if (cmd.isEmpty()) {
mErrorString = "Command not found";
return Error;
}
List<String> arguments = a;
int err;
int closePipe[2];
eintrwrap(err, ::pipe(closePipe));
#ifdef HAVE_CLOEXEC
if (!SocketClient::setFlags(closePipe[1], FD_CLOEXEC, F_GETFD, F_SETFD)) {
mErrorString = "Unable to set FD_CLOEXEC";
eintrwrap(err, ::close(closePipe[0]));
eintrwrap(err, ::close(closePipe[1]));
return Error;
}
#else
#warning No CLOEXEC, Process might have problematic behavior
#endif
eintrwrap(err, ::pipe(mStdIn));
eintrwrap(err, ::pipe(mStdOut));
eintrwrap(err, ::pipe(mStdErr));
if (mMode == Sync)
eintrwrap(err, ::pipe(mSync));
const char **args = new const char*[arguments.size() + 2];
// const char* args[arguments.size() + 2];
args[arguments.size() + 1] = 0;
args[0] = cmd.nullTerminated();
int pos = 1;
for (List<String>::const_iterator it = arguments.begin(); it != arguments.end(); ++it) {
args[pos] = it->nullTerminated();
// printf("arg: '%s'\n", args[pos]);
++pos;
}
const bool hasEnviron = !environment.empty();
const char **env = new const char*[environment.size() + 1];
env[environment.size()] = 0;
if (hasEnviron) {
pos = 0;
//printf("fork, about to exec '%s'\n", cmd.nullTerminated());
for (List<String>::const_iterator it = environment.begin(); it != environment.end(); ++it) {
env[pos] = it->nullTerminated();
//printf("env: '%s'\n", env[pos]);
++pos;
}
}
ProcessThread::setPending(1);
mPid = ::fork();
if (mPid == -1) {
//printf("fork, something horrible has happened %d\n", errno);
// bail out
ProcessThread::setPending(-1);
eintrwrap(err, ::close(mStdIn[1]));
eintrwrap(err, ::close(mStdIn[0]));
eintrwrap(err, ::close(mStdOut[1]));
eintrwrap(err, ::close(mStdOut[0]));
eintrwrap(err, ::close(mStdErr[1]));
eintrwrap(err, ::close(mStdErr[0]));
eintrwrap(err, ::close(closePipe[1]));
eintrwrap(err, ::close(closePipe[0]));
mErrorString = "Fork failed";
delete[] env;
delete[] args;
return Error;
} else if (mPid == 0) {
//printf("fork, in child\n");
// child, should do some error checking here really
eintrwrap(err, ::close(closePipe[0]));
eintrwrap(err, ::close(mStdIn[1]));
eintrwrap(err, ::close(mStdOut[0]));
eintrwrap(err, ::close(mStdErr[0]));
eintrwrap(err, ::close(STDIN_FILENO));
eintrwrap(err, ::close(STDOUT_FILENO));
eintrwrap(err, ::close(STDERR_FILENO));
eintrwrap(err, ::dup2(mStdIn[0], STDIN_FILENO));
eintrwrap(err, ::close(mStdIn[0]));
eintrwrap(err, ::dup2(mStdOut[1], STDOUT_FILENO));
eintrwrap(err, ::close(mStdOut[1]));
eintrwrap(err, ::dup2(mStdErr[1], STDERR_FILENO));
eintrwrap(err, ::close(mStdErr[1]));
int ret;
if (!mChRoot.isEmpty() && ::chroot(mChRoot.constData())) {
goto error;
}
if (!mCwd.isEmpty() && ::chdir(mCwd.constData())) {
goto error;
}
if (hasEnviron) {
ret = ::execve(cmd.nullTerminated(), const_cast<char* const*>(args), const_cast<char* const*>(env));
} else {
ret = ::execv(cmd.nullTerminated(), const_cast<char* const*>(args));
}
// notify the parent process
error:
const char c = 'c';
eintrwrap(err, ::write(closePipe[1], &c, 1));
eintrwrap(err, ::close(closePipe[1]));
::_exit(1);
(void)ret;
//printf("fork, exec seemingly failed %d, %d %s\n", ret, errno, Rct::strerror().constData());
} else {
delete[] env;
delete[] args;
// parent
eintrwrap(err, ::close(closePipe[1]));
eintrwrap(err, ::close(mStdIn[0]));
eintrwrap(err, ::close(mStdOut[1]));
eintrwrap(err, ::close(mStdErr[1]));
//printf("fork, in parent\n");
int flags;
eintrwrap(flags, fcntl(mStdIn[1], F_GETFL, 0));
eintrwrap(flags, fcntl(mStdIn[1], F_SETFL, flags | O_NONBLOCK));
eintrwrap(flags, fcntl(mStdOut[0], F_GETFL, 0));
eintrwrap(flags, fcntl(mStdOut[0], F_SETFL, flags | O_NONBLOCK));
eintrwrap(flags, fcntl(mStdErr[0], F_GETFL, 0));
eintrwrap(flags, fcntl(mStdErr[0], F_SETFL, flags | O_NONBLOCK));
// block until exec is called in the child or until exec fails
{
char c;
eintrwrap(err, ::read(closePipe[0], &c, 1));
(void)c;
if (err == -1) {
// bad
eintrwrap(err, ::close(closePipe[0]));
mErrorString = "Failed to read from closePipe during process start";
mPid = -1;
ProcessThread::setPending(-1);
mReturn = ReturnCrashed;
return Error;
} else if (err == 0) {
// process has started successfully
eintrwrap(err, ::close(closePipe[0]));
} else if (err == 1) {
// process start failed
eintrwrap(err, ::close(closePipe[0]));
mErrorString = "Process failed to start";
mReturn = ReturnCrashed;
mPid = -1;
ProcessThread::setPending(-1);
return Error;
}
}
ProcessThread::addPid(mPid, this, (mMode == Async));
//printf("fork, about to add fds: stdin=%d, stdout=%d, stderr=%d\n", mStdIn[1], mStdOut[0], mStdErr[0]);
if (mMode == Async) {
if (EventLoop::SharedPtr loop = EventLoop::eventLoop()) {
loop->registerSocket(mStdOut[0], EventLoop::SocketRead, std::bind(&Process::processCallback, this, std::placeholders::_1, std::placeholders::_2));
loop->registerSocket(mStdErr[0], EventLoop::SocketRead, std::bind(&Process::processCallback, this, std::placeholders::_1, std::placeholders::_2));
}
} else {
// select and stuff
timeval started, now, timeoutForSelect;
if (timeout > 0) {
Rct::gettime(&started);
timeoutForSelect.tv_sec = timeout / 1000;
timeoutForSelect.tv_usec = (timeout % 1000) * 1000;
}
if (!(execFlags & NoCloseStdIn)) {
closeStdIn(CloseForce);
mWantStdInClosed = false;
}
for (;;) {
// set up all the select crap
fd_set rfds, wfds;
FD_ZERO(&rfds);
FD_ZERO(&wfds);
int max = 0;
FD_SET(mStdOut[0], &rfds);
max = std::max(max, mStdOut[0]);
FD_SET(mStdErr[0], &rfds);
max = std::max(max, mStdErr[0]);
FD_SET(mSync[0], &rfds);
max = std::max(max, mSync[0]);
if (mStdIn[1] != -1) {
FD_SET(mStdIn[1], &wfds);
max = std::max(max, mStdIn[1]);
}
int ret;
eintrwrap(ret, ::select(max + 1, &rfds, &wfds, 0, timeout > 0 ? &timeoutForSelect : 0));
if (ret == -1) { // ow
mErrorString = "Sync select failed: ";
mErrorString += Rct::strerror();
return Error;
}
// check fds and stuff
if (FD_ISSET(mStdOut[0], &rfds))
handleOutput(mStdOut[0], mStdOutBuffer, mStdOutIndex, mReadyReadStdOut);
if (FD_ISSET(mStdErr[0], &rfds))
handleOutput(mStdErr[0], mStdErrBuffer, mStdErrIndex, mReadyReadStdErr);
if (mStdIn[1] != -1 && FD_ISSET(mStdIn[1], &wfds))
handleInput(mStdIn[1]);
if (FD_ISSET(mSync[0], &rfds)) {
// we're done
{
std::lock_guard<std::mutex> lock(mMutex);
assert(mSync[1] == -1);
// try to read all remaining data on stdout and stderr
handleOutput(mStdOut[0], mStdOutBuffer, mStdOutIndex, mReadyReadStdOut);
handleOutput(mStdErr[0], mStdErrBuffer, mStdErrIndex, mReadyReadStdErr);
closeStdOut();
closeStdErr();
int w;
eintrwrap(w, ::close(mSync[0]));
mSync[0] = -1;
}
mFinished(this);
return Done;
}
if (timeout) {
Rct::gettime(&now);
// lasted is the amount of time we spent until now in ms
const int lasted = Rct::timevalDiff(&now, &started);
if (lasted >= timeout) {
// timeout, we're done
kill(); // attempt to kill
// we need to remove this Process object from
// ProcessThread, because ProcessThread will try to
// finish() this object. However, this object may
// already have been deleted *before* ProcessThread
// runs, creating a segfault.
ProcessThread::removePid(mPid);
mErrorString = "Timed out";
return TimedOut;
}
// (timeout - lasted) is guaranteed to be > 0 because of
// the check above.
timeoutForSelect.tv_sec = (timeout - lasted) / 1000;
timeoutForSelect.tv_usec = ((timeout - lasted) % 1000) * 1000;
}
}
}
}
return Done;
}
QVector<Path> Switchers::viewsToSwitch()
{
QVector<Path> urls;
auto doc = ICore::self()->documentController()->activeDocument();
if (!doc) {
return urls;
}
const QUrl &url = doc->url();
QFileInfo file(url.toLocalFile());
if (!file.exists()) {
return urls;
}
const QString &ext = file.completeSuffix();
QString name = file.baseName();
QString switchTo = "";
if (isViewExtension(ext)) {
switchTo = file.dir().dirName();
} else if (ext == "rb") {
switchTo = name.remove(QRegExp("_controller$"));
switchTo = switchTo.remove(QRegExp("_controller_test$"));
switchTo = switchTo.remove(QRegExp("_test$"));
}
if (switchTo.isEmpty()) {
return urls;
}
if (switchTo.endsWith("s")) {
switchTo = switchTo.mid(0, switchTo.length() - 1);
}
Path root = Helpers::findRailsRoot(url);
if (!root.isValid()) {
return urls;
}
Path viewsUrl(root, QStringLiteral("app/views"));
Path viewsUrlS(viewsUrl, switchTo);
Path viewsUrlP(viewsUrl, switchTo + "s");
if (QFile::exists(viewsUrlS.toLocalFile())) {
viewsUrl = viewsUrlS;
} else if (QFile::exists(viewsUrlP.toLocalFile())) {
viewsUrl = viewsUrlP;
} else {
return urls;
}
QDir viewsDir(viewsUrl.toLocalFile());
const QStringList &views = viewsDir.entryList();
const Path base(viewsDir.absolutePath());
foreach (const QString &name, views) {
if (!(name.endsWith("~") || name == "." || name == "..")) {
urls << KDevelop::Path(base, name);
}
}
return urls;
}
int BuddhabrotSketch::GetGroup(double th, Complex *pts, GLcolor *cols, int n)
{
ColorSet colorset;
colorset.fromHues(BASIC_HUE_SET, 10, 0.9, 1.0);
colorset.offsetHues(270); // ?
// shorthand path
Path *pPath = ((Path*)(m_pPath.get()));
ASSERT(n>=GetGroupSize());
int count = 0;
Complex c, z;
for(int j=0; j<pPath->getGroupSize(); ++j)
{
c = pPath->get(th, j);
z = c;
int i;
for(i=0; i<m_nMaxIter; ++i)
{
z = (z*z + c);
if(normal(z) > 4.0)
break;
}
// slight alteration here:
// we're not going to plot short orbits, only
// interesting ones whose length is at least MinIter.
if(i < m_nMaxIter && i >= m_nMinIter)
{
// plot this point's orbit, until it hits the bailout value
int nStopIter = i;
z = c;
for(i=0; i<=nStopIter; ++i) // was i<=m_nMaxIter
{
z = (z*z) + c;
pts[count] = z;
// color according to...
switch(m_nColorScheme)
{
case 0:
// abs(c)?
cols[count].SetHSV(360*log(abs(c)), 0.9, 0.9, m_fBrightness);
break;
case 1:
// iter? (busy)
// cols[count].SetHSV((i-m_nMinIter)*360.0/(m_nMaxIter-m_nMinIter+1), 0.9, 0.9, m_fBrightness);
cols[count].SetHSV((i*360.0/m_nMaxIter), 0.9, 0.9, m_fBrightness);
break;
case 2:
// c.arg?
cols[count].SetHSV(arg(c)*360.0/6.283, 0.9, 0.9, m_fBrightness);
break;
case 3:
// ring index? (this makes bright figures with little or no blur)
cols[count].SetHSV(j*360.0/pPath->getGroupSize(), 0.9, 0.9, m_fBrightness);
break;
case 4:
// stopiter?
cols[count].SetHSV((nStopIter-m_nMinIter)*360.0/(m_nMaxIter-m_nMinIter+1), 0.9, 0.9, m_fBrightness);
}
++count;
}
}
}
ASSERT(count <= n);
return count;
}
std::string View_types::get_mime(const Path& p) const
{
std::lock_guard<std::mutex> lk {m_mtx};
const char* m = magic_file(m_magic_guard->magic_cookie, p.c_str());
return m ? m : std::string {};
}
Status MMAPV1Engine::repairDatabase( OperationContext* txn,
const std::string& dbName,
bool preserveClonedFilesOnFailure,
bool backupOriginalFiles ) {
// We must hold some form of lock here
invariant(txn->lockState()->threadState());
invariant( dbName.find( '.' ) == string::npos );
scoped_ptr<RepairFileDeleter> repairFileDeleter;
doingRepair dr;
log() << "repairDatabase " << dbName << endl;
BackgroundOperation::assertNoBgOpInProgForDb(dbName);
txn->recoveryUnit()->syncDataAndTruncateJournal(); // Must be done before and after repair
intmax_t totalSize = dbSize( dbName );
intmax_t freeSize = File::freeSpace(storageGlobalParams.repairpath);
if ( freeSize > -1 && freeSize < totalSize ) {
return Status( ErrorCodes::OutOfDiskSpace,
str::stream() << "Cannot repair database " << dbName
<< " having size: " << totalSize
<< " (bytes) because free disk space is: " << freeSize << " (bytes)" );
}
txn->checkForInterrupt();
Path reservedPath =
uniqueReservedPath( ( preserveClonedFilesOnFailure || backupOriginalFiles ) ?
"backup" : "_tmp" );
MONGO_ASSERT_ON_EXCEPTION( boost::filesystem::create_directory( reservedPath ) );
string reservedPathString = reservedPath.string();
if ( !preserveClonedFilesOnFailure )
repairFileDeleter.reset( new RepairFileDeleter( txn,
dbName,
reservedPathString,
reservedPath ) );
{
Database* originalDatabase =
dbHolder().get(txn, dbName);
if (originalDatabase == NULL) {
return Status(ErrorCodes::NamespaceNotFound, "database does not exist to repair");
}
scoped_ptr<MMAPV1DatabaseCatalogEntry> dbEntry;
scoped_ptr<Database> tempDatabase;
{
dbEntry.reset( new MMAPV1DatabaseCatalogEntry( txn,
dbName,
reservedPathString,
storageGlobalParams.directoryperdb,
true ) );
invariant( !dbEntry->exists() );
tempDatabase.reset( new Database( txn,
dbName,
dbEntry.get() ) );
}
map<string,CollectionOptions> namespacesToCopy;
{
string ns = dbName + ".system.namespaces";
Client::Context ctx(txn, ns );
Collection* coll = originalDatabase->getCollection( txn, ns );
if ( coll ) {
scoped_ptr<RecordIterator> it( coll->getIterator( txn,
DiskLoc(),
false,
CollectionScanParams::FORWARD ) );
while ( !it->isEOF() ) {
DiskLoc loc = it->getNext();
BSONObj obj = coll->docFor( loc );
string ns = obj["name"].String();
NamespaceString nss( ns );
if ( nss.isSystem() ) {
if ( nss.isSystemDotIndexes() )
continue;
if ( nss.coll() == "system.namespaces" )
continue;
}
if ( !nss.isNormal() )
continue;
CollectionOptions options;
if ( obj["options"].isABSONObj() ) {
Status status = options.parse( obj["options"].Obj() );
if ( !status.isOK() )
return status;
}
namespacesToCopy[ns] = options;
}
}
}
for ( map<string,CollectionOptions>::const_iterator i = namespacesToCopy.begin();
i != namespacesToCopy.end();
++i ) {
string ns = i->first;
CollectionOptions options = i->second;
Collection* tempCollection = NULL;
{
Client::Context tempContext(txn, ns, tempDatabase );
tempCollection = tempDatabase->createCollection( txn, ns, options, true, false );
}
Client::Context readContext(txn, ns, originalDatabase);
Collection* originalCollection = originalDatabase->getCollection( txn, ns );
invariant( originalCollection );
// data
MultiIndexBlock indexBlock(txn, tempCollection );
{
vector<BSONObj> indexes;
IndexCatalog::IndexIterator ii =
originalCollection->getIndexCatalog()->getIndexIterator( false );
while ( ii.more() ) {
IndexDescriptor* desc = ii.next();
indexes.push_back( desc->infoObj() );
}
Client::Context tempContext(txn, ns, tempDatabase);
Status status = indexBlock.init( indexes );
if ( !status.isOK() )
return status;
}
scoped_ptr<RecordIterator> iterator(
originalCollection->getIterator( txn, DiskLoc(), false,
CollectionScanParams::FORWARD ));
while ( !iterator->isEOF() ) {
DiskLoc loc = iterator->getNext();
invariant( !loc.isNull() );
BSONObj doc = originalCollection->docFor( loc );
Client::Context tempContext(txn, ns, tempDatabase);
StatusWith<DiskLoc> result = tempCollection->insertDocument( txn, doc, indexBlock );
if ( !result.isOK() )
return result.getStatus();
txn->recoveryUnit()->commitIfNeeded();
txn->checkForInterrupt(false);
}
{
Client::Context tempContext(txn, ns, tempDatabase);
Status status = indexBlock.commit();
if ( !status.isOK() )
return status;
}
}
txn->recoveryUnit()->syncDataAndTruncateJournal();
globalStorageEngine->flushAllFiles(true); // need both in case journaling is disabled
txn->checkForInterrupt(false);
}
// at this point if we abort, we don't want to delete new files
// as they might be the only copies
if ( repairFileDeleter.get() )
repairFileDeleter->success();
dbHolder().close( txn, dbName );
if ( backupOriginalFiles ) {
_renameForBackup( dbName, reservedPath );
}
else {
// first make new directory before deleting data
Path newDir = Path(storageGlobalParams.dbpath) / dbName;
MONGO_ASSERT_ON_EXCEPTION(boost::filesystem::create_directory(newDir));
// this deletes old files
_deleteDataFiles( dbName );
if ( !boost::filesystem::exists(newDir) ) {
// we deleted because of directoryperdb
// re-create
MONGO_ASSERT_ON_EXCEPTION(boost::filesystem::create_directory(newDir));
}
}
_replaceWithRecovered( dbName, reservedPathString.c_str() );
if ( !backupOriginalFiles )
MONGO_ASSERT_ON_EXCEPTION( boost::filesystem::remove_all( reservedPath ) );
return Status::OK();
}
void PushPath(vector<Point> & OutPath){
if (LastPath != NULL)
LastPath->PushPath(OutPath);
OutPath.push_back(P);
}
int main_mod(int argc, char** argv) {
if (argc == 2) {
help_mod(argv);
return 1;
}
string path_name;
bool remove_orphans = false;
string aln_file;
string loci_file;
bool called_genotypes_only = false;
bool label_paths = false;
bool compact_ids = false;
bool prune_complex = false;
int path_length = 0;
int edge_max = 0;
int chop_to = 0;
bool add_start_and_end_markers = false;
bool prune_subgraphs = false;
bool kill_labels = false;
bool simplify_graph = false;
bool unchop = false;
bool normalize_graph = false;
bool sort_graph = false;
bool remove_non_path = false;
bool remove_path = false;
bool compact_ranks = false;
bool drop_paths = false;
bool force_path_match = false;
set<string> paths_to_retain;
bool retain_complement = false;
vector<int64_t> root_nodes;
int32_t context_steps;
bool remove_null;
bool strong_connect = false;
uint32_t unfold_to = 0;
bool break_cycles = false;
uint32_t dagify_steps = 0;
uint32_t dagify_to = 0;
uint32_t dagify_component_length_max = 0;
bool orient_forward = false;
int64_t destroy_node_id = 0;
bool bluntify = false;
int until_normal_iter = 0;
string translation_file;
bool flip_doubly_reversed_edges = false;
bool cactus = false;
string vcf_filename;
string loci_filename;
int c;
optind = 2; // force optind past command positional argument
while (true) {
static struct option long_options[] =
{
{"help", no_argument, 0, 'h'},
{"include-aln", required_argument, 0, 'i'},
{"include-loci", required_argument, 0, 'q'},
{"include-gt", required_argument, 0, 'Q'},
{"compact-ids", no_argument, 0, 'c'},
{"compact-ranks", no_argument, 0, 'C'},
{"drop-paths", no_argument, 0, 'D'},
{"keep-path", required_argument, 0, 'k'},
{"remove-orphans", no_argument, 0, 'o'},
{"prune-complex", no_argument, 0, 'p'},
{"prune-subgraphs", no_argument, 0, 'S'},
{"length", required_argument, 0, 'l'},
{"edge-max", required_argument, 0, 'e'},
{"chop", required_argument, 0, 'X'},
{"kill-labels", no_argument, 0, 'K'},
{"markers", no_argument, 0, 'm'},
{"threads", no_argument, 0, 't'},
{"label-paths", no_argument, 0, 'P'},
{"simplify", no_argument, 0, 's'},
{"unchop", no_argument, 0, 'u'},
{"normalize", no_argument, 0, 'n'},
{"until-normal", required_argument, 0, 'U'},
{"sort", no_argument, 0, 'z'},
{"remove-non-path", no_argument, 0, 'N'},
{"remove-path", no_argument, 0, 'A'},
{"orient-forward", no_argument, 0, 'O'},
{"unfold", required_argument, 0, 'f'},
{"force-path-match", no_argument, 0, 'F'},
{"retain-path", required_argument, 0, 'r'},
{"subgraph", required_argument, 0, 'g'},
{"context", required_argument, 0, 'x'},
{"remove-null", no_argument, 0, 'R'},
{"strong-connect", no_argument, 0, 'T'},
{"dagify-steps", required_argument, 0, 'd'},
{"dagify-to", required_argument, 0, 'w'},
{"dagify-len-max", required_argument, 0, 'L'},
{"bluntify", no_argument, 0, 'B'},
{"break-cycles", no_argument, 0, 'b'},
{"orient-forward", no_argument, 0, 'O'},
{"destroy-node", required_argument, 0, 'y'},
{"translation", required_argument, 0, 'Z'},
{"unreverse-edges", required_argument, 0, 'E'},
{"cactus", no_argument, 0, 'a'},
{"sample-vcf", required_argument, 0, 'v'},
{"sample-graph", required_argument, 0, 'G'},
{0, 0, 0, 0}
};
int option_index = 0;
c = getopt_long (argc, argv, "hk:oi:q:Q:cpl:e:mt:SX:KPsunzNAf:CDFr:Ig:x:RTU:Bbd:Ow:L:y:Z:Eav:G:",
long_options, &option_index);
// Detect the end of the options.
if (c == -1)
break;
switch (c)
{
case 'i':
aln_file = optarg;
break;
case 'q':
loci_file = optarg;
break;
case 'Q':
loci_file = optarg;
called_genotypes_only = true;
break;
case 'Z':
translation_file = optarg;
break;
case 'c':
compact_ids = true;
break;
case 'C':
compact_ranks = true;
break;
case 'k':
path_name = optarg;
break;
case 'r':
paths_to_retain.insert(optarg);
break;
case 'I':
retain_complement = true;
break;
case 'o':
remove_orphans = true;
break;
case 'p':
prune_complex = true;
break;
case 'S':
prune_subgraphs = true;
break;
case 'l':
path_length = atoi(optarg);
break;
case 'X':
chop_to = atoi(optarg);
break;
case 'u':
unchop = true;
break;
case 'E':
flip_doubly_reversed_edges = true;
break;
case 'K':
kill_labels = true;
break;
case 'e':
edge_max = atoi(optarg);
break;
case 'm':
add_start_and_end_markers = true;
break;
case 't':
omp_set_num_threads(atoi(optarg));
break;
case 'f':
unfold_to = atoi(optarg);
break;
case 'O':
orient_forward = true;
break;
case 'F':
force_path_match = true;
break;
case 'P':
label_paths = true;
break;
case 'D':
drop_paths = true;
break;
case 's':
simplify_graph = true;
break;
case 'n':
normalize_graph = true;
break;
case 'N':
remove_non_path = true;
break;
case 'A':
remove_path = true;
break;
case 'T':
strong_connect = true;
break;
case 'U':
until_normal_iter = atoi(optarg);
break;
case 'd':
dagify_steps = atoi(optarg);
break;
case 'w':
dagify_to = atoi(optarg);
break;
case 'L':
dagify_component_length_max = atoi(optarg);
break;
case 'B':
bluntify = true;
break;
case 'z':
sort_graph = true;
break;
case 'b':
break_cycles = true;
break;
case 'g':
root_nodes.push_back(atoi(optarg));
break;
case 'x':
context_steps = atoi(optarg);
break;
case 'R':
remove_null = true;
break;
case 'y':
destroy_node_id = atoi(optarg);
break;
case 'a':
cactus = true;
break;
case 'v':
vcf_filename = optarg;
break;
case 'G':
loci_filename = optarg;
break;
case 'h':
case '?':
help_mod(argv);
exit(1);
break;
default:
abort ();
}
}
VG* graph;
get_input_file(optind, argc, argv, [&](istream& in) {
graph = new VG(in);
});
if (retain_complement) {
// Compute the actual paths to retain
set<string> complement;
graph->paths.for_each_name([&](const string& name) {
if (!paths_to_retain.count(name)) {
// Complement the set the user specified by putting in all the
// paths they didn't mention.
complement.insert(name);
}
});
// Retain the complement of what we were asking for.
paths_to_retain = complement;
}
if (!vcf_filename.empty()) {
// We need to throw out the parts of the graph that are on alt paths,
// but not on alt paths for alts used by the first sample in the VCF.
// This is matched against the entire path name string to detect alt
// paths.
regex is_alt("_alt_.+_[0-9]+");
// This holds the VCF file we read the variants from. It needs to be the
// same one used to construct the graph.
vcflib::VariantCallFile variant_file;
variant_file.open(vcf_filename);
if (!variant_file.is_open()) {
cerr << "error:[vg mod] could not open" << vcf_filename << endl;
return 1;
}
// Now go through and prune down the varaints.
// How many phases are there?
size_t num_samples = variant_file.sampleNames.size();
// TODO: we can only handle single-sample VCFs
assert(num_samples == 1);
// This will hold the IDs of all nodes visited by alt paths that aren't used.
set<vg::id_t> alt_path_ids;
graph->paths.for_each_name([&](const string& alt_path_name) {
// For every path name in the graph
if(regex_match(alt_path_name, is_alt)) {
// If it's an alt path
for(auto& mapping : graph->paths.get_path(alt_path_name)) {
// Mark all nodes that are part of it as on alt paths
alt_path_ids.insert(mapping.position().node_id());
}
}
});
// We also have a function to handle each variant as it comes in.
auto handle_variant = [&](vcflib::Variant& variant) {
// So we have a variant
if(variant.alleles.size() < 2) {
// Skip non-variable variants.
return;
}
// Grab its id, or make one by hashing stuff if it doesn't
// have an ID.
string var_name = make_variant_id(variant);
if(!graph->paths.has_path("_alt_" + var_name + "_0")) {
// There isn't a reference alt path for this variant. Someone messed up.
cerr << variant << endl;
throw runtime_error("Reference alt for " + var_name + " not in graph!");
}
// For now always work on sample 0. TODO: let the user specify a
// name and find it.
int sample_number = 0;
// What sample is it?
string& sample_name = variant_file.sampleNames[sample_number];
// Parse it out and see if it's phased.
string genotype = variant.getGenotype(sample_name);
// Tokenize into allele numbers
// The token iterator can't hold the regex
regex allele_separator("[|/]");
for (sregex_token_iterator it(genotype.begin(), genotype.end(), allele_separator, -1);
it != sregex_token_iterator(); ++it) {
// For every token separated by / or |
int allele_number;
if(it->str() == ".") {
// Unknown; pretend it's ref for the purposes of making a
// sample graph.
allele_number = 0;
} else {
// Parse the allele number
allele_number = stoi(it->str());
}
// Make the name for its alt path
string alt_path_name = "_alt_" + var_name + "_" + to_string(allele_number);
for(auto& mapping : graph->paths.get_path(alt_path_name)) {
// Un-mark all nodes that are on this alt path, since it is used by the sample.
alt_path_ids.erase(mapping.position().node_id());
}
}
};
// Allocate a place to store actual variants
vcflib::Variant var(variant_file);
while (variant_file.is_open() && variant_file.getNextVariant(var)) {
// this ... maybe we should remove it as for when we have calls against N
bool isDNA = allATGC(var.ref);
for (vector<string>::iterator a = var.alt.begin(); a != var.alt.end(); ++a) {
if (!allATGC(*a)) isDNA = false;
}
// only work with DNA sequences
if (!isDNA) {
continue;
}
var.position -= 1; // convert to 0-based
// Handle the variant
handle_variant(var);
}
for(auto& node_id : alt_path_ids) {
// And delete all the nodes that were used by alt paths that weren't
// in the genotype of the first sample.
for(auto& path_name : graph->paths.of_node(node_id)) {
// For every path that touches the node we're destroying,
// destroy the path. We can't leave it because it won't be the
// same path without this node.
graph->paths.remove_path(path_name);
#ifdef debug
cerr << "Node " << node_id << " was on path " << path_name << endl;
#endif
}
// Actually get rid of the node once its paths are gone.
graph->destroy_node(node_id);
}
}
if (!loci_filename.empty()) {
// Open the file
ifstream loci_file(loci_filename);
assert(loci_file.is_open());
// What nodes and edges are called as present by the loci?
set<Node*> called_nodes;
set<Edge*> called_edges;
function<void(Locus&)> lambda = [&](Locus& locus) {
// For each locus
if (locus.genotype_size() == 0) {
// No call made here. Just remove all the nodes/edges. TODO:
// should we keep them all if we don't know if they're there or
// not? Or should the caller call ref with some low confidence?
return;
}
const Genotype& gt = locus.genotype(0);
for (size_t j = 0; j < gt.allele_size(); j++) {
// For every allele called as present
int allele_number = gt.allele(j);
const Path& allele = locus.allele(allele_number);
for (size_t i = 0; i < allele.mapping_size(); i++) {
// For every Mapping in the allele
const Mapping& m = allele.mapping(i);
// Remember to keep this node
called_nodes.insert(graph->get_node(m.position().node_id()));
if (i + 1 < allele.mapping_size()) {
// Look at the next mapping, which exists
const Mapping& m2 = allele.mapping(i + 1);
// Find the edge from the last Mapping's node to this one and mark it as used
called_edges.insert(graph->get_edge(NodeSide(m.position().node_id(), !m.position().is_reverse()),
NodeSide(m2.position().node_id(), m2.position().is_reverse())));
}
}
}
};
stream::for_each(loci_file, lambda);
// Collect all the unused nodes and edges (so we don't try to delete
// while iterating...)
set<Node*> unused_nodes;
set<Edge*> unused_edges;
graph->for_each_node([&](Node* n) {
if (!called_nodes.count(n)) {
unused_nodes.insert(n);
}
});
graph->for_each_edge([&](Edge* e) {
if (!called_edges.count(e)) {
unused_edges.insert(e);
}
});
// Destroy all the extra edges (in case they use extra nodes)
for (auto* e : unused_edges) {
graph->destroy_edge(e);
}
for (auto* n : unused_nodes) {
graph->destroy_node(n);
}
}
if (bluntify) {
graph->bluntify();
}
if (!path_name.empty()) {
graph->keep_path(path_name);
}
if (!paths_to_retain.empty() || retain_complement) {
graph->paths.keep_paths(paths_to_retain);
}
if (drop_paths) {
graph->paths.clear();
}
if (remove_orphans) {
graph->remove_orphan_edges();
}
if (unchop) {
graph->unchop();
}
if (simplify_graph) {
graph->simplify_siblings();
}
if (normalize_graph) {
graph->normalize();
}
if (until_normal_iter) {
graph->normalize(until_normal_iter);
}
if (strong_connect) {
graph->keep_multinode_strongly_connected_components();
}
if (remove_non_path) {
graph->remove_non_path();
}
if (remove_path) {
graph->remove_path();
}
if (force_path_match) {
graph->force_path_match();
}
if (orient_forward) {
algorithms::orient_nodes_forward(graph);
}
if (flip_doubly_reversed_edges) {
graph->flip_doubly_reversed_edges();
}
if (dagify_steps) {
unordered_map<int64_t, pair<int64_t, bool> > node_translation;
*graph = graph->dagify(dagify_steps, node_translation, 0, dagify_component_length_max);
}
if (dagify_to) {
unordered_map<int64_t, pair<int64_t, bool> > node_translation;
// use the walk as our maximum number of steps; it's the worst case
*graph = graph->dagify(dagify_to, node_translation, dagify_to, dagify_component_length_max);
}
if (unfold_to) {
unordered_map<int64_t, pair<int64_t, bool> > node_translation;
*graph = graph->unfold(unfold_to, node_translation);
}
if (remove_null) {
graph->remove_null_nodes_forwarding_edges();
}
if (sort_graph) {
algorithms::sort(graph);
}
if (break_cycles) {
graph->break_cycles();
}
// to subset the graph
if (!root_nodes.empty()) {
VG g;
for (auto root : root_nodes) {
graph->nonoverlapping_node_context_without_paths(graph->get_node(root), g);
graph->expand_context(g, max(context_steps, 1));
g.remove_orphan_edges();
}
*graph = g;
}
if (!aln_file.empty()) {
// read in the alignments and save their paths
vector<Path> paths;
function<void(Alignment&)> lambda = [&graph, &paths](Alignment& aln) {
Path path = simplify(aln.path());
path.set_name(aln.name());
paths.push_back(path);
};
if (aln_file == "-") {
stream::for_each(std::cin, lambda);
} else {
ifstream in;
in.open(aln_file.c_str());
stream::for_each(in, lambda);
}
if (!label_paths) {
// execute the edits
auto translation = graph->edit(paths, true);
if (!translation_file.empty()) {
ofstream out(translation_file);
stream::write_buffered(out, translation, 0);
out.close();
}
} else {
// just add the path labels to the graph
for (auto& path : paths) {
graph->paths.extend(path);
}
}
}
if (!loci_file.empty()) {
// read in the alignments and save their paths
vector<Path> paths;
function<void(Locus&)> lambda = [&graph, &paths, &called_genotypes_only](Locus& locus) {
// if we are only doing called genotypes, record so we can filter alleles
set<int> alleles_in_genotype;
if (called_genotypes_only) {
for (int i = 0; i < locus.genotype_size(); ++i) {
for (int j = 0; j < locus.genotype(i).allele_size(); ++j) {
alleles_in_genotype.insert(locus.genotype(i).allele(j));
}
}
}
for (int i = 0; i < locus.allele_size(); ++i) {
// skip alleles not in the genotype if using only called genotypes
if (!alleles_in_genotype.empty()) {
if (!alleles_in_genotype.count(i)) continue;
}
Path path = simplify(locus.allele(i));
stringstream name;
name << locus.name() << ":" << i;
path.set_name(name.str());
paths.push_back(path);
}
};
if (loci_file == "-") {
stream::for_each(std::cin, lambda);
} else {
ifstream in;
in.open(loci_file.c_str());
stream::for_each(in, lambda);
}
// execute the edits and produce the translation if requested.
// Make sure to break at node ends, but don't add any paths because they're just loci alleles and not real paths.
auto translation = graph->edit(paths, false, false, true);
if (!translation_file.empty()) {
ofstream out(translation_file);
stream::write_buffered(out, translation, 0);
out.close();
}
}
// and optionally compact ids
if (compact_ids) {
algorithms::sort(graph);
graph->compact_ids();
}
if (compact_ranks) {
graph->paths.compact_ranks();
}
if (prune_complex) {
if (!(path_length > 0 && edge_max > 0)) {
cerr << "[vg mod]: when pruning complex regions you must specify a --path-length and --edge-max" << endl;
return 1;
}
graph->prune_complex_with_head_tail(path_length, edge_max);
}
if (prune_subgraphs) {
graph->prune_short_subgraphs(path_length);
}
if (chop_to) {
graph->dice_nodes(chop_to);
graph->paths.compact_ranks();
}
if (kill_labels) {
graph->for_each_node([](Node* n) { n->clear_sequence(); });
}
if (add_start_and_end_markers) {
if (!(path_length > 0)) {
cerr << "[vg mod]: when adding start and end markers you must provide a --path-length" << endl;
return 1;
}
Node* head_node = NULL;
Node* tail_node = NULL;
graph->add_start_end_markers(path_length, '#', '$', head_node, tail_node);
}
if (destroy_node_id > 0) {
graph->destroy_node(destroy_node_id);
}
if (cactus) {
// ensure we're sorted
algorithms::sort(graph);
*graph = cactusify(*graph);
// no paths survive, make sure they are erased
graph->paths = Paths();
}
graph->serialize_to_ostream(std::cout);
delete graph;
return 0;
}
LevelMine::LevelMine(unique_ptr<Game> & game, const unique_ptr<PlayerTransfer> & playerTransfer) : Level(game, playerTransfer) {
mName = LevelName::Mine;
LoadLocalization("mine.loc");
mPlayer->mYaw.SetTarget(180.0f);
LoadSceneFromFile("data/maps/mine.scene");
mPlayer->SetPosition(GetUniqueObject("PlayerPosition")->GetPosition());
Vector3 placePos = GetUniqueObject("PlayerPosition")->GetPosition();
Vector3 playerPos = mPlayer->GetCurrentPosition();
mPlayer->GetHUD()->SetObjective(mLocalization.GetString("objective1"));
AddInteractiveObject("Note", make_shared<InteractiveObject>(GetUniqueObject("Note1")), [this] { mPlayer->GetInventory()->AddReadedNote(mLocalization.GetString("note1Desc"), mLocalization.GetString("note1")); });
AddInteractiveObject("Note", make_shared<InteractiveObject>(GetUniqueObject("Note2")), [this] { mPlayer->GetInventory()->AddReadedNote(mLocalization.GetString("note2Desc"), mLocalization.GetString("note2")); });
AddInteractiveObject("Note", make_shared<InteractiveObject>(GetUniqueObject("Note3")), [this] { mPlayer->GetInventory()->AddReadedNote(mLocalization.GetString("note3Desc"), mLocalization.GetString("note3")); });
AddInteractiveObject("Note", make_shared<InteractiveObject>(GetUniqueObject("Note4")), [this] { mPlayer->GetInventory()->AddReadedNote(mLocalization.GetString("note4Desc"), mLocalization.GetString("note4")); });
AddInteractiveObject("Note", make_shared<InteractiveObject>(GetUniqueObject("Note5")), [this] { mPlayer->GetInventory()->AddReadedNote(mLocalization.GetString("note5Desc"), mLocalization.GetString("note5")); });
AddInteractiveObject("Note", make_shared<InteractiveObject>(GetUniqueObject("Note6")), [this] { mPlayer->GetInventory()->AddReadedNote(mLocalization.GetString("note6Desc"), mLocalization.GetString("note6")); });
AddInteractiveObject("Note", make_shared<InteractiveObject>(GetUniqueObject("Note7")), [this] { mPlayer->GetInventory()->AddReadedNote(mLocalization.GetString("note7Desc"), mLocalization.GetString("note7")); });
AddInteractiveObject("Note", make_shared<InteractiveObject>(GetUniqueObject("Note8")), [this] { mPlayer->GetInventory()->AddReadedNote(mLocalization.GetString("note8Desc"), mLocalization.GetString("note8")); });
mStoneFallZone = GetUniqueObject("StoneFallZone");
mNewLevelZone = GetUniqueObject("NewLevel");
auto soundSystem = mGame->GetEngine()->GetSoundSystem();
soundSystem->SetReverbPreset(ReverbPreset::Cave);
AddSound(mMusic = soundSystem->LoadMusic("data/music/chapter2.ogg"));
mConcreteWall = GetUniqueObject("ConcreteWall");
mDeathZone = GetUniqueObject("DeadZone");
mDetonator = GetUniqueObject("Detonator");
AddSound(mAlertSound = soundSystem->LoadSound3D("data/sounds/alert.ogg"));
mAlertSound->Attach(mDetonator);
AddSound(mExplosionSound = soundSystem->LoadSound3D("data/sounds/blast.ogg"));
mExplosionSound->SetReferenceDistance(10);
mDetonatorActivated = 0;
mExplosionFlashAnimator = 0;
// Create detonator places
AddItemPlace(mDetonatorPlace[0] = make_shared<ItemPlace>(GetUniqueObject("DetonatorPlace1"), Item::Type::Explosives));
AddItemPlace(mDetonatorPlace[1] = make_shared<ItemPlace>(GetUniqueObject("DetonatorPlace2"), Item::Type::Explosives));
AddItemPlace(mDetonatorPlace[2] = make_shared<ItemPlace>(GetUniqueObject("DetonatorPlace3"), Item::Type::Explosives));
AddItemPlace(mDetonatorPlace[3] = make_shared<ItemPlace>(GetUniqueObject("DetonatorPlace4"), Item::Type::Explosives));
mWireModels[0] = GetUniqueObject("WireModel1");
mWireModels[1] = GetUniqueObject("WireModel2");
mWireModels[2] = GetUniqueObject("WireModel3");
mWireModels[3] = GetUniqueObject("WireModel4");
mDetonatorModels[0] = GetUniqueObject("DetonatorModel1");
mDetonatorModels[1] = GetUniqueObject("DetonatorModel2");
mDetonatorModels[2] = GetUniqueObject("DetonatorModel3");
mDetonatorModels[3] = GetUniqueObject("DetonatorModel4");
mExplosivesModels[0] = GetUniqueObject("ExplosivesModel1");
mExplosivesModels[1] = GetUniqueObject("ExplosivesModel2");
mExplosivesModels[2] = GetUniqueObject("ExplosivesModel3");
mExplosivesModels[3] = GetUniqueObject("ExplosivesModel4");
mFindItemsZone = GetUniqueObject("FindItemsZone");
AddAmbientSound(soundSystem->LoadSound3D("data/sounds/ambient/mine/ambientmine1.ogg"));
AddAmbientSound(soundSystem->LoadSound3D("data/sounds/ambient/mine/ambientmine2.ogg"));
AddAmbientSound(soundSystem->LoadSound3D("data/sounds/ambient/mine/ambientmine3.ogg"));
AddAmbientSound(soundSystem->LoadSound3D("data/sounds/ambient/mine/ambientmine4.ogg"));
AddAmbientSound(soundSystem->LoadSound3D("data/sounds/ambient/mine/ambientmine5.ogg"));
mExplosionTimer = ITimer::Create();
mBeepSoundTimer = ITimer::Create();
mBeepSoundTiming = 1.0f;
CreateItems();
mReadyExplosivesCount = 0;
MakeLadder("LadderBegin", "LadderEnd", "LadderEnter", "LadderBeginLeavePoint", "LadderEndLeavePoint");
MakeDoor("Door1", 90);
MakeDoor("Door3", 90);
MakeDoor("DoorToAdministration", 90);
MakeDoor("Door6", 90);
MakeDoor("DoorToDirectorsOffice", 90);
MakeDoor("DoorToResearchFacility", 90);
MakeKeypad("Keypad1", "Keypad1Key0", "Keypad1Key1", "Keypad1Key2", "Keypad1Key3", "Keypad1Key4", "Keypad1Key5", "Keypad1Key6", "Keypad1Key7", "Keypad1Key8", "Keypad1Key9", "Keypad1KeyCancel", MakeDoor("StorageDoor", 90), "7854");
MakeKeypad("Keypad2", "Keypad2Key0", "Keypad2Key1", "Keypad2Key2", "Keypad2Key3", "Keypad2Key4", "Keypad2Key5", "Keypad2Key6", "Keypad2Key7", "Keypad2Key8", "Keypad2Key9", "Keypad2KeyCancel", MakeDoor("DoorToResearchFacility", 90), "1689");
MakeKeypad("Keypad3", "Keypad3Key0", "Keypad3Key1", "Keypad3Key2", "Keypad3Key3", "Keypad3Key4", "Keypad3Key5", "Keypad3Key6", "Keypad3Key7", "Keypad3Key8", "Keypad3Key9", "Keypad3KeyCancel", MakeDoor("DoorMedical", 90), "9632");
mMusic->Play();
mStages["ConcreteWallExp"] = false;
mStages["FindObjectObjectiveSet"] = false;
mStages["FoundObjectsForExplosion"] = false;
// create paths
const char * ways[] = {
"WayA", "WayB", "WayC", "WayD", "WayE", "WayF", "WayG",
"WayH", "WayI", "WayJ", "WayK"
};
Path p;
for(auto w : ways) {
p += Path(mScene, w);
}
p.Get("WayB1")->AddEdge(p.Get("WayA004"));
p.Get("WayC1")->AddEdge(p.Get("WayA019"));
p.Get("WayD1")->AddEdge(p.Get("WayA019"));
p.Get("WayE1")->AddEdge(p.Get("WayA040"));
p.Get("WayF1")->AddEdge(p.Get("WayA042"));
p.Get("WayF009")->AddEdge(p.Get("WayG1"));
p.Get("WayH1")->AddEdge(p.Get("WayA059"));
p.Get("WayI1")->AddEdge(p.Get("WayA097"));
p.Get("WayJ1")->AddEdge(p.Get("WayA073"));
p.Get("WayK1")->AddEdge(p.Get("WayA027"));
vector<shared_ptr<GraphVertex>> patrolPoints = {
p.Get("WayA1"), p.Get("WayC024"), p.Get("WayB012"),
p.Get("WayB012"), p.Get("WayD003"), p.Get("WayK005"),
p.Get("WayE006"), p.Get("WayF019"), p.Get("WayG007"),
p.Get("WayH010"), p.Get("WayA110"), p.Get("WayI009")
};
mEnemy = make_unique<Enemy>(mGame, p.mVertexList, patrolPoints);
mEnemy->SetPosition(GetUniqueObject("EnemyPosition")->GetPosition());
mExplosivesDummy[0] = GetUniqueObject("ExplosivesModel5");
mExplosivesDummy[1] = GetUniqueObject("ExplosivesModel6");
mExplosivesDummy[2] = GetUniqueObject("ExplosivesModel7");
mExplosivesDummy[3] = GetUniqueObject("ExplosivesModel8");
mExplodedWall = GetUniqueObject("ConcreteWallExploded");
mExplodedWall->Hide();
mExplosionFlashPosition = GetUniqueObject("ExplosionFlash");
mPlayer->GetInventory()->RemoveItem(Item::Type::Crowbar, 1);
DoneInitialization();
}
void makeScreenshot(const Path& filename) override
{
bgfx::saveScreenShot(filename.c_str());
}
int CmdShow::execute (std::string& output)
{
int rc = 0;
std::stringstream out;
// Obtain the arguments from the description. That way, things like '--'
// have already been handled.
std::vector <std::string> words = context.a3.extract_words ();
if (words.size () > 2)
throw std::string (STRING_CMD_SHOW_ARGS);
int width = context.getWidth ();
// Complain about configuration variables that are not recognized.
// These are the regular configuration variables.
// Note that there is a leading and trailing space, to make it easier to
// search for whole words.
std::string recognized =
" abbreviation.minimum"
" active.indicator"
" avoidlastcolumn"
" bulk"
" burndown.bias"
" calendar.details"
" calendar.details.report"
" calendar.holidays"
" calendar.legend"
" calendar.offset"
" calendar.offset.value"
" color"
" color.active"
" color.alternate"
" color.blocked"
" color.burndown.done"
" color.burndown.pending"
" color.burndown.started"
" color.calendar.due"
" color.calendar.due.today"
" color.calendar.holiday"
" color.calendar.overdue"
" color.calendar.today"
" color.calendar.weekend"
" color.calendar.weeknumber"
" color.completed"
" color.debug"
" color.deleted"
" color.due"
" color.due.today"
" color.footnote"
" color.header"
" color.history.add"
" color.history.delete"
" color.history.done"
" color.label"
" color.overdue"
" color.pri.H"
" color.pri.L"
" color.pri.M"
" color.pri.none"
" color.recurring"
" color.summary.background"
" color.summary.bar"
" color.sync.added"
" color.sync.changed"
" color.sync.rejected"
" color.tagged"
" color.undo.after"
" color.undo.before"
" column.padding"
" complete.all.projects"
" complete.all.tags"
" confirmation"
" data.location"
" dateformat"
" dateformat.annotation"
" dateformat.holiday"
" dateformat.report"
" debug"
" default.command"
" default.due"
" default.priority"
" default.project"
" defaultheight"
" defaultwidth"
" dependency.confirmation"
" dependency.indicator"
" dependency.reminder"
" detection"
" displayweeknumber"
" dom"
" due"
" echo.command" // Deprecated 2.0
" edit.verbose" // Deprecated 2.0
" editor"
" exit.on.missing.db"
" expressions"
" extensions"
" fontunderline"
" gc"
" hyphenate"
" indent.annotation"
" indent.report"
" journal.info"
" journal.time"
" journal.time.start.annotation"
" journal.time.stop.annotation"
" json.array"
" list.all.projects"
" list.all.tags"
" locale"
" locking"
" merge.autopush"
" merge.default.uri"
" monthsperline"
" nag"
" patterns"
" pull.default.uri"
" push.default.uri"
" recurrence.indicator"
" recurrence.limit"
" regex"
" row.padding"
" rule.precedence.color"
" search.case.sensitive"
" shadow.command"
" shadow.file"
" shadow.notify"
" shell.prompt"
" tag.indicator"
" taskd.server"
" taskd.credentials"
" undo.style"
" urgency.active.coefficient"
" urgency.annotations.coefficient"
" urgency.blocked.coefficient"
" urgency.blocking.coefficient"
" urgency.due.coefficient"
" urgency.next.coefficient"
" urgency.priority.coefficient"
" urgency.project.coefficient"
" urgency.tags.coefficient"
" urgency.waiting.coefficient"
" urgency.age.coefficient"
" urgency.age.max"
" verbose"
" weekstart"
" xterm.title"
" ";
// This configuration variable is supported, but not documented. It exists
// so that unit tests can force color to be on even when the output from task
// is redirected to a file, or stdout is not a tty.
recognized += "_forcecolor ";
std::vector <std::string> all;
context.config.all (all);
std::vector <std::string> unrecognized;
std::vector <std::string>::iterator i;
for (i = all.begin (); i != all.end (); ++i)
{
// Disallow partial matches by tacking a leading and trailing space on each
// variable name.
std::string pattern = " " + *i + " ";
if (recognized.find (pattern) == std::string::npos)
{
// These are special configuration variables, because their name is
// dynamic.
if (i->substr (0, 14) != "color.keyword." &&
i->substr (0, 14) != "color.project." &&
i->substr (0, 10) != "color.tag." &&
i->substr (0, 8) != "holiday." &&
i->substr (0, 7) != "report." &&
i->substr (0, 6) != "alias." &&
i->substr (0, 5) != "hook." &&
i->substr (0, 5) != "push." &&
i->substr (0, 5) != "pull." &&
i->substr (0, 6) != "merge." &&
i->substr (0, 4) != "uda." &&
i->substr (0, 21) != "urgency.user.project." &&
i->substr (0, 17) != "urgency.user.tag.")
{
unrecognized.push_back (*i);
}
}
}
// Find all the values that match the defaults, for highlighting.
std::vector <std::string> default_values;
Config default_config;
default_config.setDefaults ();
for (i = all.begin (); i != all.end (); ++i)
if (context.config.get (*i) != default_config.get (*i))
default_values.push_back (*i);
// Create output view.
ViewText view;
view.width (width);
view.add (Column::factory ("string", STRING_CMD_SHOW_CONF_VAR));
view.add (Column::factory ("string", STRING_CMD_SHOW_CONF_VALUE));
Color error ("bold white on red");
Color warning ("black on yellow");
std::string section;
// Look for the first plausible argument which could be a pattern
if (words.size ())
section = words[0];
if (section == "all")
section = "";
for (i = all.begin (); i != all.end (); ++i)
{
std::string::size_type loc = i->find (section, 0);
if (loc != std::string::npos)
{
// Look for unrecognized.
Color color;
if (std::find (unrecognized.begin (), unrecognized.end (), *i) != unrecognized.end ())
color = error;
else if (std::find (default_values.begin (), default_values.end (), *i) != default_values.end ())
color = warning;
std::string value = context.config.get (*i);
// hide sensible information
if ( (i->substr (0, 5) == "push." ||
i->substr (0, 5) == "pull." ||
i->substr (0, 6) == "merge.") && (i->find (".uri") != std::string::npos) ) {
Uri uri (value);
uri.parse ();
value = uri.ToString ();
}
int row = view.addRow ();
view.set (row, 0, *i, color);
view.set (row, 1, value, color);
}
}
out << "\n"
<< view.render ()
<< (view.rows () == 0 ? STRING_CMD_SHOW_NONE : "")
<< (view.rows () == 0 ? "\n\n" : "\n");
if (default_values.size ())
{
out << STRING_CMD_SHOW_DIFFER;
if (context.color ())
out << " "
<< format (STRING_CMD_SHOW_DIFFER_COLOR, warning.colorize ("color"))
<< "\n\n";
}
// Display the unrecognized variables.
if (unrecognized.size ())
{
out << STRING_CMD_SHOW_UNREC << "\n";
for (i = unrecognized.begin (); i != unrecognized.end (); ++i)
out << " " << *i << "\n";
if (context.color ())
out << "\n " << format (STRING_CMD_SHOW_DIFFER_COLOR, error.colorize ("color"));
out << "\n\n";
}
out << legacyCheckForDeprecatedVariables ();
out << legacyCheckForDeprecatedColor ();
out << legacyCheckForDeprecatedColumns ();
// TODO Check for referenced but missing theme files.
// TODO Check for referenced but missing string files.
// TODO Check for referenced but missing tips files.
// Check for referenced but missing hook scripts.
#ifdef HAVE_LIBLUA
std::vector <std::string> missing_scripts;
for (i = all.begin (); i != all.end (); ++i)
{
if (i->substr (0, 5) == "hook.")
{
std::string value = context.config.get (*i);
Nibbler n (value);
// <path>:<function> [, ...]
while (!n.depleted ())
{
std::string file;
std::string function;
if (n.getUntil (':', file) &&
n.skip (':') &&
n.getUntil (',', function))
{
Path script (file);
if (!script.exists () || !script.readable ())
missing_scripts.push_back (file);
(void) n.skip (',');
}
}
}
}
if (missing_scripts.size ())
{
out << STRING_CMD_SHOW_HOOKS << "\n";
for (i = missing_scripts.begin (); i != missing_scripts.end (); ++i)
out << " " << *i << "\n";
out << "\n";
}
#endif
// Check for bad values in rc.annotations.
// TODO Deprecated.
std::string annotations = context.config.get ("annotations");
if (annotations != "full" &&
annotations != "sparse" &&
annotations != "none")
out << format (STRING_CMD_SHOW_CONFIG_ERROR, "annotations", annotations)
<< "\n";
// Check for bad values in rc.calendar.details.
std::string calendardetails = context.config.get ("calendar.details");
if (calendardetails != "full" &&
calendardetails != "sparse" &&
calendardetails != "none")
out << format (STRING_CMD_SHOW_CONFIG_ERROR, "calendar.details", calendardetails)
<< "\n";
// Check for bad values in rc.calendar.holidays.
std::string calendarholidays = context.config.get ("calendar.holidays");
if (calendarholidays != "full" &&
calendarholidays != "sparse" &&
calendarholidays != "none")
out << format (STRING_CMD_SHOW_CONFIG_ERROR, "calendar.holidays", calendarholidays)
<< "\n";
// Check for bad values in rc.default.priority.
std::string defaultPriority = context.config.get ("default.priority");
if (defaultPriority != "H" &&
defaultPriority != "M" &&
defaultPriority != "L" &&
defaultPriority != "")
out << format (STRING_CMD_SHOW_CONFIG_ERROR, "default.priority", defaultPriority)
<< "\n";
// Verify installation. This is mentioned in the documentation as the way
// to ensure everything is properly installed.
if (all.size () == 0)
{
out << STRING_CMD_SHOW_EMPTY << "\n";
rc = 1;
}
else
{
Directory location (context.config.get ("data.location"));
if (location._data == "")
out << STRING_CMD_SHOW_NO_LOCATION << "\n";
if (! location.exists ())
out << STRING_CMD_SHOW_LOC_EXIST << "\n";
}
output = out.str ();
return rc;
}
void RelativePointPath::StartSubPath::addToPath (Path& path, Expression::Scope* scope) const
{
path.startNewSubPath (startPos.resolve (scope));
}
//makes the bots moves for the turn
void AntWar::MakeMoves()
{
NavDijkstra m_oNavDijkstra(m_oWorld.GetGrid());
NavAStar m_oNavAStar(m_oWorld.GetGrid());
int iExplMin = 5;
float fExplCoeff = 0.1f;
int iAntCount = m_oWorld.GetAntCount();
int iExpl = max(min(iExplMin, iAntCount), (int)(iAntCount * fExplCoeff));
int iProtect = 0;//max<int>(0, min<int>(m_oWorld.GetMinDistCount(), (int)m_oWorld.GetAntCount() - iExpl));
int iGuard = max<int>(0, iAntCount - (iExpl + iProtect));
DistAntMap::const_reverse_iterator begin = m_oWorld.GetAntByDist().rbegin();
DistAntMap::const_reverse_iterator end = m_oWorld.GetAntByDist().rend();
DistAntMap::const_reverse_iterator it;
// Default Explore / Guard / Protect
int i;
for (i=0, it=begin ; it != end ; ++it, ++i)
{
Ant* pAnt = it->second;
if (pAnt->GetPlayer() > 0)
continue;
Vector2 loc = pAnt->GetLocation();
if (i<iExpl)
pAnt->SetRole(Explore);
if (i>=iExpl && i<iExpl+iGuard)
pAnt->SetRole(Guard);
if (i>=iExpl+iGuard)
pAnt->SetRole(Protect);
}
// Attack
for (uint i=0 ; i<m_oWorld.GetAntCount() ; ++i)
{
Ant& oAnt = m_oWorld.GetAnt(i);
if (oAnt.GetPlayer() == 0)
oAnt.TestAnts(m_oWorld);
}
for (uint i=0 ; i<m_oWorld.GetAntCount() ; ++i)
{
Ant& oAnt = m_oWorld.GetAnt(i);
if (oAnt.GetPlayer() == 0)
oAnt.ReachAllies(m_oWorld);
}
// Loot
vector<Vector2> aLootLoc;
aLootLoc.reserve(m_oWorld.GetEnemyHills().size() + m_oWorld.GetFoods().size());
for (uint i=0 ; i<m_oWorld.GetEnemyHills().size() ; ++i)
{
aLootLoc.push_back(m_oWorld.GetEnemyHills()[i]);
}
for (uint i=0 ; i<m_oWorld.GetFoods().size() ; ++i)
{
aLootLoc.push_back(m_oWorld.GetFoods()[i]);
}
if (aLootLoc.size())
{
vector<Vector2> aLootAnt;
for (uint i=0 ; i<m_oWorld.GetAntCount() ; ++i)
{
Ant& oAnt = m_oWorld.GetAnt(i);
if (oAnt.GetPlayer() > 0) continue;
if (oAnt.GetRole() == Attack) continue;
aLootAnt.push_back(oAnt.GetLocation());
}
m_oNavDijkstra.Explore(aLootLoc, aLootAnt, 0, m_oWorld.GetTurn());
#ifdef MYDEBUG
//m_oNavDijkstra.PrintDebug();
#endif
typedef map<Vector2, set<Path>> AllPathMap;
typedef pair<Vector2, set<Path>> AllPathPair;
AllPathMap aAllPath;
for (uint i=0 ; i<aLootAnt.size() ; ++i)
{
Path oPath;
if (m_oNavDijkstra.GetPath(aLootAnt[i], oPath))
{
Vector2 start = oPath.GetStart();
AllPathMap::iterator it = aAllPath.find(start);
if (it == aAllPath.end())
{
pair<AllPathMap::iterator, bool> res = aAllPath.insert(AllPathPair(start, set<Path>()));
it = res.first;
}
it->second.insert(oPath);
}
}
for (AllPathMap::const_iterator it = aAllPath.begin() ; it != aAllPath.end() ; ++it)
{
const Path& oPath = *(it->second.begin());
Ant& oAnt = m_oWorld.GetAnt(oPath.GetTarget());
ASSERT(oAnt.GetPlayer() == 0);
if (oAnt.GetPath().GetLength() == 0)
{
oAnt.SetPath(oPath.GetInverse());
oAnt.SetRole(Loot);
}
}
}
// Compute Path
for (i=0 ; i<(int)m_oWorld.GetAntCount() ; ++i)
{
Ant& oAnt = m_oWorld.GetAnt(i);
if (oAnt.GetPlayer() > 0)
continue;
if (oAnt.GetRole() == Explore)
{
if (m_oNavDijkstra.FindNearest(oAnt.GetLocation(), NavDijkstra::Undiscovered, oAnt.GetPath(), m_oWorld.GetTurn()) == false)
oAnt.SetRole(Guard);
}
if (oAnt.GetRole() == Guard)
{
if (m_oNavDijkstra.FindNearest(oAnt.GetLocation(), NavDijkstra::Unvisible, oAnt.GetPath(), m_oWorld.GetTurn()) == false)
oAnt.SetRole(Protect);
}
if (oAnt.GetRole() == Attack || oAnt.GetRole() == Help)
{
m_oNavAStar.FindPath(oAnt.GetLocation(), oAnt.GetFirstEnemy(), m_oWorld.GetAttackRadiusSq(), oAnt.GetPath(), m_oWorld.GetTurn());
}
if (oAnt.GetRole() == Flee)
{
if (m_oNavAStar.FindPath(oAnt.GetLocation(), m_oWorld.GetFriendHills()[0], 0, oAnt.GetPath(), m_oWorld.GetTurn()) == false)
{
// ?
}
}
//if (oAnt.GetRole() == Protect)
//{
// if (m_oNavDijkstra.FindNearest(oAnt.GetLocation(), m_oWorld.GetBestDistCase(), oAnt.GetPath(), m_oWorld.GetTurn()) == false)
// {
// }
//}
if (oAnt.GetPath().GetLength() == 0 && m_oWorld.GetGrid().GetCase(oAnt.GetLocation()).GetAntInfluence() <= 0)
{
m_oNavDijkstra.FindNearest(oAnt.GetLocation(), NavDijkstra::Safe, oAnt.GetPath(), m_oWorld.GetTurn());
}
}
// Exec Move
for (it=begin, i=0 ; it != m_oWorld.GetAntByDist().rend(); ++it, ++i)
{
Ant* pAnt = it->second;
if (pAnt->GetPlayer() == 0 && pAnt->GetPath().GetLength() > 0)
{
EDirection dir;
Vector2 target = pAnt->GetPath()[0];
if (m_oWorld.IsEmpty(target))
{
dir = m_oWorld.GetDirection(pAnt->GetLocation(), target);
ExecMove(pAnt->GetLocation(), dir);
}
}
}
};
void RelativePointPath::CloseSubPath::addToPath (Path& path, Expression::Scope*) const
{
path.closeSubPath();
}
void process(const WorkUnit *workUnit, WorkResult *workResult, const bool &stop) {
const RectangularWorkUnit *rect = static_cast<const RectangularWorkUnit *>(workUnit);
GBDPTWorkResult *result = static_cast<GBDPTWorkResult *>(workResult);
bool needsTimeSample = m_sensor->needsTimeSample();
Float time = m_sensor->getShutterOpen();
result->setOffset(rect->getOffset());
result->setSize(rect->getSize());
result->clear();
m_hilbertCurve.initialize(TVector2<uint8_t>(rect->getSize()));
Path emitterSubpath;
Path sensorSubpath;
/*shift direction is hard-coded. future releases should support arbitrary kernels. */
Vector2 shifts[4] = { Vector2(0, -1), Vector2(-1, 0), Vector2(1, 0), Vector2(0, 1) };
if (m_config.maxDepth == -1){
Log(EWarn, "maxDepth is unlimited, set to 12!");
m_config.maxDepth = 12;
}
/* Determine the necessary random walk depths based on properties of
the endpoints */
int emitterDepth = m_config.maxDepth,
sensorDepth = m_config.maxDepth;
//marco: ensure some required properties (temporary solution)
m_config.sampleDirect = false;
/* Go one extra step if the sensor can be intersected */
if (!m_scene->hasDegenerateSensor() && emitterDepth != -1)
++emitterDepth;
/* Sensor subpath legth +1 if there are emitters that can be intersected (to allow very direct sensor paths)*/
if (!m_scene->hasDegenerateEmitters() && sensorDepth != -1)
++sensorDepth;
/*loop over pixels in block*/
for (size_t i = 0; i<m_hilbertCurve.getPointCount(); ++i) {
int neighborCount = m_config.nNeighbours;
std::vector<ShiftPathData> pathData(neighborCount+1, sensorDepth+3);
pathData[0].success = true;
pathData[0].couldConnectAfterB = true;
/*allocate memory depending on number of neighbours*/
std::vector<Path> emitterSubpath(neighborCount + 1);
std::vector<Path> sensorSubpath(neighborCount + 1);
std::vector<double> jacobianLP(neighborCount);
std::vector<double> genGeomTermLP(neighborCount + 1);
std::vector<Spectrum> value(neighborCount + 1);
std::vector<Float> miWeight(neighborCount + 1);
std::vector<Float> valuePdf(neighborCount + 1);
bool *pathSuccess = (bool *)alloca((neighborCount + 1) * sizeof(bool));
Point2 samplePos;
Point2i offset = Point2i(m_hilbertCurve[i]) + Vector2i(rect->getOffset());
m_sampler->generate(offset);
int spp = m_sampler->getSampleCount();
/* For each sample */
for (size_t j = 0; j<spp; j++) {
if (stop)
break;
if (needsTimeSample)
time = m_sensor->sampleTime(m_sampler->next1D());
/* Start new emitter and sensor subpaths */
emitterSubpath[0].initialize(m_scene, time, EImportance, m_pool);
sensorSubpath[0].initialize(m_scene, time, ERadiance, m_pool);
/* Perform a random walk using alternating steps on each path */
Path::alternatingRandomWalkFromPixel(m_scene, m_sampler,
emitterSubpath[0], emitterDepth, sensorSubpath[0],
sensorDepth, offset, m_config.rrDepth, m_pool);
samplePos = sensorSubpath[0].vertex(1)->getSamplePosition();
double jx, jy;
//marco: Hack- Required to store negative gradients...
for (size_t i = 0; i < (1 + m_config.nNeighbours); ++i){
const_cast<ImageBlock *>(result->getImageBlock(i))->setAllowNegativeValues(true);
if (m_config.lightImage)
const_cast<ImageBlock *>(result->getLightImage(i))->setAllowNegativeValues(true);
}
Path connectPath;
int ptx;
/* create shift-able path */
bool couldConnect = createShiftablePath(connectPath, emitterSubpath[0], sensorSubpath[0], 1, sensorSubpath[0].vertexCount() - 1, ptx);
/* geometry term(s) of base */
m_offsetGenerator->computeMuRec(connectPath, pathData[0].muRec);
int idx = 0;
for (int v = pathData[0].muRec.extra[0] - 1; v >= 0; v--){
int idx = connectPath.vertexCount() - 1 - v;
if (Path::isConnectable_GBDPT(connectPath.vertex(v), m_config.m_shiftThreshold) && v >= pathData[0].muRec.extra[2])
pathData[0].genGeomTerm.at(idx) = connectPath.calcSpecularPDFChange(v, m_offsetGenerator);
else
pathData[0].genGeomTerm.at(idx) = pathData[0].genGeomTerm.at(idx - 1);
}
/*shift base path if possible*/
for (int k = 0; k<neighborCount; k++){
//we cannot shift very direct paths!
pathData[k + 1].success = pathData[0].muRec.extra[0] <= 2 ? false : m_offsetGenerator->generateOffsetPathGBDPT(connectPath, sensorSubpath[k + 1], pathData[k + 1].muRec, shifts[k], pathData[k + 1].couldConnectAfterB, false);
//if shift successful, compute jacobian and geometry term for each possible connection strategy that affects the shifted sub path
//for the manifold exploration shift there are only two connectible vertices in the affected chain (v_b and v_c)
if (pathData[k + 1].success){
int idx = 0; int a, b, c;
for (int v = pathData[k + 1].muRec.extra[0] - 1; v >= 0; v--){
int idx = connectPath.vertexCount() - 1 - v;
if (Path::isConnectable_GBDPT(connectPath.vertex(v), m_config.m_shiftThreshold) && v >= pathData[k + 1].muRec.extra[2]){
a = pathData[k + 1].muRec.extra[0];
b = v >= pathData[k + 1].muRec.extra[1] ? v : pathData[k + 1].muRec.extra[1];
c = v >= pathData[k + 1].muRec.extra[1] ? v - 1 : pathData[k + 1].muRec.extra[2];
jx = connectPath.halfJacobian_GBDPT(a, b, c, m_offsetGenerator);
jy = sensorSubpath[k + 1].halfJacobian_GBDPT(a, b, c, m_offsetGenerator);
pathData[k+1].jacobianDet.at(idx) = jy / jx;
pathData[k+1].genGeomTerm.at(idx) = sensorSubpath[k + 1].calcSpecularPDFChange(v, m_offsetGenerator);
}
else{
pathData[k + 1].jacobianDet.at(idx) = pathData[k + 1].jacobianDet.at(idx - 1);
pathData[k + 1].genGeomTerm.at(idx) = pathData[k + 1].genGeomTerm.at(idx - 1);
}
}
}
sensorSubpath[k + 1].reverse();
}
/*save index of vertex b for evaluation (indexing is reversed)*/
int v_b = connectPath.vertexCount() - 1 - pathData[0].muRec.extra[1];
/* evaluate base and offset paths */
evaluate(result, emitterSubpath[0], sensorSubpath, pathData, v_b,
value, miWeight, valuePdf, jacobianLP, genGeomTermLP, pathSuccess);
/* clean up memory */
connectPath.release(ptx, ptx + 2, m_pool);
for (int k = 0; k<neighborCount; k++){
if (pathData[k+1].success){
sensorSubpath[k + 1].reverse();
sensorSubpath[k + 1].release(pathData[k + 1].muRec.l, pathData[k + 1].muRec.m + 1, m_pool);
}
}
sensorSubpath[0].release(m_pool);
emitterSubpath[0].release(m_pool);
for (size_t i = 0; i < (1 + m_config.nNeighbours); ++i){
const_cast<ImageBlock *>(result->getImageBlock(i))->setAllowNegativeValues(false);
if (m_config.lightImage)
const_cast<ImageBlock *>(result->getLightImage(i))->setAllowNegativeValues(false);
}
m_sampler->advance();
}
}
/* Make sure that there were no memory leaks */
Assert(m_pool.unused());
}
void RelativePointPath::LineTo::addToPath (Path& path, Expression::Scope* scope) const
{
path.lineTo (endPoint.resolve (scope));
}
void ArrangeAlignment::RedrawDiagram(ReDrawInfoType* ExtraInfo)
{
// objects drawn in the render region must be relatively large in the given coord space
// else Gavin's curve flattening results in visible straight lines
// so every dimension is scaled by scale
INT32 scale=1000;
// make a render region
DocRect VirtRendRect;
VirtRendRect.lo.x=-1*scale;
VirtRendRect.lo.y=-2*scale;
VirtRendRect.hi.x=(DiagWidth +1)*scale;
VirtRendRect.hi.y=(DiagHeight+2)*scale;
RenderRegion* pRender=CreateGRenderRegion(&VirtRendRect,ExtraInfo);
if (pRender!=NULL)
{
pRender->SaveContext();
// currently this must be set here before any colour tables calculated
Quality AntiAliasQuality(Quality::QualityMax);
QualityAttribute AntiAliasQualityAttr(AntiAliasQuality);
pRender->SetQuality(&AntiAliasQualityAttr,FALSE);
// Render the background rectangle
DialogColourInfo RedrawColours;
pRender->SetLineColour(RedrawColours.DialogBack());
pRender->SetFillColour(RedrawColours.DialogBack());
pRender->DrawRect(&VirtRendRect);
// declared at this scope else RestoreContext() dies!
RadialFillAttribute Fill;
// set up some defaults used by all objects
Fill.MakeElliptical();
Fill.Colour=DocColour(255,255,255);
pRender->SetLineColour(BLACK);
pRender->SetLineWidth(0);
for (INT32 i=0; i<DiagRects; i++)
{
// reverse order in which objets are rendered (now filled!)
INT32 j=DiagRects-1-i;
// set fill colour of each object
switch (j)
{
case 0: Fill.EndColour=DocColour(255,255,0); break;
case 1: Fill.EndColour=DocColour(0,0,255); break;
case 2: Fill.EndColour=DocColour(255,0,0); break;
case 3: Fill.EndColour=DocColour(0,160,0); break;
default: Fill.EndColour=DocColour(0,0,0); break;
}
// get bound rect of object to be drawn
INT32 x=DiagRectX[Align.h][j].lo*scale;
INT32 w=DiagRectX[Align.h][j].hi*scale-x;
INT32 y=DiagRectY[Align.v][j].lo*scale;
INT32 h=DiagRectY[Align.v][j].hi*scale-y;
// create shape and fill geometries
Path shape;
shape.Initialise(16,8);
shape.IsFilled=TRUE;
shape.FindStartOfPath();
switch (j)
{
case 0:
{
// create a rectangle
shape.InsertMoveTo(DocCoord(x,y));
shape.InsertLineTo(DocCoord(x,y+h));
shape.InsertLineTo(DocCoord(x+w,y+h));
shape.InsertLineTo(DocCoord(x+w,y));
shape.InsertLineTo(DocCoord(x,y));
// // create a radial fill
// Fill.StartPoint=DocCoord(x+w*3/16,y+h*3/4);
// Fill.EndPoint =DocCoord(x+w*3/8,y+h/2);
// Fill.EndPoint2 =DocCoord(x+w*3/8,y+h);
break;
}
case 1:
{
// create a pseudo ellipse
shape.InsertMoveTo( DocCoord(x,y+h/2));
shape.InsertCurveTo(DocCoord(x,y+h*3/4), DocCoord(x+w/4,y+h), DocCoord(x+w/2,y+h));
shape.InsertCurveTo(DocCoord(x+w*3/4,y+h),DocCoord(x+w,y+h*3/4),DocCoord(x+w,y+h/2));
shape.InsertCurveTo(DocCoord(x+w,y+h/4), DocCoord(x+w*3/4,y), DocCoord(x+w/2,y));
shape.InsertCurveTo(DocCoord(x+w/4,y), DocCoord(x,y+h/4), DocCoord(x,y+h/2));
// // create a radial fill
// Fill.StartPoint=DocCoord(x+w*3/8,y+h*5/8);
// Fill.EndPoint =DocCoord(x+w*6/8,y+h/4);
// Fill.EndPoint2 =DocCoord(x+w*6/8,y+h);
break;
}
default:
{
// create a rounded rectangle
shape.InsertMoveTo( DocCoord(x,y+h/2));
shape.InsertCurveTo(DocCoord(x,y+h), DocCoord(x,y+h), DocCoord(x+w/2,y+h));
shape.InsertCurveTo(DocCoord(x+w,y+h),DocCoord(x+w,y+h),DocCoord(x+w,y+h/2));
shape.InsertCurveTo(DocCoord(x+w,y), DocCoord(x+w,y), DocCoord(x+w/2,y));
shape.InsertCurveTo(DocCoord(x,y), DocCoord(x,y), DocCoord(x,y+h/2));
// // create a radial fill
// Fill.StartPoint=DocCoord(x+w*3/16,y+h*3/4);
// Fill.EndPoint =DocCoord(x+w*3/8,y+h/2);
// Fill.EndPoint2 =DocCoord(x+w*3/8,y+h);
break;
}
}
// pRender->SetFillGeometry(&Fill,FALSE);
pRender->SetFillColour(Fill.EndColour);
pRender->DrawPath(&shape);
}
pRender->RestoreContext();
DestroyGRenderRegion(pRender); // also blt's to screen
}
}
void RelativePointPath::CubicTo::addToPath (Path& path, Expression::Scope* scope) const
{
path.cubicTo (controlPoints[0].resolve (scope),
controlPoints[1].resolve (scope),
controlPoints[2].resolve (scope));
}
explicit NarrowPathName(Path _value)
:value(Value::Donate(ConvertWideToACP(_value.c_str()))) {}
void GraphicsContext::fillEllipseAsPath(const FloatRect& ellipse)
{
Path path;
path.addEllipse(ellipse);
fillPath(path);
}