static void merge_sort_vector(vector<T> *vect) {
if (vect->size() <= 1) {
return;
}
typename std::vector<T>::size_type mid = vect->size() / 2;
typename std::vector<T> left(vect->begin(), vect->begin() + mid);
typename std::vector<T> right(vect->begin() + mid, vect->end());
merge_sort_vector(&left);
merge_sort_vector(&right);
merge(
left.begin(), left.end(), right.begin(), right.end(), vect->begin());
}
property_t(const std::vector<std::vector<T> >& mtx) {
vector matrix;
for(typename std::vector<std::vector<T> >::const_iterator i = mtx.begin(); i != mtx.end(); ++i) {
vector row;
for(typename std::vector<T>::const_iterator j = i->begin(); j != i->end(); ++j)
row.push_back(*j);
matrix.push_back(row);
}
property_base::operator= <vector>(matrix);
}
void shiftGrid( std::vector<std::vector<Point2> >& grid, const Point2& shift )
{
for( typename std::vector<std::vector<Point2> >::iterator itv = grid.begin(), itvEnd = grid.end();
itv != itvEnd;
++itv )
{
for( typename std::vector<Point2>::iterator it = itv->begin(), itEnd = itv->end();
it != itEnd;
++it )
{
*it += shift;
}
}
}
void fillImageWithDecompostion(const std::vector<Curve> & contours,
png::image<png::rgb_pixel> & output)
{
// Color map for the DLL
const png::rgb_pixel pixelColors[4] = {
// redPixel
png::rgb_pixel(255,0,0),
// greenPixel
png::rgb_pixel(0,255,0),
// bluePixel
png::rgb_pixel(0,0,255),
// yellowPixel
png::rgb_pixel(255,255,0)
};
typedef typename DLL::Segment<DLL_Type> DLLSegment;
Utils::GreedyDecomposition<DLLSegment> decompositor;
unsigned int nbDLL = 0;
for (typename std::vector<Curve>::const_iterator contourItor = contours.begin();
contourItor != contours.end(); ++contourItor) {
// decompose the current contour
typename std::vector<DLLSegment> dlls = decompositor.decomposeCurve(*contourItor);
// color each DLL segment into the output image
// and display the points coordinates of the DLL segment on the console
unsigned int colorIndex = 3;
for (typename std::vector<DLLSegment>::const_iterator dllItor = dlls.begin();
dllItor != dlls.end(); ++dllItor) {
const Curve & curve = dllItor->getCurve();
if (verbose)
std::cout << "DLL " << ++nbDLL << ":\t" << *dllItor
<< "\n\tPoints: ";
for(typename Curve::const_iterator coordItor = curve.begin();
coordItor != curve.end();
++coordItor) {
output.set_pixel(coordItor->first, coordItor->second,
pixelColors[colorIndex]);
if (verbose)
std::cout << "(" << coordItor->first << ","
<< coordItor->second << ") ";
}
if (verbose)
std::cout << std::endl;
colorIndex = (colorIndex + 1) % 3;
}
}
}
void
Datasegments<Scalar>::
buildList ( M3& KMat, Scalar* centers, int nSegments, typename std::vector< PatchCenter<Scalar> >& projPatchCenters)
{
projPatchCenters.clear();
projPatchCenters.resize( nSegments );
// first project current solutions:
for (int i=0;i<nSegments;i++)
{
P3 p0 = KMat * P3( ¢ers[3*i] );// center is in camera coords
p0 /= p0[2];
// projPatchCenters[i] = PatchCenter<Scalar>( int(p0[0]-0.5), int (p0[1]-0.5), P3( ¢ers[3*i] ), i );
projPatchCenters[i] = PatchCenter<Scalar>( int(floor(p0[0]-0.5)), int (floor(p0[1]-0.5)), p0, i );
}
std::sort( projPatchCenters.begin(), projPatchCenters.end() );
// need also a map where a certain segment is now, to start searching
}
template<class T> void ArgvToString(const std::vector<T> &argv, T &args)
{
// Clear the string
args.clear();
typename std::vector<T>::const_iterator i;
typename T::const_iterator j;
int ch;
for(i = argv.begin(); i != argv.end(); ++i)
{
for(j = i->begin(); j != i->end(); ++j)
{
ch = *j;
// No quoting, only escaping
// Handle \, ", ', \n, \r, \t., ' '
if (ch == '\\' || ch == '\"' || ch == '\'' || ch == ' ')
{
args += '\\';
}
else if (ch == '\n')
{
args += '\\';
ch = 'n';
}
else if (ch == '\r')
{
args += '\\';
ch = 'r';
}
else if (ch == '\t')
{
args += '\\';
ch = 't';
}
args += ch;
}
args += ' ';
}
}
template < typename IN_PORT_TYPE > int file_descriptor_sink_i_base::_forecastAndProcess( bool &eos, typename std::vector< gr_istream< IN_PORT_TYPE > > &istreams )
{
typedef typename std::vector< gr_istream< IN_PORT_TYPE > > _IStreamList;
typename _IStreamList::iterator istream = istreams.begin();
int nout = 0;
bool dataReady = false;
if ( !eos ) {
uint64_t max_items_avail = 0;
for ( int idx=0 ; istream != istreams.end() && serviceThread->threadRunning() ; idx++, istream++ ) {
LOG_TRACE( file_descriptor_sink_i_base, "GET MAX ITEMS: STREAM:" << idx << " NITEMS/SCALARS:"
<< istream->nitems() << "/" << istream->_data.size() );
max_items_avail = std::max( istream->nitems(), max_items_avail );
}
//
// calc number of output items to produce
//
noutput_items = (int) (max_items_avail * gr_sptr->relative_rate ());
noutput_items = round_down (noutput_items, gr_sptr->output_multiple ());
if ( noutput_items <= 0 ) {
LOG_TRACE( file_descriptor_sink_i_base, "DATA CHECK - MAX ITEMS NOUTPUT/MAX_ITEMS:" << noutput_items << "/" << max_items_avail);
return -1;
}
if ( gr_sptr->fixed_rate() ) {
istream = istreams.begin();
for ( int i=0; istream != istreams.end(); i++, istream++ ) {
int t_noutput_items = gr_sptr->fixed_rate_ninput_to_noutput( istream->nitems() );
if ( gr_sptr->output_multiple_set() ) {
t_noutput_items = round_up(t_noutput_items, gr_sptr->output_multiple());
}
if ( t_noutput_items > 0 ) {
if ( noutput_items == 0 ) {
noutput_items = t_noutput_items;
}
if ( t_noutput_items <= noutput_items ) {
noutput_items = t_noutput_items;
}
}
}
LOG_TRACE( file_descriptor_sink_i_base, " FIXED FORECAST NOUTPUT/output_multiple == "
<< noutput_items << "/" << gr_sptr->output_multiple());
}
//
// ask the block how much input they need to produce noutput_items...
// if enough data is available to process then set the dataReady flag
//
int32_t outMultiple = gr_sptr->output_multiple();
while ( !dataReady && noutput_items >= outMultiple ) {
//
// ask the block how much input they need to produce noutput_items...
//
gr_sptr->forecast(noutput_items, _ninput_items_required);
LOG_TRACE( file_descriptor_sink_i_base, "--> FORECAST IN/OUT " << _ninput_items_required[0] << "/" << noutput_items );
istream = istreams.begin();
uint32_t dr_cnt=0;
for ( int idx=0 ; noutput_items > 0 && istream != istreams.end(); idx++, istream++ ) {
// check if buffer has enough elements
_input_ready[idx] = false;
if ( istream->nitems() >= (uint64_t)_ninput_items_required[idx] ) {
_input_ready[idx] = true;
dr_cnt++;
}
LOG_TRACE( file_descriptor_sink_i_base, "ISTREAM DATACHECK NELMS/NITEMS/REQ/READY:" <<
istream->nelems() << "/" << istream->nitems() << "/" <<
_ninput_items_required[idx] << "/" << _input_ready[idx]);
}
if ( dr_cnt < istreams.size() ) {
if ( outMultiple > 1 ) {
noutput_items -= outMultiple;
} else {
noutput_items /= 2;
}
} else {
dataReady = true;
}
LOG_TRACE( file_descriptor_sink_i_base, " TRIM FORECAST NOUTPUT/READY " << noutput_items << "/" << dataReady );
}
// check if data is ready...
if ( !dataReady ) {
LOG_TRACE( file_descriptor_sink_i_base, "DATA CHECK - NOT ENOUGH DATA AVAIL/REQ:"
<< _istreams[0].nitems() << "/" << _ninput_items_required[0] );
return -1;
}
// reset looping variables
int ritems = 0;
int nitems = 0;
// reset caching vectors
_output_items.clear();
_input_items.clear();
_ninput_items.clear();
istream = istreams.begin();
for ( int idx=0 ; istream != istreams.end(); idx++, istream++ ) {
// check if the stream is ready
if ( !_input_ready[idx] ) continue;
// get number of items remaining
try {
ritems = gr_sptr->nitems_read( idx );
} catch(...){
// something bad has happened, we are missing an input stream
LOG_ERROR( file_descriptor_sink_i_base, "MISSING INPUT STREAM FOR GR BLOCK, STREAM ID:" << istream->streamID );
return -2;
}
nitems = istream->nitems() - ritems;
LOG_TRACE( file_descriptor_sink_i_base, " ISTREAM: IDX:" << idx << " ITEMS AVAIL/READ/REQ " << nitems << "/"
<< ritems << "/" << _ninput_items_required[idx] );
if ( nitems >= _ninput_items_required[idx] && nitems > 0 ) {
//remove eos checks ...if ( nitems < _ninput_items_required[idx] ) nitems=0;
_ninput_items.push_back( nitems );
_input_items.push_back( (const void *) (istream->read_pointer(ritems)) );
}
}
nout=0;
if ( _input_items.size() != 0 && serviceThread->threadRunning() ) {
LOG_TRACE( file_descriptor_sink_i_base, " CALLING WORK.....N_OUT:" << noutput_items <<
" N_IN:" << nitems << " ISTREAMS:" << _input_items.size() <<
" OSTREAMS:" << _output_items.size());
nout = gr_sptr->general_work( noutput_items, _ninput_items, _input_items, _output_items);
// sink/analyzer patterns do not return items, so consume_each is not called in Gnu Radio BLOCK
if ( nout == 0 ) {
gr_sptr->consume_each(nitems);
}
LOG_TRACE( file_descriptor_sink_i_base, "RETURN WORK ..... N_OUT:" << nout);
}
// check for stop condition from work method
if ( nout < gr_block::WORK_DONE ) {
LOG_WARN( file_descriptor_sink_i_base, "WORK RETURNED STOP CONDITION..." << nout );
nout=0;
eos = true;
}
}
return nout;
}
template < typename IN_PORT_TYPE > int vector_sink_s_base::_analyzerServiceFunction( typename std::vector< gr_istream< IN_PORT_TYPE > > &istreams ) {
typedef typename std::vector< gr_istream< IN_PORT_TYPE > > _IStreamList;
boost::mutex::scoped_lock lock(serviceThreadLock);
if ( validGRBlock() == false ) {
// create our processing block
createBlock();
LOG_DEBUG( vector_sink_s_base, " FINISHED BUILDING GNU RADIO BLOCK");
}
// process any Stream ID changes this could affect number of io streams
processStreamIdChanges();
if ( !validGRBlock() || istreams.size() == 0 ) {
LOG_WARN(vector_sink_s_base, "NO STREAMS ATTACHED TO BLOCK..." );
return NOOP;
}
// resize data vectors for passing data to GR_BLOCK object
_input_ready.resize( istreams.size() );
_ninput_items_required.resize( istreams.size());
_ninput_items.resize( istreams.size());
_input_items.resize(istreams.size());
_output_items.resize(0);
//
// RESOLVE: need to look at forecast strategy,
// 1) see how many read items are necessary for N number of outputs
// 2) read input data and see how much output we can produce
//
//
// Grab available data from input streams
//
typename _IStreamList::iterator istream = istreams.begin();
int nitems=0;
for ( int idx=0 ; istream != istreams.end() && serviceThread->threadRunning() ; idx++, istream++ ) {
// note this a blocking read that can cause deadlocks
nitems = istream->read();
if ( istream->overrun() ) {
LOG_WARN( vector_sink_s_base, " NOT KEEPING UP WITH STREAM ID:" << istream->streamID );
}
// RESOLVE issue when SRI changes that could affect the GNU Radio BLOCK
if ( istream->sriChanged() ) {
LOG_DEBUG( vector_sink_s_base, "SRI CHANGED, STREAMD IDX/ID: "
<< idx << "/" << istream->pkt->streamID );
}
}
LOG_TRACE( vector_sink_s_base, "READ NITEMS: " << nitems );
if ( nitems <= 0 && !_istreams[0].eos() ) return NOOP;
bool exitServiceFunction = false;
bool eos = false;
int nout = 0;
while ( nout > -1 && !exitServiceFunction && serviceThread->threadRunning() ) {
eos = false;
nout = _forecastAndProcess( eos, istreams );
if ( nout > -1 ) {
// we chunked on data so move read pointer..
istream = istreams.begin();
for ( ; istream != istreams.end(); istream++ ) {
int idx=std::distance( istreams.begin(), istream );
// if we processed data for this stream
if ( _input_ready[idx] ) {
size_t nitems = 0;
try {
nitems = gr_sptr->nitems_read( idx );
}
catch(...){}
if ( nitems > istream->nitems() ) {
LOG_WARN( vector_sink_s_base, "WORK CONSUMED MORE DATA THAN AVAILABLE, READ/AVAILABLE " << nitems << "/" << istream->nitems() );
nitems = istream->nitems();
}
istream->consume( nitems );
LOG_TRACE( vector_sink_s_base, " CONSUME READ DATA ITEMS/REMAIN " << nitems << "/" << istream->nitems());
}
}
gr_sptr->reset_read_index();
}
// check for not enough data return
if ( nout == -1 ) {
// check for end of stream
istream = istreams.begin();
for ( ; istream != istreams.end() ; istream++) if ( istream->eos() ) eos=true;
if ( eos ) {
LOG_TRACE( vector_sink_s_base, " DATA NOT READY, EOS:" << eos );
_forecastAndProcess( eos, istreams );
}
exitServiceFunction = true;
}
}
if ( eos ) {
istream = istreams.begin();
for ( ; istream != istreams.end() ; istream++) {
int idx=std::distance( istreams.begin(), istream );
LOG_TRACE( vector_sink_s_base, " CLOSING INPUT STREAM IDX:" << idx );
istream->close();
}
}
//
// set the read pointers of the GNU Radio Block to start at the beginning of the
// supplied buffers
//
gr_sptr->reset_read_index();
LOG_TRACE( vector_sink_s_base, " END OF ANALYZER SERVICE FUNCTION....." << noutput_items );
if ( nout == -1 && eos == false )
return NOOP;
else
return NORMAL;
}
int
main()
{
using namespace boost;
//===========================================================================
// Declare the graph type and object, and some property maps.
typedef adjacency_list<vecS, vecS, directedS, property<vertex_name_t, std::string, property<vertex_color_t, default_color_type> >, property<edge_name_t, std::string, property<edge_weight_t, int> > > Graph;
typedef graph_traits<Graph> Traits;
typedef Traits::vertex_descriptor Vertex;
typedef Traits::edge_descriptor Edge;
typedef Traits::vertices_size_type size_type;
typedef std::map<std::string, Vertex> NameVertexMap;
NameVertexMap name2vertex;
Graph g;
typedef property_map<Graph, vertex_name_t>::type NameMap;
property_map<Graph, edge_name_t>::type link_name = get(edge_name, g);
//===========================================================================
// Read the data file and construct the graph.
Edge edge;
bool inserted;
tie(edge, inserted) = add_edge(0,1,g);
put(vertex_name, g, source(edge,g),"0");
put(vertex_name, g, target(edge,g),"1");
tie(edge, inserted) = add_edge(1,2,g);
put(vertex_name, g, source(edge,g),"1");
put(vertex_name, g, target(edge,g),"2");
tie(edge, inserted) = add_edge(1,3,g);
put(vertex_name, g, source(edge,g),"1");
put(vertex_name, g, target(edge,g),"3");
tie(edge, inserted) = add_edge(3,4,g);
put(vertex_name, g, source(edge,g),"3");
put(vertex_name, g, target(edge,g),"4");
tie(edge, inserted) = add_edge(3,5,g);
put(vertex_name, g, source(edge,g),"3");
put(vertex_name, g, target(edge,g),"5");
tie(edge, inserted) = add_edge(2,4,g);
put(vertex_name, g, source(edge,g),"2");
put(vertex_name, g, target(edge,g),"4");
tie(edge, inserted) = add_edge(4,6,g);
put(vertex_name, g, source(edge,g),"4");
put(vertex_name, g, target(edge,g),"6");
//===========================================================================
std::vector< std::vector<Edge> > paths;
Graph tmp_g = g;
Vertex src = 0;
Vertex goal = 6;
bool more = true;
do
{
std::vector<Edge> path;
OptSolPathEstimator<Graph> ospe(goal,&path);
try
{
depth_first_visit(tmp_g,src,ospe,get(vertex_color,tmp_g));
}
catch(FoundGoalSignal fgs)
{ };
if( !path.empty() )
{
more = true;// possible there are more goal-reached paths
paths.push_back(path);
// Delete the last edge of path in the tmp_g
remove_edge(path.back(),tmp_g);
// Reset all vertex_color in tmp_g to white
boost::graph_traits<Graph>::vertex_iterator vi, vi_end;
for (boost::tie(vi,vi_end) = vertices(tmp_g); vi != vi_end; ++vi)
put(vertex_color,tmp_g,*vi,color_traits<boost::default_color_type>::white());
}
else
{
more = false;
}
}
while(more);
cerr << "paths.size()= " << paths.size() << endl;
for(typename std::vector< std::vector<Edge> >::const_iterator i=paths.begin(); i!=paths.end(); ++i)
{
cerr << "Path " << i-paths.begin() << endl;
for(std::vector<Edge>::const_iterator j=i->begin(); j!=i->end(); ++j)
{
cout << "e(" << source(*j,g) << "," << target(*j,g) << "), ";
}
cout << endl;
}
// boost::graph_traits<Graph>::vertex_iterator vi, vi_end;
// for (boost::tie(vi,vi_end) = vertices(g); vi != vi_end; ++vi)
// {
// if( get(vertex_color,g,*vi)==color_traits<boost::default_color_type>::gray() )
// cerr << *vi << "= gray" << endl;
// else if( get(vertex_color,g,*vi)==color_traits<boost::default_color_type>::black() )
// cerr << *vi << "= black" << endl;
// else
// cerr << *vi << "= white" << endl;
// }
// cerr << "============================================================================================" << endl;
// for (boost::tie(vi,vi_end) = vertices(tmp_g); vi != vi_end; ++vi)
// {
// if( get(vertex_color,tmp_g,*vi)==color_traits<boost::default_color_type>::gray() )
// cerr << *vi << "= gray" << endl;
// else if( get(vertex_color,tmp_g,*vi)==color_traits<boost::default_color_type>::black() )
// cerr << *vi << "= black" << endl;
// else
// cerr << *vi << "= white" << endl;
// }
//
//
// cerr << "============================================================================================" << endl;
//
// src = 1;
// paths.clear();
//
// depth_first_visit(g,src,ospe,get(vertex_color, g));
//
// cerr << "paths.size()= " << paths.size() << endl;
// for(typename std::vector< std::vector<Edge> >::const_iterator i=paths.begin(); i!=paths.end(); ++i)
// {
// cerr << "Path " << i-paths.begin() << endl;
// for(std::vector<Edge>::const_iterator j=i->begin(); j!=i->end(); ++j)
// {
// cout << "e(" << source(*j,g) << "," << target(*j,g) << "), ";
// }
// cout << endl;
// }
return EXIT_SUCCESS;
}
void FindPeaksMD::findPeaks(typename MDEventWorkspace<MDE, nd>::sptr ws)
{
if (nd < 3)
throw std::invalid_argument("Workspace must have at least 3 dimensions.");
progress(0.01, "Refreshing Centroids");
// TODO: This might be slow, progress report?
// Make sure all centroids are fresh
ws->getBox()->refreshCentroid();
typedef IMDBox<MDE,nd>* boxPtr;
if (ws->getNumExperimentInfo() == 0)
throw std::runtime_error("No instrument was found in the MDEventWorkspace. Cannot find peaks.");
// TODO: Do we need to pick a different instrument info?
ExperimentInfo_sptr ei = ws->getExperimentInfo(0);
// Instrument associated with workspace
Geometry::Instrument_const_sptr inst = ei->getInstrument();
// Find the run number
int runNumber = ei->getRunNumber();
// Check that the workspace dimensions are in Q-sample-frame or Q-lab-frame.
eDimensionType dimType;
std::string dim0 = ws->getDimension(0)->getName();
if (dim0 == "H")
{
dimType = HKL;
throw std::runtime_error("Cannot find peaks in a workspace that is already in HKL space.");
}
else if (dim0 == "Q_lab_x")
{
dimType = QLAB;
}
else if (dim0 == "Q_sample_x")
dimType = QSAMPLE;
else
throw std::runtime_error("Unexpected dimensions: need either Q_lab_x or Q_sample_x.");
// Find the goniometer rotation matrix
Mantid::Kernel::Matrix<double> goniometer(3,3, true); // Default IDENTITY matrix
try
{
goniometer = ei->mutableRun().getGoniometerMatrix();
}
catch (std::exception & e)
{
g_log.warning() << "Error finding goniometer matrix. It will not be set in the peaks found." << std::endl;
g_log.warning() << e.what() << std::endl;
}
/// Arbitrary scaling factor for density to make more manageable numbers, especially for older file formats.
signal_t densityScalingFactor = 1e-6;
// Calculate a threshold below which a box is too diffuse to be considered a peak.
signal_t thresholdDensity = 0.0;
thresholdDensity = ws->getBox()->getSignalNormalized() * DensityThresholdFactor * densityScalingFactor;
g_log.notice() << "Threshold signal density: " << thresholdDensity << std::endl;
// We will fill this vector with pointers to all the boxes (up to a given depth)
typename std::vector<boxPtr> boxes;
// Get all the MDboxes
progress(0.10, "Getting Boxes");
ws->getBox()->getBoxes(boxes, 1000, true);
// TODO: Here keep only the boxes > e.g. 3 * mean.
typedef std::pair<double, boxPtr> dens_box;
// Map that will sort the boxes by increasing density. The key = density; value = box *.
typename std::multimap<double, boxPtr> sortedBoxes;
progress(0.20, "Sorting Boxes by Density");
typename std::vector<boxPtr>::iterator it1;
typename std::vector<boxPtr>::iterator it1_end = boxes.end();
for (it1 = boxes.begin(); it1 != it1_end; it1++)
{
boxPtr box = *it1;
double density = box->getSignalNormalized() * densityScalingFactor;
// Skip any boxes with too small a signal density.
if (density > thresholdDensity)
sortedBoxes.insert(dens_box(density,box));
}
// List of chosen possible peak boxes.
std::vector<boxPtr> peakBoxes;
prog = new Progress(this, 0.30, 0.95, MaxPeaks);
int64_t numBoxesFound = 0;
// Now we go (backwards) through the map
// e.g. from highest density down to lowest density.
typename std::multimap<double, boxPtr>::reverse_iterator it2;
typename std::multimap<double, boxPtr>::reverse_iterator it2_end = sortedBoxes.rend();
for (it2 = sortedBoxes.rbegin(); it2 != it2_end; it2++)
{
signal_t density = it2->first;
boxPtr box = it2->second;
#ifndef MDBOX_TRACK_CENTROID
coord_t boxCenter[nd];
box->calculateCentroid(boxCenter);
#else
const coord_t * boxCenter = box->getCentroid();
#endif
// Compare to all boxes already picked.
bool badBox = false;
for (typename std::vector<boxPtr>::iterator it3=peakBoxes.begin(); it3 != peakBoxes.end(); it3++)
{
#ifndef MDBOX_TRACK_CENTROID
coord_t otherCenter[nd];
(*it3)->calculateCentroid(otherCenter);
#else
const coord_t * otherCenter = (*it3)->getCentroid();
#endif
// Distance between this box and a box we already put in.
coord_t distSquared = 0.0;
for (size_t d=0; d<nd; d++)
{
coord_t dist = otherCenter[d] - boxCenter[d];
distSquared += (dist * dist);
}
// Reject this box if it is too close to another previously found box.
if (distSquared < peakRadiusSquared)
{
badBox = true;
break;
}
}
// The box was not rejected for another reason.
if (!badBox)
{
if (numBoxesFound++ >= MaxPeaks)
{
g_log.notice() << "Number of peaks found exceeded the limit of " << MaxPeaks << ". Stopping peak finding." << std::endl;
break;
}
peakBoxes.push_back(box);
g_log.information() << "Found box at ";
for (size_t d=0; d<nd; d++)
g_log.information() << (d>0?",":"") << boxCenter[d];
g_log.information() << "; Density = " << density << std::endl;
// Report progres for each box found.
prog->report("Finding Peaks");
}
}
prog->resetNumSteps(numBoxesFound, 0.95, 1.0);
// Copy the instrument, sample, run to the peaks workspace.
peakWS->copyExperimentInfoFrom(ei.get());
// --- Convert the "boxes" to peaks ----
for (typename std::vector<boxPtr>::iterator it3=peakBoxes.begin(); it3 != peakBoxes.end(); it3++)
{
// The center of the box = Q in the lab frame
boxPtr box = *it3;
#ifndef MDBOX_TRACK_CENTROID
coord_t boxCenter[nd];
box->calculateCentroid(boxCenter);
#else
const coord_t * boxCenter = box->getCentroid();
#endif
V3D Q(boxCenter[0], boxCenter[1], boxCenter[2]);
// Create a peak and add it
// Empty starting peak.
Peak p;
try
{
if (dimType == QLAB)
{
// Build using the Q-lab-frame constructor
p = Peak(inst, Q);
// Save gonio matrix for later
p.setGoniometerMatrix(goniometer);
}
else if (dimType == QSAMPLE)
{
// Build using the Q-sample-frame constructor
p = Peak(inst, Q, goniometer);
}
}
catch (std::exception &e)
{
g_log.notice() << "Error creating peak at " << Q << " because of '" << e.what() << "'. Peak will be skipped." << std::endl;
continue;
}
try
{ // Look for a detector
p.findDetector();
}
catch (...)
{ /* Ignore errors in ray-tracer TODO: Handle for WISH data later */ }
// The "bin count" used will be the box density.
p.setBinCount( box->getSignalNormalized() * densityScalingFactor);
// Save the run number found before.
p.setRunNumber(runNumber);
peakWS->addPeak(p);
// Report progres for each box found.
prog->report("Adding Peaks");
} // for each box found
}
void fromPointCloud( const typename std::vector<Celer::Vector4<Real> >& points,
const Celer::Vector3<Real>& first_basis,
const Celer::Vector3<Real>& second_basis,
const Celer::Vector3<Real>& third_basis )
{
// Reference :
// Geometric Tools, LLC
// Copyright (c) 1998-2012
// Distributed under the Boost Software License, Version 1.0.
// Wm5ContBox3.cpp
basis_[0] = first_basis;
basis_[1] = second_basis;
basis_[2] = third_basis;
for ( typename std::vector<Celer::Vector4<Real> >::const_iterator new_point = points.begin(); new_point != points.end(); new_point++)
{
BoundingBox3<Real> box( std::min ( min_.x , new_point->x ) ,
std::min ( min_.y , new_point->y ) ,
std::min ( min_.z , new_point->z ) ,
std::max ( max_.x , new_point->x ) ,
std::max ( max_.y , new_point->y ) ,
std::max ( max_.z , new_point->z ) );
// std::cout << min( );
// std::cout << max( );
// std::cout << " new_point " << *new_point;
*this = *this + box;
}
Celer::Vector3<Real> diff = points[0].toVector3() - this->center();
Celer::Vector3<Real> pmin ( ( diff * basis_[0] ) , ( diff * basis_[1] ) , (diff * basis_[2]) );
Celer::Vector3<Real> pmax = pmin;
for ( typename std::vector<Celer::Vector4<Real> >::const_iterator new_point = points.begin(); new_point != points.end(); new_point++)
{
// diff = points[i] - box.Center;
// for ( int j = 0; j < 3; ++j )
// {
// Real dot = diff.Dot ( box.Axis[j] );
// if ( dot < pmin[j] )
// {
// pmin[j] = dot;
// }
// else if ( dot > pmax[j] )
// {
// pmax[j] = dot;
// }
// }
}
// for ( int i = 1; i < numPoints; ++i )
// {
// }
// min_ += ( ( (Real) 0.5 ) * ( pmin[0] + pmax[0] ) ) * box.Axis[0] + ( ( (Real) 0.5 ) * ( pmin[1] + pmax[1] ) ) * box.Axis[1] + ( ( (Real) 0.5 ) * ( pmin[2] + pmax[2] ) ) * box.Axis[2];
}
void VisusIndexedData::addText(XMLNode& node, const std::vector<std::vector<T > >* items) const
{
// Count max number of items
int maxitems = 0;
for (typename std::vector<std::vector<T> >::const_iterator iiter=items->begin();
iiter!=items->end(); ++iiter)
maxitems += iiter->size() + 1;
// Construct contiguous buffer
const int bufsize = sizeof(T) * maxitems;
unsigned char* buffer = new unsigned char[bufsize+1];
node.addAttribute("numItems", (long) items->size());
node.addAttribute("bufsize", bufsize);
int position = 0;
// Copy non-contiguous data into contiguous buffer
for (typename std::vector<std::vector<T> >::const_iterator iiter=items->begin();
iiter!=items->end(); ++iiter)
{
// Save Num Items
T value = items->size();
memcpy(&buffer[position], &value, sizeof(T));
position += sizeof(T);
// Load Vector's Vector of items into buffer
for (typename std::vector<T>::const_iterator idtIter=iiter->begin();
idtIter!=iiter->end(); ++idtIter)
{
vassert(position < bufsize);
memcpy(&buffer[position], &(*idtIter), sizeof(T));
position += sizeof(T);
}
}
vassert(position == bufsize);
// Save Buffer out to XML
switch (VisusXMLInterface::sWriteXMLDataStorage)
{
case BASE64:
{
// Save data as BASE64
XMLParserBase64Tool base64;
XMLSTR encoded = base64.encode(buffer, bufsize);
node.addText(encoded);
}
break;
case EXTERNAL_FILE:
{
vwarning("saving data to external file is not yet supported");
}
break;
case ASCII:
{
vwarning("saving data to external file is not yet supported");
}
break;
}
delete [] buffer;
}
void write( OutputIterator result ) const
{
const CharT dquo = widen< CharT >( '\"' );
const CharT comma = widen< CharT >( ',' );
const CharT lf = widen< CharT >( '\n' );
for ( typename std::vector< std::vector< string_type > >::const_iterator r_iter( records_.begin() ), r_last( records_.end() );
r_iter != r_last;
++r_iter )
{
for ( typename std::vector< string_type >::const_iterator f_iter( r_iter->begin() ), f_last( r_iter->end() );
f_iter != f_last;
++f_iter )
{
std::string field;
bool need_escape = false;
for ( typename string_type::const_iterator s_iter( f_iter->begin() ), s_last( f_iter->end() );
s_iter != s_last;
++s_iter )
{
CharT ch = *s_iter;
if ( ch == dquo )
{
field.push_back( dquo );
need_escape = true;
}
else if ( ch == comma || ch == lf )
{
need_escape = true;
}
field.push_back( ch );
}
if ( need_escape )
{
field = dquo + field + dquo;
}
result = std::copy( field.begin(), field.end(), result );
if ( boost::next( f_iter ) != f_last )
{
*result++ = comma;
}
}
*result++ = lf;
}
}
void generatePartitionSizeHistogram(typename std::vector<T>& localVector, std::string filename, MPI_Comm comm = MPI_COMM_WORLD)
{
/*
* Approach :
* 1. Do a global sort by keyLayer (Partition id).
* 2. Compute the information Partition_Id:Size for boundary partitions (Avoid duplication).
* 3. Do an all_gather of boundary values plugged with ranks.
* 4. All boundary partitions should be owned by minimum rank that shares it.
* 5. Locally compute the largest partition size and do MPI_Allreduce
* with MPI_MAX.
* 6. Build the histogram locally.
* 7. Finally do MPI_Reduce over whole histogram to root node.
* 8. Write the output to file
*/
int p;
int rank;
MPI_Comm_size(comm, &p);
MPI_Comm_rank(comm, &rank);
static layer_comparator<keyLayer, T> pccomp;
//Sort the vector by each tuple's keyLayer element
mxx::sort(localVector.begin(), localVector.end(), pccomp, comm, false);
//Iterate over tuples to compute boundary information
bool iownLeftBucket, iownRightBucket, onlySingleLocalPartition;
//Type of tuple to communicate : (Partition Id, rank, size)
typedef std::tuple<uint32_t, int, uint64_t> tupletypeforbucketSize;
std::vector<tupletypeforbucketSize> toSend;
toSend.resize(2);
//Find the left most bucket
auto leftBucketRange = findRange(localVector.begin(), localVector.end(), *(localVector.begin()), pccomp);
std::get<0>(toSend[0]) = std::get<keyLayer>(*localVector.begin());
std::get<1>(toSend[0]) = rank;
std::get<2>(toSend[0]) = leftBucketRange.second - leftBucketRange.first;
//Find the right most bucket
auto rightBucketRange = findRange(localVector.rbegin(), localVector.rend(), *(localVector.rbegin()), pccomp);
std::get<0>(toSend[1]) = std::get<keyLayer>(*localVector.rbegin());
std::get<1>(toSend[1]) = rank;
std::get<2>(toSend[1]) = rightBucketRange.second - rightBucketRange.first;
//If we have only single partition, make sure we are not creating duplicates
if(std::get<0>(toSend[0]) == std::get<0>(toSend[1]))
{
//Make second send element's size zero
std::get<2>(toSend[1]) = 0;
onlySingleLocalPartition = true;
}
else
onlySingleLocalPartition = false;
//Gather all the boundary information
auto allBoundaryPartitionSizes = mxx::allgather_vectors(toSend, comm);
uint64_t leftBucketSize = 0;
uint64_t rightBucketSize = 0;
//Need to parse boundary information that matches the partitionIds we have
static layer_comparator<0, tupletypeforbucketSize> pccomp2;
auto leftBucketBoundaryRange = std::equal_range(allBoundaryPartitionSizes.begin(), allBoundaryPartitionSizes.end(), toSend[0], pccomp2);
//Check if this processor owns this bucket
if(std::get<1>(*(leftBucketBoundaryRange.first)) == rank)
{
iownLeftBucket = true;
for(auto it = leftBucketBoundaryRange.first; it != leftBucketBoundaryRange.second; it++)
{
leftBucketSize += std::get<2>(*it);
}
}
else
iownLeftBucket = false;
auto rightBucketBoundaryRange = std::equal_range(allBoundaryPartitionSizes.begin(), allBoundaryPartitionSizes.end(), toSend[1], pccomp2);
//Check if this processor owns right partition
if(std::get<1>(*rightBucketBoundaryRange.first) == rank && !onlySingleLocalPartition)
{
iownRightBucket = true;
for(auto it = rightBucketBoundaryRange.first; it != rightBucketBoundaryRange.second; it++)
{
rightBucketSize += std::get<2>(*it);
}
}
else
iownRightBucket = false;
//Map from partition size to count
typedef std::map <uint64_t, uint32_t> MapType;
MapType localHistMap;
for(auto it = localVector.begin(); it!= localVector.end();) // iterate over all segments.
{
auto innerLoopBound = findRange(it, localVector.end(), *it, pccomp);
//Left most bucket
if (innerLoopBound.first == localVector.begin()) // first
{
if(iownLeftBucket)
insertToHistogram(localHistMap, leftBucketSize);
}
//Right most bucket
else if (innerLoopBound.second == localVector.end()) // first
{
if(iownRightBucket)
insertToHistogram(localHistMap, rightBucketSize);
}
//Inner buckets
else
{
insertToHistogram(localHistMap, innerLoopBound.second - innerLoopBound.first);
}
it = innerLoopBound.second;
}
//Convert map to vector
using tupleTypeforHist = std::tuple<uint64_t, uint32_t>;
std::vector<tupleTypeforHist> localHistVector;
for(MapType::iterator it = localHistMap.begin(); it != localHistMap.end(); ++it )
{
localHistVector.push_back(std::make_tuple(it->first, it->second));
}
//Gather vector from all processors to root
auto globalHistVector = mxx::gather_vectors(localHistVector, comm);
static layer_comparator<0, tupleTypeforHist> partition_size_cmp;
//Write to file
if(rank == 0)
{
//Sort the vector to bring counts with same size adjacent (default comparator will work)
std::sort(globalHistVector.begin(), globalHistVector.end());
std::ofstream ofs;
ofs.open(filename, std::ios_base::out);
//Iterate over the global vector
for(auto it = globalHistVector.begin(); it != globalHistVector.end();)
{
//Range of counts belonging to same partition size
auto innerLoopRange = findRange(it, globalHistVector.end(), *it, partition_size_cmp);
auto p_size = std::get<0>(*it);
uint32_t sum = 0;
//Loop over the range
for(auto it2 = innerLoopRange.first; it2 != innerLoopRange.second; it2++)
sum += std::get<1>(*it2);
ofs << p_size << " " << sum <<"\n";
it = innerLoopRange.second;
}
ofs.close();
}
}
template < typename IN_PORT_TYPE, typename OUT_PORT_TYPE > int randomizer_base::_transformerServiceFunction( typename std::vector< gr_istream< IN_PORT_TYPE > > &istreams ,
typename std::vector< gr_ostream< OUT_PORT_TYPE > > &ostreams )
{
typedef typename std::vector< gr_istream< IN_PORT_TYPE > > _IStreamList;
typedef typename std::vector< gr_ostream< OUT_PORT_TYPE > > _OStreamList;
boost::mutex::scoped_lock lock(serviceThreadLock);
if ( validGRBlock() == false ) {
// create our processing block, and setup property notifiers
createBlock();
LOG_DEBUG( randomizer_base, " FINISHED BUILDING GNU RADIO BLOCK");
}
//process any Stream ID changes this could affect number of io streams
processStreamIdChanges();
if ( !validGRBlock() || istreams.size() == 0 || ostreams.size() == 0 ) {
LOG_WARN( randomizer_base, "NO STREAMS ATTACHED TO BLOCK..." );
return NOOP;
}
_input_ready.resize( istreams.size() );
_ninput_items_required.resize( istreams.size() );
_ninput_items.resize( istreams.size() );
_input_items.resize( istreams.size() );
_output_items.resize( ostreams.size() );
//
// RESOLVE: need to look at forecast strategy,
// 1) see how many read items are necessary for N number of outputs
// 2) read input data and see how much output we can produce
//
//
// Grab available data from input streams
//
typename _OStreamList::iterator ostream;
typename _IStreamList::iterator istream = istreams.begin();
int nitems=0;
for ( int idx=0 ; istream != istreams.end() && serviceThread->threadRunning() ; idx++, istream++ ) {
// note this a blocking read that can cause deadlocks
nitems = istream->read();
if ( istream->overrun() ) {
LOG_WARN( randomizer_base, " NOT KEEPING UP WITH STREAM ID:" << istream->streamID );
}
if ( istream->sriChanged() ) {
// RESOLVE - need to look at how SRI changes can affect Gnu Radio BLOCK state
LOG_DEBUG( randomizer_base, "SRI CHANGED, STREAMD IDX/ID: "
<< idx << "/" << istream->pkt->streamID );
setOutputStreamSRI( idx, istream->pkt->SRI );
}
}
LOG_TRACE( randomizer_base, "READ NITEMS: " << nitems );
if ( nitems <= 0 && !_istreams[0].eos() ) {
return NOOP;
}
bool eos = false;
int nout = 0;
bool workDone = false;
while ( nout > -1 && serviceThread->threadRunning() ) {
eos = false;
nout = _forecastAndProcess( eos, istreams, ostreams );
if ( nout > -1 ) {
workDone = true;
// we chunked on data so move read pointer..
istream = istreams.begin();
for ( ; istream != istreams.end(); istream++ ) {
int idx=std::distance( istreams.begin(), istream );
// if we processed data for this stream
if ( _input_ready[idx] ) {
size_t nitems = 0;
try {
nitems = gr_sptr->nitems_read( idx );
} catch(...){}
if ( nitems > istream->nitems() ) {
LOG_WARN( randomizer_base, "WORK CONSUMED MORE DATA THAN AVAILABLE, READ/AVAILABLE "
<< nitems << "/" << istream->nitems() );
nitems = istream->nitems();
}
istream->consume( nitems );
LOG_TRACE( randomizer_base, " CONSUME READ DATA ITEMS/REMAIN " << nitems << "/" << istream->nitems());
}
}
gr_sptr->reset_read_index();
}
// check for not enough data return
if ( nout == -1 ) {
// check for end of stream
istream = istreams.begin();
for ( ; istream != istreams.end() ; istream++) {
if ( istream->eos() ) {
eos=true;
}
}
if ( eos ) {
LOG_TRACE( randomizer_base, "EOS SEEN, SENDING DOWNSTREAM " );
_forecastAndProcess( eos, istreams, ostreams);
}
}
}
if ( eos ) {
istream = istreams.begin();
for ( ; istream != istreams.end() ; istream++ ) {
int idx=std::distance( istreams.begin(), istream );
LOG_DEBUG( randomizer_base, " CLOSING INPUT STREAM IDX:" << idx );
istream->close();
}
// close remaining output streams
ostream = ostreams.begin();
for ( ; eos && ostream != ostreams.end(); ostream++ ) {
int idx=std::distance( ostreams.begin(), ostream );
LOG_DEBUG( randomizer_base, " CLOSING OUTPUT STREAM IDX:" << idx );
ostream->close();
}
}
//
// set the read pointers of the GNU Radio Block to start at the beginning of the
// supplied buffers
//
gr_sptr->reset_read_index();
LOG_TRACE( randomizer_base, " END OF TRANSFORM SERVICE FUNCTION....." << noutput_items );
if ( nout == -1 && eos == false && !workDone ) {
return NOOP;
} else {
return NORMAL;
}
}
template < typename IN_PORT_TYPE, typename OUT_PORT_TYPE > int randomizer_base::_forecastAndProcess( bool &eos, typename std::vector< gr_istream< IN_PORT_TYPE > > &istreams ,
typename std::vector< gr_ostream< OUT_PORT_TYPE > > &ostreams )
{
typedef typename std::vector< gr_istream< IN_PORT_TYPE > > _IStreamList;
typedef typename std::vector< gr_ostream< OUT_PORT_TYPE > > _OStreamList;
typename _OStreamList::iterator ostream;
typename _IStreamList::iterator istream = istreams.begin();
int nout = 0;
bool dataReady = false;
if ( !eos ) {
uint64_t max_items_avail = 0;
for ( int idx=0 ; istream != istreams.end() && serviceThread->threadRunning() ; idx++, istream++ ) {
LOG_TRACE( randomizer_base, "GET MAX ITEMS: STREAM:"<< idx << " NITEMS/SCALARS:" <<
istream->nitems() << "/" << istream->_data.size() );
max_items_avail = std::max( istream->nitems(), max_items_avail );
}
if ( max_items_avail == 0 ) {
LOG_TRACE( randomizer_base, "DATA CHECK - MAX ITEMS NOUTPUT/MAX_ITEMS:" << noutput_items << "/" << max_items_avail);
return -1;
}
//
// calc number of output elements based on input items available
//
noutput_items = 0;
if ( !gr_sptr->fixed_rate() ) {
noutput_items = round_down((int32_t) (max_items_avail * gr_sptr->relative_rate()), gr_sptr->output_multiple());
LOG_TRACE( randomizer_base, " VARIABLE FORECAST NOUTPUT == " << noutput_items );
} else {
istream = istreams.begin();
for ( int i=0; istream != istreams.end(); i++, istream++ ) {
int t_noutput_items = gr_sptr->fixed_rate_ninput_to_noutput( istream->nitems() );
if ( gr_sptr->output_multiple_set() ) {
t_noutput_items = round_up(t_noutput_items, gr_sptr->output_multiple());
}
if ( t_noutput_items > 0 ) {
if ( noutput_items == 0 ) {
noutput_items = t_noutput_items;
}
if ( t_noutput_items <= noutput_items ) {
noutput_items = t_noutput_items;
}
}
}
LOG_TRACE( randomizer_base, " FIXED FORECAST NOUTPUT/output_multiple == " <<
noutput_items << "/" << gr_sptr->output_multiple());
}
//
// ask the block how much input they need to produce noutput_items...
// if enough data is available to process then set the dataReady flag
//
int32_t outMultiple = gr_sptr->output_multiple();
while ( !dataReady && noutput_items >= outMultiple ) {
//
// ask the block how much input they need to produce noutput_items...
//
gr_sptr->forecast(noutput_items, _ninput_items_required);
LOG_TRACE( randomizer_base, "--> FORECAST IN/OUT " << _ninput_items_required[0] << "/" << noutput_items );
istream = istreams.begin();
uint32_t dr_cnt=0;
for ( int idx=0 ; noutput_items > 0 && istream != istreams.end(); idx++, istream++ ) {
// check if buffer has enough elements
_input_ready[idx] = false;
if ( istream->nitems() >= (uint64_t)_ninput_items_required[idx] ) {
_input_ready[idx] = true;
dr_cnt++;
}
LOG_TRACE( randomizer_base, "ISTREAM DATACHECK NELMS/NITEMS/REQ/READY:" << istream->nelems() <<
"/" << istream->nitems() << "/" << _ninput_items_required[idx] << "/" << _input_ready[idx]);
}
if ( dr_cnt < istreams.size() ) {
if ( outMultiple > 1 ) {
noutput_items -= outMultiple;
} else {
noutput_items /= 2;
}
} else {
dataReady = true;
}
LOG_TRACE( randomizer_base, " TRIM FORECAST NOUTPUT/READY " << noutput_items << "/" << dataReady );
}
// check if data is ready...
if ( !dataReady ) {
LOG_TRACE( randomizer_base, "DATA CHECK - NOT ENOUGH DATA AVAIL/REQ:" << _istreams[0].nitems() <<
"/" << _ninput_items_required[0] );
return -1;
}
// reset looping variables
int ritems = 0;
int nitems = 0;
// reset caching vectors
_output_items.clear();
_input_items.clear();
_ninput_items.clear();
istream = istreams.begin();
for ( int idx=0 ; istream != istreams.end(); idx++, istream++ ) {
// check if the stream is ready
if ( !_input_ready[idx] ) {
continue;
}
// get number of items remaining
try {
ritems = gr_sptr->nitems_read( idx );
} catch(...){
// something bad has happened, we are missing an input stream
LOG_ERROR( randomizer_base, "MISSING INPUT STREAM FOR GR BLOCK, STREAM ID:" << istream->streamID );
return -2;
}
nitems = istream->nitems() - ritems;
LOG_TRACE( randomizer_base, " ISTREAM: IDX:" << idx << " ITEMS AVAIL/READ/REQ " << nitems << "/"
<< ritems << "/" << _ninput_items_required[idx] );
if ( nitems >= _ninput_items_required[idx] && nitems > 0 ) {
//remove eos checks ...if ( nitems < _ninput_items_required[idx] ) nitems=0;
_ninput_items.push_back( nitems );
_input_items.push_back( (const void *) (istream->read_pointer(ritems)) );
}
}
//
// setup output buffer vector based on noutput..
//
ostream = ostreams.begin();
for( ; ostream != ostreams.end(); ostream++ ) {
ostream->resize(noutput_items);
_output_items.push_back((void*)(ostream->write_pointer()) );
}
nout=0;
if ( _input_items.size() != 0 && serviceThread->threadRunning() ) {
LOG_TRACE( randomizer_base, " CALLING WORK.....N_OUT:" << noutput_items << " N_IN:" << nitems
<< " ISTREAMS:" << _input_items.size() << " OSTREAMS:" << _output_items.size());
nout = gr_sptr->general_work( noutput_items, _ninput_items, _input_items, _output_items);
LOG_TRACE( randomizer_base, "RETURN WORK ..... N_OUT:" << nout);
}
// check for stop condition from work method
if ( nout < gr_block::WORK_DONE ) {
LOG_WARN( randomizer_base, "WORK RETURNED STOP CONDITION..." << nout );
nout=0;
eos = true;
}
}
if (nout != 0 or eos ) {
noutput_items = nout;
LOG_TRACE( randomizer_base, " WORK RETURNED: NOUT : " << nout << " EOS:" << eos);
ostream = ostreams.begin();
typename IN_PORT_TYPE::dataTransfer *pkt=NULL;
for ( int idx=0 ; ostream != ostreams.end(); idx++, ostream++ ) {
pkt=NULL;
int inputIdx = idx;
if ( (size_t)(inputIdx) >= istreams.size() ) {
for ( inputIdx= istreams.size()-1; inputIdx > -1; inputIdx--) {
if ( istreams[inputIdx].pkt != NULL ) {
pkt = istreams[inputIdx].pkt;
break;
}
}
} else {
pkt = istreams[inputIdx].pkt;
}
LOG_TRACE( randomizer_base, "PUSHING DATA ITEMS/STREAM_ID " << ostream->nitems() << "/" << ostream->streamID );
if ( _maintainTimeStamp ) {
// set time stamp for output samples based on input time stamp
if ( ostream->nelems() == 0 ) {
#ifdef TEST_TIME_STAMP
LOG_DEBUG( randomizer_base, "SEED - TS SRI: xdelta:" << std::setprecision(12) << ostream->sri.xdelta );
LOG_DEBUG( randomizer_base, "OSTREAM WRITE: maint:" << _maintainTimeStamp );
LOG_DEBUG( randomizer_base, " mode:" << ostream->tstamp.tcmode );
LOG_DEBUG( randomizer_base, " status:" << ostream->tstamp.tcstatus );
LOG_DEBUG( randomizer_base, " offset:" << ostream->tstamp.toff );
LOG_DEBUG( randomizer_base, " whole:" << std::setprecision(10) << ostream->tstamp.twsec );
LOG_DEBUG( randomizer_base, "SEED - TS frac:" << std::setprecision(12) << ostream->tstamp.tfsec );
#endif
ostream->setTimeStamp( pkt->T, _maintainTimeStamp );
}
// write out samples, and set next time stamp based on xdelta and noutput_items
ostream->write ( noutput_items, eos );
} else {
// use incoming packet's time stamp to forward
if ( pkt ) {
#ifdef TEST_TIME_STAMP
LOG_DEBUG( randomizer_base, "OSTREAM SRI: items/xdelta:" << noutput_items << "/" << std::setprecision(12) << ostream->sri.xdelta );
LOG_DEBUG( randomizer_base, "PKT - TS maint:" << _maintainTimeStamp );
LOG_DEBUG( randomizer_base, " mode:" << pkt->T.tcmode );
LOG_DEBUG( randomizer_base, " status:" << pkt->T.tcstatus );
LOG_DEBUG( randomizer_base, " offset:" << pkt->T.toff );
LOG_DEBUG( randomizer_base, " whole:" << std::setprecision(10) << pkt->T.twsec );
LOG_DEBUG( randomizer_base, "PKT - TS frac:" << std::setprecision(12) << pkt->T.tfsec );
#endif
ostream->write( noutput_items, eos, pkt->T );
} else {
#ifdef TEST_TIME_STAMP
LOG_DEBUG( randomizer_base, "OSTREAM SRI: items/xdelta:" << noutput_items << "/" << std::setprecision(12) << ostream->sri.xdelta );
LOG_DEBUG( randomizer_base, "OSTREAM TOD maint:" << _maintainTimeStamp );
LOG_DEBUG( randomizer_base, " mode:" << ostream->tstamp.tcmode );
LOG_DEBUG( randomizer_base, " status:" << ostream->tstamp.tcstatus );
LOG_DEBUG( randomizer_base, " offset:" << ostream->tstamp.toff );
LOG_DEBUG( randomizer_base, " whole:" << std::setprecision(10) << ostream->tstamp.twsec );
LOG_DEBUG( randomizer_base, "OSTREAM TOD frac:" << std::setprecision(12) << ostream->tstamp.tfsec );
#endif
// use time of day as time stamp
ostream->write( noutput_items, eos, _maintainTimeStamp );
}
}
} // for ostreams
}
return nout;
}
bool VisusIndexedData::getText(XMLNode& node, std::vector<std::vector<T > >* items, XMLDataStorage storageType)
{
int numItems = xmltoi(node.getAttribute("numItems"));
int bufsize = xmltoi(node.getAttribute("bufsize"));
unsigned char* buffer = new unsigned char[bufsize+1];
switch (storageType)
{
case BASE64:
{
// Retrieve data as BASE64
XMLParserBase64Tool base64;
base64.decode(node.getText(), buffer, bufsize);
}
break;
case EXTERNAL_FILE:
{
vwarning("saving data to external file is not yet supported");
return false;
}
break;
case ASCII:
{
vwarning("saving data to external file is not yet supported");
return false;
}
break;
}
// Ensure vector is appropriate size
if ((int)items->capacity() < numItems)
items->resize(numItems);
// Copy from contiguous buffer into non-contiguous data
int position = 0;
for (typename std::vector<std::vector<T> >::iterator iiter=items->begin();
iiter!=items->end(); ++iiter)
{
T value;
memcpy(&value, &buffer[position], sizeof(T));
position += sizeof(T);
// Ensure item that is vector is appropriate size
if ((int)iiter->capacity() < (long) value)
iiter->resize((long)value);
// Load up item that is vector
for (typename std::vector<T>::iterator idtIter=iiter->begin();
idtIter!=iiter->end(); ++idtIter)
{
vassert(position < bufsize);
memcpy(&(*idtIter), &buffer[position], sizeof(T));
position += sizeof(T);
}
}
vassert(position == bufsize);
delete [] buffer;
return true;
}