bool Search::Find(bool firstLoop)
{
if (firstLoop)
{
SetDefaults();
if (!_caseSensitive)
{
for (unsigned int i=0;i<_criteria.size();i++)
{
Uncapitalize(_criteria[i]._query);
}
}
if (!SI.Init(_beginPath)){
SearchException se(L"Could not find path: ");
se.AppendBasicLog(SI.GetPath());
};
}else
{_cycleTimer=clock();}
SearchLoop();
return 0;
}
int main(int argc, char *argv[])
{
try {
CheckearthqParameters p;
getProgramOptions(argc, argv, &p);
Random::RandomGen r(p.config_file);
Ephemeris::SwissEphemeris se(p.ephemeris_path);
Ephemeris::ephemeris = &se;
list<Earthquake> earthquakes{ getEarthquakes(p.input_file, p.excl_unknown, p.skip_bad, p.dbf) };
list<DateTime> earthquake_date_times;
for(auto e : earthquakes) {
if(e.deaths >= p.min_deaths
&& e.when.date().year() >= p.year_from
&& e.when.date().year() <= p.year_to)
{
earthquake_date_times.push_back(e.when);
}
}
Test::performMainTest(earthquake_date_times, p, &r);
return 0;
}
catch(const exception& e)
{
cerr << e.what() << "\n";
}
catch(...) {
cerr << "unknown error\n";
}
return 1;
}
void set_pivot_from_preferences(gfx::Transformation& t)
{
gfx::Transformation::Corners corners;
t.transformBox(corners);
gfx::PointT<double> nw(corners[gfx::Transformation::Corners::LEFT_TOP]);
gfx::PointT<double> ne(corners[gfx::Transformation::Corners::RIGHT_TOP]);
gfx::PointT<double> sw(corners[gfx::Transformation::Corners::LEFT_BOTTOM]);
gfx::PointT<double> se(corners[gfx::Transformation::Corners::RIGHT_BOTTOM]);
gfx::PointT<double> pivotPos((nw + se) / 2);
app::gen::PivotPosition pivot = Preferences::instance().selection.pivotPosition();
switch (pivot) {
case app::gen::PivotPosition::NORTHWEST:
pivotPos = nw;
break;
case app::gen::PivotPosition::NORTH:
pivotPos = (nw + ne) / 2.0;
break;
case app::gen::PivotPosition::NORTHEAST:
pivotPos = ne;
break;
case app::gen::PivotPosition::WEST:
pivotPos = (nw + sw) / 2.0;
break;
case app::gen::PivotPosition::EAST:
pivotPos = (ne + se) / 2.0;
break;
case app::gen::PivotPosition::SOUTHWEST:
pivotPos = sw;
break;
case app::gen::PivotPosition::SOUTH:
pivotPos = (sw + se) / 2.0;
break;
case app::gen::PivotPosition::SOUTHEAST:
pivotPos = se;
break;
}
t.displacePivotTo(gfx::PointF(pivotPos));
}
bool OverridingShortcut::eventFilter(QObject* /*watched*/, QEvent* event)
{
if (event->type() == QEvent::ShortcutOverride && key().count() == 1)
{
QKeyEvent* key_event = static_cast<QKeyEvent*>(event);
if ((key_event->key() | int(key_event->modifiers())) == key()[0])
{
if (timer.elapsed() < 50) // milliseconds
{
event->accept();
return true;
}
QShortcutEvent se(key(), id());
event->setAccepted(QShortcut::event(&se));
timer.restart();
return event->isAccepted();
}
}
return false;
}
TEST(VoidElement, CopyElement)
{
tawara::StringElement se(0x80, "12345");
std::streamsize se_size(se.size());
tawara::VoidElement ve1(se);
EXPECT_EQ(se_size, ve1.size());
EXPECT_FALSE(ve1.fill());
tawara::VoidElement ve2(se, true);
EXPECT_EQ(se_size, ve2.size());
EXPECT_TRUE(ve2.fill());
// Test elements with a size right on the border of two encoded sizes for
// the body size
for (int ii(0); ii < 10; ++ii)
{
tawara::BinaryElement be(0x81, std::vector<char>(0x3FFB + ii, 0xC0));
tawara::VoidElement ve3(be);
EXPECT_EQ(be.size(), ve3.size());
}
}
void LiveEventControl::openLoopRangeDialog(int row)
{
QDialog d;
QVBoxLayout l(&d);
QLabel ls(tr("Loop start"),&d);
QSpinBox ss(&d);
QLabel le(tr("Loop end"),&d);
QSpinBox se(&d);
QPushButton okButton(tr("Ok"), &d);
QPushButton cancelButton(tr("Cancel"), &d);
connect(&okButton,SIGNAL(released()),&d,SLOT(accept()));
connect(&cancelButton,SIGNAL(released()),&d,SLOT(reject()));
l.addWidget(&ls);
l.addWidget(&ss);
l.addWidget(&le);
l.addWidget(&se);
l.addWidget(&okButton);
l.addWidget(&cancelButton);
QTableWidgetItem *item = getItem(row,6);
QStringList bounds(item->text().split("-"));
if (bounds.size() > 1) {
if (bounds[0].toInt() >= 0) {
ss.setValue(bounds[0].toInt());
}
if (bounds[1].toInt() >= 0) {
se.setValue(bounds[1].toInt());
}
}
int ret = d.exec();
if (ret == QDialog::Accepted) {
QString range = QString::number(ss.value()) + "-" + QString::number(se.value());
qDebug() << "LiveEventControl::openLoopRangeDialog " << row << range;
QTableWidgetItem *item = m_ui->panelTableWidget->item(row,6);
item->setText(range);
emit setPanelLoopRangeSignal(row, ss.value() - 1,se.value() - 1);
}
}
std::istream& GetLine(std::istream& is, std::string& t)
{
t.clear();
std::istream::sentry se(is, true);
std::streambuf* sb = is.rdbuf();
for (;;) {
int c = sb->sbumpc();
switch (c) {
case '\n':
return is;
case '\r':
if (sb->sgetc() == '\n')
sb->sbumpc();
return is;
case EOF:
if (t.empty())
is.setstate(std::ios::eofbit);
return is;
default:
t += (char)c;
}
}
}
int main(int argc, char* argv[])
{
std::cout << "\n Testing ActionsAndRules class\n "
<< std::string(30,'=') << std::endl;
try
{
std::queue<std::string> resultsQ;
PreprocToQ ppq(resultsQ);
PreprocStatement pps;
pps.addAction(&ppq);
FunctionDefinition fnd;
PrettyPrintToQ pprtQ(resultsQ);
fnd.addAction(&pprtQ);
Toker toker("../ActionsAndRules.h");
SemiExp se(&toker);
Parser parser(&se);
parser.addRule(&pps);
parser.addRule(&fnd);
while(se.get())
parser.parse();
size_t len = resultsQ.size();
for(size_t i=0; i<len; ++i)
{
std::cout << "\n " << resultsQ.front().c_str();
resultsQ.pop();
}
std::cout << "\n\n";
}
catch(std::exception& ex)
{
std::cout << "\n\n " << ex.what() << "\n\n";
}
}
void Read(CObjectIStream* obj_in_stream,
TCallback callback,
const string& top_level_asn_object = kEmptyStr)
{
while ( !obj_in_stream->EndOfData() ) {
// determine the ASN.1 object type
string obj = obj_in_stream->ReadFileHeader();
if ( obj.empty() ) {
// auto-detection is not possible in ASN.1 binary mode
// hopefully top_level_asn_object was specified by the user
if ( top_level_asn_object.empty() ) {
NCBI_THROW(CException, eUnknown,
"ReadFileHeader() returned empty. "
"Binary ASN.1 file? "
"Please supply the top_level_asn_object.");
}
else {
obj = top_level_asn_object;
}
}
else {
if (!top_level_asn_object.empty() && obj != top_level_asn_object) {
// object differs from the specified, skip it
continue;
}
}
CTypesIterator i;
CType<CSeq_align>::AddTo(i);
if (obj == "Seq-entry") {
CRef<CSeq_entry> se(new CSeq_entry);
obj_in_stream->Read(Begin(*se), CObjectIStream::eNoFileHeader);
if ( m_Scope ) {
m_Scope->AddTopLevelSeqEntry(*se);
}
for (i = Begin(*se); i; ++i) {
if ( CType<CSeq_align>::Match(i) ) {
callback(CType<CSeq_align>::Get(i));
}
}
}
else if (obj == "Seq-submit") {
CRef<CSeq_submit> ss(new CSeq_submit);
obj_in_stream->Read(Begin(*ss), CObjectIStream::eNoFileHeader);
CType<CSeq_entry>::AddTo(i);
int tse_cnt = 0;
for (i = Begin(*ss); i; ++i) {
if ( CType<CSeq_align>::Match(i) ) {
callback(CType<CSeq_align>::Get(i));
}
else if ( CType<CSeq_entry>::Match(i) ) {
if ( !(tse_cnt++) ) {
//m_Scope.AddTopLevelSeqEntry
(*(CType<CSeq_entry>::Get(i)));
}
}
}
}
else if (obj == "Seq-align") {
CRef<CSeq_align> sa(new CSeq_align);
obj_in_stream->Read(Begin(*sa), CObjectIStream::eNoFileHeader);
for (i = Begin(*sa); i; ++i) {
if ( CType<CSeq_align>::Match(i) ) {
callback(CType<CSeq_align>::Get(i));
}
}
}
else if (obj == "Seq-align-set") {
CRef<CSeq_align_set> sas(new CSeq_align_set);
obj_in_stream->Read(Begin(*sas), CObjectIStream::eNoFileHeader);
for (i = Begin(*sas); i; ++i) {
if ( CType<CSeq_align>::Match(i) ) {
callback(CType<CSeq_align>::Get(i));
}
}
}
else if (obj == "Seq-annot") {
CRef<CSeq_annot> san(new CSeq_annot);
obj_in_stream->Read(Begin(*san), CObjectIStream::eNoFileHeader);
for (i = Begin(*san); i; ++i) {
if ( CType<CSeq_align>::Match(i) ) {
callback(CType<CSeq_align>::Get(i));
}
}
}
else if (obj == "Dense-seg") {
CRef<CDense_seg> ds(new CDense_seg);
obj_in_stream->Read(Begin(*ds), CObjectIStream::eNoFileHeader);
CRef<CSeq_align> sa(new CSeq_align);
sa->SetType(CSeq_align::eType_not_set);
sa->SetSegs().SetDenseg(*ds);
sa->SetDim(ds->GetDim());
callback(sa);
}
else {
if ( obj.empty() ) {
NCBI_THROW(CException, eUnknown,
"ReadFileHeader() returned empty. "
"Binary ASN.1 file? "
"Please supply the top_level_asn_object.");
}
else {
cerr << "Don't know how to extract alignments from: " << obj << endl;
cerr << "Do you know? Please contact us at [email protected]." << endl;
}
return;
}
if (m_Verbose) {
cerr << "Finished reading " << obj << "." << endl;
}
}
}
int main(int argc, char* argv[])
{
std::cout << "\n Testing SemiExp class\n "
<< std::string(23,'=') << std::endl;
try {
std::cout << "\n testing SemiExp::get(...)";
std::cout << "\n -----------------------------";
Toker toker1(argv[1]);
toker1.returnComments(false);
SemiExp test1(&toker1);
test1.get();
std::cout << "\n " << test1.show();
test1.get(false);
std::cout << "\n " << test1.show();
test1.get();
std::cout << "\n " << test1.show();
test1.get(false);
std::cout << "\n " << test1.show() << std::endl;
std::cout << "\n testing SemiExp::merge(...)";
std::cout << "\n -----------------------------";
SemiExp test2(0);
test2.push_back("one");
test2.push_back("two");
test2.push_back("three");
test2.push_back("four");
test2.push_back("five");
std::cout << "\n " << test2.show();
test2.merge("two","five");
std::cout << "\n " << test2.show() << std::endl;
std::cout << "\n testing SemiExp::find()";
std::cout << "\n -------------------------";
SemiExp semi(0);
semi.push_back("one");
semi.push_back("two");
semi.push_back("three");
semi.push_back("four");
std::cout << "\n" << semi.show();
size_t pos = semi.find("two");
std::cout << "\n position of \"two\" is " << pos;
pos = semi.find("foobar");
std::cout << "\n position of \"foobar\" is " << pos;
std::cout << "\n\n";
std::cout << "\n Note that comments and quotes are returned as single tokens\n";
}
catch(std::exception& ex)
{
std::cout << "\n\n " << ex.what() << "\n\n";
return 1;
}
if(argc < 2)
{
std::cout
<< "\n please enter name of file to process on command line\n\n";
return 1;
}
for(int i=1; i<argc; ++i)
{
std::cout << "\n Processing file " << argv[i];
std::cout << "\n " << std::string(16 + strlen(argv[i]),'-') << "\n\n";
try
{
Toker toker(argv[i]);
toker.returnComments();
SemiExp se(&toker);
se.makeCommentSemiExp();
//se.verbose(); // uncomment to show token details
while(se.get())
{
std::cout << se.show(true).c_str() << std::endl;
for(size_t i=0; i<se.length(); ++i)
if(se[i] == "")
std::cout << "\n\n----blank token----\n";
}
std::cout << "\n";
}
catch(std::exception ex)
{
std::cout << "\n " << ex.what() << "\n\n";
}
}
for(int i=1; i<argc; ++i)
{
std::cout << "\n Processing file " << argv[i];
std::cout << "\n " << std::string(16 + strlen(argv[i]),'-') << "\n\n";
try
{
Toker toker(argv[i]);
toker.returnComments();
SemiExp se(&toker);
se.makeCommentSemiExp();
se.returnNewLines(false);
//se.verbose(); // uncomment to show token details
while(se.get())
{
for(size_t i=0; i<se.length(); ++i)
if(se[i] == "")
std::cout << "\n\n----blank token----\n";
std::cout << se.show(true).c_str() << std::endl;
}
std::cout << "\n";
}
catch(std::exception ex)
{
std::cout << "\n " << ex.what() << "\n\n";
}
}
}
int
main (int argc, char *argv[])
{
int optch;
char *dir = KBDDIR;
struct kd_keymap map;
FILE *file;
char line[MAXLINE + 2];
char *start;
int p[4], i, j;
char ch;
if ((optch = getopt (argc, argv, "d:")) != EOF)
if (optch == 'd')
dir = optarg;
else
usage ();
if (argc < 4)
usage ();
if (chdir (dir) < 0)
{
fprintf (stderr, "setkbd: cannot change to directory %s: %s\n", dir, strerror (errno));
return 1;
}
if ((map.kbd_flags = atoi (argv[optind + 2])) < 0)
{
fprintf (stderr, "setkbd: diacr_mask error\n");
return 1;
}
for (i = 0; i < 97; i++)
map.key_map[i] = map.shift_map[i] = map.alt_map[i] = 0;
for (i = 0; i < NUM_ACC; i++)
{
map.accent_table[i][0] = 32;
for (j = 1; j < 63; j++)
map.accent_table[i][j] = j + 64;
}
for (i = 0; i < 13; i++)
map.lock_state[i] = 0;
for (i = 0; i <= NUM_ACC; i++)
map.diacr_table[i] = 0;
if ((file = fopen (argv[optind], "r")) == NULL)
{
fprintf (stderr, "setkbd: cannot open %s: %s\n", argv[optind], strerror (errno));
return 1;
}
while (fgets (line, MAXLINE, file))
{
start = line;
while (*start == ' ' || *start == '\t')
start++;
if (*start && *start != '\n' && *start != '#')
{
for (i = 0; i < 4; i++)
p[i] = -1;
ch = 0;
for (i = 0; i < 4; i++)
{
while (*start == ' ' || *start == '\t')
start++;
if (*start == '\'')
{
p[i] = *(++start);
start++;
start++;
}
else if ((p[i] = strtol (start, &start, 0)) < 0 || p[i] > 255)
se ();
}
while (*start == ' ' || *start == '\t')
start++;
if ((ch = *start) != 'C' && ch != 'O')
se ();
}
map.key_map[p[0]] = p[1];
map.shift_map[p[0]] = p[2];
map.alt_map[p[0]] = p[3];
map.lock_state[p[0] / 8] |= (ch == 'C') ? 1 << (p[0] % 8) : 0;
}
i = -1;
if ((file = fopen (argv[optind + 1], "r")) == NULL)
{
fprintf (stderr, "setkbd: cannot open %s: %s\n", argv[optind + 1], strerror (errno));
return 1;
}
while (fgets (line, MAXLINE, file))
{
start = line;
if (*start && *start != '\n' && *start != '#')
{
while (*start == ' ' || *start == '\t')
start++;
switch (*start)
{
case 'd':
if ((p[2] = strtol (start + 4, &start, 0)) < 0
|| p[2] > 255)
se ();
i++;
if (i == NUM_ACC)
{
fprintf (stderr, "setkbd: too many dead keys\n");
exit (1);
}
map.diacr_table[i] = p[2];
goto aaa;
break;
case '#':
case '\n':
break;
default:
if (i < 0)
se ();
for (j = 0; j < 2; j++)
p[j] = -1;
for (j = 0; j < 2; j++)
{
while (*start == ' ' || *start == '\t')
start++;
if (*start == '\'')
{
p[j] = *(++start);
start++;
start++;
}
else if ((p[j] = strtol (start, &start, 0)) < 0 || p[j] > 255)
se ();
}
map.accent_table[i][p[0] - 64] = p[1];
break;
}
}
aaa:
}
if (ioctl (2, KDSETKBD, &map) < 0)
{
fprintf (stderr, "setkbd: ioctl failed: %s\n", strerror (errno));
return 1;
}
return 0;
}
int main(int argc, char *argv[])
{
if(2 != argc) {
printf("./meta_kdtree metapath\n");
return -1;
}
skdtree_t se(6);
mylist *mlist = meta_read(argv[1]);
printf("partiton size = %d\n", mlist->size);
// insert every file's metadata to simple kdtree
for(int i = 0; i < mlist->size; i++) {
file_meta *m = (file_meta *)mlist->item[i].data;
meta_info_t *mi = new meta_info_t(m->uid, m->gid, m->size, m->atime, m->ctime, m->mtime);
se.insert(mi);
}
// dump test
{
// dump in normal tree
std::vector<meta_info_t *> result;
struct timeval start, end;
gettimeofday(&start, NULL);
se.dump(result);
gettimeofday(&end, NULL);
printf("height: %d\n", se.height());
print_interval(start, end);
printf("%d\n", result.size());
printf("\n");
// dump in balance tree
se.balance();
result.clear();
gettimeofday(&start, NULL);
se.dump(result);
gettimeofday(&end, NULL);
printf("height: %d\n", se.height());
print_interval(start, end);
printf("%d\n", result.size());
printf("\n");
// dump in list
std::vector<file_meta *> mresult;
gettimeofday(&start, NULL);
for(int i = 0; i < mlist->size; i++) {
mresult.push_back((file_meta *)mlist->item[i].data);
}
gettimeofday(&end, NULL);
print_interval(start, end);
printf("%d\n", result.size());
printf("\n");
}
{
struct timeval start, end;
meta_info_t low(0, 0, 1024*1024, 0, 0, 0);
meta_info_t high(0, 0, 2024*1024, 0xffffffff, 0xffffffff, 0xffffffff);
region_t r(low, high);
// range find in kdtree
std::cout << "range find in simple kdtree" << std::endl;
std::vector<meta_info_t *> v;
gettimeofday(&start, NULL);
se.find_within_range(r, v);
gettimeofday(&end, NULL);
print_interval(start, end);
printf("results: %u\n", v.size());
printf("\n");
v.clear();
se.balance();
printf("height after optimise: %d\n", se.height());
std::cout << "range find in simple balance kdtree" << std::endl;
gettimeofday(&start, NULL);
se.find_within_range(r, v);
gettimeofday(&end, NULL);
print_interval(start, end);
printf("results: %u\n", v.size());
printf("\n");
}
}
// apply a displacement that does not create elements that are
// distorted over a value "thres"
double highOrderTools::apply_incremental_displacement(double max_incr,
std::vector<MElement*> & v,
bool mixed,
double thres,
char *meshName,
std::vector<MElement*> & disto)
{
#ifdef HAVE_PETSC
// assume that the mesh is OK, yet already curved
//linearSystemCSRTaucs<double> *lsys = new linearSystemCSRTaucs<double>;
linearSystemPETSc<double> *lsys = new linearSystemPETSc<double>;
lsys->setParameter("petscOptions","-pc_type ilu");
lsys->setParameter("petscOptions","-ksp_monitor");
dofManager<double> myAssembler(lsys);
elasticityMixedTerm El_mixed (0, 1.0, .333, _tag);
elasticityTerm El (0, 1.0, .333, _tag);
std::set<MVertex*> _vertices;
//+++++++++ Boundary Conditions & Numbering +++++++++++++++++++++++++++++++
// fix all dof that correspond to vertices on the boundary
// the value is equal
for (unsigned int i = 0; i < v.size(); i++){
for (int j = 0; j < v[i]->getNumVertices(); j++){
MVertex *vert = v[i]->getVertex(j);
_vertices.insert(vert);
}
}
//+++++++++ Fix d tr(eps) = 0 +++++++++++++++++++++++++++++++
if (mixed){
for (unsigned int i = 0; i < disto.size(); i++){
for (int j = 0; j < disto[i]->getNumVertices(); j++){
MVertex *vert = disto[i]->getVertex(j);
myAssembler.fixVertex(vert, 4, _tag, 0.0);
}
}
}
for (std::set<MVertex*>::iterator it = _vertices.begin(); it != _vertices.end(); ++it){
MVertex *vert = *it;
std::map<MVertex*,SVector3>::iterator itt = _targetLocation.find(vert);
// impose displacement @ boundary
if (itt != _targetLocation.end() && vert->onWhat()->dim() < _dim){
myAssembler.fixVertex(vert, 0, _tag, itt->second.x()-vert->x());
myAssembler.fixVertex(vert, 1, _tag, itt->second.y()-vert->y());
myAssembler.fixVertex(vert, 2, _tag, itt->second.z()-vert->z());
}
// ensure we do not touch any vertex that is on the boundary
else if (vert->onWhat()->dim() < _dim){
myAssembler.fixVertex(vert, 0, _tag, 0);
myAssembler.fixVertex(vert, 1, _tag, 0);
myAssembler.fixVertex(vert, 2, _tag, 0);
}
// }
if (_dim == 2)myAssembler.fixVertex(vert, 2, _tag, 0);
// number vertices
myAssembler.numberVertex(vert, 0, _tag);
myAssembler.numberVertex(vert, 1, _tag);
myAssembler.numberVertex(vert, 2, _tag);
if (mixed){
myAssembler.numberVertex(vert, 3, _tag);
myAssembler.numberVertex(vert, 4, _tag);
}
}
if (myAssembler.sizeOfR()){
// assembly of the elasticity term on the
for (unsigned int i = 0; i < v.size(); i++){
SElement se(v[i]);
if (mixed) El_mixed.addToMatrix(myAssembler, &se);
else El.addToMatrix(myAssembler, &se);
}
// solve the system
lsys->systemSolve();
}
// Move vertices @ maximum
FILE *fd = Fopen ("d.msh","w");
fprintf(fd,"$MeshFormat\n2 0 8\n$EndMeshFormat\n$NodeData\n1\n"
"\"tr(sigma)\"\n1\n0.0\n3\n1\n3\n%d\n", (int) _vertices.size());
for (std::set<MVertex*>::iterator it = _vertices.begin(); it != _vertices.end(); ++it){
double ax, ay, az;
myAssembler.getDofValue(*it, 0, _tag, ax);
myAssembler.getDofValue(*it, 1, _tag, ay);
myAssembler.getDofValue(*it, 2, _tag, az);
(*it)->x() += max_incr*ax;
(*it)->y() += max_incr*ay;
(*it)->z() += max_incr*az;
fprintf(fd,"%d %g %g %g\n",(*it)->getIndex(), ax,ay,az);
}
fprintf(fd,"$EndNodeData\n");
fclose(fd);
// Check now if elements are ok
(*_vertices.begin())->onWhat()->model()->writeMSH(meshName);
double percentage = max_incr * 100.;
while(1){
std::vector<MElement*> disto;
double minD;
getDistordedElements(v, 0.5, disto, minD);
if (minD < thres){
percentage -= 10.;
for (std::set<MVertex*>::iterator it = _vertices.begin(); it != _vertices.end(); ++it){
double ax, ay, az;
myAssembler.getDofValue(*it, 0, _tag, ax);
myAssembler.getDofValue(*it, 1, _tag, ay);
myAssembler.getDofValue(*it, 2, _tag, az);
(*it)->x() -= .1*ax;
(*it)->y() -= .1*ay;
(*it)->z() -= .1*az;
}
}
else break;
}
delete lsys;
return percentage;
#endif
return 0.0;
}
PView *GMSH_DistancePlugin::execute(PView *v)
{
int id_pt = (int) DistanceOptions_Number[0].def;
int id_line = (int) DistanceOptions_Number[1].def;
int id_face = (int) DistanceOptions_Number[2].def;
double type = (double) DistanceOptions_Number[3].def;
int ortho = (int) DistanceOptions_Number[6].def;
PView *view = new PView();
_data = getDataList(view);
#if defined(HAVE_SOLVER)
#if defined(HAVE_TAUCS)
linearSystemCSRTaucs<double> *lsys = new linearSystemCSRTaucs<double>;
#else
linearSystemCSRGmm<double> *lsys = new linearSystemCSRGmm<double>;
lsys->setNoisy(1);
lsys->setGmres(1);
lsys->setPrec(5.e-8);
#endif
dofManager<double> * dofView = new dofManager<double>(lsys);
#endif
std::vector<GEntity*> _entities;
GModel::current()->getEntities(_entities);
if (!_entities.size() || !_entities[_entities.size()-1]->getMeshElement(0)) {
Msg::Error("This plugin needs a mesh !");
return view;
}
GEntity* ge = _entities[_entities.size()-1];
int integrationPointTetra[2] = {0,0};
int numnodes = 0;
for (unsigned int i = 0; i < _entities.size()-1; i++)
numnodes += _entities[i]->mesh_vertices.size();
int totNodes = numnodes + _entities[_entities.size()-1]->mesh_vertices.size();
int order = ge->getMeshElement(0)->getPolynomialOrder();
int totNumNodes = totNodes + ge->getNumMeshElements()*integrationPointTetra[order-1];
std::vector<SPoint3> pts;
std::vector<double> distances;
std::vector<MVertex* > pt2Vertex;
pts.clear();
distances.clear();
pt2Vertex.clear();
pts.reserve(totNumNodes);
distances.reserve(totNumNodes);
pt2Vertex.reserve(totNumNodes);
std::map<MVertex*,double> _distanceE_map;
std::map<MVertex*,int> _isInYarn_map;
std::vector<int> index;
std::vector<double> distancesE;
std::vector<double> distances2;
std::vector<double> distancesE2;
std::vector<int> isInYarn;
std::vector<int> isInYarn2;
std::vector<SPoint3> closePts;
std::vector<SPoint3> closePts2;
for (int i=0; i<totNumNodes; i++) {
distances.push_back(1.e22);
}
int k = 0;
for (unsigned int i=0; i<_entities.size(); i++){
GEntity* ge = _entities[i];
_maxDim = std::max(_maxDim, ge->dim());
for (unsigned int j=0; j<ge->mesh_vertices.size(); j++) {
MVertex *v = ge->mesh_vertices[j];
pts.push_back(SPoint3(v->x(), v->y(), v->z()));
_distance_map.insert(std::make_pair(v, 0.0));
/* TO DO (by AM)
SPoint3 p_empty();
_closePts_map.insert(std::make_pair(v, p_empty));
*/
pt2Vertex[k] = v;
k++;
}
}
// Compute geometrical distance to mesh boundaries
//------------------------------------------------------
if (type < 0.0 ) {
bool existEntity = false;
for (unsigned int i=0; i<_entities.size(); i++) {
GEntity* g2 = _entities[i];
int gDim = g2->dim();
std::vector<int> phys = g2->getPhysicalEntities();
bool computeForEntity = false;
for(unsigned int k = 0; k<phys.size(); k++) {
int tagp = phys[k];
if (id_pt == 0 && id_line == 0 && id_face == 0 && gDim == _maxDim - 1)
computeForEntity = true;
else if ((tagp == id_pt && gDim == 0) || (tagp == id_line && gDim == 1) ||
(tagp == id_face && gDim == 2))
computeForEntity = true;
}
if (computeForEntity) {
existEntity = true;
for (unsigned int k = 0; k < g2->getNumMeshElements(); k++) {
std::vector<double> iDistances;
std::vector<SPoint3> iClosePts;
std::vector<double> iDistancesE;
std::vector<int> iIsInYarn;
MElement *e = g2->getMeshElement(k);
MVertex *v1 = e->getVertex(0);
MVertex *v2 = e->getVertex(1);
SPoint3 p1(v1->x(), v1->y(), v1->z());
SPoint3 p2(v2->x(), v2->y(), v2->z());
if ((e->getNumVertices() == 2 && order == 1) ||
(e->getNumVertices() == 3 && order == 2)) {
signedDistancesPointsLine(iDistances, iClosePts, pts, p1, p2);
}
else if ((e->getNumVertices() == 3 && order == 1) ||
(e->getNumVertices() == 6 && order == 2)) {
MVertex *v3 = e->getVertex(2);
SPoint3 p3 (v3->x(),v3->y(),v3->z());
signedDistancesPointsTriangle(iDistances, iClosePts, pts, p1, p2, p3);
}
for (unsigned int kk=0; kk<pts.size(); kk++) {
if (std::abs(iDistances[kk]) < distances[kk]) {
distances[kk] = std::abs(iDistances[kk]);
MVertex *v = pt2Vertex[kk];
_distance_map[v] = distances[kk];
/* TO DO (by AM)
_closePts_map[v] = iClosePts[kk];
*/
}
}
}
}
}
if (!existEntity){
if (id_pt != 0) Msg::Error("The Physical Point does not exist !");
if (id_line != 0) Msg::Error("The Physical Line does not exist !");
if (id_face != 0) Msg::Error("The Physical Surface does not exist !");
return view;
}
printView(_entities, _distance_map);
/* TO DO (by AM)
printView(_entities, _closePts_map);
*/
}
// Compute PDE for distance function
//-----------------------------------
else if (type > 0.0) {
#if defined(HAVE_SOLVER)
bool existEntity = false;
SBoundingBox3d bbox;
for(unsigned int i = 0; i < _entities.size(); i++){
GEntity* ge = _entities[i];
int gDim = ge->dim();
bool fixForEntity = false;
std::vector<int> phys = ge->getPhysicalEntities();
for(unsigned int k = 0; k < phys.size(); k++) {
int tagp = phys[k];
if (id_pt == 0 && id_line == 0 && id_face == 0 && gDim == _maxDim - 1)
fixForEntity = true;
else if ((tagp == id_pt && gDim == 0) || (tagp == id_line && gDim == 1) ||
(tagp == id_face && gDim == 2) )
fixForEntity = true;
}
if (fixForEntity) {
existEntity = true;
for (unsigned int i = 0; i < ge->getNumMeshElements(); ++i) {
MElement *t = ge->getMeshElement(i);
for (int k=0; k<t->getNumVertices(); k++) {
MVertex *v = t->getVertex(k);
dofView->fixVertex(v, 0, 1, 0.);
bbox += SPoint3(v->x(), v->y(), v->z());
}
}
}
}
if (!existEntity){
if (id_pt != 0) Msg::Error("The Physical Point does not exist !");
if (id_line != 0) Msg::Error("The Physical Line does not exist !");
if (id_face != 0) Msg::Error("The Physical Surface does not exist !");
return view;
}
std::vector<MElement *> allElems;
for(unsigned int ii = 0; ii < _entities.size(); ii++){
if(_entities[ii]->dim() == _maxDim) {
GEntity *ge = _entities[ii];
for(unsigned int i = 0; i < ge->getNumMeshElements(); ++i) {
MElement *t = ge->getMeshElement(i);
allElems.push_back(t);
for (int k = 0; k < t->getNumVertices(); k++)
dofView->numberVertex(t->getVertex(k), 0, 1);
}
}
}
double L = norm(SVector3(bbox.max(), bbox.min()));
double mu = type*L;
simpleFunction<double> DIFF(mu*mu), ONE(1.0);
distanceTerm distance(GModel::current(), 1, &DIFF, &ONE);
for (std::vector<MElement* >::iterator it = allElems.begin();
it != allElems.end(); it++){
SElement se((*it));
distance.addToMatrix(*dofView, &se);
}
groupOfElements gr(allElems);
distance.addToRightHandSide(*dofView, gr);
Msg::Info("Distance Computation: Assembly done");
lsys->systemSolve();
Msg::Info("Distance Computation: System solved");
for (std::map<MVertex*,double >::iterator itv = _distance_map.begin();
itv != _distance_map.end() ; ++itv) {
MVertex *v = itv->first;
double value;
dofView->getDofValue(v, 0, 1, value);
value = std::min(0.9999, value);
double dist = -mu * log(1. - value);
itv->second = dist;
}
printView(_entities, _distance_map);
#endif
}
_data->setName("distance");
_data->Time.push_back(0);
_data->setFileName(_fileName.c_str());
_data->finalize();
// compute also orthogonal vector to distance field
// A Uortho = -C DIST
//------------------------------------------------
if (ortho > 0) {
#if defined(HAVE_SOLVER)
#ifdef HAVE_TAUCS
linearSystemCSRTaucs<double> *lsys2 = new linearSystemCSRTaucs<double>;
#else
linearSystemCSRGmm<double> *lsys2 = new linearSystemCSRGmm<double>;
lsys->setNoisy(1);
lsys->setGmres(1);
lsys->setPrec(5.e-8);
#endif
dofManager<double> myAssembler(lsys2);
simpleFunction<double> ONE(1.0);
double dMax = 1.0; //EMI TO CHANGE
std::vector<MElement *> allElems;
for(unsigned int ii = 0; ii < _entities.size(); ii++){
if (_entities[ii]->dim() == _maxDim) {
GEntity *ge = _entities[ii];
for (unsigned int i=0; i<ge->getNumMeshElements(); ++i) {
MElement *t = ge->getMeshElement(i);
double vMean = 0.0;
for (int k = 0; k < t->getNumVertices(); k++) {
std::map<MVertex*, double>::iterator it = _distance_map.find(t->getVertex(k));
vMean += it->second;
}
vMean /= t->getNumVertices();
if (vMean < dMax)
allElems.push_back(ge->getMeshElement(i));
}
}
}
int mid = (int)floor(allElems.size() / 2.);
MElement *e = allElems[mid];
MVertex *vFIX = e->getVertex(0);
myAssembler.fixVertex(vFIX, 0, 1, 0.0);
for (std::vector<MElement* >::iterator it = allElems.begin();
it != allElems.end(); it++){
MElement *t = *it;
for(int k = 0; k < t->getNumVertices(); k++)
myAssembler.numberVertex(t->getVertex(k), 0, 1);
}
orthogonalTerm *ortho;
ortho = new orthogonalTerm(GModel::current(), 1, &ONE, &_distance_map);
// if (type < 0)
// ortho = new orthogonalTerm(GModel::current(), 1, &ONE, view);
// else
// ortho = new orthogonalTerm(GModel::current(), 1, &ONE, dofView);
for (std::vector<MElement* >::iterator it = allElems.begin();
it != allElems.end(); it++){
SElement se((*it));
ortho->addToMatrix(myAssembler, &se);
}
groupOfElements gr(allElems);
ortho->addToRightHandSide(myAssembler, gr);
Msg::Info("Orthogonal Computation: Assembly done");
lsys2->systemSolve();
Msg::Info("Orthogonal Computation: System solved");
PView *view2 = new PView();
PViewDataList *data2 = getDataList(view2);
data2->setName("ortogonal field");
Msg::Info("Writing orthogonal.pos");
FILE * f5 = Fopen("orthogonal.pos","w");
fprintf(f5,"View \"orthogonal\"{\n");
for (std::vector<MElement* >::iterator it = allElems.begin();
it != allElems.end(); it++){
MElement *e = *it;
int numNodes = e->getNumVertices();
if (e->getType() == TYPE_POLYG)
numNodes = e->getNumChildren() * e->getChild(0)->getNumVertices();
std::vector<double> x(numNodes), y(numNodes), z(numNodes);
std::vector<double> *out2 = data2->incrementList(1, e->getType(), numNodes);
std::vector<MVertex*> nods;
std::vector<double> orth;
if(!e->getNumChildren())
for(int i=0; i<numNodes; i++)
nods.push_back(e->getVertex(i));
else
for(int i = 0; i < e->getNumChildren(); i++)
for(int j = 0; j < e->getChild(i)->getNumVertices(); j++)
nods.push_back(e->getChild(i)->getVertex(j));
for(int nod = 0; nod < numNodes; nod++) out2->push_back((nods[nod])->x());
for(int nod = 0; nod < numNodes; nod++) out2->push_back((nods[nod])->y());
for(int nod = 0; nod < numNodes; nod++) out2->push_back((nods[nod])->z());
if (_maxDim == 2)
switch (numNodes) {
case 2: fprintf(f5,"SL("); break;
case 3: fprintf(f5,"ST("); break;
case 4: fprintf(f5,"SQ("); break;
default: Msg::Fatal("Error in Plugin 'Distance' (numNodes=%g).",numNodes); break;
}
else if (_maxDim == 3)
switch (numNodes) {
case 4: fprintf(f5,"SS("); break;
case 8: fprintf(f5,"SH("); break;
case 6: fprintf(f5,"SI("); break;
case 5: fprintf(f5,"SY("); break;
default: Msg::Fatal("Error in Plugin 'Distance' (numNodes=%g).",numNodes); break;
}
for (int j=0; j<numNodes; j++) {
MVertex *v = nods[j];
if (j)
fprintf(f5, ",%g,%g,%g", v->x(), v->y(), v->z());
else
fprintf(f5, "%g,%g,%g", v->x(), v->y(), v->z());
double value;
myAssembler.getDofValue(v, 0, 1, value);
orth.push_back(value);
}
fprintf(f5,"){");
for (unsigned int i=0; i<orth.size(); i++) {
out2->push_back(orth[i]);
if (i)
fprintf(f5,",%g", orth[i]);
else
fprintf(f5,"%g", orth[i]);
}
fprintf(f5,"};\n");
}
fprintf(f5,"};\n");
fclose(f5);
lsys->clear();
lsys2->clear();
data2->Time.push_back(0);
data2->setFileName("orthogonal.pos");
data2->finalize();
#endif
}
return view;
}
static void vaapi_encode_h264_write_slice_header2(PutBitContext *pbc,
VAAPIEncodeContext *ctx,
VAAPIEncodePicture *pic,
VAAPIEncodeSlice *slice)
{
VAEncSequenceParameterBufferH264 *vseq = ctx->codec_sequence_params;
VAEncPictureParameterBufferH264 *vpic = pic->codec_picture_params;
VAEncSliceParameterBufferH264 *vslice = slice->codec_slice_params;
VAAPIEncodeH264Context *priv = ctx->priv_data;
VAAPIEncodeH264MiscSequenceParams *mseq = &priv->misc_sequence_params;
VAAPIEncodeH264Slice *pslice = slice->priv_data;
VAAPIEncodeH264MiscSliceParams *mslice = &pslice->misc_slice_params;
vaapi_encode_h264_write_nal_header(pbc, mslice->nal_unit_type,
mslice->nal_ref_idc);
ue(vslice->macroblock_address, first_mb_in_slice);
ue(vslice_var(slice_type));
ue(vpic_var(pic_parameter_set_id));
if (mseq->separate_colour_plane_flag) {
u(2, mslice_var(colour_plane_id));
}
u(4 + vseq->seq_fields.bits.log2_max_frame_num_minus4,
(vpic->frame_num &
((1 << (4 + vseq->seq_fields.bits.log2_max_frame_num_minus4)) - 1)),
frame_num);
if (!vseq->seq_fields.bits.frame_mbs_only_flag) {
u(1, mslice_var(field_pic_flag));
if (mslice->field_pic_flag)
u(1, mslice_var(bottom_field_flag));
}
if (vpic->pic_fields.bits.idr_pic_flag) {
ue(vslice_var(idr_pic_id));
}
if (vseq->seq_fields.bits.pic_order_cnt_type == 0) {
u(4 + vseq->seq_fields.bits.log2_max_pic_order_cnt_lsb_minus4,
vslice_var(pic_order_cnt_lsb));
if (mseq->bottom_field_pic_order_in_frame_present_flag &&
!mslice->field_pic_flag) {
se(vslice_var(delta_pic_order_cnt_bottom));
}
}
if (vseq->seq_fields.bits.pic_order_cnt_type == 1 &&
!vseq->seq_fields.bits.delta_pic_order_always_zero_flag) {
se(vslice_var(delta_pic_order_cnt[0]));
if (mseq->bottom_field_pic_order_in_frame_present_flag &&
!mslice->field_pic_flag) {
se(vslice_var(delta_pic_order_cnt[1]));
}
}
if (vpic->pic_fields.bits.redundant_pic_cnt_present_flag) {
ue(mslice_var(redundant_pic_cnt));
}
if (vslice->slice_type == SLICE_TYPE_B) {
u(1, vslice_var(direct_spatial_mv_pred_flag));
}
if (vslice->slice_type == SLICE_TYPE_P ||
vslice->slice_type == SLICE_TYPE_SP ||
vslice->slice_type == SLICE_TYPE_B) {
u(1, vslice_var(num_ref_idx_active_override_flag));
if (vslice->num_ref_idx_active_override_flag) {
ue(vslice_var(num_ref_idx_l0_active_minus1));
if (vslice->slice_type == SLICE_TYPE_B)
ue(vslice_var(num_ref_idx_l1_active_minus1));
}
}
if (mslice->nal_unit_type == 20 || mslice->nal_unit_type == 21) {
av_assert0(0 && "no MVC support");
} else {
if (vslice->slice_type % 5 != 2 && vslice->slice_type % 5 != 4) {
u(1, mslice_var(ref_pic_list_modification_flag_l0));
if (mslice->ref_pic_list_modification_flag_l0) {
av_assert0(0 && "ref pic list modification");
}
}
if (vslice->slice_type % 5 == 1) {
u(1, mslice_var(ref_pic_list_modification_flag_l1));
if (mslice->ref_pic_list_modification_flag_l1) {
av_assert0(0 && "ref pic list modification");
}
}
}
if ((vpic->pic_fields.bits.weighted_pred_flag &&
(vslice->slice_type == SLICE_TYPE_P ||
vslice->slice_type == SLICE_TYPE_SP)) ||
(vpic->pic_fields.bits.weighted_bipred_idc == 1 &&
vslice->slice_type == SLICE_TYPE_B)) {
av_assert0(0 && "prediction weights not supported");
}
av_assert0(mslice->nal_ref_idc > 0 ==
vpic->pic_fields.bits.reference_pic_flag);
if (mslice->nal_ref_idc != 0) {
if (vpic->pic_fields.bits.idr_pic_flag) {
u(1, mslice_var(no_output_of_prior_pics_flag));
u(1, mslice_var(long_term_reference_flag));
} else {
u(1, mslice_var(adaptive_ref_pic_marking_mode_flag));
if (mslice->adaptive_ref_pic_marking_mode_flag) {
av_assert0(0 && "MMCOs not supported");
}
}
}
if (vpic->pic_fields.bits.entropy_coding_mode_flag &&
vslice->slice_type != SLICE_TYPE_I &&
vslice->slice_type != SLICE_TYPE_SI) {
ue(vslice_var(cabac_init_idc));
}
se(vslice_var(slice_qp_delta));
if (vslice->slice_type == SLICE_TYPE_SP ||
vslice->slice_type == SLICE_TYPE_SI) {
if (vslice->slice_type == SLICE_TYPE_SP)
u(1, mslice_var(sp_for_switch_flag));
se(mslice_var(slice_qs_delta));
}
if (vpic->pic_fields.bits.deblocking_filter_control_present_flag) {
ue(vslice_var(disable_deblocking_filter_idc));
if (vslice->disable_deblocking_filter_idc != 1) {
se(vslice_var(slice_alpha_c0_offset_div2));
se(vslice_var(slice_beta_offset_div2));
}
}
if (mseq->num_slice_groups_minus1 > 0 &&
mseq->slice_group_map_type >= 3 && mseq->slice_group_map_type <= 5) {
av_assert0(0 && "slice groups not supported");
}
// No alignment - this need not be a byte boundary.
}
void DocumentExporter::exportCurrentScene(Scene *sce)
{
PointerRNA sceneptr, unit_settings;
PropertyRNA *system; /* unused , *scale; */
clear_global_id_map();
COLLADABU::NativeString native_filename =
COLLADABU::NativeString(std::string(this->export_settings->filepath), COLLADABU::NativeString::ENCODING_UTF8);
COLLADASW::StreamWriter sw(native_filename);
fprintf(stdout, "Collada export: %s\n", this->export_settings->filepath);
// open <collada>
sw.startDocument();
// <asset>
COLLADASW::Asset asset(&sw);
RNA_id_pointer_create(&(sce->id), &sceneptr);
unit_settings = RNA_pointer_get(&sceneptr, "unit_settings");
system = RNA_struct_find_property(&unit_settings, "system");
//scale = RNA_struct_find_property(&unit_settings, "scale_length");
std::string unitname = "meter";
float linearmeasure = RNA_float_get(&unit_settings, "scale_length");
switch (RNA_property_enum_get(&unit_settings, system)) {
case USER_UNIT_NONE:
case USER_UNIT_METRIC:
if (linearmeasure == 0.001f) {
unitname = "millimeter";
}
else if (linearmeasure == 0.01f) {
unitname = "centimeter";
}
else if (linearmeasure == 0.1f) {
unitname = "decimeter";
}
else if (linearmeasure == 1.0f) {
unitname = "meter";
}
else if (linearmeasure == 1000.0f) {
unitname = "kilometer";
}
break;
case USER_UNIT_IMPERIAL:
if (linearmeasure == 0.0254f) {
unitname = "inch";
}
else if (linearmeasure == 0.3048f) {
unitname = "foot";
}
else if (linearmeasure == 0.9144f) {
unitname = "yard";
}
break;
default:
break;
}
asset.setUnit(unitname, linearmeasure);
asset.setUpAxisType(COLLADASW::Asset::Z_UP);
if (U.author[0] != '\0') {
asset.getContributor().mAuthor = U.author;
}
else {
asset.getContributor().mAuthor = "Blender User";
}
char version_buf[128];
#ifdef WITH_BUILDINFO
sprintf(version_buf, "Blender %d.%02d.%d r%s", BLENDER_VERSION / 100, BLENDER_VERSION % 100, BLENDER_SUBVERSION, build_rev);
#else
sprintf(version_buf, "Blender %d.%02d.%d", BLENDER_VERSION / 100, BLENDER_VERSION % 100, BLENDER_SUBVERSION);
#endif
asset.getContributor().mAuthoringTool = version_buf;
asset.add();
LinkNode *export_set = this->export_settings->export_set;
// <library_cameras>
if (bc_has_object_type(export_set, OB_CAMERA)) {
CamerasExporter ce(&sw, this->export_settings);
ce.exportCameras(sce);
}
// <library_lights>
if (bc_has_object_type(export_set, OB_LAMP)) {
LightsExporter le(&sw, this->export_settings);
le.exportLights(sce);
}
// <library_images>
ImagesExporter ie(&sw, this->export_settings);
ie.exportImages(sce);
// <library_effects>
EffectsExporter ee(&sw, this->export_settings);
ee.exportEffects(sce);
// <library_materials>
MaterialsExporter me(&sw, this->export_settings);
me.exportMaterials(sce);
// <library_geometries>
if (bc_has_object_type(export_set, OB_MESH)) {
GeometryExporter ge(&sw, this->export_settings);
ge.exportGeom(sce);
}
// <library_animations>
AnimationExporter ae(&sw, this->export_settings);
ae.exportAnimations(sce);
// <library_controllers>
ArmatureExporter arm_exporter(&sw, this->export_settings);
if (bc_has_object_type(export_set, OB_ARMATURE)) {
arm_exporter.export_controllers(sce);
}
// <library_visual_scenes>
SceneExporter se(&sw, &arm_exporter, this->export_settings);
se.exportScene(sce);
// <scene>
std::string scene_name(translate_id(id_name(sce)));
COLLADASW::Scene scene(&sw, COLLADASW::URI(COLLADABU::Utils::EMPTY_STRING,
scene_name));
scene.add();
// close <Collada>
sw.endDocument();
}
bool
AVCCommand::fire()
{
memset( &m_fcpFrame, 0x0, sizeof( m_fcpFrame ) );
Util::Cmd::BufferSerialize se( m_fcpFrame, sizeof( m_fcpFrame ) );
if ( !serialize( se ) ) {
debugFatal( "fire: Could not serialize\n" );
return false;
}
unsigned short fcpFrameSize = se.getNrOfProducesBytes();
if (getDebugLevel() >= DEBUG_LEVEL_VERY_VERBOSE) {
debugOutputShort( DEBUG_LEVEL_VERY_VERBOSE, "%s:\n", getCmdName() );
debugOutputShort( DEBUG_LEVEL_VERY_VERBOSE, " Request:\n");
showFcpFrame( m_fcpFrame, fcpFrameSize );
Util::Cmd::StringSerializer se_dbg;
serialize( se_dbg );
// output the debug message in smaller chunks to avoid problems
// with a max message size
unsigned int chars_to_write=se_dbg.getString().size();
unsigned int chars_written=0;
while (chars_written<chars_to_write) {
debugOutputShort(DEBUG_LEVEL_VERY_VERBOSE, "%s\n",
se_dbg.getString().substr(chars_written, DEBUG_MAX_MESSAGE_LENGTH).c_str());
chars_written += DEBUG_MAX_MESSAGE_LENGTH-1;
}
}
bool result = false;
unsigned int resp_len;
quadlet_t* resp = m_p1394Service->transactionBlock( m_nodeId,
(quadlet_t*)m_fcpFrame,
( fcpFrameSize+3 ) / 4,
&resp_len );
if ( resp ) {
resp_len *= 4;
unsigned char* buf = ( unsigned char* ) resp;
m_eResponse = ( EResponse )( *buf );
switch ( m_eResponse )
{
case eR_Accepted:
case eR_Implemented:
case eR_Rejected:
case eR_NotImplemented:
{
Util::Cmd::BufferDeserialize de( buf, resp_len );
result = deserialize( de );
debugOutputShort( DEBUG_LEVEL_VERY_VERBOSE," Response:\n");
showFcpFrame( buf, de.getNrOfConsumedBytes() );
Util::Cmd::StringSerializer se_dbg;
serialize( se_dbg );
// output the debug message in smaller chunks to avoid problems
// with a max message size
unsigned int chars_to_write=se_dbg.getString().size();
unsigned int chars_written=0;
while (chars_written<chars_to_write) {
debugOutputShort(DEBUG_LEVEL_VERY_VERBOSE, "%s\n",
se_dbg.getString().substr(chars_written, DEBUG_MAX_MESSAGE_LENGTH).c_str());
chars_written += DEBUG_MAX_MESSAGE_LENGTH-1;
}
}
break;
default:
debugWarning( "unexpected response received (0x%x)\n", m_eResponse );
debugOutputShort( DEBUG_LEVEL_VERY_VERBOSE," Response:\n");
Util::Cmd::BufferDeserialize de( buf, resp_len );
deserialize( de );
showFcpFrame( buf, de.getNrOfConsumedBytes() );
result = false;
}
debugOutputShort( DEBUG_LEVEL_VERY_VERBOSE, "\n" );
m_p1394Service->transactionBlockClose();
} else {
debugOutput( DEBUG_LEVEL_VERBOSE, "no response\n" );
result = false;
m_p1394Service->transactionBlockClose();
}
return result;
}
PNM* MorphologicalOperator::transform()
{
int size = getParameter("size").toInt();
SE shape = (MorphologicalOperator::SE) getParameter("shape").toInt();
PNM* newImage = new PNM(image->width(), image->height(), QImage::Format_RGB32);
math::matrix<bool> se(size,size);
se = getSE(size,shape);
int radius = size/2;
if (image->format() == QImage::Format_Mono) {
}
else if (image->format() == QImage::Format_Indexed8) {
// Iterate over image space
for (int x=0; x<image->width(); x++) {
for (int y=0; y<image->height(); y++) {
math::matrix<double> window(size,size);
int a=0;
for (int i=(x-radius);i<(x+radius+1);i++) {
int b=0;
for (int j=(y-radius);j<(y+radius+1);j++) {
QRgb pixel = getPixel (i,j, RepeatEdge);
window(a,b) = qGray(pixel);
b++;
}
a++;
}
int v = morph(window, se);
newImage->setPixel(x,y, v);
}
}
}
else { //if (image->format() == QImage::Format_RGB32)
// Iterate over image space
for (int x=0; x<image->width(); x++) {
for (int y=0; y<image->height(); y++){
math::matrix<double> windowR(size,size);
math::matrix<double> windowG(size,size);
math::matrix<double> windowB(size,size);
int a=0;
for (int i=(x-radius);i<(x+radius+1);i++) {
int b=0;
for (int j=(y-radius);j<(y+radius+1);j++) {
QRgb pixel = getPixel (i,j, RepeatEdge);
windowR(a,b) = qRed(pixel);
windowG(a,b) = qGreen(pixel);
windowB(a,b) = qBlue(pixel);
b++;
}
a++;
}
int r = morph(windowR, se);
int g = morph(windowG, se);
int b = morph(windowB, se);
QColor newPixel = QColor(r,g,b);
newImage->setPixel(x,y, newPixel.rgb());
}
}
}
return newImage;
}
int main(int argc, char* argv[])
{
std::cout << "\n Demonstrating Scope Analysis\n "
<< std::string(30,'=') << std::endl;
if(argc < 2)
{
std::cout
<< "\n please enter name of file to process on command line\n\n";
return 1;
}
for(int i=1; i<argc; ++i)
{
std::cout << "\n Processing file " << argv[i];
std::cout << "\n " << std::string(16 + strlen(argv[i]),'-');
try
{
Toker toker(argv[i]);
SemiExp se(&toker);
ScopeStack<element> stack;
while(se.get())
{
if(se.length() < 1)
continue;
//std::cout << se.show().c_str() << std::endl;
if(se[se.length() - 1] == "}")
{
stack.pop();
showStack<element>(stack);
}
if(se.length() < 3)
continue;
if(se[se.length() - 1] == "{")
{
element item;
size_t pos = se.find("(");
if(pos < se.length())
{
if(isSpecialKeyWord(se[pos-1]))
item.type = "control";
else
item.type = "function";
item.name = se[pos-1];
stack.push(item);
showStack<element>(stack);
}
else
{
item.type = se[se.length()-3];
item.name = se[se.length()-2];
stack.push(item);
showStack<element>(stack);
}
}
}
std::cout << "\n\n";
}
catch(std::exception ex)
{
std::cout << "\n " << ex.what() << "\n\n";
}
}
}
void test_transformations_spherical()
{
T const input_long = 15.0;
T const input_lat = 5.0;
T const expected_long = 0.26179938779914943653855361527329;
T const expected_lat = 0.08726646259971647884618453842443;
// Can be checked using http://www.calc3d.com/ejavascriptcoordcalc.html
// (for phi use long, in radians, for theta use lat, in radians, they are listed there as "theta, phi")
T const expected_polar_x = 0.084186;
T const expected_polar_y = 0.0225576;
T const expected_polar_z = 0.996195;
// Can be checked with same URL using 90-theta for lat.
// So for theta use 85 degrees, in radians: 0.08726646259971647884618453842443
T const expected_equatorial_x = 0.962250;
T const expected_equatorial_y = 0.257834;
T const expected_equatorial_z = 0.0871557;
// 1: Spherical-polar (lat=5, so it is near the pole - on a unit sphere)
bg::model::point<T, 2, bg::cs::spherical<bg::degree> > sp(input_long, input_lat);
// 1a: to radian
bg::model::point<T, 2, bg::cs::spherical<bg::radian> > spr;
bg::transform(sp, spr);
BOOST_CHECK_CLOSE(bg::get<0>(spr), expected_long, 0.001);
BOOST_CHECK_CLOSE(bg::get<1>(spr), expected_lat, 0.001);
// 1b: to cartesian-3d
bg::model::point<T, 3, bg::cs::cartesian> pc3;
bg::transform(sp, pc3);
BOOST_CHECK_CLOSE(bg::get<0>(pc3), expected_polar_x, 0.001);
BOOST_CHECK_CLOSE(bg::get<1>(pc3), expected_polar_y, 0.001);
BOOST_CHECK_CLOSE(bg::get<2>(pc3), expected_polar_z, 0.001);
BOOST_CHECK_CLOSE(check_distance<T>(pc3), 1.0, 0.001);
// 1c: back
bg::transform(pc3, spr);
BOOST_CHECK_CLOSE(bg::get<0>(spr), expected_long, 0.001);
BOOST_CHECK_CLOSE(bg::get<1>(spr), expected_lat, 0.001);
// 2: Spherical-equatorial (lat=5, so it is near the equator)
bg::model::point<T, 2, bg::cs::spherical_equatorial<bg::degree> > se(input_long, input_lat);
// 2a: to radian
bg::model::point<T, 2, bg::cs::spherical_equatorial<bg::radian> > ser;
bg::transform(se, ser);
BOOST_CHECK_CLOSE(bg::get<0>(ser), expected_long, 0.001);
BOOST_CHECK_CLOSE(bg::get<1>(ser), expected_lat, 0.001);
bg::transform(se, pc3);
BOOST_CHECK_CLOSE(bg::get<0>(pc3), expected_equatorial_x, 0.001);
BOOST_CHECK_CLOSE(bg::get<1>(pc3), expected_equatorial_y, 0.001);
BOOST_CHECK_CLOSE(bg::get<2>(pc3), expected_equatorial_z, 0.001);
BOOST_CHECK_CLOSE(check_distance<T>(pc3), 1.0, 0.001);
// 2c: back
bg::transform(pc3, ser);
BOOST_CHECK_CLOSE(bg::get<0>(spr), expected_long, 0.001); // expected_long
BOOST_CHECK_CLOSE(bg::get<1>(spr), expected_lat, 0.001); // expected_lat
// 3: Spherical-polar including radius
bg::model::point<T, 3, bg::cs::spherical<bg::degree> > sp3(input_long, input_lat, 0.5);
// 3a: to radian
bg::model::point<T, 3, bg::cs::spherical<bg::radian> > spr3;
bg::transform(sp3, spr3);
BOOST_CHECK_CLOSE(bg::get<0>(spr3), expected_long, 0.001);
BOOST_CHECK_CLOSE(bg::get<1>(spr3), expected_lat, 0.001);
BOOST_CHECK_CLOSE(bg::get<2>(spr3), 0.5, 0.001);
// 3b: to cartesian-3d
bg::transform(sp3, pc3);
BOOST_CHECK_CLOSE(bg::get<0>(pc3), expected_polar_x / 2.0, 0.001);
BOOST_CHECK_CLOSE(bg::get<1>(pc3), expected_polar_y / 2.0, 0.001);
BOOST_CHECK_CLOSE(bg::get<2>(pc3), expected_polar_z / 2.0, 0.001);
BOOST_CHECK_CLOSE(check_distance<T>(pc3), 0.5, 0.001);
// 3c: back
bg::transform(pc3, spr3);
BOOST_CHECK_CLOSE(bg::get<0>(spr3), expected_long, 0.001);
BOOST_CHECK_CLOSE(bg::get<1>(spr3), expected_lat, 0.001);
BOOST_CHECK_CLOSE(bg::get<2>(spr3), 0.5, 0.001);
// 4: Spherical-equatorial including radius
bg::model::point<T, 3, bg::cs::spherical_equatorial<bg::degree> > se3(input_long, input_lat, 0.5);
// 4a: to radian
bg::model::point<T, 3, bg::cs::spherical_equatorial<bg::radian> > ser3;
bg::transform(se3, ser3);
BOOST_CHECK_CLOSE(bg::get<0>(ser3), expected_long, 0.001);
BOOST_CHECK_CLOSE(bg::get<1>(ser3), expected_lat, 0.001);
BOOST_CHECK_CLOSE(bg::get<2>(ser3), 0.5, 0.001);
// 4b: to cartesian-3d
bg::transform(se3, pc3);
BOOST_CHECK_CLOSE(bg::get<0>(pc3), expected_equatorial_x / 2.0, 0.001);
BOOST_CHECK_CLOSE(bg::get<1>(pc3), expected_equatorial_y / 2.0, 0.001);
BOOST_CHECK_CLOSE(bg::get<2>(pc3), expected_equatorial_z / 2.0, 0.001);
BOOST_CHECK_CLOSE(check_distance<T>(pc3), 0.5, 0.001);
// 4c: back
bg::transform(pc3, ser3);
BOOST_CHECK_CLOSE(bg::get<0>(ser3), expected_long, 0.001);
BOOST_CHECK_CLOSE(bg::get<1>(ser3), expected_lat, 0.001);
BOOST_CHECK_CLOSE(bg::get<2>(ser3), 0.5, 0.001);
}
void onUpCancel(void *e) {
this->hide();
BaseEvent se(this, VsEvent::SELECTED);
se.payload = (void *) false;
disEvent(&se);
}
/**
Symmetrize and invert the hessian
*/
void function_minimizer::hess_inv(void)
{
initial_params::set_inactive_only_random_effects();
int nvar=initial_params::nvarcalc(); // get the number of active parameters
independent_variables x(1,nvar);
initial_params::xinit(x); // get the initial values into the x vector
//double f;
dmatrix hess(1,nvar,1,nvar);
uistream ifs("admodel.hes");
int file_nvar = 0;
ifs >> file_nvar;
if (nvar != file_nvar)
{
cerr << "Number of active variables in file mod_hess.rpt is wrong"
<< endl;
}
for (int i = 1;i <= nvar; i++)
{
ifs >> hess(i);
if (!ifs)
{
cerr << "Error reading line " << i << " of the hessian"
<< " in routine hess_inv()" << endl;
exit(1);
}
}
int hybflag = 0;
ifs >> hybflag;
dvector sscale(1,nvar);
ifs >> sscale;
if (!ifs)
{
cerr << "Error reading sscale"
<< " in routine hess_inv()" << endl;
}
double maxerr=0.0;
for (int i = 1;i <= nvar; i++)
{
for (int j=1;j<i;j++)
{
double tmp=(hess(i,j)+hess(j,i))/2.;
double tmp1=fabs(hess(i,j)-hess(j,i));
tmp1/=(1.e-4+fabs(hess(i,j))+fabs(hess(j,i)));
if (tmp1>maxerr) maxerr=tmp1;
hess(i,j)=tmp;
hess(j,i)=tmp;
}
}
/*
if (maxerr>1.e-2)
{
cerr << "warning -- hessian aprroximation is poor" << endl;
}
*/
for (int i = 1;i <= nvar; i++)
{
int zero_switch=0;
for (int j=1;j<=nvar;j++)
{
if (hess(i,j)!=0.0)
{
zero_switch=1;
}
}
if (!zero_switch)
{
cerr << " Hessian is 0 in row " << i << endl;
cerr << " This means that the derivative if probably identically 0 "
" for this parameter" << endl;
}
}
int ssggnn;
ln_det(hess,ssggnn);
int on1=0;
{
ofstream ofs3((char*)(ad_comm::adprogram_name + adstring(".eva")));
{
dvector se=eigenvalues(hess);
ofs3 << setshowpoint() << setw(14) << setprecision(10)
<< "unsorted:\t" << se << endl;
se=sort(se);
ofs3 << setshowpoint() << setw(14) << setprecision(10)
<< "sorted:\t" << se << endl;
if (se(se.indexmin())<=0.0)
{
negative_eigenvalue_flag=1;
cout << "Warning -- Hessian does not appear to be"
" positive definite" << endl;
}
}
ivector negflags(0,hess.indexmax());
int num_negflags=0;
{
int on = option_match(ad_comm::argc,ad_comm::argv,"-eigvec");
on1=option_match(ad_comm::argc,ad_comm::argv,"-spmin");
if (on > -1 || on1 >-1 )
{
ofs3 << setshowpoint() << setw(14) << setprecision(10)
<< eigenvalues(hess) << endl;
dmatrix ev=trans(eigenvectors(hess));
ofs3 << setshowpoint() << setw(14) << setprecision(10)
<< ev << endl;
for (int i=1;i<=ev.indexmax();i++)
{
double lam=ev(i)*hess*ev(i);
ofs3 << setshowpoint() << setw(14) << setprecision(10)
<< lam << " " << ev(i)*ev(i) << endl;
if (lam<0.0)
{
num_negflags++;
negflags(num_negflags)=i;
}
}
if ( (on1>-1) && (num_negflags>0)) // we will try to get away from
{ // saddle point
negative_eigenvalue_flag=0;
spminflag=1;
if(negdirections)
{
delete negdirections;
}
negdirections = new dmatrix(1,num_negflags);
for (int i=1;i<=num_negflags;i++)
{
(*negdirections)(i)=ev(negflags(i));
}
}
int on2 = option_match(ad_comm::argc,ad_comm::argv,"-cross");
if (on2>-1)
{ // saddle point
dmatrix cross(1,ev.indexmax(),1,ev.indexmax());
for (int i = 1;i <= ev.indexmax(); i++)
{
for (int j=1;j<=ev.indexmax();j++)
{
cross(i,j)=ev(i)*ev(j);
}
}
ofs3 << endl << " e(i)*e(j) ";
ofs3 << endl << cross << endl;
}
}
}
if (spminflag==0)
{
if (num_negflags==0)
{
hess=inv(hess);
int on=0;
if ( (on=option_match(ad_comm::argc,ad_comm::argv,"-eigvec"))>-1)
{
int i;
ofs3 << "choleski decomp of correlation" << endl;
dmatrix ch=choleski_decomp(hess);
for (i=1;i<=ch.indexmax();i++)
ofs3 << ch(i)/norm(ch(i)) << endl;
ofs3 << "parameterization of choleski decomnp of correlation" << endl;
for (i=1;i<=ch.indexmax();i++)
{
dvector tmp=ch(i)/norm(ch(i));
ofs3 << tmp(1,i)/tmp(i) << endl;
}
}
}
}
}
if (spminflag==0)
{
if (on1<0)
{
for (int i = 1;i <= nvar; i++)
{
if (hess(i,i) <= 0.0)
{
hess_errorreport();
ad_exit(1);
}
}
}
{
adstring tmpstring="admodel.cov";
if (ad_comm::wd_flag)
tmpstring = ad_comm::adprogram_name + ".cov";
uostream ofs((char*)tmpstring);
ofs << nvar << hess;
ofs << gradient_structure::Hybrid_bounded_flag;
ofs << sscale;
}
}
}
static void vaapi_encode_h264_write_sps(PutBitContext *pbc,
VAAPIEncodeContext *ctx)
{
VAEncSequenceParameterBufferH264 *vseq = ctx->codec_sequence_params;
VAAPIEncodeH264Context *priv = ctx->priv_data;
VAAPIEncodeH264MiscSequenceParams *mseq = &priv->misc_sequence_params;
int i;
vaapi_encode_h264_write_nal_header(pbc, NAL_SPS, 3);
u(8, mseq_var(profile_idc));
u(1, mseq_var(constraint_set0_flag));
u(1, mseq_var(constraint_set1_flag));
u(1, mseq_var(constraint_set2_flag));
u(1, mseq_var(constraint_set3_flag));
u(1, mseq_var(constraint_set4_flag));
u(1, mseq_var(constraint_set5_flag));
u(2, 0, reserved_zero_2bits);
u(8, vseq_var(level_idc));
ue(vseq_var(seq_parameter_set_id));
if (mseq->profile_idc == 100 || mseq->profile_idc == 110 ||
mseq->profile_idc == 122 || mseq->profile_idc == 244 ||
mseq->profile_idc == 44 || mseq->profile_idc == 83 ||
mseq->profile_idc == 86 || mseq->profile_idc == 118 ||
mseq->profile_idc == 128 || mseq->profile_idc == 138) {
ue(vseq_field(chroma_format_idc));
if (vseq->seq_fields.bits.chroma_format_idc == 3)
u(1, mseq_var(separate_colour_plane_flag));
ue(vseq_var(bit_depth_luma_minus8));
ue(vseq_var(bit_depth_chroma_minus8));
u(1, mseq_var(qpprime_y_zero_transform_bypass_flag));
u(1, vseq_field(seq_scaling_matrix_present_flag));
if (vseq->seq_fields.bits.seq_scaling_matrix_present_flag) {
av_assert0(0 && "scaling matrices not supported");
}
}
ue(vseq_field(log2_max_frame_num_minus4));
ue(vseq_field(pic_order_cnt_type));
if (vseq->seq_fields.bits.pic_order_cnt_type == 0) {
ue(vseq_field(log2_max_pic_order_cnt_lsb_minus4));
} else if (vseq->seq_fields.bits.pic_order_cnt_type == 1) {
u(1, mseq_var(delta_pic_order_always_zero_flag));
se(vseq_var(offset_for_non_ref_pic));
se(vseq_var(offset_for_top_to_bottom_field));
ue(vseq_var(num_ref_frames_in_pic_order_cnt_cycle));
for (i = 0; i < vseq->num_ref_frames_in_pic_order_cnt_cycle; i++)
se(vseq_var(offset_for_ref_frame[i]));
}
ue(vseq_var(max_num_ref_frames));
u(1, mseq_var(gaps_in_frame_num_allowed_flag));
ue(vseq->picture_width_in_mbs - 1, pic_width_in_mbs_minus1);
ue(vseq->picture_height_in_mbs - 1, pic_height_in_mbs_minus1);
u(1, vseq_field(frame_mbs_only_flag));
if (!vseq->seq_fields.bits.frame_mbs_only_flag)
u(1, vseq_field(mb_adaptive_frame_field_flag));
u(1, vseq_field(direct_8x8_inference_flag));
u(1, vseq_var(frame_cropping_flag));
if (vseq->frame_cropping_flag) {
ue(vseq_var(frame_crop_left_offset));
ue(vseq_var(frame_crop_right_offset));
ue(vseq_var(frame_crop_top_offset));
ue(vseq_var(frame_crop_bottom_offset));
}
u(1, vseq_var(vui_parameters_present_flag));
if (vseq->vui_parameters_present_flag)
vaapi_encode_h264_write_vui(pbc, ctx);
vaapi_encode_h264_write_trailing_rbsp(pbc);
}
bool TTabDelimExampleGenerator::readExample(TFileExampleIteratorData &fei, TExample &exam)
{
vector<string> atoms;
// read lines until eof or a non-empty line
while(!feof(fei.file) && ((readTabAtom(fei, atoms, true, csv)>0) || atomsEmpty(atoms))) {
vector<string>::iterator ii(atoms.begin()), ie(atoms.end());
while ((ii!=ie) && !(*ii).length())
ii++;
if (ii==ie)
atoms.clear();
else
break;
}
if (!atoms.size())
return false;
// Add an appropriate number of empty atoms, if needed
while (atoms.size()<attributeTypes->size())
atoms.push_back(string(""));
_ASSERT(exam.domain==domain);
exam.removeMetas();
TExample::iterator ei(exam.begin());
TVarList::iterator vi(domain->attributes->begin());
vector<string>::iterator ai(atoms.begin());
TIntList::iterator si(attributeTypes->begin()), se(attributeTypes->end());
TIntList::iterator cb, cp, ce;
if (classPoses) {
cb = cp = classPoses->begin();
ce = classPoses->end();
}
int pos=0;
for (; (si!=se); pos++, si++, ai++) {
if (*si) { // if attribute is not to be skipped and is not a basket
string valstr;
// Check for don't care
valstr = *ai;
if (!valstr.length() || (valstr == "NA") || (valstr == ".") || (DC && (valstr == DC)))
valstr = "?";
else if ((valstr == "*") || (DK && (valstr == DK)))
valstr = "~";
try {
if (*si==-1)
if (pos==classPos) { // if this is class value
TValue cval;
domain->classVar->filestr2val(valstr, cval, exam);
exam.setClass(cval);
}
else if (classPoses && (cp != ce) && (pos == *cp)) {
const int ind = cp - cb;
domain->classVars->at(ind)->filestr2val(valstr, exam.values_end[ind], exam);
cp++;
}
else { // if this is a normal value
(*vi++)->filestr2val(valstr, *ei++, exam);
}
else { // if this is a meta value
TMetaDescriptor *md = domain->metas[*si];
_ASSERT(md!=NULL);
TValue mval;
md->variable->filestr2val(valstr, mval, exam);
exam.setMeta(*si, mval);
}
}
catch (mlexception &err) {
raiseError("file '%s', line '%i': %s", fei.filename.c_str(), fei.line, err.what());
}
}
// the attribute is marked to be skipped, but may also be a basket
else {
if (pos == basketPos) {
TSplits splits;
split(*ai, splits);
ITERATE(TSplits, si, splits)
basketFeeder->addItem(exam, string(si->first, si->second), fei.line);
}
}
}
if (pos==classPos) // if class is the last value in the line, it is set here
domain->classVar->filestr2val(ai==atoms.end() ? "?" : *(ai++), exam[domain->variables->size()-1], exam);
/* I'm not sure that this is needed; this code is a mess but I don't wish to
waste time studying it since we are moving to 3.0 */
else if (classPoses && (cp != ce) && (pos == *cp)) {
const int ind = cp - cb;
domain->classVars->at(ind)->filestr2val(ai==atoms.end() ? "?" : *(ai++), exam.values_end[ind], exam);
}
while ((ai!=atoms.end()) && !(*ai).length()) ai++; // line must be empty from now on
if (ai!=atoms.end()) {
vector<string>::iterator ii=atoms.begin();
string s=*ii;
while(++ii!=atoms.end()) s+=" "+*ii;
raiseError("example of invalid length (%s)", s.c_str());
}
return true;
}
inline void append (const_wpointer s) { const_wpointer se (s); for (;se&&*se;++se) ; append (s, se); }
funcp compila (FILE *f)
{
funcp funcao;
char cmd[4]; /* recebe comandos sb */
char varpc1[12]; /* 12 = número de digitos de maxint + '\n' + '$' */
char varpc2[12];
char op; /* recebe um operador */
int tpos; /* usado para voltar no vetor de char sem perder pos */
int n1, n2, n3; /* as linhas para onde se desvia o fluxo em um if */
int nlinhas;
int retornoleitura;
Intchar bvar; /* usado para calcular os bytes necessários para variaveis usadas */
int protelado; /* numero de if's protelados */
unsigned char *area = (unsigned char*) malloc(1300 * sizeof(unsigned char));
// 1300 = 50 * 26. 26 é o número de posições necessárias para a maior instrução, um if. 50 é o número máximo de linhas.
for(nlinhas = 0; nlinhas < 20; nlinhas++) { alocada[nlinhas] = 0; }
for(nlinhas = 0; nlinhas < 50; nlinhas++) { ses[nlinhas] = -1; }
pos = 0;
nlinhas = 0;
protelado = 0;
retornoleitura = fscanf(f, "%s", cmd);
area[0] = 0x55; /* pushq %rbp */
area[1] = 0x48; /* movq %rsp, %rbp */
area[2] = 0x89;
area[3] = 0xe5; /* */
area[4] = 0x48; /* sub $x, %rsp */
area[5] = 0x83;
area[6] = 0xec;
area[7] = 0x00; /* será mudado depois para o valor correto conforme o numero de variaveis usadas */
pos += 8;
while(retornoleitura != EOF && nlinhas <= 50){
switch(cmd[0]){
case 'r': /* retorno */
posdalinha[nlinhas] = pos;
fscanf(f, "%s", varpc1);
retorno(varpc1, area);
nlinhas++;
break;
case 'v': /* atribuição */
posdalinha[nlinhas] = pos;
fscanf(f, "%s", varpc1); /* lê o '=' */
fscanf(f, "%s %c %s", varpc1, &op, varpc2);
atribuicao(cmd, varpc1, op, varpc2, area);
nlinhas++;
break;
case 'i': /* if */
posdalinha[nlinhas] = pos;
ses[protelado] = pos;
fscanf(f, "%s %d %d %d", varpc1, &n1, &n2, &n3);
pos += 26; /* tamanho do comando if */
protelado++;
nlinhas++;
break;
default: /* comando não reconhecido */
printf("Comando não reconhecido %s na linha %d \n", cmd, nlinhas);
}
retornoleitura = fscanf(f, "%s", cmd);
}
rewind(f);
fscanf(f, "%s", cmd);
protelado = 0;
while(ses[protelado] != -1){
while(cmd[0] != 'i'){
fscanf(f, "%s", cmd);
}
fscanf(f, "%s %d %d %d", varpc1, &n1, &n2, &n3);
fscanf(f, "%s", cmd);
tpos = ses[protelado];
protelado++;
se(varpc1, n1, n2, n3, area, tpos);
}
// corrige o sub $0, %rsp
for(bvar.i = 20; bvar.i > 0 && alocada[bvar.i] != 1; bvar.i = bvar.i - 1){
}
bvar.i = bvar.i * 4;
while(bvar.i % 16 != 0){
bvar.i = bvar.i + 4;
}
area[7] = bvar.c[0];
//****
area = realloc(area, (pos-1)*sizeof(unsigned char)); /* muda o tamanho da memoria alocada para o tamanho necessário */
funcao = (funcp)area;
return funcao;
}
BOOL CAdaptiveDlg::UpdateDataPlus(BOOL bSaveAndValidate)
{
char buffer[128];
CString s, se("Existing value will be used.");
double out[2], xf[2];
int i, m[4], x[2], right;
CButton *hRadio;
UpdateData(bSaveAndValidate);
if (!bSaveAndValidate)
{
sprintfFloat(adap.stepsize[0], 4, buffer, sizeof(buffer));
s = buffer;
SetDlgItemText (IDC_STEP1, s);
sprintfFloat(adap.stepsize[1], 4, buffer, sizeof(buffer));
s = buffer;
SetDlgItemText (IDC_STEP2, s);
SetDlgItemInt(IDC_REVERSALS1, adap.reversal[0]);
SetDlgItemInt(IDC_REVERSALS2, adap.reversal[1]);
SetDlgItemInt(IDC_DOWN, adap.down);
SetDlgItemInt(IDC_UP, adap.up);
sprintfFloat(adap.initialPt, 3, buffer, sizeof(buffer));
s = buffer;
SetDlgItemText (IDC_INIT_VAL, s);
SetDlgItemInt(IDC_FINAL_REV_4AVG, adap.finalRev4Avg);
if (adap.descending)
{
hRadio = (CButton *)GetDlgItem(IDC_ASCENDING);
hRadio->SetCheck(0);
hRadio = (CButton *)GetDlgItem(IDC_DESCENDING);
hRadio->SetCheck(1);
}
else
{
hRadio = (CButton *)GetDlgItem(IDC_ASCENDING);
hRadio->SetCheck(1);
hRadio = (CButton *)GetDlgItem(IDC_DESCENDING);
hRadio->SetCheck(0);
}
hRadio = (CButton *)GetDlgItem(IDC_FACTOR);
if (adap.factor) hRadio->SetCheck(1);
else hRadio->SetCheck(0);
OnUpdateInitVal();
}
else
{
hRadio = (CButton*)GetDlgItem(IDC_DESCENDING);
adap.descending = (hRadio->GetCheck()) ? 1:0;
//Validation
s = "Stepsize Validation failed.";
CECD(xf[0],IDC_STEP1, s)
CECD(xf[1],IDC_STEP2, s)
s = "reversal Validation failed.";
CECI(x[0],IDC_REVERSALS1, s)
CECI(x[1],IDC_REVERSALS2, s)
s = "Down invalid."; CECI(m[0],IDC_DOWN,s)
s = "Up invalid."; CECI(m[1],IDC_UP,s)
s = "Number of final reversals invalid.";
CECI(m[2],IDC_FINAL_REV_4AVG,s)
GetDlgItemText (IDC_INIT_VAL, buffer, sizeof(buffer));
i=str2array(out, 2, buffer, " ,");
if (i==0) { MessageBox ("Invalid initial value","Existing value will be used."); return FALSE;}
if (i==2)
{
adap.dualSeries=1;
adap2.initialPt = out[1];
}
adap.initialPt = out[0];
hRadio = (CButton *)GetDlgItem(IDC_FACTOR);
adap.factor = (hRadio->GetCheck()==BST_CHECKED);
//Update
adap.down = m[0];
adap.up = m[1];
adap.finalRev4Avg = m[2];
memcpy((void*)adap.stepsize, (void*)xf, sizeof(xf));
memcpy((void*)adap.reversal, (void*)x, sizeof(x));
SyncAdap();
}
return TRUE;
}
double highOrderTools::smooth_metric_(std::vector<MElement*> & v,
GFace *gf,
dofManager<double> &myAssembler,
std::set<MVertex*> &verticesToMove,
elasticityTerm &El)
{
std::set<MVertex*>::iterator it;
double dx = 0.0;
if (myAssembler.sizeOfR()){
// while convergence
for (unsigned int i = 0; i < v.size(); i++){
MElement *e = v[i];
int nbNodes = e->getNumVertices();
const int n2 = 2 * nbNodes;
const int n3 = 3 * nbNodes;
fullMatrix<double> K33(n3, n3);
fullMatrix<double> K22(n2, n2);
fullMatrix<double> J32(n3, n2);
fullMatrix<double> J23(n2, n3);
fullVector<double> D3(n3);
fullVector<double> R2(n2);
fullMatrix<double> J23K33(n2, n3);
K33.setAll(0.0);
SElement se(e);
El.elementMatrix(&se, K33);
computeMetricInfo(gf, e, J32, J23, D3);
J23K33.gemm(J23, K33, 1, 0);
K22.gemm(J23K33, J32, 1, 0);
J23K33.mult(D3, R2);
for (int j = 0; j < n2; j++){
Dof RDOF = El.getLocalDofR(&se, j);
myAssembler.assemble(RDOF, -R2(j));
for (int k = 0; k < n2; k++){
Dof CDOF = El.getLocalDofC(&se, k);
myAssembler.assemble(RDOF, CDOF, K22(j, k));
}
}
}
myAssembler.systemSolve();
// for all element, compute detJ at integration points --> material law end
// while convergence
for (it = verticesToMove.begin(); it != verticesToMove.end(); ++it){
if ((*it)->onWhat()->dim() == 2){
SPoint2 param;
reparamMeshVertexOnFace((*it), gf, param);
SPoint2 dparam;
myAssembler.getDofValue((*it), 0, _tag, dparam[0]);
myAssembler.getDofValue((*it), 1, _tag, dparam[1]);
SPoint2 newp = param+dparam;
dx += newp.x() * newp.x() + newp.y() * newp.y();
(*it)->setParameter(0, newp.x());
(*it)->setParameter(1, newp.y());
}
}
myAssembler.systemClear();
}
return dx;
}
bool equal(common_cursor<I2, S2> const &that) const
{
return is_sentinel() ?
(that.is_sentinel() || that.it() == se()) :
(!that.is_sentinel() || it() == that.se());
}
void onUpOk(void *e) {
this->hide();
BaseEvent se(this, VsEvent::SELECTED);
se.payload = (void *) true;
disEvent(&se);
}
