void initialize_ocl(cl_vars_t& cv)
{
cv.err = clGetPlatformIDs(1, &(cv.platform), &(cv.platforms));
CHK_ERR(cv.err);
cv.err = clGetDeviceIDs(cv.platform, CL_DEVICE_TYPE_GPU, 1, &(cv.device_id), NULL);
CHK_ERR(cv.err);
cv.context = clCreateContext(0, 1, &(cv.device_id), NULL, NULL, &(cv.err));
CHK_ERR(cv.err);
cv.commands = clCreateCommandQueue(cv.context, cv.device_id,
CL_QUEUE_PROFILING_ENABLE, &(cv.err));
CHK_ERR(cv.err);
#ifdef DEBUG
std::cout << "CL fill vars success" << std::endl;
// Device info
cl_ulong mem_size;
cv.err = clGetDeviceInfo(cv.device_id, CL_DEVICE_GLOBAL_MEM_SIZE,
sizeof(cl_ulong), &mem_size, NULL);
std::cout << "Global mem size: " << mem_size << std::endl;
size_t max_work_item[3];
cv.err = clGetDeviceInfo(cv.device_id, CL_DEVICE_MAX_WORK_ITEM_SIZES,
sizeof(max_work_item), max_work_item, NULL);
std::cout << "Max work item sizes: "
<< max_work_item[0] << ", "
<< max_work_item[1] << ", "
<< max_work_item[2]
<< std::endl;
#endif
}
/* ...buffer allocation from frontal camera (object detection engine) */
static int objdet_input_alloc(void *data, GstBuffer *buffer)
{
app_data_t *app = data;
vsink_meta_t *vmeta = gst_buffer_get_vsink_meta(buffer);
int w = vmeta->width, h = vmeta->height;
objdet_meta_t *ometa;
if (app->f_width)
{
/* ...verify buffer dimensions are valid */
CHK_ERR(w == app->f_width && h == app->f_height, -EINVAL);
}
else
{
int W = window_get_width(app->window);
int H = window_get_height(app->window);
/* ...check dimensions are valid */
CHK_ERR(w && h, -EINVAL);
/* ...set buffer dimensions */
app->f_width = w, app->f_height = h;
/* ...initialize object detection engine */
CHK_ERR(app->od = objdet_engine_init(&objdet_callback, app, w, h, __pixfmt_yuv_bpp(vmeta->format), app->od_cfg), -errno);
/* ...create a viewport for data visualization */
texture_scale_to_window(&app->view, app->window, w, h, &app->matrix);
//texture_set_view_scale(&app->view, 0, 0, W, H, W, H, w, h);
/* ...create transformation matrix */
if (0)
{
cairo_matrix_t *m = &app->matrix;
m->xx = (double) W / w, m->xy = 0, m->x0 = 0;
m->yx = 0, m->yy = (double) H / h, m->y0 = 0;
}
}
/* ...allocate texture to wrap the buffer */
CHK_ERR(vmeta->priv = texture_create(w, h, vmeta->plane, vmeta->format), -errno);
/* ...add custom buffer metadata */
CHK_ERR(ometa = gst_buffer_add_objdet_meta(buffer), -(errno = ENOMEM));
CHK_ERR(ometa->buf = texture_map(vmeta->priv, CL_MEM_READ_ONLY), -errno);
GST_META_FLAG_SET(ometa, GST_META_FLAG_POOLED);
/* ...add custom destructor to the buffer */
gst_mini_object_weak_ref(GST_MINI_OBJECT(buffer), __destroy_od_texture, app);
TRACE(INFO, _b("front-camera input buffer %p allocated (%p)"), buffer, ometa->buf);
return 0;
}
void ArrayOperand::callUp(cl_vars_t clv)
{
Array * v = dynamic_cast<Array*>(variable);
// For each device
for(int devId = 0 ; devId < partition.nd ; devId++)
{
ssize_t device_min = 0;
ssize_t device_max = 0;
if(partition.d == 0)
{
device_min = 0;
device_max = v->getDim();
}
else
{
device_min = partition.d * devId;
device_max = partition.d * (devId+1);
device_max = (device_max > v->getDim()) ? v->getDim() : device_max;
}
ssize_t device_range = device_max - device_min;
ssize_t bytes_range = device_range * v->bytes_per_element;
ssize_t bytes_offset = device_min * v->bytes_per_element;
if(bytes_range > 0)
{
#ifdef VERBOSE_EXECUTION
docs.execution_ss << "TRANSFER: Calling up variable: " << variable->properties["name"];
docs.execution_ss << "\tnbytes: " << bytes_range;
docs.execution_ss << "\tbytes_offset: " << bytes_offset;
docs.execution_ss << "\tdevice id: " << devId << std::endl;
#endif
cl_int err = CL_SUCCESS;
#ifdef PROFILE
transfer_prof_t tp;
tp.devId = devId;
tp.variable = variable;
err = clEnqueueWriteBuffer(clv.commands[devId], v->gpu_data[devId], CL_FALSE,
bytes_offset, bytes_range, v->cpu_data + bytes_offset, 0, NULL, &(tp.event));
transfer_events.push_back(tp);
#else
err = clEnqueueWriteBuffer(clv.commands[devId], v->gpu_data[devId], CL_FALSE,
bytes_offset, bytes_range, v->cpu_data + bytes_offset, 0, NULL, NULL);
#endif
CHK_ERR(err);
}
}
}
void* DLLEXPORT PowerMeter_RecallState_ByName( int hInstrumentHandle , char *pszName )
{
STD_ERROR StdError = {0};
int iStateNumber = 0;
if ( pszName )
iStateNumber = atoi( pszName );
CHK_ERR( age441x_loadFromRegister( hInstrumentHandle , iStateNumber ));
Error:
RETURN_STDERR_POINTER;
}
void* DLLEXPORT PowerMeter_FetchPower( int hInstrumentHandle , int iChannel , double timeout , double *value )
{
STD_ERROR StdError = {0};
double lfPower = 0;
CHK_ERR( age441x_fetch ( hInstrumentHandle , 1 , AGE441X_MEAS_SINGLE , &lfPower ));
if ( value )
*value = lfPower;
Error:
RETURN_STDERR_POINTER;
}
void* DLLEXPORT SpectrumAnalyzer_PhaseNoise_GetMarker ( ViSession viInstrumentHandle , int channel , int marker , double *pPosition , double *pValue )
{
STD_ERROR StdError = {0};
double lfFrequency = 0.0,
lfPower = 0.0;
CHK_ERR( hp8563e_confMkr( viInstrumentHandle , VI_ON , VI_OFF ));
CHK_ERR( hp8563e_perfmSwp ( viInstrumentHandle ));
CHK_ERR( hp8563e_queryAmpl( viInstrumentHandle , 0 , &lfPower ));
CHK_ERR( hp8563e_queryFreq( viInstrumentHandle , 1 , &lfFrequency ));
if ( pPosition )
*pPosition = lfFrequency;
if ( pValue )
*pValue = lfPower;
Error:
RETURN_STDERR_POINTER;
}
int setGlobalOffsets()
{
//only set the global offsets once.
if (setGlobalOffsets_) return(0);
if (matrixGraph_.get() == NULL) return(-1);
MPI_Comm comm = matrixGraph_->getRowSpace()->getCommunicator();
int num_procs = fei::numProcs(comm);
int local_proc = fei::localProc(comm);
std::vector<int> globalOffsets;
std::vector<int> globalBlkOffsets;
if (reducer_.get() != NULL) {
int localsize = reducer_->getLocalReducedEqns().size();
numLocalEqns_ = localsize;
std::vector<int> lsizes(num_procs, 0);
std::vector<int> gsizes(num_procs, 0);
lsizes[local_proc] = localsize;
fei::GlobalMax(comm, lsizes, gsizes);
globalOffsets.resize(num_procs+1);
int offset = 0;
for(int p=0; p<num_procs; ++p) {
globalOffsets[p] = offset;
offset += gsizes[p];
}
globalOffsets[num_procs] = offset;
globalBlkOffsets = globalOffsets;
}
else {
fei::SharedPtr<fei::VectorSpace> vecSpace =
matrixGraph_->getRowSpace();
vecSpace->getGlobalIndexOffsets(globalOffsets);
vecSpace->getGlobalBlkIndexOffsets(globalBlkOffsets);
numLocalEqns_ = globalOffsets[local_proc+1]-globalOffsets[local_proc];
}
CHK_ERR(linsyscore_->setGlobalOffsets(num_procs+1,
&globalBlkOffsets[0],
&globalOffsets[0],
&globalBlkOffsets[0]));
setGlobalOffsets_ = true;
return(0);
}
void* DLLEXPORT SpectrumAnalyzer_GetErrorTextMessage ( ViSession vhInstrumentHandle , int iError , char *pErrorMessage )
{
STD_ERROR StdError = {0};
FREE_CALLOC( StdError.pszErrorDescription , STD_STRING , sizeof(char*));
if ( StdError.pszErrorDescription )
{
CHK_ERR( hp8563e_errorMessage ( vhInstrumentHandle , iError ,(char*)StdError.pszErrorDescription ));
}
Error:
RETURN_STDERR_POINTER;
}
//----------------------------------------------------------------------------
int snl_fei::LinearSystem_General::setBCValuesOnVector(fei::Vector* vector)
{
if (essBCvalues_ == NULL) {
return(0);
}
if (essBCvalues_->size() == 0) {
return(0);
}
CHK_ERR( vector->copyIn(essBCvalues_->size(),
&(essBCvalues_->indices())[0],
&(essBCvalues_->coefs())[0]) );
return(0);
}
ckError ckOpLimitRule_CreateSliding(ckOpLimitRule** ruleOut, int allowed, ckTime window, ckBool wait)
{
ckError err = cke_General;
CHK_ERR( allocRule(ruleOut) );
(*ruleOut)->allowedCount = allowed;
(*ruleOut)->waitForSuccess = wait;
(*ruleOut)->type = olrt_SlidingWindow;
(*ruleOut)->data.sliding.window = window;
err = cke_Success;
error:
return err;
}
void Array::allocate(cl_vars_t clv)
{
size_t dim0 = MYMAX(get_property_int("dim0"), 1);
size_t dim1 = MYMAX(get_property_int("dim1"), 1);
bytes_per_element = get_num_bytes(properties["dtype"]);
nbytes = dim0 * dim1 * bytes_per_element;
#ifdef VERBOSE_COMPILATION
docs.compilation_ss << "Allocating: " << nbytes << "\tFor array: " << properties["name"] << std::endl;
#endif
cpu_data = (char *) calloc(nbytes, sizeof(char));
for(int i = 0 ; i < clv.num_devices ; i++)
{
cl_int err;
gpu_data[i] = clCreateBuffer(clv.context, CL_MEM_READ_WRITE, nbytes, NULL, &err);
CHK_ERR(err);
}
}
int fei::Vector_core::writeToFile(const char* filename,
bool matrixMarketFormat)
{
int numProcs = fei::numProcs(comm_);
int localProc =fei::localProc(comm_);
double coef;
static char mmbanner[] = "%%MatrixMarket matrix array real general";
for(int p=0; p<numProcs; ++p) {
fei::Barrier(comm_);
if (p != localProc) continue;
FEI_OFSTREAM* outFile = NULL;
if (p==0) {
outFile = new FEI_OFSTREAM(filename, IOS_OUT);
FEI_OFSTREAM& ofref = *outFile;
if (matrixMarketFormat) {
ofref << mmbanner << FEI_ENDL;
ofref << eqnComm_->getGlobalOffsets()[numProcs] << " 1" << FEI_ENDL;
}
else {
ofref << eqnComm_->getGlobalOffsets()[numProcs] << FEI_ENDL;
}
}
else outFile = new FEI_OFSTREAM(filename, IOS_APP);
FEI_OFSTREAM& ofref = *outFile;
ofref.setf(IOS_SCIENTIFIC, IOS_FLOATFIELD);
ofref.precision(13);
for(int i=firstLocalOffset_; i<=lastLocalOffset_; ++i) {
CHK_ERR( copyOut(1, &i, &coef) );
if (matrixMarketFormat) {
ofref << " " << coef << FEI_ENDL;
}
else {
ofref << i << " " << coef << FEI_ENDL;
}
}
delete outFile;
}
return(0);
}
//==============================================================================
int load_BC_data(FEI* fei, PoissonData& poissonData)
{
//first, have the data object generate the BC data
poissonData.calculateBCs();
int numBCNodes = poissonData.getNumBCNodes();
GlobalID* nodeIDs = poissonData.getBCNodeIDs();
int fieldID = poissonData.getBCFieldID();
double* values = poissonData.getBCValues();
std::vector<int> offsets(numBCNodes, 0);
CHK_ERR( fei->loadNodeBCs(numBCNodes, nodeIDs, fieldID,
&offsets[0], values) );
return(0);
}
int
DirichletBCManager::finalizeBCEqns(EqnBuffer& bcEqns)
{
//copy the boundary-condition prescribed values into bcEqns.
bc_map::iterator iter = bcs_.begin(), iter_end = bcs_.end();
for(; iter!=iter_end; ++iter) {
int eqn = iter->first;
double coef = iter->second;
CHK_ERR( bcEqns.addEqn(eqn, &coef, &eqn, 1, false) );
}
bcs_.clear();
return(0);
}
ckError ckOpLimitRule_CreateBucket(ckOpLimitRule** ruleOut, int allowed, ckTime length, ckTime epoch, ckBool wait)
{
ckError err = cke_General;
CHK_ERR( allocRule(ruleOut) );
(*ruleOut)->allowedCount = allowed;
(*ruleOut)->waitForSuccess = wait;
(*ruleOut)->type = olrt_Buckets;
(*ruleOut)->data.bucket.length = length;
(*ruleOut)->data.bucket.epoch = epoch;
err = cke_Success;
error:
return err;
}
void* DLLEXPORT PowerMeter_FetchPower( int hInstrumentHandle , int iChannel , double timeout , double *value )
{
errEV ret = {0};
errEV *pRet = NULL;
double lfPower = 0;
CHK_ERR( age441x_fetch ( hInstrumentHandle , 2 , AGE441X_MEAS_SINGLE , &lfPower ));
if ( value )
*value = lfPower;
Error:
CALLOC_COPY(pRet,1,sizeof(errEV),&ret,sizeof(errEV));
return ((void*)pRet);
}
//------------------------------------------------------------------------------
int NodeCommMgr::getSendMessage(int destProc, std::vector<int>& message)
{
std::vector<int>::iterator
rs_iter = std::lower_bound(remoteSharingProcs_.begin(),
remoteSharingProcs_.end(), destProc);
if (rs_iter == remoteSharingProcs_.end() || destProc != *rs_iter) {
ERReturn(-1);
}
int idx = rs_iter - remoteSharingProcs_.begin();
int len = 0;
CHK_ERR( getSendMessageLength(destProc, len) );
message.resize(len);
packLocalNodesAndData(&message[0], destProc,
nodesPerSharingProc_[idx], len);
return(0);
}
int test_Algebraic::runtests()
{
if (numProcs_ < 2) {
CHK_ERR( serialtest1() );
CHK_ERR( serialtest2() );
}
CHK_ERR( test1() );
CHK_ERR( test2() );
CHK_ERR( test3() );
CHK_ERR( test4() );
return(0);
}
void runKernel(cl_vars_t cv,
cl_kernel cl_kern,
kernel kern,
std::map<std::string, cl_mem_data> gpu_data,
double* vars)
{
int num_arrays = kern.num_arrays;
string* arrays = kern.arrays;
int num_vars = kern.num_vars;
cl_int err = CL_SUCCESS;
//set up the out array
err = clSetKernelArg(cl_kern, 0, sizeof(cl_mem), &(gpu_data["out"].array));
CHK_ERR(err);
err = clSetKernelArg(cl_kern, 0 + num_arrays, sizeof(int), &(gpu_data["out"].len));
CHK_ERR(err);
for (int i = 1; i < num_arrays; i++)
{
std::string array_name = arrays[i];
err = clSetKernelArg(cl_kern, i, sizeof(cl_mem), &(gpu_data[array_name].array));
CHK_ERR(err);
err = clSetKernelArg(cl_kern, i + num_arrays, sizeof(int), &(gpu_data[array_name].len));
CHK_ERR(err);
}
for (int i = 0; i < num_vars; i++)
{
err = clSetKernelArg(cl_kern, i + 2*num_arrays, sizeof(double), &(vars[i]));
CHK_ERR(err);
}
size_t global_work_size[1] = {gpu_data[arrays[0]].len};
size_t local_work_size[1] = {256};
adjustWorkSize(global_work_size[0], local_work_size[0]);//pad work groups
global_work_size[0] = std::max(local_work_size[0], global_work_size[0]);
err = clEnqueueNDRangeKernel(cv.commands,
cl_kern,
1,
NULL,
global_work_size,
local_work_size,
0,
NULL,
NULL
);
CHK_ERR(err);
}
int test_MatrixGraph::runtests()
{
if (numProcs_ < 2) {
CHK_ERR( serialtest1() );
}
CHK_ERR( test1() );
CHK_ERR( test2() );
CHK_ERR( test3() );
CHK_ERR( test4() );
CHK_ERR( test5() );
CHK_ERR( test_MatrixGraph_test6(comm_, numProcs_, localProc_, path_) );
test_MatrixGraph_test7(comm_, numProcs_, localProc_);
test_MatrixGraph_test8(comm_, numProcs_, localProc_);
return(0);
}
int
DirichletBCManager::finalizeBCEqns(fei::Matrix& matrix,
bool throw_if_bc_slave_conflict)
{
fei::SharedPtr<fei::Reducer> reducer = matrix.getMatrixGraph()->getReducer();
bool haveSlaves = reducer.get()!=NULL;
//copy the boundary-condition prescribed values into the matrix, in
//an equation-number obtained by using the matrix' VectorSpace to map
//from the BC's idtype,id,fieldID,component to an equation-number. The
//bc values will go on the diagonal of the matrix, i.e., column-index
//will be the same equation-number.
bc_map::iterator iter = bcs_.begin(), iter_end = bcs_.end();
for(; iter!=iter_end; ++iter) {
int eqn = iter->first;
if (haveSlaves) {
if (reducer->isSlaveEqn(eqn)) {
if (throw_if_bc_slave_conflict) {
FEI_OSTRINGSTREAM osstr;
osstr << "fei BCManager::finalizeBCeqns ERROR, eqn="<<eqn
<< " is both a BC eqn and slave-constraint eqn.";
throw std::runtime_error(osstr.str());
}
continue;
}
}
double* ptr = &iter->second;
CHK_ERR( matrix.copyIn(1, &eqn, 1, &eqn, &ptr) );
}
bcs_.clear();
return(0);
}
//----------------------------------------------------------------------------
int snl_fei::LinearSystem_General::getMatrixRow(fei::Matrix* matrix, int row,
std::vector<double>& coefs,
std::vector<int>& indices)
{
int len = 0;
int err = matrix->getRowLength(row, len);
if (err != 0) {
coefs.resize(0);
indices.resize(0);
return(err);
}
if ((int)coefs.size() != len) {
coefs.resize(len);
}
if ((int)indices.size() != len) {
indices.resize(len);
}
CHK_ERR( matrix->copyOutRow(row, len, &coefs[0], &indices[0]));
return(0);
}
/* ...set frontal camera interface */
int objdet_camera_init(app_data_t *app, camera_init_func_t camera_init)
{
GstElement *bin;
/* ...clear input stream dimensions (force engine reinitialization) */
app->f_width = app->f_height = 0;
/* ...create camera interface (it may be network camera or file on disk) */
CHK_ERR(bin = camera_init(&objdet_camera_cb, app), -errno);
/* ...add camera to a pipe */
gst_bin_add(GST_BIN(app->pipe), bin);
/* ...synchronize state with a parent */
gst_element_sync_state_with_parent(bin);
/* ...save camera-set container */
app->fr_camera = bin;
TRACE(INIT, _b("frontal camera initialized"));
return 0;
}
int fei::Vector_core::copyOut(int numValues,
const int* indices,
double* values,
int vectorIndex) const
{
const std::vector<CSVec*>& remote = remotelyOwned();
for(int i=0; i<numValues; ++i) {
int ind = indices[i];
int local = ind - firstLocalOffset_;
if (local < 0 || local >= numLocal_) {
if (ind < 0) {
continue;
}
int proc = eqnComm_->getOwnerProc(ind);
int insertPoint = -1;
int idx = fei::binarySearch(ind, remote[proc]->indices(), insertPoint);
if (idx < 0) {
FEI_CERR << "fei::Vector_core::copyOut: proc " << fei::localProc(comm_)
<< ", index " << ind << " not in remotelyOwned_ vec object for proc "
<<proc<<FEI_ENDL;
ERReturn(-1);
}
else {
values[i] = remote[proc]->coefs()[idx];
}
}
else {
CHK_ERR( copyOutOfUnderlyingVector(1, &ind, &(values[i]), vectorIndex) );
}
}
return(0);
}
void compile_ocl_program(std::map<std::string, cl_kernel> &kernels,
cl_vars_t &cv, const char * cl_src,
std::list<std::string> knames)
{
cl_int err;
cv.main_program = clCreateProgramWithSource(cv.context, 1, (const char **) &cl_src,
NULL, &err);
CHK_ERR(err);
err = clBuildProgram(cv.main_program, 0, NULL, NULL, NULL, NULL);
if (err != CL_SUCCESS)
{
size_t len;
char buffer[2048];
std::cout << "Error: Failed to build program executable " << std::endl;
clGetProgramBuildInfo(cv.main_program, cv.device_id, CL_PROGRAM_BUILD_LOG, sizeof(buffer), buffer, &len);
std::cout << buffer << std::endl;
exit(1);
}
for(std::list<std::string>::iterator it = knames.begin(); it != knames.end(); it++)
{
cl_kernel kernel = clCreateKernel(cv.main_program, (*it).c_str(), &(err));
if(!kernel || err != CL_SUCCESS)
{
std::cout << "Failed to create kernel: " << (*it).c_str() << std::endl;
exit(1);
}
#ifdef DEBUG
std::cout << "Successfully compiled " << (*it).c_str() << std::endl;
#endif
cv.kernels.push_back(kernel);
kernels[*it] = kernel;
}
}
void* DLLEXPORT PowerMeter_SetActiveChannel( int hInstrumentHandle , int iChannel )
{
STD_ERROR StdError = {0};
switch(iChannel)
{
case 1:
iChannel = AGE441X_CHANNEL_A;
break;
case 2:
iChannel = AGE441X_CHANNEL_B;
break;
default:
iChannel = AGE441X_CHANNEL_A;
break;
}
CHK_ERR( age441x_configureInput ( hInstrumentHandle , iChannel, 50.0E+6, AGE441X_MEAS_DOUBLE ));
Error:
RETURN_STDERR_POINTER;
}
void* DLLEXPORT PowerMeter_MeasurePower( int hInstrumentHandle , int iChannel , double timeout , double *value )
{
errEV ret = {0};
errEV *pRet = NULL;
double lfPower = 0;
ViBoolean bLimit = 0;
switch(iChannel)
{
case 1:
iChannel = AGE441X_CHANNEL_A;
break;
case 2:
iChannel = AGE441X_CHANNEL_B;
break;
default:
iChannel = AGE441X_CHANNEL_A;
break;
}
CHK_ERR( age441x_powerMeasurement ( hInstrumentHandle , iChannel , AGE441X_UNIT_DBM , -90.0, 90.0 , &bLimit , &lfPower ));
if ( value )
*value = lfPower;
//CHK_ERR( age441x_setInitiateContinuousState ( hInstrumentHandle , iChannel , VI_TRUE ));
Error:
CALLOC_COPY(pRet,1,sizeof(errEV),&ret,sizeof(errEV));
return ((void*)pRet);
}
void* DLLEXPORT PowerMeter_SetFrequency( int hInstrumentHandle , int iChannel , double dFreq )
{
STD_ERROR StdError = {0};
switch(iChannel)
{
case 1:
iChannel = AGE441X_CHANNEL_A;
break;
case 2:
iChannel = AGE441X_CHANNEL_B;
break;
default:
iChannel = AGE441X_CHANNEL_A;
break;
}
CHK_ERR( age441x_configureFrequency ( hInstrumentHandle , iChannel , dFreq ));
Error:
RETURN_STDERR_POINTER;
}
void* DLLEXPORT PowerMeter_InitSweep( int hInstrumentHandle , int iChannel )
{
STD_ERROR StdError = {0};
switch(iChannel)
{
case 1:
iChannel = AGE441X_CHANNEL_A;
break;
case 2:
iChannel = AGE441X_CHANNEL_B;
break;
default:
iChannel = AGE441X_CHANNEL_A;
break;
}
CHK_ERR( age441x_initiate ( hInstrumentHandle , iChannel ));
Error:
RETURN_STDERR_POINTER;
}
void* DLLEXPORT PowerMeter_SetSingleSweep( int hInstrumentHandle , int iChannel )
{
STD_ERROR StdError = {0};
switch(iChannel)
{
case 1:
iChannel = AGE441X_CHANNEL_A;
break;
case 2:
iChannel = AGE441X_CHANNEL_B;
break;
default:
iChannel = AGE441X_CHANNEL_A;
break;
}
CHK_ERR( age441x_setInitiateContinuousState ( hInstrumentHandle , iChannel , VI_FALSE ));
Error:
RETURN_STDERR_POINTER;
}
