/*!
Constructs a new QMaemo5HomescreenAdaptor for the given \a widget.
Note: The widget must be a top-level widget, and must not be reparented
during the lifetime of this adaptor.
Note: \a widget is also the parent of this class, if the widget is destroyed,
so is this adaptor.
*/
QMaemo5HomescreenAdaptor::QMaemo5HomescreenAdaptor(QWidget *widget)
: QObject(widget),
hasSettings(false)
{
Q_ASSERT(widget->isWindow());
if (!hsAtoms[0])
initAtoms();
Display *display = QX11Info::display();
const QStringList args = QApplication::arguments();
// parse the command line arguments.
int idx;
if ((idx = args.indexOf(QLatin1String("-plugin-id"))) != -1) {
appletId = args.value(idx + 1);
const QByteArray pluginId = appletId.toUtf8();
if (!pluginId.isEmpty()) {
XChangeProperty(display,
widget->winId(),
hsAtoms[HildonAppletId],
hsAtoms[Utf8String], 8, PropModeReplace,
reinterpret_cast<const unsigned char *>(pluginId.constData()),
pluginId.length());
}
}
if ((idx = args.indexOf(QLatin1String("-write-pipe"))) != -1) {
bool ok;
int sockId = args.value(idx + 1).toInt(&ok);
if (ok) {
socketNotifier = new QSocketNotifier(sockId, QSocketNotifier::Exception, this);
connect(socketNotifier, SIGNAL(activated(int)), this, SLOT(socketException()));
}
}
bool StXDisplay::open() {
hDisplay = XOpenDisplay(NULL); // get first display on server from DISPLAY in env
//hDisplay = XOpenDisplay(":0.0");
//hDisplay = XOpenDisplay("somehost:0.0");
//hDisplay = XOpenDisplay("192.168.1.10:0.0");
if(isOpened()) {
initAtoms();
hInputMethod = XOpenIM(hDisplay, NULL, NULL, NULL);
if(hInputMethod == NULL) {
return true;
}
XIMStyles* anIMStyles = NULL;
char* anIMValues = XGetIMValues(hInputMethod, XNQueryInputStyle, &anIMStyles, NULL);
if(anIMValues != NULL
|| anIMStyles == NULL
|| anIMStyles->count_styles <= 0) {
// input method doesn't support any styles
if(anIMStyles != NULL) {
XFree(anIMStyles);
}
return true;
}
const XIMStyle anIMStyle = anIMStyles->supported_styles[0];
XFree(anIMStyles);
hInputCtx = XCreateIC(hInputMethod, XNInputStyle, anIMStyle, NULL);
return true;
}
return false;
}
Atom KMenuBar::KMenuBarPrivate::makeSelectionAtom()
{
#ifdef Q_WS_X11
if(selection_atom == None)
initAtoms();
return selection_atom;
#else
return 0;
#endif
}
/// Initialized the main CoMD data stucture, SimFlat, based on command
/// line input from the user. Also performs certain sanity checks on
/// the input to screen out certain non-sensical inputs.
///
/// Simple data members such as the time step dt are initialized
/// directly, substructures such as the potential, the link cells, the
/// atoms, etc., are initialized by calling additional initialization
/// functions (initPotential(), initLinkCells(), initAtoms(), etc.).
/// Initialization order is set by the natural dependencies of the
/// substructure such as the atoms need the link cells so the link cells
/// must be initialized before the atoms.
SimFlat* initSimulation(Command cmd)
{
SimFlat* sim = comdMalloc(sizeof(SimFlat));
sim->nSteps = cmd.nSteps;
sim->printRate = cmd.printRate;
sim->dt = cmd.dt;
sim->domain = NULL;
sim->boxes = NULL;
sim->atoms = NULL;
sim->ePotential = 0.0;
sim->eKinetic = 0.0;
sim->atomExchange = NULL;
sim->pot = initPotential(cmd.doeam, cmd.potDir, cmd.potName, cmd.potType);
real_t latticeConstant = cmd.lat;
if (cmd.lat < 0.0)
latticeConstant = sim->pot->lat;
// ensure input parameters make sense.
sanityChecks(cmd, sim->pot->cutoff, latticeConstant, sim->pot->latticeType);
sim->species = initSpecies(sim->pot);
real3 globalExtent;
globalExtent[0] = cmd.nx * latticeConstant;
globalExtent[1] = cmd.ny * latticeConstant;
globalExtent[2] = cmd.nz * latticeConstant;
sim->domain = initDecomposition(
cmd.xproc, cmd.yproc, cmd.zproc, globalExtent);
sim->boxes = initLinkCells(sim->domain, sim->pot->cutoff);
sim->atoms = initAtoms(sim->boxes);
// create lattice with desired temperature and displacement.
createFccLattice(cmd.nx, cmd.ny, cmd.nz, latticeConstant, sim);
setTemperature(sim, cmd.temperature);
randomDisplacements(sim, cmd.initialDelta);
sim->atomExchange = initAtomHaloExchange(sim->domain, sim->boxes);
// Forces must be computed before we call the time stepper.
startTimer(redistributeTimer);
redistributeAtoms(sim);
stopTimer(redistributeTimer);
startTimer(computeForceTimer);
computeForce(sim);
stopTimer(computeForceTimer);
kineticEnergy(sim);
return sim;
}
void
initFunctors(void)
{ LOCK();
if ( !functorDefTable )
{ initAtoms();
allocFunctorTable();
GD->functors.highest = 1;
registerBuiltinFunctors();
registerControlFunctors();
registerArithFunctors();
}
UNLOCK();
}
int
main(int argc, char **argv)
{
FdEventHandlerPtr listener;
int i;
int rc;
int expire = 0, printConfig = 0;
initAtoms();
CONFIG_VARIABLE(daemonise, CONFIG_BOOLEAN, "Run as a daemon");
CONFIG_VARIABLE(pidFile, CONFIG_ATOM, "File with pid of running daemon.");
preinitChunks();
preinitLog();
preinitObject();
preinitIo();
preinitDns();
preinitServer();
preinitHttp();
preinitDiskcache();
preinitLocal();
preinitForbidden();
preinitSocks();
preinitOffline();
i = 1;
while(i < argc) {
if(argv[i][0] != '-')
break;
if(strcmp(argv[i], "--") == 0) {
i++;
break;
} else if(strcmp(argv[i], "-h") == 0) {
usage(argv[0]);
exit(0);
} else if(strcmp(argv[i], "-v") == 0) {
printConfig = 1;
i++;
} else if(strcmp(argv[i], "-x") == 0) {
expire = 1;
i++;
} else if(strcmp(argv[i], "-c") == 0) {
i++;
if(i >= argc) {
usage(argv[0]);
exit(1);
}
if(configFile)
releaseAtom(configFile);
configFile = internAtom(argv[i]);
i++;
} else {
usage(argv[0]);
exit(1);
}
}
if(configFile)
configFile = expandTilde(configFile);
if(configFile == NULL) {
configFile = expandTilde(internAtom("~/.polipo"));
if(configFile)
if(access(configFile->string, F_OK) < 0) {
releaseAtom(configFile);
configFile = NULL;
}
}
if(configFile == NULL) {
if(access("/etc/polipo/config", F_OK) >= 0)
configFile = internAtom("/etc/polipo/config");
if(configFile && access(configFile->string, F_OK) < 0) {
releaseAtom(configFile);
configFile = NULL;
}
}
rc = parseConfigFile(configFile);
if(rc < 0)
exit(1);
while(i < argc) {
rc = parseConfigLine(argv[i], "command line", 0, 0);
if(rc < 0)
exit(1);
i++;
}
initChunks();
initLog();
initObject();
if(!expire && !printConfig)
initEvents();
initIo();
initDns();
initHttp();
initServer();
initDiskcache();
initForbidden();
initSocks();
initOffline();
if(printConfig) {
printConfigVariables(stdout, 0);
exit(0);
}
if(expire) {
expireDiskObjects();
exit(0);
}
if(daemonise)
do_daemonise(logFile == NULL || logFile->length == 0);
if(pidFile)
writePid(pidFile->string);
listener = create_listener(proxyAddress->string,
proxyPort, httpAccept, NULL);
if(!listener) {
if(pidFile) unlink(pidFile->string);
exit(1);
}
eventLoop();
if(pidFile) unlink(pidFile->string);
return 0;
}
SimFlat* initSimulation(Command cmd)
{
SimFlat* sim = comdMalloc(sizeof(SimFlat));
sim->nSteps = cmd.nSteps;
sim->printRate = cmd.printRate;
sim->dt = cmd.dt;
sim->domain = NULL;
sim->boxes = NULL;
sim->atoms = NULL;
sim->ePotential = 0.0;
sim->eKinetic = 0.0;
sim->atomExchange = NULL;
sim->pot = initPotential(cmd.doeam, cmd.potDir, cmd.potName, cmd.potType);
real_t latticeConstant = cmd.lat;
if (cmd.lat < 0.0)
latticeConstant = sim->pot->lat;
// ensure input parameters make sense.
sanityChecks(cmd, sim->pot->cutoff, latticeConstant, sim->pot->latticeType);
sim->species = initSpecies(sim->pot);
real3 globalExtent;
globalExtent[0] = cmd.nx * latticeConstant;
globalExtent[1] = cmd.ny * latticeConstant;
globalExtent[2] = cmd.nz * latticeConstant;
sim->domain = initDecomposition(cmd.xproc, cmd.yproc, cmd.zproc, globalExtent);
sim->boxes = initLinkCells(sim->domain, sim->pot->cutoff);
sim->atoms = initAtoms(sim->boxes);
sim->defInfo = initDeformation(sim, cmd.defGrad);
//printf("Got to here\n");
// create lattice with desired temperature and displacement.
createFccLattice(cmd.nx, cmd.ny, cmd.nz, latticeConstant, sim);
setTemperature(sim,0.0);
randomDisplacements(sim, cmd.initialDelta);
sim->atomExchange = initAtomHaloExchange(sim->domain, sim->boxes);
forwardDeformation(sim);
//eamForce(sim);
// Procedure for energy density passing from the macrosolver to CoMD
//setTemperature(sim,((cmd.energy*latticeVolume*cmd.nx*cmd.ny*cmd.nz-sim->ePotential)/sim->atoms->nGlobal)/(kB_eV * 1.5));
//randomDisplacements(sim, cmd.initialDelta);
// Forces must be computed before we call the time stepper.
startTimer(redistributeTimer);
redistributeAtoms(sim);
stopTimer(redistributeTimer);
startTimer(computeForceTimer);
computeForce(sim);
stopTimer(computeForceTimer);
double cohmmEnergy=cmd.energy*sim->defInfo->globalVolume;
double temperatureFromEnergyDensity=((cohmmEnergy-sim->ePotential)/sim->atoms->nGlobal)/(kB_eV*1.5);
setTemperature(sim,temperatureFromEnergyDensity); //uncomment to set temperature according to hmm energy density
//setTemperature(sim,cmd.temperature); //uncomment to directly input temperature
kineticEnergy(sim);
return sim;
}
int psiphonMain(
int bindAll,
int proxyPortParam,
int localParentProxyPortParam)
{
FdEventHandlerPtr listener;
initAtoms();
CONFIG_VARIABLE(daemonise, CONFIG_BOOLEAN, "Run as a daemon");
CONFIG_VARIABLE(pidFile, CONFIG_ATOM, "File with pid of running daemon.");
preinitChunks();
preinitLog();
preinitObject();
preinitIo();
preinitDns();
preinitServer();
preinitHttp();
preinitDiskcache();
preinitLocal();
preinitForbidden();
preinitSocks();
const int MAX_SIZE = 80;
char proxyAddressParamLine[MAX_SIZE];
char proxyPortParamLine[MAX_SIZE];
char localParentProxyPortParamLine[MAX_SIZE];
snprintf(
proxyAddressParamLine,
MAX_SIZE,
(0 == bindAll) ? "proxyAddress=127.0.0.1" : "proxyAddress=0.0.0.0");
snprintf(
proxyPortParamLine,
MAX_SIZE,
"proxyPort=%d",
proxyPortParam);
snprintf(
localParentProxyPortParamLine,
MAX_SIZE,
"socksParentProxy=127.0.0.1:%d",
localParentProxyPortParam);
if (0 > parseConfigLine(proxyAddressParamLine, "psiphon", 0, 0)
|| 0 > parseConfigLine(proxyPortParamLine, "psiphon", 0, 0)
|| 0 > parseConfigLine(localParentProxyPortParamLine, "psiphon", 0, 0)
|| 0 > parseConfigLine("disableLocalInterface=true", "psiphon", 0, 0)
|| 0 > parseConfigLine("logLevel=1", "psiphon", 0, 0)
/* Allow HTTPS on all ports */
|| 0 > parseConfigLine("tunnelAllowedPorts=1-65535", "psiphon", 0, 0))
{
return -1;
}
initChunks();
initLog();
initObject();
initEvents();
initIo();
initDns();
initHttp();
initServer();
initDiskcache();
initForbidden();
initSocks();
listener = create_listener(
proxyAddress->string,
proxyPort,
httpAccept,
NULL);
if (!listener)
{
return -1;
}
eventLoop();
return 0;
}