void ModelInput::readInputFile(){
// Unwrap the reference:
auto &domain = domainRef.get();
auto &solver = domain.getSolver();
if (not ifs.is_open()){
openInputFile();
}
std::string dummy = "";
// header
readParams(ifs, dummy);
// gravitational acceleration
readParams(ifs, solver->g);
// total number of timesteps
readParams(ifs, solver->tnts);
// one timestep in seconds
readParams(ifs, solver->dt);
// output parameters:
readParams(ifs, dummy, domain.qOutput->qts, domain.pts);
closeInputFile();
}
JoystickTeleop::JoystickTeleop(): nh_private_("~")
{
cmd_vel_pub_ = nh_.advertise<geometry_msgs::Twist>("cmd_vel", 1, true);
joy_sub_ = nh_.subscribe("joy", 1, &JoystickTeleop::joyCallback, this);
readParams( nh_private_ );
}
int main(int argc, char ** argv)
{
ros::init(argc, argv, "visptracker");
ros::NodeHandle n;
// read parameters first
int camSizeX, camSizeY, trackerType;
std::string camTopic, pubTopic;
ROS_INFO("Reading parameters...");
readParams(camSizeX, camSizeY, trackerType, camTopic, pubTopic);
ROS_INFO("Parameters loaded successfully!");
detectorTracker = new TrackLandingMark(camSizeX, camSizeY, (TrackerType)trackerType);
ros::Subscriber sub = n.subscribe(camTopic, 100, imageCallback);
trackerDataPub = n.advertise<kuri_mbzirc_challenge_1::TrackerData>(pubTopic, 1000);
detectorTracker->setSampling(2, 2);
detectorTracker->setLambda(0.001);
detectorTracker->setIterationMax(200);
detectorTracker->setPyramidal(4, 1);
detectorTracker->enableTrackerDisplay(true);
ros::spin();
return 0;
}
CrossValidator::CrossValidator(ros::NodeHandle node_handle) :
node_handle_(node_handle), monitor_io_(node_handle)
{
ROS_VERIFY(readParams());
// ROS_VERIFY(monitor_io_.initialize(std::string("/TaskRecorderManager/data_samples"), std::string("/TaskRecorderManager/data_samples")));
ROS_VERIFY(monitor_io_.initialize());
}
double RatesReader::arrenius(const char *rid, double t)
{
double k, Ea, Tp;
readParams(rid, &k, &Ea, &Tp);
return k * std::pow(t, Tp) * std::exp(-Ea / (Env::R() * t));
}
Server::Server(int snum, QObject *p) : QThread(p) {
bValid = true;
iServerNum = snum;
#ifdef USE_BONJOUR
bsRegistration = NULL;
#endif
#ifdef Q_OS_UNIX
aiNotify[0] = aiNotify[1] = -1;
#else
hNotify = NULL;
#endif
qtTimeout = new QTimer(this);
iCodecAlpha = iCodecBeta = 0;
bPreferAlpha = false;
qnamNetwork = NULL;
readParams();
initialize();
foreach(const QHostAddress &qha, qlBind) {
SslServer *ss = new SslServer(this);
connect(ss, SIGNAL(newConnection()), this, SLOT(newClient()), Qt::QueuedConnection);
if (! ss->listen(qha, usPort)) {
log(QString("Server: TCP Listen on %1 failed: %2").arg(addressToString(qha,usPort), ss->errorString()));
bValid = false;
} else {
log(QString("Server listening on %1").arg(addressToString(qha,usPort)));
}
qlServer << ss;
}
LoadEstimator::LoadEstimator(ros::NodeHandle& node_handle) : node_handle_(node_handle)
, estimate_update_count(0)
, calib_wait_period_(0.1)
, hand_mass(0)
, hand_cog(0, 0, 0)
, obj_mass_min(0.01)
, sim(false)
{
//first read the parameters
ROS_VERIFY(readParams());
going_ = true;
num_input_data_ = 6;
reset();
inertial_estimation_pub_ = node_handle_.advertise<arm_msgs::InertialParameters>("load_in_hand", 100);
//Initialisation of markers representing centers of masses of hand+obj, hand only, object only
initCogMarker(1, 0, 0, "cog_hand_obj", 0, cog_marker_);
initCogMarker(0, 1, 0, "cog_hand", 1, cog_hand_marker_);
initCogMarker(0, 0, 1, "cog_obj" , 2, cog_obj_marker_);
cog_marker_pub_ = node_handle_.advertise<visualization_msgs::Marker>("cog_marker", 10);
reset_srv = node_handle_.advertiseService("reset", &LoadEstimator::resetSrv, this);
//The service reestimates empty hand mass and cog. Must be called when the hand is empty and static
calib_srv = node_handle_.advertiseService("calibrate", &LoadEstimator::calibSrv, this);
publisher_thread_ = boost::thread(boost::bind(&LoadEstimator::publish_inertial_data, this));
wrench_sub_ = node_handle_.subscribe(end_effector_state_topic_, 1, &LoadEstimator::endEffectorStateCallback, this);
//Calling calibration thread (the thread executes procedure only once until calibration service is called)
calibrate_thread_ = boost::thread(boost::bind(&LoadEstimator::calibrate, this));
}
bool
RunPotentialParamsQueue::getWork()
{
if(!fs::exists(mySettings.queueFile))
return false;
ip::file_lock lock(mySettings.queueFile.string().c_str());
ip::scoped_lock< ip::file_lock> lockQueue(lock);
fs::fstream queueStream(mySettings.queueFile);
std::stringstream takenWorkItems, originalContents;
std::string line;
size_t numParamsRead = 0;
while(numParamsRead < myNumWorkItemsChunk)
{
if(!std::getline(queueStream, line))
break;
bool takenWork = false;
if(!line.empty() && line[0] != '#')
{
const boost::optional< Params> & params = readParams(line);
if(params)
{
++numParamsRead;
myParamsQueue.push(*params);
takenWorkItems << "#" << spl::os::getProcessId() << " " << line << "\n";
takenWork = true;
}
}
if(!takenWork)
originalContents << line << "\n";
}
if(numParamsRead > 0)
{
// Save the rest of the file to buffer
std::copy(std::istreambuf_iterator< char>(queueStream),
std::istreambuf_iterator< char>(),
std::ostreambuf_iterator< char>(originalContents));
// Go back to the start of the file
queueStream.clear(); // Clear the EoF flag
queueStream.seekg(0, std::ios::beg);
// Write out the whole new contents
// First the rest of the file
std::copy(std::istreambuf_iterator< char>(originalContents),
std::istreambuf_iterator< char>(),
std::ostreambuf_iterator< char>(queueStream));
// Then the part of the queue that we're running
std::copy(std::istreambuf_iterator< char>(takenWorkItems),
std::istreambuf_iterator< char>(),
std::ostreambuf_iterator< char>(queueStream));
}
queueStream.close();
return numParamsRead > 0;
}
RobotInterface::ParamList RobotInterface::XMLReader::Private::readParamsTag(TiXmlElement *paramsElem)
{
const std::string &valueStr = paramsElem->ValueStr();
if (valueStr.compare("params") != 0) {
SYNTAX_ERROR(paramsElem->Row()) << "Expected \"params\". Found" << valueStr;
}
std::string filename;
if (paramsElem->QueryStringAttribute("file", &filename) == TIXML_SUCCESS) {
// yDebug() << "Found params file [" << filename << "]";
#ifdef WIN32
std::replace(filename.begin(), filename.end(), '/', '\\');
filename = path + "\\" + filename;
#else // WIN32
filename = path + "/" + filename;
#endif //WIN32
return readParamsFile(filename);
}
std::string robotName;
if (paramsElem->QueryStringAttribute("robot", &robotName) != TIXML_SUCCESS) {
SYNTAX_WARNING(paramsElem->Row()) << "\"params\" element should contain the \"robot\" attribute";
}
if (robotName != robot.name()) {
SYNTAX_WARNING(paramsElem->Row()) << "Trying to import a file for the wrong robot. Found" << robotName << "instead of" << robot.name();
}
unsigned int build;
#if TINYXML_UNSIGNED_INT_BUG
if (paramsElem->QueryUnsignedAttribute("build", &build()) != TIXML_SUCCESS) {
// No build attribute. Assuming build="0"
SYNTAX_WARNING(paramsElem->Row()) << "\"params\" element should contain the \"build\" attribute [unsigned int]. Assuming 0";
}
#else
int tmp;
if (paramsElem->QueryIntAttribute("build", &tmp) != TIXML_SUCCESS || tmp < 0) {
// No build attribute. Assuming build="0"
SYNTAX_WARNING(paramsElem->Row()) << "\"params\" element should contain the \"build\" attribute [unsigned int]. Assuming 0";
tmp = 0;
}
build = (unsigned)tmp;
#endif
if (build != robot.build()) {
SYNTAX_WARNING(paramsElem->Row()) << "Import a file for a different robot build. Found" << build << "instead of" << robot.build();
}
ParamList params;
for (TiXmlElement* childElem = paramsElem->FirstChildElement(); childElem != 0; childElem = childElem->NextSiblingElement()) {
ParamList childParams = readParams(childElem);
for (ParamList::const_iterator it = childParams.begin(); it != childParams.end(); ++it) {
params.push_back(*it);
}
}
return params;
}
KeyboardTeleop::KeyboardTeleop( struct termios &cooked, struct termios &raw, int &kfd ):
nh_("~"),
cooked_( cooked ),
raw_( raw ),
kfd_ ( kfd )
{
cmd_vel_pub_ = nh_.advertise<geometry_msgs::Twist>("/cmd_vel", 1, true);
readParams(nh_);
}
core::Error readParams(const json::Array& params,
T1* pValue1,
T2* pValue2,
T3* pValue3)
{
core::Error error = readParams(params, pValue1, pValue2) ;
if (error)
return error ;
return readParam(params, 2, pValue3) ;
}
void Bank::readModule( Element* element, ModuleData* data )
{
element->GetAttribute( "id", &data->id_ );
element->GetAttribute( "label", &data->label_ );
element->GetAttribute( "catalog", (int*)&data->catalog_ );
element->GetAttribute( "poly", (int*)&data->polyphony_ );
element->GetAttribute( "x", &data->xPos_ );
element->GetAttribute( "y", &data->yPos_ );
element->GetAttribute( "collapsed", &data->collapsed_, false );
readParams( element, data );
readLinks( element, data );
}
int main(int argc, char **argv){
MultiFasta *fasta;
Parameters param;
param = readParams(argc, argv);
fasta = readFasta(param.fastaname);
multialign(fasta, param.kmersize, param.mindiagsize);
printFasta(fasta);
releaseFasta(fasta);
return EXIT_SUCCESS;
}
core::Error readParams(const json::Array& params,
T1* pValue1,
T2* pValue2,
T3* pValue3,
T4* pValue4,
T5* pValue5)
{
core::Error error = readParams(params, pValue1, pValue2, pValue3, pValue4) ;
if (error)
return error ;
return readParam(params, 4, pValue5) ;
}
RobotInterface::Robot& RobotInterface::XMLReader::Private::readRobotTag(TiXmlElement *robotElem)
{
if (robotElem->ValueStr().compare("robot") != 0) {
SYNTAX_ERROR(robotElem->Row()) << "Root element should be \"robot\". Found" << robotElem->ValueStr();
}
if (robotElem->QueryStringAttribute("name", &robot.name()) != TIXML_SUCCESS) {
SYNTAX_ERROR(robotElem->Row()) << "\"robot\" element should contain the \"name\" attribute";
}
#if TINYXML_UNSIGNED_INT_BUG
if (robotElem->QueryUnsignedAttribute("build", &robot.build()) != TIXML_SUCCESS) {
// No build attribute. Assuming build="0"
SYNTAX_WARNING(robotElem->Row()) << "\"robot\" element should contain the \"build\" attribute [unsigned int]. Assuming 0";
}
#else
int tmp;
if (robotElem->QueryIntAttribute("build", &tmp) != TIXML_SUCCESS || tmp < 0) {
// No build attribute. Assuming build="0"
SYNTAX_WARNING(robotElem->Row()) << "\"robot\" element should contain the \"build\" attribute [unsigned int]. Assuming 0";
tmp = 0;
}
robot.build() = (unsigned)tmp;
#endif
if (robotElem->QueryStringAttribute("portprefix", &robot.portprefix()) != TIXML_SUCCESS) {
SYNTAX_WARNING(robotElem->Row()) << "\"robot\" element should contain the \"portprefix\" attribute. Using \"name\" attribute";
robot.portprefix() = robot.name();
}
// yDebug() << "Found robot [" << robot.name() << "] build [" << robot.build() << "] portprefix [" << robot.portprefix() << "]";
for (TiXmlElement* childElem = robotElem->FirstChildElement(); childElem != 0; childElem = childElem->NextSiblingElement()) {
if (childElem->ValueStr().compare("device") == 0 || childElem->ValueStr().compare("devices") == 0) {
DeviceList childDevices = readDevices(childElem);
for (DeviceList::const_iterator it = childDevices.begin(); it != childDevices.end(); ++it) {
robot.devices().push_back(*it);
}
} else {
ParamList childParams = readParams(childElem);
for (ParamList::const_iterator it = childParams.begin(); it != childParams.end(); ++it) {
robot.params().push_back(*it);
}
}
}
return robot;
}
int main(int argc, char *argv[]) {
parameters p = readParams(argv[1]);
p.xbinWidth = (p.xmax - p.xmin)/double(p.xbins);
std::cout << "inbase " << p.inbase << "\n";
std::cout << "ext " << p.ext << "\n";
std::cout << "avgbase " << p.avgbase << "\n";
std::cout << "covbase " << p.covbase << "\n";
std::cout << "corbase " << p.corbase << "\n";
std::cout << "datapoints " << p.datapoints << "\n";
std::cout << "xvals " << p.xvals << "\n";
std::cout << "outformat " << p.outformat << "\n";
std::cout << "xmin " << p.xmin << "\n";
std::cout << "xbinWidth " << p.xbinWidth << "\n";
std::cout << "numMocks " << p.numMocks << "\n";
std::cout << "startNum " << p.startNum << "\n";
std::cout << "digits " << p.digits << "\n";
std::ifstream fin;
std::ofstream fout;
std::vector< double > mu(p.datapoints);
std::vector< double > xvalues(p.datapoints);
const int N = p.datapoints;
double cov[N][N] = {0.0};
std::cout << "Finding the average values...\n";
for (int mock = p.startNum; mock <= p.numMocks; ++mock) {
std::string infile = filename(p.inbase, mock, p.digits, p.ext);
fin.open(infile.c_str(),std::ios::in);
if (p.xvals == "true") {
int i = 0;
while (!fin.eof()) {
double x, y;
fin >> x >> y;
if (x >= p.xmin && !fin.eof()) {
mu[i] += y/p.numMocks;
xvalues[i] = x;
++i;
}
}
} else {
for (int i = 0; i < N; ++i) {
int main(int argc, char** argv) {
//destroy_params();
argc--; argv++;
flags = 0;
if (argc > 0) {
readParams(argc, argv);
}
init_params(cam);
train();
if ((flags & P_TREE) != 0) {
printTree(ptree->get_root());
printf("\n\n");
}
if ((flags & F_CHK) != 0)
runTest();
predict();
destroy_params();
return (EXIT_SUCCESS);
}
void Snoss2D::snoss2Dbatch( DataStation& data_station)
{
//------------------------LOAD PARAMETRS FROM TXT-----------------------------//
int index_S=0;
string readPathParams= "params.txt";
fstream readParams(readPathParams.c_str());
string a;
getline(gotoLine(readParams,9),a);
stringstream pars (a);
pars>>A1>>A2>>sigm>>B1>>B2>>SIcrit;
//------------------------INITIALIZE SNOSS(precip,snow)-------------------------//
int p=0;
for(int i = 0;i<data_station.data_loaded.size();i++)
{
data_station.data_loaded[i];
}
}
RobotInterface::Action RobotInterface::XMLReader::Private::readActionTag(TiXmlElement* actionElem)
{
if (actionElem->ValueStr().compare("action") != 0) {
SYNTAX_ERROR(actionElem->Row()) << "Expected \"action\". Found" << actionElem->ValueStr();
}
Action action;
if (actionElem->QueryValueAttribute<ActionPhase>("phase", &action.phase()) != TIXML_SUCCESS || action.phase() == ActionPhaseUnknown) {
SYNTAX_ERROR(actionElem->Row()) << "\"action\" element should contain the \"phase\" attribute [startup|interrupt{1,2,3}|shutdown]";
}
if (actionElem->QueryValueAttribute<ActionType>("type", &action.type()) != TIXML_SUCCESS || action.type() == ActionTypeUnknown) {
SYNTAX_ERROR(actionElem->Row()) << "\"action\" element should contain the \"type\" attribute [configure|calibrate|attach|abort|detach|park|custom]";
}
// yDebug() << "Found action [ ]";
#if TINYXML_UNSIGNED_INT_BUG
if (actionElem->QueryUnsignedAttribute("level", &action.level()) != TIXML_SUCCESS) {
SYNTAX_ERROR(actionElem->Row()) << "\"action\" element should contain the \"level\" attribute [unsigned int]";
}
#else
int tmp;
if (actionElem->QueryIntAttribute("level", &tmp) != TIXML_SUCCESS || tmp < 0) {
SYNTAX_ERROR(actionElem->Row()) << "\"action\" element should contain the \"level\" attribute [unsigned int]";
}
action.level() = (unsigned)tmp;
#endif
for (TiXmlElement* childElem = actionElem->FirstChildElement(); childElem != 0; childElem = childElem->NextSiblingElement()) {
ParamList childParams = readParams(childElem);
for (ParamList::const_iterator it = childParams.begin(); it != childParams.end(); ++it) {
action.params().push_back(*it);
}
}
// yDebug() << action;
return action;
}
RobotInterface::Device RobotInterface::XMLReader::Private::readDeviceTag(TiXmlElement *deviceElem)
{
const std::string &valueStr = deviceElem->ValueStr();
if (valueStr.compare("device") != 0) {
SYNTAX_ERROR(deviceElem->Row()) << "Expected \"device\". Found" << valueStr;
}
Device device;
if (deviceElem->QueryStringAttribute("name", &device.name()) != TIXML_SUCCESS) {
SYNTAX_ERROR(deviceElem->Row()) << "\"device\" element should contain the \"name\" attribute";
}
// yDebug() << "Found device [" << device.name() << "]";
if (deviceElem->QueryStringAttribute("type", &device.type()) != TIXML_SUCCESS) {
SYNTAX_ERROR(deviceElem->Row()) << "\"device\" element should contain the \"type\" attribute";
}
device.params().push_back(Param("robotName", robot.portprefix().c_str()));
for (TiXmlElement* childElem = deviceElem->FirstChildElement(); childElem != 0; childElem = childElem->NextSiblingElement()) {
if (childElem->ValueStr().compare("action") == 0 ||
childElem->ValueStr().compare("actions") == 0) {
ActionList childActions = readActions(childElem);
for (ActionList::const_iterator it = childActions.begin(); it != childActions.end(); ++it) {
device.actions().push_back(*it);
}
} else {
ParamList childParams = readParams(childElem);
for (ParamList::const_iterator it = childParams.begin(); it != childParams.end(); ++it) {
device.params().push_back(*it);
}
}
}
// yDebug() << device;
return device;
}
core::Error readParams(const json::Array& params,
T1* pValue1,
T2* pValue2,
T3* pValue3,
T4* pValue4,
T5* pValue5,
T6* pValue6,
T7* pValue7,
T8* pValue8)
{
core::Error error = readParams(params,
pValue1,
pValue2,
pValue3,
pValue4,
pValue5,
pValue6,
pValue7) ;
if (error)
return error ;
return readParam(params, 7, pValue8) ;
}
RobotInterface::Param RobotInterface::XMLReader::Private::readGroupTag(TiXmlElement* groupElem)
{
if (groupElem->ValueStr().compare("group") != 0) {
SYNTAX_ERROR(groupElem->Row()) << "Expected \"group\". Found" << groupElem->ValueStr();
}
Param group(true);
if (groupElem->QueryStringAttribute("name", &group.name()) != TIXML_SUCCESS) {
SYNTAX_ERROR(groupElem->Row()) << "\"group\" element should contain the \"name\" attribute";
}
// yDebug() << "Found group [" << group.name() << "]";
ParamList params;
for (TiXmlElement* childElem = groupElem->FirstChildElement(); childElem != 0; childElem = childElem->NextSiblingElement()) {
ParamList childParams = readParams(childElem);
for (ParamList::const_iterator it = childParams.begin(); it != childParams.end(); ++it) {
params.push_back(*it);
}
}
if (params.empty()) {
SYNTAX_ERROR(groupElem->Row()) << "\"group\" cannot be empty";
}
std::string groupString;
for (ParamList::iterator it = params.begin(); it != params.end(); ++it) {
if (!groupString.empty()) {
groupString += " ";
}
groupString += "(" + it->name() + " " + it->value() + ")";
}
group.value() = groupString;
return group;
}
RobotInterface::ParamList RobotInterface::XMLReader::Private::readSubDeviceTag(TiXmlElement *subDeviceElem)
{
if (subDeviceElem->ValueStr().compare("subdevice") != 0) {
SYNTAX_ERROR(subDeviceElem->Row()) << "Expected \"subdevice\". Found" << subDeviceElem->ValueStr();
}
ParamList params;
//FIXME Param featIdParam;
Param subDeviceParam;
//FIXME featIdParam.name() = "FeatId";
subDeviceParam.name() = "subdevice";
//FIXME if (subDeviceElem->QueryStringAttribute("name", &featIdParam.value()) != TIXML_SUCCESS) {
// SYNTAX_ERROR(subDeviceElem->Row()) << "\"subdevice\" element should contain the \"name\" attribute";
// }
if (subDeviceElem->QueryStringAttribute("type", &subDeviceParam.value()) != TIXML_SUCCESS) {
SYNTAX_ERROR(subDeviceElem->Row()) << "\"subdevice\" element should contain the \"type\" attribute";
}
//FIXME params.push_back(featIdParam);
params.push_back(subDeviceParam);
// yDebug() << "Found subdevice [" << params.at(0).value() << "]";
for (TiXmlElement* childElem = subDeviceElem->FirstChildElement(); childElem != 0; childElem = childElem->NextSiblingElement()) {
ParamList childParams = readParams(childElem);
for (ParamList::const_iterator it = childParams.begin(); it != childParams.end(); ++it) {
params.push_back(Param(it->name(), it->value()));
}
}
// yDebug() << params;
return params;
}
bool CStreamProcessor::StartStreamingRequest(
const SStreamReadParams& _readParams)
{
SStreamReadParams readParams(_readParams);
readParams.m_pRequestProcessor = this;
// make sure a valid receive processor is set!
if (readParams.m_pReceiveProcessor == NULL)
readParams.m_pReceiveProcessor = this;
// start the actual read operation
CStreamReadRequest* pRequest = STREAM_ENGINE->StartRead(readParams);
if (pRequest)
{
// push request to open request on the receive processor
CStreamProcessor* pProcessor = (CStreamProcessor*)
pRequest->GetParams().m_pReceiveProcessor;
pProcessor->PushOpenRequest(pRequest);
return true;
}
return false;
}
int main(int argc, char ** argv)
{
SDL_Surface *screen;
if(readParams(argc,argv))
{
return 0;
}
if(SDL_Init(SDL_INIT_EVERYTHING) < 0)
{
printf("Error: SDL_Init(SDL_INIT_EVERYTHING) < 0\n");
return -1;
}
screen=SDL_SetVideoMode(800,600,32,SDL_SWSURFACE|SDL_OPENGL);
if(screen == 0)
{
printf("error: SDL_SetVideoMode() == 0\n");
return -1;
}
mousey=mousex=0;
initODE();
initGL();
mainLoop();
closeODE();
SDL_Quit();
return 0;
}
int main(int argc, char* argv[])
{
int program = 0;
// Get input file from first command line argument
if(argc < 3){ // No input file given
std::cerr << "Usage: ./drudeh [input_file] [basis_file]\n";
program = -1;
} else {
std::string ifname = argv[1]; // Input filename
std::string bfname = argv[2]; // Basis filename
std::string ofname = ifname; // Output file prefix
std::size_t pos = ofname.find('.');
if (pos != std::string::npos) { // Cut off extension
ofname.erase(pos, ofname.length());
}
ofname += ".output";
// Open the input file
std::ifstream input(ifname);
// Check it opened successfully
if (!input.is_open()){
std::cerr << "Failed to open input file.\n";
program = -1;
} else {
// Declare and read parameters
int N;
std::vector<double> mu, omega, q;
N = readParams(input, mu, omega, q);
// Make the zeta vector
std::vector<double> zeta(N);
for (int i = 0; i < N; i++) zeta[i] = 0.5*mu[i]*omega[i];
// Geometry
Eigen::MatrixXd R(N-1, 3);
// Rewind input file
input.clear();
input.seekg(0, std::ios::beg);
// Read in geometry
readGeom(input, R, N);
// Open basis file
std::ifstream basis(bfname);
// Check if opened successfully
if (!basis.is_open()){
std::cerr << "Failed to open basis file.\n";
program = -1;
} else {
// Initialise array of basis functions
std::vector<BasisFunction> bfs;
// Read in the basis functions
int nbfs = readBasis(basis, bfs, N, zeta, R);
// Form and diagonalise hamiltonian matrix
Eigen::MatrixXd D = hamiltonian(N, nbfs, bfs, R, mu, omega, q);
// Find lowest non-zero eigenvalue
//int i = 0;
double lowest_eig = D(0);
// while ( D(i) < 0.1 ) i++;
// if ( i < nbfs )
//lowest_eig = D(i);
// Open output file
std::ofstream output(ofname);
if (!output.is_open()){
std::cout << "Couldn't open output file.\n";
std::cout << "Total number of basis functions = " << nbfs << "\n";
std::cout << "Lowest eigenvalue = " << std::setprecision(15) << lowest_eig << "\n";
} else {
output << "Total number of basis functions = " << nbfs << "\n";
output << "Lowest eigenvalue = "<< std::setprecision(15) << lowest_eig << "\n";
}
}
}
}
return program;
}
int CMMDVMHost::run()
{
bool ret = m_conf.read();
if (!ret) {
::fprintf(stderr, "MMDVMHost: cannot read the .ini file\n");
return 1;
}
ret = ::LogInitialise(m_conf.getLogPath(), m_conf.getLogRoot(), m_conf.getLogDisplay());
if (!ret) {
::fprintf(stderr, "MMDVMHost: unable to open the log file\n");
return 1;
}
::LogSetLevel(m_conf.getLogLevel());
LogInfo(HEADER1);
LogInfo(HEADER2);
LogInfo(HEADER3);
LogMessage("MMDVMHost-%s is starting", VERSION);
readParams();
ret = createModem();
if (!ret)
return 1;
createDisplay();
if (m_dmrEnabled) {
ret = createDMRNetwork();
if (!ret)
return 1;
}
CStopWatch stopWatch;
stopWatch.start();
CDStarEcho* dstar = NULL;
if (m_dstarEnabled)
dstar = new CDStarEcho(2U, 10000U);
CDMRControl* dmr = NULL;
if (m_dmrEnabled) {
unsigned int id = m_conf.getDMRId();
unsigned int colorCode = m_conf.getDMRColorCode();
unsigned int timeout = m_conf.getTimeout();
LogInfo("DMR Parameters");
LogInfo(" Id: %u", id);
LogInfo(" Color Code: %u", colorCode);
LogInfo(" Timeout: %us", timeout);
dmr = new CDMRControl(id, colorCode, timeout, m_modem, m_dmrNetwork, m_display);
}
CYSFEcho* ysf = NULL;
if (m_ysfEnabled)
ysf = new CYSFEcho(2U, 10000U);
unsigned char mode = MODE_IDLE;
CTimer modeTimer(1000U, m_conf.getModeHang());
m_display->setIdle();
while (!m_killed) {
unsigned char data[200U];
unsigned int len;
bool ret;
len = m_modem->readDStarData(data);
if (dstar != NULL && len > 0U) {
if (mode == MODE_IDLE && (data[0U] == TAG_HEADER || data[0U] == TAG_DATA)) {
LogMessage("Mode set to D-Star");
mode = MODE_DSTAR;
m_display->setDStar();
m_modem->setMode(MODE_DSTAR);
modeTimer.start();
}
if (mode != MODE_DSTAR) {
LogWarning("D-Star data received when in mode %u", mode);
} else {
if (data[0U] == TAG_HEADER || data[0U] == TAG_DATA || data[0U] == TAG_EOT) {
dstar->writeData(data, len);
modeTimer.start();
}
}
}
len = m_modem->readDMRData1(data);
if (dmr != NULL && len > 0U) {
if (mode == MODE_IDLE) {
bool ret = dmr->processWakeup(data);
if (ret) {
LogMessage("Mode set to DMR");
mode = MODE_DMR;
m_display->setDMR();
// This sets the mode to DMR within the modem
m_modem->writeDMRStart(true);
modeTimer.start();
}
} else if (mode == MODE_DMR) {
dmr->writeModemSlot1(data);
modeTimer.start();
} else {
LogWarning("DMR data received when in mode %u", mode);
}
}
len = m_modem->readDMRData2(data);
if (dmr != NULL && len > 0U) {
if (mode == MODE_IDLE) {
bool ret = dmr->processWakeup(data);
if (ret) {
LogMessage("Mode set to DMR");
mode = MODE_DMR;
m_display->setDMR();
// This sets the mode to DMR within the modem
m_modem->writeDMRStart(true);
modeTimer.start();
}
} else if (mode == MODE_DMR) {
dmr->writeModemSlot2(data);
modeTimer.start();
} else {
LogWarning("DMR data received when in mode %u", mode);
}
}
len = m_modem->readYSFData(data);
if (ysf != NULL && len > 0U) {
if (mode == MODE_IDLE && data[0U] == TAG_DATA) {
LogMessage("Mode set to System Fusion");
mode = MODE_YSF;
m_display->setFusion();
m_modem->setMode(MODE_YSF);
modeTimer.start();
}
if (mode != MODE_YSF) {
LogWarning("System Fusion data received when in mode %u", mode);
} else {
if (data[0U] == TAG_DATA) {
data[1U] = 0x00U; // FICH digest
ysf->writeData(data, len);
modeTimer.start();
}
}
}
if (modeTimer.isRunning() && modeTimer.hasExpired()) {
LogMessage("Mode set to Idle");
if (mode == MODE_DMR)
m_modem->writeDMRStart(false);
mode = MODE_IDLE;
m_display->setIdle();
m_modem->setMode(MODE_IDLE);
modeTimer.stop();
}
if (dstar != NULL) {
ret = dstar->hasData();
if (ret) {
ret = m_modem->hasDStarSpace();
if (ret) {
len = dstar->readData(data);
if (mode != MODE_DSTAR) {
LogWarning("D-Star echo data received when in mode %u", mode);
} else {
m_modem->writeDStarData(data, len);
modeTimer.start();
}
}
}
}
if (dmr != NULL) {
ret = m_modem->hasDMRSpace1();
if (ret) {
len = dmr->readModemSlot1(data);
if (len > 0U && mode == MODE_IDLE) {
m_display->setDMR();
mode = MODE_DMR;
}
if (len > 0U && mode == MODE_DMR) {
m_modem->writeDMRData1(data, len);
modeTimer.start();
}
}
ret = m_modem->hasDMRSpace2();
if (ret) {
len = dmr->readModemSlot2(data);
if (len > 0U && mode == MODE_IDLE) {
m_display->setDMR();
mode = MODE_DMR;
}
if (len > 0U && mode == MODE_DMR) {
m_modem->writeDMRData2(data, len);
modeTimer.start();
}
}
}
if (ysf != NULL) {
ret = ysf->hasData();
if (ret) {
ret = m_modem->hasYSFSpace();
if (ret) {
len = ysf->readData(data);
if (mode != MODE_YSF) {
LogWarning("System Fusion echo data received when in mode %u", mode);
} else {
m_modem->writeYSFData(data, len);
modeTimer.start();
}
}
}
}
unsigned int ms = stopWatch.elapsed();
m_modem->clock(ms);
modeTimer.clock(ms);
if (dstar != NULL)
dstar->clock(ms);
if (dmr != NULL)
dmr->clock(ms);
if (ysf != NULL)
ysf->clock(ms);
stopWatch.start();
if (ms < 5U) {
#if defined(WIN32)
::Sleep(5UL); // 5ms
#else
::usleep(5000); // 5ms
#endif
}
}
LogMessage("MMDVMHost is exiting on receipt of SIGHUP1");
m_display->setIdle();
m_modem->close();
delete m_modem;
m_display->close();
delete m_display;
if (m_dmrNetwork != NULL) {
m_dmrNetwork->close();
delete m_dmrNetwork;
}
delete dstar;
delete dmr;
delete ysf;
return 0;
}
int main(int argc, char *argv[]) {
char outFileName[64],datFileName[64],moldyName[128];
char *str;
// atom *atomPtr;
int g,nstart,j,ak,count;
FILE *fp;
double charge;
int moldyFlag = 0; // suppress creation of ..._moldy.in file
int distPlotFlag = 0; // suppress creation of disList.dat
/* Let's set the radii of certain elements by hand:
*/
// atRad = (double *)realloc(atRadf, 109*sizeof(double));
// covRad = (double *)realloc(covRadf,109*sizeof(double));
atRad = (double *)malloc(109*sizeof(double));
covRad = (double *)malloc(109*sizeof(double));
memcpy(atRad, atRadf,36*sizeof(double));
memcpy(covRad,covRadf,36*sizeof(double));
atRad[39-1]=2.27; covRad[39-1]=2.62; // Y
atRad[57-1]=2.74; covRad[57-1]=1.69; // La
atRad[71-1]=2.25; covRad[71-1]=1.56; // Lu
if (argc < 2)
sprintf(datFileName,"gb.gbm");
else
strcpy(datFileName,argv[1]);
// read a flag:
if (argc > 2) {
if (strncmp(argv[2],"-m",2) == 0) {
moldyFlag = 1; // also write a moldy file!
printf("Saving moldy input file!\n");
}
}
muls->nCellX = 1;
muls->nCellY = 1;
muls->nCellZ = 1;
muls->ctiltx = 0;
muls->ctilty = 0;
muls->ctiltz = 0;
superCell.atoms = NULL;
superCell.natoms = 0;
if (!readParams(datFileName))
exit(0);
if (nGrains > 0) {
// loop, until we find crystalline grains:
for (g=0; g<nGrains; g++) if (grains[g].amorphFlag == CRYSTALLINE) break;
/* make the crystalline part of the super cell */
if (g<nGrains) makeSuperCell();
/* if there is also an amorphous part, then add it now, and also write a
* MD input file, so that the amorphous phase atoms can be relaxed
*/
for (g=0; g<nGrains; g++) if (grains[g].amorphFlag != CRYSTALLINE) break;
if (g<nGrains) {
if (moldyFlag) {
sprintf(moldyName,"%s",datFileName);
moldyName[strlen(datFileName)-4] = '\0';
strcat(moldyName,"_moldy.in");
if ((fp=fopen(moldyName,"w")) == NULL) {
printf("Could not open moldy input file %s!\n",moldyName);
exit(0);
}
}
else {
fp = NULL;
}
if (nGrains > 1) {
writeFrameWork(fp,superCell);
computeCenterofMass();
nstart = superCell.natoms;
switch (grains[g].amorphFlag) {
case 1: makeAmorphous();
break;
case 2: makeSpecial(distPlotFlag);
break;
}
writeAmorphous(fp,superCell,nstart,superCell.natoms);
}
else {
switch (grains[g].amorphFlag) {
case 1: makeAmorphous();
break;
case 2: makeSpecial(distPlotFlag);
break;
}
writeAmorphous(fp,superCell,0,superCell.natoms);
}
if (moldyFlag) fclose(fp);
}
}
if (0) { // (moldyFlag) {
///////////////////////////////////////////////////////////////
// write Moldy input file, without presence of amorphous phase:
sprintf(moldyName,"%s",datFileName);
moldyName[strlen(datFileName)-4] = '\0';
strcat(moldyName,"_moldy.in");
if ((fp=fopen(moldyName,"w")) == NULL) {
printf("Could not open moldy input file %s!\n",moldyName);
exit(0);
}
// writeFrameWork(fp,superCell);
// computeCenterofMass();
// superCell2Moldy(fp,superCell);
fclose(fp);
} // end of: if moldyFlag ...
strcpy(outFileName,datFileName);
// atomPtr = readUnitCell(&natoms,fileName,&muls);
// writePDB(atomPtr,nat /* reset the input file and advance to the next crystal row */
str = strchr(outFileName,'.');
if (str == NULL) str=outFileName+strlen(outFileName);
sprintf(str,".cfg");
muls->ax = (float)superCell.ax;
muls->by = (float)superCell.by;
muls->c = (float)superCell.cz;
superCell.natoms = removeVacancies(superCell.atoms,superCell.natoms);
printf("will write cfg file to %s\n",outFileName);
writeCFG(superCell.atoms, superCell.natoms, outFileName, muls);
printf("wrote cfg file to %s\n",outFileName);
/**************************************************************
* find the charge for the Y-atoms, in order to remain neutral:
*/
charge = 0.0;
if (0) {
for (ak=0;ak<muls->atomKinds;ak++) {
count =0;
for (j=0;j<superCell.natoms;j++) {
if (muls->Znums[ak] == superCell.atoms[j].Znum) count++;
}
printf("Z=%3d: %d\n",muls->Znums[ak],count);
switch (muls->Znums[ak]) {
case 7: charge += count*(-3.0); break;
case 8: charge += count*(-2.0); break;
case 38: charge += count*(2.0); break;
case 22: charge += count*(4.0); break;
case 14: charge += count* 4.0; break;
}
}
}
else {
for (j=0;j<superCell.natoms;j++) {
charge += superCell.atoms[j].q*superCell.atoms[j].occ;
}
}
// printf("Total charge: %g, i.e. %g %s\n",charge,charge,(charge > 0) ? "holes" : "electrons");
printf("Total charge: %g",charge);
if (charge > 0) printf(", i.e. %g holes\n",charge);
if (charge < 0) printf(", i.e. %g electrons\n",-charge);
delete(muls);
return 0;
}
int FaceDetectApp::start(int argc, char* argv[])
{
readParams(argc, argv);
if (openWebcamStream() == -1) return -1;
return mainLoop(argc, argv);
}
int CMMDVMHost::run()
{
bool ret = m_conf.read();
if (!ret) {
::fprintf(stderr, "MMDVMHost: cannot read the .ini file\n");
return 1;
}
ret = ::LogInitialise(m_conf.getLogPath(), m_conf.getLogRoot(), m_conf.getLogDisplay());
if (!ret) {
::fprintf(stderr, "MMDVMHost: unable to open the log file\n");
return 1;
}
::LogSetLevel(m_conf.getLogLevel());
LogInfo(HEADER1);
LogInfo(HEADER2);
LogInfo(HEADER3);
LogInfo(HEADER4);
LogMessage("MMDVMHost-%s is starting", VERSION);
readParams();
ret = createModem();
if (!ret)
return 1;
createDisplay();
if (m_dstarEnabled && m_conf.getDStarNetworkEnabled()) {
ret = createDStarNetwork();
if (!ret)
return 1;
}
if (m_dmrEnabled && m_conf.getDMRNetworkEnabled()) {
ret = createDMRNetwork();
if (!ret)
return 1;
}
CTimer dmrBeaconTimer(1000U, 4U);
bool dmrBeaconsEnabled = m_dmrEnabled && m_conf.getDMRBeacons();
CStopWatch stopWatch;
stopWatch.start();
CDStarControl* dstar = NULL;
if (m_dstarEnabled) {
std::string callsign = m_conf.getCallsign();
std::string module = m_conf.getDStarModule();
unsigned int timeout = m_conf.getTimeout();
bool duplex = m_conf.getDuplex();
LogInfo("D-Star Parameters");
LogInfo(" Callsign: %s", callsign.c_str());
LogInfo(" Module: %s", module.c_str());
LogInfo(" Timeout: %us", timeout);
dstar = new CDStarControl(callsign, module, m_dstarNetwork, m_display, timeout, duplex);
}
CDMRControl* dmr = NULL;
if (m_dmrEnabled) {
unsigned int id = m_conf.getDMRId();
unsigned int colorCode = m_conf.getDMRColorCode();
unsigned int timeout = m_conf.getTimeout();
LogInfo("DMR Parameters");
LogInfo(" Id: %u", id);
LogInfo(" Color Code: %u", colorCode);
LogInfo(" Timeout: %us", timeout);
dmr = new CDMRControl(id, colorCode, timeout, m_modem, m_dmrNetwork, m_display);
}
CYSFEcho* ysf = NULL;
if (m_ysfEnabled)
ysf = new CYSFEcho(2U, 10000U);
m_modeTimer.setTimeout(m_conf.getModeHang());
setMode(MODE_IDLE);
while (!m_killed) {
unsigned char data[200U];
unsigned int len;
bool ret;
len = m_modem->readDStarData(data);
if (dstar != NULL && len > 0U) {
if (m_mode == MODE_IDLE) {
bool ret = dstar->writeModem(data);
if (ret)
setMode(MODE_DSTAR);
} else if (m_mode == MODE_DSTAR) {
dstar->writeModem(data);
m_modeTimer.start();
} else {
LogWarning("D-Star modem data received when in mode %u", m_mode);
}
}
len = m_modem->readDMRData1(data);
if (dmr != NULL && len > 0U) {
if (m_mode == MODE_IDLE) {
bool ret = dmr->processWakeup(data);
if (ret)
setMode(MODE_DMR);
} else if (m_mode == MODE_DMR) {
dmr->writeModemSlot1(data);
dmrBeaconTimer.stop();
m_modeTimer.start();
} else {
LogWarning("DMR modem data received when in mode %u", m_mode);
}
}
len = m_modem->readDMRData2(data);
if (dmr != NULL && len > 0U) {
if (m_mode == MODE_IDLE) {
bool ret = dmr->processWakeup(data);
if (ret)
setMode(MODE_DMR);
} else if (m_mode == MODE_DMR) {
dmr->writeModemSlot2(data);
dmrBeaconTimer.stop();
m_modeTimer.start();
} else {
LogWarning("DMR modem data received when in mode %u", m_mode);
}
}
len = m_modem->readYSFData(data);
if (ysf != NULL && len > 0U) {
if (m_mode == MODE_IDLE) {
bool ret = ysf->writeData(data, len);
if (ret)
setMode(MODE_YSF);
} else if (m_mode == MODE_YSF) {
ysf->writeData(data, len);
m_modeTimer.start();
} else {
LogWarning("System Fusion modem data received when in mode %u", m_mode);
}
}
if (m_modeTimer.isRunning() && m_modeTimer.hasExpired())
setMode(MODE_IDLE);
if (dstar != NULL) {
ret = m_modem->hasDStarSpace();
if (ret) {
len = dstar->readModem(data);
if (len > 0U) {
if (m_mode == MODE_IDLE) {
setMode(MODE_DSTAR);
} else if (m_mode == MODE_DSTAR) {
m_modem->writeDStarData(data, len);
m_modeTimer.start();
} else {
LogWarning("D-Star data received when in mode %u", m_mode);
}
}
}
}
if (dmr != NULL) {
ret = m_modem->hasDMRSpace1();
if (ret) {
len = dmr->readModemSlot1(data);
if (len > 0U) {
if (m_mode == MODE_IDLE) {
setMode(MODE_DMR);
} else if (m_mode == MODE_DMR) {
m_modem->writeDMRData1(data, len);
dmrBeaconTimer.stop();
m_modeTimer.start();
} else {
LogWarning("DMR data received when in mode %u", m_mode);
}
}
}
ret = m_modem->hasDMRSpace2();
if (ret) {
len = dmr->readModemSlot2(data);
if (len > 0U) {
if (m_mode == MODE_IDLE) {
setMode(MODE_DMR);
} else if (m_mode == MODE_DMR) {
m_modem->writeDMRData2(data, len);
dmrBeaconTimer.stop();
m_modeTimer.start();
} else {
LogWarning("DMR data received when in mode %u", m_mode);
}
}
}
}
if (ysf != NULL) {
ret = m_modem->hasYSFSpace();
if (ret) {
len = ysf->readData(data);
if (len > 0U) {
if (m_mode == MODE_IDLE) {
setMode(MODE_YSF);
} else if (m_mode == MODE_YSF) {
m_modem->writeYSFData(data, len);
m_modeTimer.start();
} else {
LogWarning("System Fusion data received when in mode %u", m_mode);
}
}
}
}
if (m_dmrNetwork != NULL) {
bool run = m_dmrNetwork->wantsBeacon();
if (dmrBeaconsEnabled && run && m_mode == MODE_IDLE) {
setMode(MODE_DMR, false);
dmrBeaconTimer.start();
}
}
unsigned int ms = stopWatch.elapsed();
m_modem->clock(ms);
m_modeTimer.clock(ms);
if (dstar != NULL)
dstar->clock(ms);
if (dmr != NULL)
dmr->clock(ms);
if (ysf != NULL)
ysf->clock(ms);
if (m_dstarNetwork != NULL)
m_dstarNetwork->clock(ms);
if (m_dmrNetwork != NULL)
m_dmrNetwork->clock(ms);
stopWatch.start();
dmrBeaconTimer.clock(ms);
if (dmrBeaconTimer.isRunning() && dmrBeaconTimer.hasExpired()) {
setMode(MODE_IDLE, false);
dmrBeaconTimer.stop();
}
if (ms < 5U) {
#if defined(_WIN32) || defined(_WIN64)
::Sleep(5UL); // 5ms
#else
::usleep(5000); // 5ms
#endif
}
}
LogMessage("MMDVMHost is exiting on receipt of SIGHUP1");
setMode(MODE_IDLE);
m_modem->close();
delete m_modem;
m_display->close();
delete m_display;
if (m_dstarNetwork != NULL) {
m_dstarNetwork->close();
delete m_dstarNetwork;
}
if (m_dmrNetwork != NULL) {
m_dmrNetwork->close();
delete m_dmrNetwork;
}
delete dstar;
delete dmr;
delete ysf;
return 0;
}