bool ViewProgress::update (const double value, bool take_priority)
{
// Don't allow progress to go backward
if (value < m_bar_cur)
return do_continue;
m_bar_cur = CLAMP(value, 0, 1.0);
m_bar->set_fraction(value / m_bar_max);
ostringstream o;
if(floor(value) != value && floor(m_bar_max) != m_bar_max)
o.precision(1);
else
o.precision(0);
o << fixed << value <<"/"<< m_bar_max;
m_bar->set_text(o.str());
if (to_terminal) {
int perc = (int(m_bar->get_fraction()*100));
cerr << m_label->get_label() << " " << o.str() << " -- " << perc << "% \r";
}
if (value > 0) {
Glib::TimeVal now;
now.assign_current_time();
const double used = (now - start_time).as_double(); // seconds
const double total = used * m_bar_max / value;
const long left = (long)(total-used);
m_label->set_label(label+" ("+timeleft_str(left)+")");
}
if (take_priority)
while( gtk_events_pending () )
gtk_main_iteration ();
Gtk::Main::iteration(false);
return do_continue;
}
bool Forest::animate(GlView & view)
{
Glib::TimeVal delta = m_model.m_mainWindow.time();
delta.subtract(m_lastUpdate);
m_lastUpdate = m_model.m_mainWindow.time();
m_cal3dModel.onUpdate(delta.as_double());
return true;
}
// rearrange unselected shapes in random sequence
bool Model::AutoArrange(vector<Gtk::TreeModel::Path> &path)
{
// all shapes
vector<Shape*> allshapes;
vector<Matrix4d> transforms;
objtree.get_all_shapes(allshapes, transforms);
// selected shapes
vector<Shape*> selshapes;
vector<Matrix4d> seltransforms;
objtree.get_selected_shapes(path, selshapes, seltransforms);
// get unselected shapes
vector<Shape*> unselshapes;
vector<Matrix4d> unseltransforms;
for(uint s=0; s < allshapes.size(); s++) {
bool issel = false;
for(uint ss=0; ss < selshapes.size(); ss++)
if (selshapes[ss] == allshapes[s]) {
issel = true; break;
}
if (!issel) {
unselshapes. push_back(allshapes[s]);
unseltransforms.push_back(transforms[s]);
}
}
// find place for unselected shapes
int num = unselshapes.size();
vector<int> rand_seq(num,1); // 1,1,1...
partial_sum(rand_seq.begin(), rand_seq.end(), rand_seq.begin()); // 1,2,3,...,N
Glib::TimeVal timeval;
timeval.assign_current_time();
srandom((unsigned long)(timeval.as_double()));
random_shuffle(rand_seq.begin(), rand_seq.end()); // shuffle
for(int s=0; s < num; s++) {
int index = rand_seq[s]-1;
// use selshapes as vector to fill up
Vector3d trans = FindEmptyLocation(selshapes, seltransforms, unselshapes[index]);
selshapes.push_back(unselshapes[index]);
seltransforms.push_back(unseltransforms[index]); // basic transform, not shape
selshapes.back()->transform3D.move(trans);
CalcBoundingBoxAndCenter();
}
ModelChanged();
return true;
}
void Shape::draw_geometry(uint max_triangles)
{
bool listDraw = (max_triangles == 0); // not in preview mode
bool haveList = gl_List >= 0;
if (!listDraw && haveList) {
if (gl_List>=0)
glDeleteLists(gl_List,1);
gl_List = -1;
haveList = false;
}
if (listDraw && !haveList) {
gl_List = glGenLists(1);
glNewList(gl_List, GL_COMPILE);
}
if (!listDraw || !haveList) {
uint step = 1;
if (max_triangles>0) step = floor(triangles.size()/max_triangles);
step = max((uint)1,step);
glBegin(GL_TRIANGLES);
for(size_t i=0;i<triangles.size();i+=step)
{
glNormal3dv(triangles[i].Normal);
glVertex3dv(triangles[i].A);
glVertex3dv(triangles[i].B);
glVertex3dv(triangles[i].C);
}
glEnd();
}
if (listDraw && !haveList) {
glEndList();
}
if (listDraw && gl_List >= 0) { // have stored list
Glib::TimeVal starttime, endtime;
if (!slow_drawing) {
starttime.assign_current_time();
}
glCallList(gl_List);
if (!slow_drawing) {
endtime.assign_current_time();
Glib::TimeVal usedtime = endtime-starttime;
if (usedtime.as_double() > 0.2) slow_drawing = true;
}
return;
}
}
void ViewProgress::stop (const char *label)
{
if (to_terminal) {
Glib::TimeVal now;
now.assign_current_time();
const int time_used = (int) round((now - start_time).as_double()); // seconds
cerr << m_label->get_label() << " -- " << _(" done in ") << time_used << _(" seconds") << " " << endl;
}
this->label = label;
m_label->set_label (label);
m_bar_cur = m_bar_max;
m_bar->set_fraction(1.0);
m_box->hide();
Gtk::Main::iteration(false);
}
void Window::vComputeFrameskip(int _iRate)
{
static Glib::TimeVal uiLastTime;
static int iFrameskipAdjust = 0;
Glib::TimeVal uiTime;
uiTime.assign_current_time();
if (m_bWasEmulating) {
if (m_bAutoFrameskip) {
Glib::TimeVal uiDiff = uiTime - uiLastTime;
const int iWantedSpeed = 100;
int iSpeed = iWantedSpeed;
if (uiDiff != Glib::TimeVal(0, 0)) {
iSpeed = (1000000 / _iRate) / (uiDiff.as_double() * 1000);
}
if (iSpeed >= iWantedSpeed - 2) {
iFrameskipAdjust++;
if (iFrameskipAdjust >= 3) {
iFrameskipAdjust = 0;
if (systemFrameSkip > 0) {
systemFrameSkip--;
}
}
} else {
if (iSpeed < iWantedSpeed - 20) {
iFrameskipAdjust -= ((iWantedSpeed - 10) - iSpeed) / 5;
} else if (systemFrameSkip < 9) {
iFrameskipAdjust--;
}
if (iFrameskipAdjust <= -4) {
iFrameskipAdjust = 0;
if (systemFrameSkip < 9) {
systemFrameSkip++;
}
}
}
}
} else {
m_bWasEmulating = true;
}
uiLastTime = uiTime;
}
unsigned long Gobby::GSelector::get_timeout(const net6::socket& sock) const
{
Glib::RecMutex::Lock lock(*m_mutex);
map_type::const_iterator iter = m_map.find(&sock);
// No timeout set for this socket
if(iter == m_map.end() ) return 0;
if(!iter->second.time_conn.connected() ) return 0;
// Returns the remaining time for the timeout to be elapsed
Glib::TimeVal val;
val.assign_current_time();
val -= iter->second.timeout_begin;
unsigned long elapsed = (val.tv_sec * 1000 + val.tv_usec / 1000);
if(elapsed >= iter->second.timeout) return 1;
return iter->second.timeout - elapsed;
}
bool ViewProgress::restart (const char *label, double max)
{
if (!do_continue) return false;
//m_box->show();
if (to_terminal) {
Glib::TimeVal now;
now.assign_current_time();
const int time_used = (int) round((now - start_time).as_double()); // seconds
cerr << m_label->get_label() << " -- " << _(" done in ") << time_used << _(" seconds") << " " << endl;
}
m_bar_max = max;
this->label = label;
m_label->set_label (label);
m_bar_cur = 0.0;
m_bar->set_fraction(0.0);
start_time.assign_current_time();
//g_main_context_iteration(NULL,false);
Gtk::Main::iteration(false);
return true;
}
bool ASObject::waitUntilConstructed(unsigned long maxwait_ms)
{
Mutex::Lock lock(constructionMutex);
if(isConstructed())
return true;
// No need to loop over wait() because the construction state
// will change only once from false to true.
if(maxwait_ms==0)
{
constructionSignal.wait(constructionMutex);
return true;
}
else
{
Glib::TimeVal waitEnd;
waitEnd.assign_current_time();
waitEnd.add_milliseconds(maxwait_ms);
return constructionSignal.timed_wait(constructionMutex, waitEnd);
}
}
void GCode::MakeText(string &GcodeTxt,
const Settings &settings,
ViewProgress * progress)
{
string GcodeStart = settings.GCode.getStartText();
string GcodeLayer = settings.GCode.getLayerText();
string GcodeEnd = settings.GCode.getEndText();
double lastE = -10;
double lastF = 0; // last Feedrate (can be omitted when same)
Vector3d pos(0,0,0);
Vector3d LastPos(-10,-10,-10);
std::stringstream oss;
Glib::Date date;
date.set_time_current();
Glib::TimeVal time;
time.assign_current_time();
GcodeTxt += "; GCode by Repsnapper, "+
date.format_string("%a, %x") +
//time.as_iso8601() +
"\n";
GcodeTxt += "\n; Startcode\n"+GcodeStart + "; End Startcode\n\n";
layerchanges.clear();
if (progress) progress->restart(_("Collecting GCode"), commands.size());
int progress_steps=(int)(commands.size()/100);
if (progress_steps==0) progress_steps=1;
for (uint i = 0; i < commands.size(); i++) {
char E_letter;
if (settings.Slicing.UseTCommand) // use first extruder's code for all extuders
E_letter = settings.Extruders[0].GCLetter[0];
else
E_letter = settings.Extruders[commands[i].extruder_no].GCLetter[0];
if (progress && i%progress_steps==0 && !progress->update(i)) break;
if ( commands[i].Code == LAYERCHANGE ) {
layerchanges.push_back(i);
if (GcodeLayer.length()>0)
GcodeTxt += "\n; Layerchange GCode\n" + GcodeLayer +
"; End Layerchange GCode\n\n";
}
if ( commands[i].where.z() < 0 ) {
cerr << i << " Z < 0 " << commands[i].info() << endl;
}
else {
GcodeTxt += commands[i].GetGCodeText(LastPos, lastE, lastF,
settings.Slicing.RelativeEcode,
E_letter,
settings.Hardware.SpeedAlways) + "\n";
}
}
GcodeTxt += "\n; End GCode\n" + GcodeEnd + "\n";
buffer->set_text (GcodeTxt);
// save zpos line numbers for faster finding
buffer_zpos_lines.clear();
uint blines = buffer->get_line_count();
for (uint i = 0; i < blines; i++) {
const string line = getLineAt(buffer, i);
if (line.find("Z") != string::npos ||
line.find("z") != string::npos)
buffer_zpos_lines.push_back(i);
}
if (progress) progress->stop();
}
uint32_t systemGetClock()
{
Glib::TimeVal time;
time.assign_current_time();
return time.as_double() * 1000;
}
int main(int argc, char* argv[]){
// Some variables...
int numberOfThreads;
int duration;
int i;
Glib::Thread** threads;
const char* config_file = NULL;
int debug_level = -1;
Arc::LogStream logcerr(std::cerr);
// Process options - quick hack, must use Glib options later
while(argc >= 3) {
if(strcmp(argv[1],"-c") == 0) {
config_file = argv[2];
argv[2]=argv[0]; argv+=2; argc-=2;
} else if(strcmp(argv[1],"-d") == 0) {
debug_level=Arc::string_to_level(argv[2]);
argv[2]=argv[0]; argv+=2; argc-=2;
} else if(strcmp(argv[1],"-r") == 0) {
alwaysReconnect=true; argv+=1; argc-=1;
} else {
break;
};
}
if(debug_level >= 0) {
Arc::Logger::getRootLogger().setThreshold((Arc::LogLevel)debug_level);
Arc::Logger::getRootLogger().addDestination(logcerr);
}
// Extract command line arguments.
if (argc!=4){
std::cerr << "Wrong number of arguments!" << std::endl
<< std::endl
<< "Usage:" << std::endl
<< "perftest [-c config] [-d debug] [-r] url threads duration" << std::endl
<< std::endl
<< "Arguments:" << std::endl
<< "url The url of the service." << std::endl
<< "threads The number of concurrent requests." << std::endl
<< "duration The duration of the test in seconds." << std::endl
<< "-c config The file containing client chain XML configuration with " << std::endl
<< " 'soap' entry point and HOSTNAME, PORTNUMBER and PATH " << std::endl
<< " keyword for hostname, port and HTTP path of 'echo' service." << std::endl
<< "-d debug The textual representation of desired debug level. Available " << std::endl
<< " levels: DEBUG, VERBOSE, INFO, WARNING, ERROR, FATAL." << std::endl
<< "-r If specified close connection and reconnect after " << std::endl
<< " every request." << std::endl;
exit(EXIT_FAILURE);
}
url_str = std::string(argv[1]);
numberOfThreads = atoi(argv[2]);
duration = atoi(argv[3]);
// Start threads.
run=true;
finishedThreads=0;
//Glib::thread_init();
mutex=new Glib::Mutex;
threads = new Glib::Thread*[numberOfThreads];
for (i=0; i<numberOfThreads; i++)
threads[i]=Glib::Thread::create(sigc::ptr_fun(sendRequests),true);
// Sleep while the threads are working.
Glib::usleep(duration*1000000);
// Stop the threads
run=false;
while(finishedThreads<numberOfThreads)
Glib::usleep(100000);
// Print the result of the test.
Glib::Mutex::Lock lock(*mutex);
totalRequests = completedRequests+failedRequests;
totalTime = completedTime+failedTime;
std::cout << "========================================" << std::endl;
std::cout << "URL: "
<< url_str << std::endl;
std::cout << "Number of threads: "
<< numberOfThreads << std::endl;
std::cout << "Duration: "
<< duration << " s" << std::endl;
std::cout << "Number of requests: "
<< totalRequests << std::endl;
std::cout << "Completed requests: "
<< completedRequests << " ("
<< Round(completedRequests*100.0/totalRequests)
<< "%)" << std::endl;
std::cout << "Failed requests: "
<< failedRequests << " ("
<< Round(failedRequests*100.0/totalRequests)
<< "%)" << std::endl;
std::cout << "Completed requests per second: "
<< Round(completedRequests/duration)
<< std::endl;
std::cout << "Average response time for all requests: "
<< Round(1000*totalTime.as_double()/totalRequests)
<< " ms" << std::endl;
if (completedRequests!=0)
std::cout << "Average response time for completed requests: "
<< Round(1000*completedTime.as_double()/completedRequests)
<< " ms" << std::endl;
if (failedRequests!=0)
std::cout << "Average response time for failed requests: "
<< Round(1000*failedTime.as_double()/failedRequests)
<< " ms" << std::endl;
std::cout << "========================================" << std::endl;
return 0;
}
void GCode::MakeText(string &GcodeTxt, const string &GcodeStart,
const string &GcodeLayer, const string &GcodeEnd,
bool RelativeEcode,
ViewProgress * progress)
{
double lastE = -10;
double lastF = 0; // last Feedrate (can be omitted when same)
Vector3d pos(0,0,0);
Vector3d LastPos(-10,-10,-10);
std::stringstream oss;
Glib::Date date;
date.set_time_current();
Glib::TimeVal time;
time.assign_current_time();
GcodeTxt += "; GCode by Repsnapper, "+
date.format_string("%a, %x") +
//time.as_iso8601() +
"\n";
GcodeTxt += "\n; Startcode\n"+GcodeStart + "; End Startcode\n\n";
layerchanges.clear();
progress->restart(_("Collecting GCode"),commands.size());
int progress_steps=(int)(commands.size()/100);
if (progress_steps==0) progress_steps=1;
for (uint i = 0; i < commands.size(); i++) {
if (i%progress_steps==0) if (!progress->update(i)) break;
if ( commands[i].Code == LAYERCHANGE ) {
layerchanges.push_back(i);
if (GcodeLayer.length()>0)
GcodeTxt += "\n; Layerchange GCode\n" + GcodeLayer +
"; End Layerchange GCode\n\n";
}
if ( commands[i].where.z() < 0 ) {
cerr << i << " Z < 0 " << commands[i].info() << endl;
}
else {
GcodeTxt += commands[i].GetGCodeText(LastPos, lastE, lastF, RelativeEcode) + "\n";
}
}
GcodeTxt += "\n; End GCode\n" + GcodeEnd + "\n";
buffer->set_text (GcodeTxt);
// save zpos line numbers for faster finding
buffer_zpos_lines.clear();
uint blines = buffer->get_line_count();
for (uint i = 0; i < blines; i++) {
const string line = getLineAt(buffer, i);
if (line.find("Z") != string::npos ||
line.find("z") != string::npos)
buffer_zpos_lines.push_back(i);
}
// oss.str( "" );
// switch(commands[i].Code)
// {
// case SELECTEXTRUDER:
// oss << "T0\n";
// add_text_filter_nan(oss.str(), GcodeTxt);
// //GcodeTxt += oss.str();
// break;
// case SETSPEED:
// commands[i].where.z() = LastPos.z();
// commands[i].e = lastE;
// case ZMOVE:
// commands[i].where.x() = LastPos.x();
// commands[i].where.y() = LastPos.y();
// case COORDINATEDMOTION:
// if ((commands[i].where.x() != LastPos.x()) +
// (commands[i].where.y() != LastPos.y()) +
// (commands[i].where.z() != LastPos.z()) != 0 &&
// AntioozeDistance != 0 && commands[i].e == lastE &&
// !Use3DGcode && AntioozeDistance != 0)
// {
// if (UseIncrementalEcode)
// {
// oss << "G1 E" << (lastE - AntioozeDistance) << " F" << AntioozeSpeed << " ;antiooze retract\n";
// }
// else
// {
// oss << "G1 E" << -(AntioozeDistance) << " F" << AntioozeSpeed << " ;antiooze retract\n";
// }
// }
// oss << "G1 ";
// if(commands[i].where.x() != LastPos.x())
// oss << "X" << commands[i].where.x() << " ";
// if(commands[i].where.y() != LastPos.y())
// oss << "Y" << commands[i].where.y() << " ";
// if(commands[i].where.z() != LastPos.z())
// oss << "Z" << commands[i].where.z() << " ";
// if(commands[i].e != lastE)
// {
// if(UseIncrementalEcode) // in incremental mode, the same is nothing
// {
// if(commands[i].e != lastE)
// oss << "E" << commands[i].e << " ";
// }
// else
// {
// if(commands[i].e >= 0.0)
// oss << "E" << commands[i].e << " ";
// }
// }
// oss << "F" << commands[i].f;
// if(commands[i].comment.length() != 0)
// oss << " ;" << commands[i].comment << "\n";
// else
// oss << "\n";
// if ((commands[i].where.x() != LastPos.x()) +
// (commands[i].where.y() != LastPos.y()) +
// (commands[i].where.z() != LastPos.z()) != 0 &&
// AntioozeDistance != 0 &&
// commands[i].e == lastE &&
// !Use3DGcode && AntioozeDistance != 0)
// {
// if (UseIncrementalEcode)
// {
// oss << "G1 E" << lastE << " F" << AntioozeSpeed << " ;antiooze return\n";
// }
// else
// {
// oss << "G1 E" << AntioozeDistance << " F" << AntioozeSpeed << " ;antiooze return\n";
// }
// }
// add_text_filter_nan(oss.str(), GcodeTxt);
// //GcodeTxt += oss.str();
// if(commands[i].Code == ZMOVE && commands[i].where.z() != LastPos.z())
// add_text_filter_nan(GcodeLayer + "\n", GcodeTxt);
// //GcodeTxt += GcodeLayer + "\n";
// LastPos = commands[i].where;
// if( commands[i].e >= 0.0)
// lastE = commands[i].e;
// break;
// case EXTRUDERON:
// // Dont switch extruder on/off right after eachother
// if(i != 0 && commands[i-1].Code == EXTRUDEROFF) continue;
// oss << "M101\n";
// add_text_filter_nan(oss.str(), GcodeTxt);
// //GcodeTxt += oss.str();
// break;
// case EXTRUDEROFF:
// // Dont switch extruder on/off right after eachother
// if(i != 0 && (i+1) < commands.size() &&
// commands[i+1].Code == EXTRUDERON) continue;
// // don't switch extruder off twize
// if(i != 0 && (i+1) < commands.size() &&
// commands[i+1].Code == EXTRUDEROFF) continue;
// oss << "M103\n";
// add_text_filter_nan(oss.str(), GcodeTxt);
// //GcodeTxt += oss.str();
// break;
// case COORDINATEDMOTION3D:
// oss << "G1 X" << commands[i].where.x() << " Y" << commands[i].where.y() << " Z" << commands[i].where.z();
// oss << " F" << commands[i].f;
// if(commands[i].comment.length() != 0)
// oss << " ;" << commands[i].comment << "\n";
// else
// oss << "\n";
// add_text_filter_nan(oss.str(), GcodeTxt);
// //GcodeTxt += oss.str();
// LastPos = commands[i].where;
// break;
// case RAPIDMOTION:
// oss << "G0 X" << commands[i].where.x() << " Y" << commands[i].where.y() << " Z" << commands[i].where.z() << "\n";
// add_text_filter_nan(oss.str(), GcodeTxt);
// //GcodeTxt += oss.str();
// LastPos = commands[i].where;
// break;
// case GOTO:
// oss << "G92";
// if(commands[i].where.x() != LastPos.x() && commands[i].where.x() >= 0)
// {
// LastPos.x() = commands[i].where.x();
// oss << " X" << commands[i].where.x();
// }
// if(commands[i].where.y() != LastPos.y() && commands[i].where.y() >= 0)
// {
// LastPos.y() = commands[i].where.y();
// oss << " Y" << commands[i].where.y();
// }
// if(commands[i].where.z() != LastPos.z() && commands[i].where.z() >= 0)
// {
// LastPos.z() = commands[i].where.z();
// oss << " Z" << commands[i].where.z();
// }
// if(commands[i].e != lastE && commands[i].e >= 0.0)
// {
// lastE = commands[i].e;
// oss << " E" << commands[i].e;
// }
// oss << "\n";
// add_text_filter_nan(oss.str(), GcodeTxt);
// //GcodeTxt += oss.str();
// break;
// default:
// break; // ignored CGCode
// }
// pos = commands[i].where;
// cerr<< oss.str()<< endl;
//}
}
void Model::ConvertToGCode()
{
if (is_calculating) {
return;
}
is_calculating=true;
// default:
settings.SelectExtruder(0);
Glib::TimeVal start_time;
start_time.assign_current_time();
gcode.clear();
GCodeState state(gcode);
Infill::clearPatterns();
Vector3d printOffset = settings.getPrintMargin();
double printOffsetZ = printOffset.z();
// Make Layers
lastlayer = NULL;
Slice();
//CleanupLayers();
MakeShells();
if (settings.get_boolean("Slicing","DoInfill") &&
!settings.get_boolean("Slicing","NoTopAndBottom") &&
(settings.get_double("Slicing","SolidThickness") > 0 ||
settings.get_integer("Slicing","ShellCount") > 0))
// not bridging when support
MakeUncoveredPolygons( settings.get_boolean("Slicing","MakeDecor"),
!settings.get_boolean("Slicing","NoBridges") &&
!settings.get_boolean("Slicing","Support") );
if (settings.get_boolean("Slicing","Support"))
// easier before having multiplied uncovered bottoms
MakeSupportPolygons(settings.get_double("Slicing","SupportWiden"));
MakeFullSkins(); // must before multiplied uncovered bottoms
MultiplyUncoveredPolygons();
if (settings.get_boolean("Slicing","Skirt"))
MakeSkirt();
CalcInfill();
if (settings.get_boolean("Raft","Enable"))
{
printOffset += Vector3d (settings.get_double("Raft","Size"), 0);
MakeRaft (state, printOffsetZ); // printOffsetZ will have height of raft added
}
state.ResetLastWhere(Vector3d(0,0,0));
uint count = layers.size();
m_progress->start (_("Making Lines"), count+1);
state.AppendCommand(MILLIMETERSASUNITS, false, _("Millimeters"));
state.AppendCommand(ABSOLUTEPOSITIONING, false, _("Absolute Pos"));
if (settings.get_boolean("Slicing","RelativeEcode"))
state.AppendCommand(RELATIVE_ECODE, false, _("Relative E Code"));
else
state.AppendCommand(ABSOLUTE_ECODE, false, _("Absolute E Code"));
bool cont = true;
vector<PLine3> plines;
bool farthestStart = settings.get_boolean("Slicing","FarthestLayerStart");
Vector3d start = state.LastPosition();
for (uint p=0; p<count; p++) {
cont = (m_progress->update(p)) ;
if (!cont) break;
// cerr << "GCode layer " << (p+1) << " of " << count
// << " offset " << printOffsetZ
// << " have commands: " <<commands.size()
// << " start " << start << endl;;
// try {
if (farthestStart) {
// Vector2d randstart = layers[p]->getRandomPolygonPoint();
// start.set(randstart.x(), randstart.y());
const Vector2d fartheststart = layers[p]->getFarthestPolygonPoint(start);
start.set(fartheststart.x(), fartheststart.y());
}
layers[p]->MakePrintlines(start,
plines,
printOffsetZ,
settings);
// } catch (Glib::Error &e) {
// error("GCode Error:", (e.what()).c_str());
// }
// if (layers[p]->getPrevious() != NULL)
// cerr << p << ": " <<layers[p]->LayerNo << " prev: "
// << layers[p]->getPrevious()->LayerNo << endl;
}
// do antiooze retract for all lines:
Printlines::makeAntioozeRetract(plines, settings, m_progress);
vector<Command> commands;
//Printlines::getCommands(plines, settings, commands, m_progress);
Printlines::getCommands(plines, settings, state, m_progress);
//state.AppendCommands(commands, settings.Slicing.RelativeEcode);
string GcodeTxt;
if (cont)
gcode.MakeText (GcodeTxt, settings, m_progress);
else {
ClearLayers();
ClearGCode();
ClearPreview();
}
// display whole layer if flat shapes
// if (shapes.back()->dimensions() == 2)
// gcode.layerchanges.push_back(0);
m_progress->stop (_("Done"));
int h = (int)state.timeused/3600;
int m = ((int)state.timeused%3600)/60;
int s = ((int)state.timeused-3600*h-60*m);
std::ostringstream ostr;
ostr << _("Time Estimation: ") ;
if (h>0) ostr << h <<_("h") ;
ostr <<m <<_("m") <<s <<_("s") ;
double gctime = gcode.GetTimeEstimation();
if (abs(state.timeused - gctime) > 10) {
h = (int)(gctime/3600);
m = ((int)gctime)%3600/60;
s = (int)(gctime)-3600*h-60*m;
ostr << _(" / GCode Estimation: ");
if (h>0) ostr << h <<_("h");
ostr<< m <<_("m") << s <<_("s") ;
}
double totlength = gcode.GetTotalExtruded(settings.get_boolean("Slicing","RelativeEcode"));
ostr << _(" - total extruded: ") << totlength << "mm";
// TODO: ths assumes all extruders use the same filament diameter
const double diam = settings.get_double("Extruder","FilamentDiameter");
const double ccm = totlength * diam * diam / 4. * M_PI / 1000 ;
ostr << " = " << ccm << "cm^3 ";
ostr << "(ABS~" << ccm*1.08 << "g, PLA~" << ccm*1.25 << "g)";
if (statusbar)
statusbar->push(ostr.str());
else
cout << ostr.str() << endl;
{
Glib::TimeVal now;
now.assign_current_time();
const int time_used = (int) round((now - start_time).as_double()); // seconds
cerr << "GCode generated in " << time_used << " seconds. " << GcodeTxt.size() << " bytes" << endl;
}
is_calculating=false;
m_signal_gcode_changed.emit();
}
bool SimVoteWindow::loadConfiguration(std::string pass)
{
bool loginOk = false;
if (VotingCentersWrapper::getInstance()->isInstall())
{
VotingCenter votingCenter;
VotingCentersWrapper::getInstance()->getInstallationVotingCenter(votingCenter);
votingCenterName = votingCenter.getCode();
}
std::cout << "Center : " << votingCenterName << std::endl;
loginOk = MachineOperationManager::getInstance()->authentication(votingCenterName, pass, true);
//Load precalculate other info needed for the VM
try
{
if(loginOk)
{
loginOk = false;
electoralConfiguration->loadAllData();
Smartmatic::SAES::Printing::VotePrintDocument::calculateMax(electoralConfiguration);
std::string openingDateTime = electoralConfiguration->getVotingDevice()->getFirstVotingDevice().getOperation_modes().getOperation_mode()[0].getOpening_date_time();
std::string closingDateTime = electoralConfiguration->getVotingDevice()->getFirstVotingDevice().getOperation_modes().getOperation_mode()[0].getClosing_date_time();
Glib::TimeVal openingTime;
Glib::TimeVal closingTime;
openingTime.assign_from_iso8601(openingDateTime);
double openingD = openingTime.as_double();
closingTime.assign_from_iso8601(closingDateTime);
double closingD = closingTime.as_double();
Smartmatic::SAES::Security::Encryption::getInstance()->setMachineTime(openingD + (openingD + closingD)/2);
Smartmatic::SAES::Voting::OperationStatus::Current()->init();
Glib::ustring openingCode = Smartmatic::SAES::Voting::OperationStatus::Current()->getElectionStatusWrapper()->getOpeningCode();
Smartmatic::System::GuidClass openCodeGUID = Smartmatic::System::GuidClass::Parse(openingCode);
Smartmatic::SAES::Security::Encryption::getInstance()->setOpeningCode(openCodeGUID);
//Clear previous language
ElectionInstalationLanguages::getInstance()->clearLanguage();
Smartmatic::SAES::Voting::Election::Languages::LanguageSequence & sequence (electoralConfiguration->getLanguages().getLanguage());
for (Smartmatic::SAES::Voting::Election::Languages::LanguageIterator it = sequence.begin(); it != sequence.end(); ++it)
{
ElectionInstalationLanguages::getInstance()->addInstallationLanguages((*it));
Smartmatic::SAES::Voting::SetLanguageFunctionality::setNewVotingLanguageByLanguageCountry(it->getLanguage(),it->getCountry());
break;
}
loginOk = true;
}
}
catch(ElectionException & ex)
{
std::cout << "FATAL "<<__func__<< ex.what() << std::endl;
}
catch(VotingDeviceException & ex)
{
std::cout << "FATAL "<<__func__<< ex.what() << std::endl;
}
catch(CryptoException & ex)
{
std::cout << "FATAL "<<__func__<< ex.what() << std::endl;
}
catch(SignedException & ex)
{
std::cout << "FATAL "<<__func__<< ex.what() << std::endl;
}
catch(XmlException & ex)
{
std::cout << "FATAL "<<__func__<< ex.what() << std::endl;
}
catch(GuIdException & ex)
{
std::cout << "FATAL "<<__func__<< ex.what() << std::endl;
}
catch(FileSystemException & ex)
{
std::cout << "FATAL "<<__func__<< ex.what() << std::endl;
}
catch(std::exception & ex)
{
std::cout << "FATAL "<<__func__<< ex.what() << std::endl;
}
catch(...)
{
std::cout << "FATAL "<<__func__<< "Unknown exception" << std::endl;
}
return loginOk;
}
// Send requests and collect statistics.
void sendRequests(){
// Some variables...
unsigned long completedRequests = 0;
unsigned long failedRequests = 0;
Glib::TimeVal completedTime(0,0);
Glib::TimeVal failedTime(0,0);
Glib::TimeVal tBefore;
Glib::TimeVal tAfter;
bool connected;
//std::string url_str("https://127.0.0.1:60000/echo");
Arc::URL url(url_str);
Arc::MCCConfig mcc_cfg;
Arc::UserConfig usercfg("");
usercfg.ApplyToConfig(mcc_cfg);
Arc::NS echo_ns; echo_ns["echo"]="http://www.nordugrid.org/schemas/echo";
while(run){
// Create a Client.
Arc::ClientSOAP *client = NULL;
client = new Arc::ClientSOAP(mcc_cfg,url,60);
connected=true;
while(run and connected){
// Prepare the request.
Arc::PayloadSOAP req(echo_ns);
req.NewChild("echo:echo").NewChild("echo:say")="HELLO";
// Send the request and time it.
tBefore.assign_current_time();
Arc::PayloadSOAP* resp = NULL;
//std::string str;
//req.GetXML(str);
//std::cout<<"request: "<<str<<std::endl;
Arc::MCC_Status status = client->process(&req,&resp);
tAfter.assign_current_time();
if(!status) {
// Request failed.
failedRequests++;
failedTime+=tAfter-tBefore;
connected=false;
} else {
if(resp == NULL) {
// Response was not SOAP or no response at all.
failedRequests++;
failedTime+=tAfter-tBefore;
connected=false;
} else {
//std::string xml;
//resp->GetXML(xml);
if (std::string((*resp)["echoResponse"]["hear"]).size()==0){
// The response was not what it should be.
failedRequests++;
failedTime+=tAfter-tBefore;
connected=false;
}
else{
// Everything worked just fine!
completedRequests++;
completedTime+=tAfter-tBefore;
}
}
}
if(resp) delete resp;
if(alwaysReconnect) connected=false;
}
if(client) delete client;
}
// Update global variables.
Glib::Mutex::Lock lock(*mutex);
::completedRequests+=completedRequests;
::failedRequests+=failedRequests;
::completedTime+=completedTime;
::failedTime+=failedTime;
finishedThreads++;
std::cout << "Number of finished threads: " << finishedThreads << std::endl;
}
bool CondTime::isInTheFuture() const
{
Glib::TimeVal now;
now.assign_current_time();
return (now-timepoint).negative(); // timepoint > now
}