void parser_t::netdev_hint()
{
pstring dev(get_identifier());
require_token(m_tok_comma);
pstring hint(get_identifier());
m_setup.register_param(dev + ".HINT_" + hint, 1);
require_token(m_tok_param_right);
}
void dynamicLagrangian<BasicTurbulenceModel>::correctNut
(
const tmp<volTensorField>& gradU
)
{
this->nut_ = (flm_/fmm_)*sqr(this->delta())*mag(dev(symm(gradU)));
this->nut_.correctBoundaryConditions();
}
tmp<fvVectorMatrix> realizableKE_Veh::divDevReff(volVectorField& U) const
{
return
(
- fvm::laplacian(nuEff(), U)
- fvc::div(nuEff()*dev(T(fvc::grad(U))))
);
}
void close(BOOST_IOS::openmode which)
{
if (which == BOOST_IOS::in && (flags_ & f_input_closed) == 0) {
flags_ |= f_input_closed;
iostreams::close(dev(), BOOST_IOS::in);
}
if (which == BOOST_IOS::out && (flags_ & f_output_closed) == 0) {
flags_ |= f_output_closed;
detail::execute_all(
detail::flush_buffer(buf_.second(), dev(), can_write::value),
detail::call_close(dev(), BOOST_IOS::out),
detail::call_reset(dev_),
detail::call_reset(buf_.first()),
detail::call_reset(buf_.second())
);
}
}
tmp<fvVectorMatrix> SpalartAllmaras::divDevReff(volVectorField& U) const
{
return
(
- fvm::laplacian(nuEff(), U)
- fvc::div(nuEff()*dev(T(fvc::grad(U))))
);
}
void AudioDevice::printAll(){
for(int i=0; i<numDevices(); i++){
printf("[%2d] ", i);
AudioDevice dev(i);
dev.print();
//print(i);
}
}
tmp<fvVectorMatrix> kOmega::divDevReff(volVectorField& U) const
{
return
(
- fvm::laplacian(nuEff(), U)
- fvc::div(nuEff()*dev(fvc::grad(U)().T()))
);
}
tmp<fvVectorMatrix> LienCubicKE::divDevReff(volVectorField& U) const
{
return
(
fvc::div(nonlinearStress_)
- fvm::laplacian(nuEff(), U)
- fvc::div(nuEff()*dev(T(fvc::grad(U))))
);
}
static inline void prep(adc_t line)
{
if (dev(line) == ADC0) {
bit_set32(&SIM->SCGC6, SIM_SCGC6_ADC0_SHIFT);
}
#ifdef ADC1
else if (dev(line) == ADC1) {
#if defined(SIM_SCGC3_ADC1_SHIFT)
bit_set32(&SIM->SCGC3, SIM_SCGC3_ADC1_SHIFT);
#elif defined(SIM_SCGC6_ADC1_SHIFT)
bit_set32(&SIM->SCGC6, SIM_SCGC6_ADC1_SHIFT);
#else
#error ADC1 clock gate is not known!
#endif
}
#endif /* ADC1 */
mutex_lock(&locks[dev_num(line)]);
}
int main(int argc, char **argv) {
Palette palette;
palette.Shade16();
Device dev(WinX, WinY, &palette);
MainApp app(dev);
return dev.MainLoop();
}
IPHeader::PrintOptType::PrintOptType(const char *ptr,const char *lim)
{
StrParse dev(ptr,lim);
ParseInbound(dev,inbound);
ParseExtra(dev,extra);
if( !dev.finish() ) setDefault();
}
ofPolyline returnNormalizedLine (ofPolyline & input){
ofPolyline output = input;
vector< float > x;
vector< float > y;
for (int i = 0; i < output.getVertices().size(); i++){
x.push_back(output[i].x);
y.push_back(output[i].y);
}
float sumx, meanx, varx, devx, skewx, kurtx;
float sumy, meany, vary, devy, skewy, kurty;
computeStats(x.begin( ), x.end( ), sumx, meanx, varx, devx, skewx, kurtx);
computeStats(y.begin( ), y.end( ), sumy, meany, vary, devy, skewy, kurty);
float stdDev = sqrt(devx*devx + devy*devy);
ofPoint midPt (meanx, meany);
ofPoint dev (stdDev, stdDev);
ofMatrix4x4 mat;
mat.makeTranslationMatrix(-midPt.x, -midPt.y, 0);
ofMatrix4x4 mat2;
mat2.makeScaleMatrix(100.0/dev.x, 100.0/dev.y, 1.0);
// mat.scale(100,100,1.0);
//mat *= mat2;
for (int i = 0; i < output.getVertices().size(); i++){
ofPoint input = output[i];
output[i] -= midPt;
output[i] /= dev;
output[i]*= 100.0;
// cout << output[i] << endl;
// cout << "--> " << input << endl;
// cout << input * mat * mat2 << endl;
// cout << "--> " << (input * mat * mat2) * mat2.getInverse() * mat.getInverse() << endl;
}
// ofRectangle boxOrig = input.getBoundingBox();
// ofRectangle box = boxOrig;
// ofRectangle outputBox(-100,-100,200,200);
// box.scaleTo(outputBox);
//
// for (int i = 0; i < output.getVertices().size(); i++){
// output.getVertices()[i].x = ofMap( output.getVertices()[i].x, boxOrig.position.x, boxOrig.position.x + boxOrig.width,
// box.position.x, box.x + box.width);
// output.getVertices()[i].y = ofMap( output.getVertices()[i].y, boxOrig.position.y, boxOrig.position.y + boxOrig.height,
// box.position.x, box.y + box.height);
//
// }
return output;
}
istream* Hdfs::open(std::string path)
{
if (exists(path) == false)
{
throw ios_base::failure("File not found.");
}
HdfsDevice dev(_host, _port, path);
return new boost::iostreams::stream<HdfsDevice>(dev);
}
tmp<volScalarField> realizableKE::rCmu
(
const volTensorField& gradU
)
{
volScalarField S2 = 2*magSqr(dev(symm(gradU)));
volScalarField magS = sqrt(S2);
return rCmu(gradU, S2, magS);
}
dimensionedTensor dev(const dimensionedTensor& dt)
{
return dimensionedTensor
(
"dev("+dt.name()+')',
dt.dimensions(),
dev(dt.value())
);
}
/* static */
int getDriveInfoFromSysfs(DriveInfoList *pList, bool isDVD, bool *pfSuccess)
{
AssertPtrReturn(pList, VERR_INVALID_POINTER);
AssertPtrNullReturn(pfSuccess, VERR_INVALID_POINTER); /* Valid or Null */
LogFlowFunc (("pList=%p, isDVD=%u, pfSuccess=%p\n",
pList, (unsigned) isDVD, pfSuccess));
RTDIR hDir;
int rc;
bool fSuccess = false;
unsigned cFound = 0;
if (!RTPathExists("/sys"))
return VINF_SUCCESS;
rc = RTDirOpen(&hDir, "/sys/block");
/* This might mean that sysfs semantics have changed */
AssertReturn(rc != VERR_FILE_NOT_FOUND, VINF_SUCCESS);
fSuccess = true;
if (RT_SUCCESS(rc))
{
for (;;)
{
RTDIRENTRY entry;
rc = RTDirRead(hDir, &entry, NULL);
Assert(rc != VERR_BUFFER_OVERFLOW); /* Should never happen... */
if (RT_FAILURE(rc)) /* Including overflow and no more files */
break;
if (entry.szName[0] == '.')
continue;
sysfsBlockDev dev(entry.szName, isDVD);
/* This might mean that sysfs semantics have changed */
AssertBreakStmt(dev.isConsistent(), fSuccess = false);
if (!dev.isValid())
continue;
try
{
pList->push_back(DriveInfo(dev.getNode(), dev.getUdi(), dev.getDesc()));
}
catch(std::bad_alloc &e)
{
rc = VERR_NO_MEMORY;
break;
}
++cFound;
}
RTDirClose(hDir);
}
if (rc == VERR_NO_MORE_FILES)
rc = VINF_SUCCESS;
if (RT_FAILURE(rc))
/* Clean up again */
for (unsigned i = 0; i < cFound; ++i)
pList->pop_back();
if (pfSuccess)
*pfSuccess = fSuccess;
LogFlow (("rc=%Rrc, fSuccess=%u\n", rc, (unsigned) fSuccess));
return rc;
}
//This function determines the Mises equivalent of a strain tensor, according to the Voigt convention for strains
double Mises_strain(const vec &v) {
assert(v.size()==6);
vec vdev = dev(v);
vec vdev2 = vdev;
for (int i=3; i<6; i++)
vdev2(i) = 0.5*vdev2(i);
return sqrt(2./3.*sum(vdev%vdev2));
}
//This function determines the Mises equivalent of a stress tensor, according to the Voigt convention for stress
double Mises_stress(const vec &v) {
assert(v.size()==6);
vec vdev = dev(v);
vec vdev2 = vdev;
for (int i=3; i<6; i++)
vdev2(i) = 2.*vdev2(i);
return sqrt(3./2.*sum(vdev%vdev2));
}
//Returns the second invariant of the deviatoric part of a second order strain tensor written as a Voigt vector
double J2_strain(const vec &v) {
assert(v.size()==6);
vec vdev = dev(v);
vec vdev2 = vdev;
for (int i=3; i<6; i++)
vdev2(i) = 0.5*vdev2(i);
return 0.5*sum(vdev%vdev2);
}
int i2c_acquire(i2c_t bus)
{
assert(bus < I2C_NUMOF);
mutex_lock(&locks[bus]);
dev(bus)->ENABLE = TWIM_ENABLE_ENABLE_Enabled;
DEBUG("[i2c] acquired bus %i\n", (int)bus);
return 0;
}
int timer_clear(tim_t tim, int channel)
{
if (channel != 0) {
return -1;
}
dev(tim)->IMR &= ~(GPT_IMR_TAMIM);
return 0;
}
int i2c_release(i2c_t bus)
{
assert(bus < I2C_NUMOF);
dev(bus)->ENABLE = TWIM_ENABLE_ENABLE_Disabled;
mutex_unlock(&locks[bus]);
DEBUG("[i2c] released bus %i\n", (int)bus);
return 0;
}
int timer_clear(tim_t tim, int channel)
{
if (channel >= TIMER_CHANNELS) {
return -1;
}
dev(tim)->TC_CHANNEL[0].TC_IDR = (TC_IDR_CPAS << channel);
return 1;
}
PrintTaskPriority::PrintOptType::PrintOptType(const char *ptr,const char *lim)
{
StrParse dev(ptr,lim);
ParseUInt_empty(dev,width,0);
Parse_empty(dev,align);
if( !dev.finish() ) setDefault();
}
IntegerPrintOpt::IntegerPrintOpt(const char *ptr,const char *lim)
{
StrParse dev(ptr,lim);
Parse_empty(dev,show_sign);
ParseUInt_empty(dev,width,0);
if( !dev.finish() ) setDefault();
}
tmp<volSymmTensorField> NonLinEddyViscABL::devBeff() const
{
return -nuEff()*dev(twoSymm(fvc::grad(U())));
tmp<volSymmTensorField> tdevBeff
(
GenEddyViscModel::devBeff()
);
tdevBeff() += nonlinearStress_;
return tdevBeff;
}
int main(void)
{
int a,b;
printf("enter the number(3,5):\n");
scanf("%d,%d",&a,&b);
printf("add=%d\n",add(a,b));
printf("sub=%d\n",sub(a,b));
printf("mul=%d\n",mul(a,b));
printf("dev=%d\n",dev(a,b));
return 0;
}
IOStream& operator<<(IOStream& outs, OWI& owi)
{
OWI::Driver dev(&owi);
int8_t last = OWI::Driver::FIRST;
do {
last = dev.search_rom(last);
if (last == OWI::Driver::ERROR) return (outs);
outs << dev << endl;
} while (last != OWI::Driver::LAST);
return (outs);
}
/**
* Retrieve the device used by the pipeline.
* The device class provides the application access to control camera additional settings -
* get device information, sensor options information, options value query and set, sensor specific extensions.
* Since the pipeline controls the device streams configuration, activation state and frames reading, calling
* the device API functions, which execute those operations, results in unexpected behavior.
* The pipeline streaming device is selected during pipeline \c start(). Devices of profiles, which are not returned by
* pipeline \c start() or \c get_active_profile(), are not guaranteed to be used by the pipeline.
*
* \return rs2::device The pipeline selected device
*/
device get_device() const
{
rs2_error* e = nullptr;
std::shared_ptr<rs2_device> dev(
rs2_pipeline_profile_get_device(_pipeline_profile.get(), &e),
rs2_delete_device);
error::handle(e);
return device(dev);
}
int timer_set_absolute(tim_t tim, int channel, unsigned int value)
{
DEBUG("%s(%u, %u, %u)\n", __FUNCTION__, tim, channel, value);
if ((tim >= TIMER_NUMOF) || (channel >= (int)timer_config[tim].chn) ) {
return -1;
}
/* clear any pending match interrupts */
dev(tim)->ICR = chn_isr_cfg[channel].flag;
if (channel == 0) {
dev(tim)->TAMATCHR = (timer_config[tim].cfg == GPTMCFG_32_BIT_TIMER) ?
value : (LOAD_VALUE - value);
}
else {
dev(tim)->TBMATCHR = (LOAD_VALUE - value);
}
dev(tim)->IMR |= chn_isr_cfg[channel].flag;
return 1;
}
