bool qConsole::writeMessagesToFile(string strFilename)
{
ofstream fOutputFile(strFilename.c_str(), ios::app);
if(!fOutputFile)
{
setMessage(MSG_ERROR, "qConsole", "writeMessagesToFile : Cannot open file '" + strFilename + "' for console output");
return false;
}
/* _ftime stuff ripped out of MSDN entry for time -> getting current */
struct __timeb64 timebuffer;
char *timeline;
char *test = (char*)malloc(sizeof(char) * 100);
_ftime64( &timebuffer );
timeline = _ctime64( & ( timebuffer.time ) );
sprintf(test, "%.19s.%hu %s", timeline, timebuffer.millitm, &timeline[20] );
fOutputFile << "qConsole Console Output (Messages/Errors) for run at " << test;
for(unsigned int i = 0; i < m_vMessageBuffer.size(); ++i)
{
fOutputFile << m_vMessageBuffer[i] << endl;
}
fOutputFile <<"--------------------------------------------"<<endl;
free(test);
fOutputFile.close();
return true;
}
VPLTime_t VPLTime_GetTime(void)
{
VPLTime_t result;
#if __MSVCRT_VERSION__ >= 0x0601
struct __timeb64 timebuffer;
// use 'obsoleted' ftime for ms resolution.
// gettimeofday is not available on Windows.
# ifdef _MSC_VER
_ftime64_s(&timebuffer);
# else
_ftime64(&timebuffer);
# endif
#else
struct _timeb timebuffer;
// use 'obsoleted' ftime for ms resolution.
// gettimeofday is not available on Windows.
_ftime(&timebuffer);
#endif
result =
( ((VPLTime_t)(timebuffer.time ) * 1000) +
(timebuffer.millitm) );
// Multiply up for microseconds.
result *= 1000;
return result;
}
static void main_loop(void) {
struct timespec timeout;
pthread_mutex_lock (&gui_thread_lock);
while (client_state != Exit) {
run_one();
if (client_state == Exit) break;
#ifdef _WIN32
//Sleep(1000/UI_UPDATE_FPS);
#if (defined(__MINGW64__) || defined(__MINGW32__)) && __MSVCRT_VERSION__ >= 0x0601
struct __timeb64 timebuffer;
_ftime64(&timebuffer);
#else
struct __timeb32 timebuffer;
_ftime(&timebuffer);
#endif
timeout.tv_nsec = timebuffer.millitm * 1000000;
timeout.tv_sec = timebuffer.time;
#else // POSIX
clock_gettime(CLOCK_REALTIME, &timeout);
#endif
timeout.tv_nsec += 1000000000 / (UI_UPDATE_FPS);
if (timeout.tv_nsec >= 1000000000) {timeout.tv_nsec -= 1000000000; timeout.tv_sec+=1;}
pthread_cond_timedwait (&data_ready, &gui_thread_lock, &timeout);
} /* while running */
pthread_mutex_unlock (&gui_thread_lock);
}
//#pragma optimize("", off)
void VMVupManager::_UpdateRDVPoint()
{
RDVPointListIterator it = m_poRDVList.begin();
while(it != m_poRDVList.end())
{
RDVPointInfo& info = (*it).second;
D_CHECK(info.m_RunningInfo.IsValid());
f32 fNow = GameEngine::GetGameEngine()->GetClockMod()->GetTotalElapsedSeconds();
if(info.m_RunningInfo.m_ClientList.size() >= info.m_uiExpectedNum ||
fNow - info.m_RunningInfo.m_fStartTime >= (f32)info.m_uiTimeOut)
{
//Default value
s32 iDelayOfStartTime = 5000;
s32 iIntervalOfEachGroup = 0;
s32 iMaxGroupNum = 1;
s32 iRunningID = info.m_RunningInfo.m_uiCurrentRunningID;
RDVPointParameterListIterator itRDVPointParam = m_poRDVParam.find(Protocal::GetRDVPointID(Protocal::GetRDVPointMajor(iRunningID), 0));
if(itRDVPointParam != m_poRDVParam.end())
{
RDVPointParameter& param = (*itRDVPointParam).second;
iDelayOfStartTime = param.m_iDelayOfStartTime;
iIntervalOfEachGroup = param.m_iIntervalOfEachGroup;
iMaxGroupNum = param.m_iGroupNum;
}
struct __timeb64 timebuffer;
_ftime64(&timebuffer);
__int64 curTime = timebuffer.time * 1000 + timebuffer.millitm;
for(s32 i = 0; i < info.m_RunningInfo.m_ClientList.size(); ++i)
{
VMVup* pVup = FindVup(info.m_RunningInfo.m_ClientList[i]);
if(!pVup)
continue;
if(pVup->GetGroup() >= 0)
{
StartTesting(pVup, curTime + iDelayOfStartTime + pVup->GetGroup() * iIntervalOfEachGroup);
}
}
for(s32 i = 0; i < iMaxGroupNum; ++i)
{
__int64 nowms = curTime + iDelayOfStartTime + i * iIntervalOfEachGroup;
__int64 nows = nowms / 1000;
char timeline[26];
ctime_s(timeline, 26, &(nows));
LOG_INFO("RDVPoint(%d,%d)..Group(%d)..Time of starting test: %.19s.%03hu\n",
Protocal::GetRDVPointMajor(iRunningID), Protocal::GetRDVPointMinor(iRunningID), i, timeline, nowms % 1000);
}
VMSummary::GetPtr()->RemoveRDVPoint(Protocal::GetRDVPointMajor(iRunningID), Protocal::GetRDVPointMinor(iRunningID));
it = m_poRDVList.erase(it);
}
else
{
++it;
}
}
}
double sf_time()
{
#if defined(_WIN32) || defined(_WIN64)
struct __timeb64 t; _ftime64(&t);
return (t.time*1.0 + t.millitm/1000.0);
#else
struct timeval t; gettimeofday(&t, 0);
return (t.tv_sec*1.0 + t.tv_usec/1000000.0);
#endif
}
int64_t aa_timer(void)
{
#if HAVE_STRUCT___TIMEB64
struct __timeb64 tv;
_ftime64(&tv);
#else
struct timeb tv;
ftime(&tv);
#endif
return (int64_t)tv.time * 1000 + tv.millitm;
}
/**
* Get a timestamp in seconds since 1970-01-01
*/
double UtilGetSecondsEpoch()
{
#ifndef _WIN32
struct timeval tv;
gettimeofday(&tv,NULL);
return tv.tv_sec + (tv.tv_usec / 1e6);
#else
struct __timeb64 timebuffer;
_ftime64( &timebuffer );
return timebuffer.time + (timebuffer.millitm / 1e3);
#endif
}
/*--------------------------------------------------------------------------*/
double *getCurrentDateAsDoubleVector(int *iErr)
{
double *dVector = (double*) MALLOC(sizeof(double) * NB_ELEMNT_ARRAY_GETDATE);
*iErr = 1;
if (dVector)
{
struct tm *nowstruct = NULL;
double milliseconds = 0.;
#ifdef _MSC_VER
/* manages date up through 23:59:59, December 31, 3000 */
/* previous version was limited to 19:14:07 January 18, 2038, UTC. */
__time64_t long_time;
struct __timeb64 tstruct;
_ftime64(&tstruct);
long_time = tstruct.time;
nowstruct = _localtime64(&long_time);
#else
struct timeval timebuffer;
gettimeofday(&timebuffer, NULL);
nowstruct = localtime(&timebuffer);
#endif
#ifdef _MSC_VER
milliseconds = (double)(tstruct.millitm);
#else
milliseconds = (double)(timebuffer.tv_usec / 1000); /* micro to ms */
#endif
if (milliseconds < 0)
{
milliseconds = 0.;
}
if (nowstruct)
{
dVector[YEAR_INDEX] = (double)(1900 + nowstruct->tm_year);
dVector[MONTH_INDEX] = (double)(1 + nowstruct->tm_mon);
dVector[WEEK_NUMBER_INDEX] = (double)(week_number(nowstruct));
dVector[DAY_OF_YEAR_INDEX] = (double)(1 + nowstruct->tm_yday);
dVector[WEEKDAY_INDEX] = (double)(1 + nowstruct->tm_wday);
dVector[DAY_OF_MONTH_INDEX] = (double)(nowstruct->tm_mday);
dVector[HOUR_OF_DAY_INDEX] = (double)(nowstruct->tm_hour);
dVector[MINUTE_INDEX] = (double)(nowstruct->tm_min);
dVector[SECOND_INDEX] = (double)(nowstruct->tm_sec);
dVector[MILLISECOND_INDEX] = (double)milliseconds;
*iErr = 0;
}
}
return dVector;
}
void PutLog( const char* pszLog)
{
FILE* pFile;
pFile = fopen( "patchlog.txt", "a");
if ( pFile == NULL)
return;
char szBuff[128];
_strtime( szBuff);
struct __timeb64 tstruct;
_ftime64( &tstruct);
fprintf( pFile, "%s:%03d ", szBuff, tstruct.millitm);
fprintf( pFile, pszLog);
fprintf( pFile, "\n");
fclose( pFile);
}
int gettimeofday(struct timeval *tv_, void *tz_)
{
assert(tv_ != NULL);
#if defined(_MSC_VER) && _MSC_VER >= 1300
struct __timeb64 tb;
_ftime64(&tb);
#else
# ifndef __BORLANDC__
struct _timeb tb;
_ftime(&tb);
# else
struct timeb tb;
ftime(&tb);
# endif
#endif
tv_->tv_sec = (long)tb.time;
tv_->tv_usec = tb.millitm * 1000;
return 0;
}
/*--------------------------------------------------------------------------*/
double getCurrentDateAsUnixTimeConvention(void)
{
double dValue = 0.;
#ifdef _MSC_VER
/* manages date up through 23:59:59, December 31, 3000 */
/* previous version was limited to 19:14:07 January 18, 2038, UTC. */
struct __timeb64 tstruct;
_ftime64(&tstruct);
dValue = (double)tstruct.time;
#else
time_t t;
time(&t);
dValue = (double)t;
#endif
if (dValue < 0.)
{
dValue = 0.;
}
return dValue;
}
/*
* Returns the current time in a string format to be used
* when writing to the log.
*/
char *GetCurTimeForLogging(char *TimeStr)
{
struct tm *DetailedTime;
__time64_t SysTime;
struct __timeb64 SysTime2;
_ftime64(&SysTime2);
SysTime = (__time64_t) SysTime2.time;
//_time64(&SysTime);
DetailedTime = _localtime64(&SysTime);
sprintf(TimeStr, "%04d-%02d-%02d %02d:%02d:%02d:%03d",
(DetailedTime->tm_year + 1900),
DetailedTime->tm_mon,
DetailedTime->tm_mday,
DetailedTime->tm_hour,
DetailedTime->tm_min,
DetailedTime->tm_sec,
SysTime2.millitm);
return (TimeStr);
}
uint64 DefaultWallclockTimer::read()
{
// POSIX platforms.
#if defined __GNUC__
timeval tv;
gettimeofday(&tv, 0);
return static_cast<uint64>(tv.tv_sec) * 1000000 + static_cast<uint64>(tv.tv_usec);
// Windows.
#elif defined _WIN32
__timeb64 tb;
_ftime64(&tb);
return static_cast<uint64>(tb.time) * 1000 + static_cast<uint64>(tb.millitm);
// Other platforms.
#else
const time_t seconds = time(0);
return static_cast<uint64>(seconds);
#endif
}
INLINE
#endif /* PTW32_BUILD_INLINED */
DWORD
ptw32_relmillisecs (const struct timespec * abstime)
{
const int64_t NANOSEC_PER_MILLISEC = 1000000;
const int64_t MILLISEC_PER_SEC = 1000;
DWORD milliseconds;
int64_t tmpAbsMilliseconds;
int64_t tmpCurrMilliseconds;
#if defined(NEED_FTIME)
struct timespec currSysTime;
FILETIME ft;
SYSTEMTIME st;
#else /* ! NEED_FTIME */
#if ( defined(_MSC_VER) && _MSC_VER >= 1300 ) /* MSVC7+ */ || \
( defined(PTW32_CONFIG_MINGW) && __MSVCRT_VERSION__ >= 0x0601 )
struct __timeb64 currSysTime;
#else
struct _timeb currSysTime;
#endif
#endif /* NEED_FTIME */
/*
* Calculate timeout as milliseconds from current system time.
*/
/*
* subtract current system time from abstime in a way that checks
* that abstime is never in the past, or is never equivalent to the
* defined INFINITE value (0xFFFFFFFF).
*
* Assume all integers are unsigned, i.e. cannot test if less than 0.
*/
tmpAbsMilliseconds = (int64_t)abstime->tv_sec * MILLISEC_PER_SEC;
tmpAbsMilliseconds += ((int64_t)abstime->tv_nsec + (NANOSEC_PER_MILLISEC/2)) / NANOSEC_PER_MILLISEC;
/* get current system time */
#if defined(NEED_FTIME)
GetSystemTime(&st);
SystemTimeToFileTime(&st, &ft);
/*
* GetSystemTimeAsFileTime(&ft); would be faster,
* but it does not exist on WinCE
*/
ptw32_filetime_to_timespec(&ft, &currSysTime);
tmpCurrMilliseconds = (int64_t)currSysTime.tv_sec * MILLISEC_PER_SEC;
tmpCurrMilliseconds += ((int64_t)currSysTime.tv_nsec + (NANOSEC_PER_MILLISEC/2))
/ NANOSEC_PER_MILLISEC;
#else /* ! NEED_FTIME */
#if defined(_MSC_VER) && _MSC_VER >= 1400 /* MSVC8+ */
_ftime64_s(&currSysTime);
#elif ( defined(_MSC_VER) && _MSC_VER >= 1300 ) /* MSVC7+ */ || \
( defined(PTW32_CONFIG_MINGW) && __MSVCRT_VERSION__ >= 0x0601 )
_ftime64(&currSysTime);
#else
_ftime(&currSysTime);
#endif
tmpCurrMilliseconds = (int64_t) currSysTime.time * MILLISEC_PER_SEC;
tmpCurrMilliseconds += (int64_t) currSysTime.millitm;
#endif /* NEED_FTIME */
if (tmpAbsMilliseconds > tmpCurrMilliseconds)
{
milliseconds = (DWORD) (tmpAbsMilliseconds - tmpCurrMilliseconds);
if (milliseconds == INFINITE)
{
/* Timeouts must be finite */
milliseconds--;
}
}
else
{
/* The abstime given is in the past */
milliseconds = 0;
}
return milliseconds;
}
void Ctr2SufManager::ctr2sufProc(vector<vector<Point_3> >& MeshBoundingProfile3D,vector<Point_3>& vecTestPoint)
{
clock_t start = clock();
struct __timeb64 timebuffer;
char *timeline;
_ftime64( &timebuffer );
timeline = _ctime64( & ( timebuffer.time ) );
printf( "The time is %.19s.%hu %s", timeline, timebuffer.millitm, &timeline[20] );
//common line case
//compute the common line
if( isComnCase )
{
float tempparam[ 8 ];
for( int i = 0; i < 8; i ++)
{
tempparam[ i ] = pparam[ i ];
}
//////////////////////////////////////////////////////////////////////////
/*for( int i = 0 ; i < 8; i ++ )
{
cout<<tempparam[ i ]<<",";
}
cout<<endl;*/
//////////////////////////////////////////////////////////////////////////
computeComnLine( tempparam, tempparam + 4, comndir, comnpt);
//////////////////////////////////////////////////////////////////////////
/*for( int i = 0 ; i < 8; i ++ )
{
cout<<tempparam[ i ]<<",";
}
cout<<endl;*/
//////////////////////////////////////////////////////////////////////////
//////////////////////////////////////////////////////////////////////////
//writeComnLineDB( tempparam, tempparam + 4, comndir, comnpt);
//////////////////////////////////////////////////////////////////////////
}
//////////////////////////////////////////////////////////////////////////
/*for( int i = 0; i < planenum + 4; i ++ )
{
cout<<pparam[ 4* i ]<<","
<<pparam[ 4*i + 1]<<","
<<pparam[ 4*i + 2]<<","
<<pparam[ 4*i + 3]<<endl;
}
cout<<endl;*/
//////////////////////////////////////////////////////////////////////////
//preprocess data first
int** pctrvermark;
if( !ispreproced || isComnCase)
{
pctrvermark = preProcData(isComnCase);
//reset showcontourvers
for( int i = 0; i < showplanenum; i ++)
delete []showctrvers[ i ];
delete []showctrvers;
//copy the data from processed data, and reset size
showplanenum = planenum;
showctrvers = new float*[ showplanenum ];
showctredgenum = new int[ showplanenum ];
showctredges = new int*[ showplanenum ];
for( int i = 0; i < showplanenum; i++ )
{
int versize = pctrvernum[ i ]*3;
showctrvers[ i ] = new float[ versize ];
for( int j = 0 ; j < versize; j ++ )
showctrvers[ i ][ j ] = pctrvers[ i ][ j ]*DIM/PROCSIZE;
showctredgenum[ i ] = pctredgenum[ i ];
int edgesize = pctredgenum[ i ] * 2;
showctredges[ i ] = new int[ edgesize ];
for( int j = 0; j < showctredgenum[ i ]; j ++)
{
showctredges[ i ][ 2*j ] = pctredges[ i ][ 4*j ];
showctredges[ i ][ 2*j + 1 ] = pctredges[ i ][ 4*j + 1];
}
}
for( int i = 0; i < planenum; i ++)
{
int iVerIndBase=0;
vector<Point_3> CurrentProfile3D;
for( int j = 0;j < showctredgenum[ i ]; j++)
{
int v1 = showctredges[ i ][ 2*j ];
int v2 = showctredges[ i ][ 2*j + 1 ];
CurrentProfile3D.push_back(Point_3(showctrvers[ i ][ v1* 3],
showctrvers[ i ][ v1* 3+1],
showctrvers[ i ][ v1* 3+2]));
if (v2==iVerIndBase)
{
iVerIndBase=iVerIndBase+CurrentProfile3D.size();
MeshBoundingProfile3D.push_back(CurrentProfile3D);
CurrentProfile3D.clear();
}
}
}
//for( int i = 0; i < planenum; i ++)
//{
// vector<Point_3> CurrentProfile3D;
// for( int j = 0;j < showctredgenum[ i ]; j++)
// {
// int v1 = showctredges[ i ][ 2*j ];
// glVertex3fv( &showctrvers[ i ][ v1* 3] );
// CurrentProfile3D.push_back(Point_3(showctrvers[ i ][ v1* 3],
// showctrvers[ i ][ v1* 3+1],
// showctrvers[ i ][ v1* 3+2]));
// }
// MeshBoundingProfile3D.push_back(CurrentProfile3D);
//}
}
//////////////////////////////////////////////////////////////////////////
//for( int i = 0; i < planenum + 4; i ++ )
//{
// cout<<pparam[ 4* i ]<<","
// <<pparam[ 4*i + 1]<<","
// <<pparam[ 4*i + 2]<<","
// <<pparam[ 4*i + 3]<<endl;
//}
//cout<<endl;
//////////////////////////////////////////////////////////////////////////
//partition
// cout<<"------------------ PARTITION ------------------"<<endl;
// cout<<"Starting............"<<endl;
partition();
///////////////////////////////////////////////////////////B///////////////
/*writePartitionOut("mmdebug/partition.txt");*/
//////////////////////////////////////////////////////////////////////////
// cout<<"DONE!"<<endl<<endl;
//process data
// cout<<"------------------ PUT CONTOUR INTO FACE ------------------"<<endl;
putContourIntoFace( pctrvermark );
//SaveCtr2FaceInfo();
if( isComnCase )
{
for( int i = 0; i < planenum; i ++ )
delete []pctrvermark[ i ];
delete []pctrvermark;
}
//////////////////////////////////////////////////////////////////////////
// ContourHandler::writeContourInFace( ssfacenum, ctrfvernum, ctrfverpos, ctrfvertype,
// ctrfverval, ctrfedgenum, ctrfedge, ctrfedgetype, ctrfedgeval );
//////////////////////////////////////////////////////////////////////////
// cout<<"DONE!"<<endl<<endl;
//go through each subspace to generate mesh
// cout<<"-------- GENERATING MESH IN EACH SUBSPACE ------------"<<endl;
//kw noted: vertices, edges and faces in each subspace
//stitch them together finally
floatvector* subMeshVer;
intvector* subMeshEdge;
intvector* subMeshFace;
subMeshVer = new floatvector[ ssspacenum ];
subMeshEdge = new intvector[ ssspacenum ];
subMeshFace = new intvector[ ssspacenum ];
//initialize registration informaiton for stitching
sverreg = new intvector[ ssvernum ];
sedgereg = new vector<intvector>[ ssedgenum ];
sedgesubedgemark = new intvector[ ssedgenum ];
sfacectrei = new intset[ ssfacenum ];
sfacespaci = new int[ ssfacenum * 2 ];
sfaceregface = new vector<intvector>[ ssfacenum ];
sfaceregver = new intvector[ ssfacenum ];
sfaceregedgever = new intvector[ ssfacenum ];
for( int i = 0; i < ssfacenum*2; i ++)
{
sfacespaci[ i ] = -1;
}
for( int spacei = 0; spacei < ssspacenum; spacei ++)
{
for( int facej = 0; facej < ssspacefacenum[ spacei ]; facej ++)
{
int facei = ssspace[ spacei ][ facej ];
if( sfacespaci[ 2 * facei ] == -1)
sfacespaci[ 2 * facei ] = spacei;
else
sfacespaci[ 2*facei + 1 ] = spacei;
}
}
//////////////////////////////////////////////////////////////////////////
/*ancestorlist.resize( ssfacenum * 2 );
ancestorlist_split.resize( ssfacenum * 2 );*/
//////////////////////////////////////////////////////////////////////////
//return;
dbSpaceNum = ssspacenum;
if( dbOneSpaceMode )
{
if( dbCurSpace < dbSpaceNum )
{
ctr2sufSubspaceProc( dbCurSpace, subMeshVer[ dbCurSpace ], subMeshEdge[ dbCurSpace ], subMeshFace[ dbCurSpace ]);
//submeshedge is useless for stitching!
subMeshEdge[ dbCurSpace ].clear();
}
}
//kw: here can use multi-thread to compute each submesh in parallel
else{
// for( int i = 7; i< 8; i ++)
for( int i = 0; i < ssspacenum; i ++)
// for( int i = 2; i < 3; i ++)
// for( int i = 54; i < 55; i ++)
// for(int i = 0; i < 12; i ++)
// for( int i = 14; i < 15; i ++)
{
cout<<"--- subspace " << i <<endl;
ctr2sufSubspaceProc( i, subMeshVer[ i ], subMeshEdge[ i ], subMeshFace[ i ]);
//submeshedge is useless for stitching!
subMeshEdge[ i ].clear();
}
}
delete []subMeshEdge;
//////////////////////////////////////////////////////////////////////////
//cout<<"before splitting, ancestors:"<<endl;
//for( int i = 0; i < ssfacenum*2; i +=2 )
//{
// if( ancestorlist[ i ].size() == 0 )
// {
// if( ancestorlist[ i + 1].size() == 0 )
// continue;
// }
// intset::iterator iter = ancestorlist[ i ].begin();
//// intset::iterator iter2 = ancestorlist[ i + 1].begin();
// while( iter != ancestorlist[ i ].end() )
// {
// cout<<*iter<<" ";
// iter++;
// }
// cout<<endl;
// iter = ancestorlist[ i+1 ].begin();
// while( iter != ancestorlist[ i + 1 ].end() )
// {
// cout<<*iter <<" ";
// iter ++;
// }
// cout<<endl;
// cout<<"\n";
//}
//cout<<"=============================\n";
//cout<<"after splitting ancestors:"<<endl;
//for( int i= 0; i < ssfacenum*2; i += 2 )
//{
// if( ancestorlist_split[ i ].size() == 0 )
// {
// if( ancestorlist_split[ i + 1].size() == 0)
// continue;
// }
// intset::iterator iter = ancestorlist_split[ i ].begin();
// while( iter != ancestorlist_split[ i ].end() )
// {
// cout<<*iter <<" ";
// iter++;
// // cout<<endl;
// }
// cout<<endl;
// iter = ancestorlist_split[ i + 1].begin();
// while( iter != ancestorlist_split[ i + 1].end() )
// {
// cout<<*iter <<" ";
// iter ++;
// }
// cout<<endl<<endl;
//}
//////////////////////////////////////////////////////////////////////////
//cout the faces registered on the contour edges
/*for( int i = 0; i < ssfacenum; i ++ )
{
int ctrnum = sfaceregface[ i ].size()/2;
if( ctrnum == 0 )
continue;
intset::iterator iter = ancestorlist_split[2* i ].begin();
for( int j = 0; j < ctrnum; j ++ )
{
cout<<"("<<*iter<<":"<<sfaceregface[ i ][ 2*j ] .size()<<","<<
sfaceregface[ i ][ 2*j +1 ].size()<<") ";
iter++;
}
cout<<endl;
}*/
//////////////////////////////////////////////////////////////////////////
//for( int i = 0; i < ssfacenum; i ++)
//{
// ancestorlist[ i].clear();
// ancestorlist_split[ i ].clear();
//}
//ancestorlist_split.clear();
//ancestorlist.clear();
//////////////////////////////////////////////////////////////////////////
//stitch all the subspaces together
stitchMesh(subMeshVer,subMeshFace);
clock_t endt = clock();
cout<<"time difference is:"<<endt - start<<endl;
// struct __timeb64 timebuffer;
// char *timeline;
_ftime64( &timebuffer );
timeline = _ctime64( & ( timebuffer.time ) );
printf( "The time is %.19s.%hu %s", timeline, timebuffer.millitm, &timeline[20] );
// FaceGenerator::writeSubMeshOut( mver, mface, 99);
//clear all the allocated space
//for( int i = 0; i < ssspacenum; i ++)
//{
// //subMeshVer[ i ].clear();
//// subMeshEdge[ i ].clear();
// subMeshFace[ i ].clear();
//}
////delete []subMeshVer;
////delete []subMeshEdge;
//delete []subMeshFace;
/*subMeshFace = NULL;
subMeshVer = NULL;*/
//clear the registration information for subspace vertex, edge and face
//sverreg
for( int i = 0; i < ssvernum; i ++)
sverreg[ i ].clear();
delete []sverreg;
sverreg = NULL;
//sedgereg
for( int i= 0; i < ssedgenum; i ++)
{
for(unsigned int j = 0; j < sedgereg[ i ].size(); j ++)
sedgereg[ i ][ j ].clear();
sedgereg[ i ].clear();
}
delete []sedgereg;
sedgereg = NULL;
//sfacectrei, sfacespaci, sfaceregface, sfaceregver
for( int i= 0; i < ssfacenum; i ++)
{
sfacectrei[ i ].clear();
// for( int j = 0; j < sfaceregface[ i ].size(); j ++ )
// sfaceregface[ i ][ j ].clear();
// sfaceregface[ i ].clear();
sfaceregver[ i ].clear();
}
delete []sfacectrei;
delete []sfacespaci;
//delete []sfaceregface;
delete []sfaceregver;
sfacectrei = NULL;
sfacespaci = NULL;
//sfaceregface = NULL;
sfaceregver = NULL;
//set the mesh
//clear
if( mesh!= NULL )
delete mesh;
//set
mesh = new Mesh( mver, mface, ctrmedge,
center, unitlen, PROCSIZE );
////kw: get constrained vertices
//set<int> ConstrVer;
//for (unsigned int i=0;i<ctrmedge.size();i++)
//{
// ConstrVer.insert(ctrmedge.at(i));
//}
//for (set<int>::iterator SetIter=ConstrVer.begin();SetIter!=ConstrVer.end();SetIter++)
//{
// vecTestPoint.push_back(Point_3(mver.at(3*(*SetIter))*DIM/PROCSIZE,mver.at(3*(*SetIter)+1)*DIM/PROCSIZE,
// mver.at(3*(*SetIter)+2)*DIM/PROCSIZE));
//}
mesh->setGLParam( width, height, nearplane, farplane);
//clear
mver.clear();
mface.clear();
ctrmedge.clear();
}
/*===========================================================================
* ReadContinuousLogData
*---------------------------------------------------------------------------
* Description: Puts the node in continuous mode, reads the sensor data and
* prints to the screen and logs data to user file until the user
* interrupts.
*
* Return: HANDLE - handle to the opened comport
*===========================================================================*/
void ReadContinuousLogData(int portNum)
{
int iCount = 0;
BOOL bStopContinuous = FALSE;
DWORD dwcharsRead = 0;
I3dmgx3Set Record;
BYTE cmd_return;
int Curs_posY = 0;
int Curs_posX = 0;
int status = 0;
int error_record = 0;
int valid_check = 0;
int valid_count = 0;
char consoleBuff[60] = {0};
long valid_rec = 0;
unsigned char error_cmd;
char ComLogFile[256];
FILE *m_logFile;
int LogFlag = 0;
int error_count = 0;
int errorCode =0, i=0;
char fw[20] = {0};
char sn[20] = {0};
char mListSep[4];
char mDecSep[4];
LANGID langId;
char szLanguage[256]; /*MAX_PATH]; */
char idchar[] = {'\x02', '\x00', '\x01', '\x03', '\x04'};
int m_timerconst = 62500;
unsigned long AA_Time_Stamp=0;
unsigned long AA_s_prev =0;
float AA_convert = 0.0;
float AA_prev = 0.0;
struct __timeb64 timebuffer;
char *timeline;
_ftime64( &timebuffer );
timeline = _ctime64( & ( timebuffer.time ) );
while (LogFlag != 1){
printf("Enter Name of LogFile to use:");
scanf("%s", &ComLogFile); // 255);
printf("logFile %s\n", ComLogFile);
if ( ( m_logFile= fopen( ComLogFile, "w")) == NULL){
printf("File: %s not opened\n", ComLogFile);
if(++error_count > 2)
return;
}else LogFlag = 1;
}
fprintf(m_logFile, "[SESSION START TAG]\n");
fprintf(m_logFile, "Session Start Time:%.19s.%hu \n", timeline, timebuffer.millitm );
fprintf(m_logFile, "Time Source: HOST\n");
GetLocaleInfo(LOCALE_SYSTEM_DEFAULT,LOCALE_SLIST,mListSep,4);
fprintf(m_logFile, "List Separator: %s\n", mListSep);
GetLocaleInfo(LOCALE_SYSTEM_DEFAULT,LOCALE_SDECIMAL,mDecSep,4);
fprintf(m_logFile, "Decimal Separator: %s\n", mDecSep);
langId = GetSystemDefaultLangID ();
i = VerLanguageName (langId, szLanguage, 256); //dwSize = MAX_PATH;
fprintf(m_logFile, "Language: %s\n", szLanguage);
while(valid_check == 0)
{
errorCode = i3dmgx3_getFirmwareVersion(portNum, &fw[0]);
if (errorCode < 0){
purge_port(portNum);
printf("Firmware Error %d\n",errorCode);
if (valid_count++ > 6) {
printf("Please Halt Current Data Display and Retry, count %d\n", valid_count);
return;
}
}else if (errorCode >= 0){
valid_check = 1;
}
}
/*------------------------------------------------------------------
* 0xEA get serial information number, model and options (as string)
*-----------------------------------------------------------------*/
valid_count =0;
for ( i=0; i<4; i++){ //cycles through the valid device options
errorCode = i3dmgx3_getDeviceIdentiy(portNum, idchar[i], &sn[0]);
if (errorCode < 0){
purge_port(portNum);
i--;
if (valid_count++ >6){
printf("Error Read Device Identity: %s\n", explainError(errorCode));
}
} else{
switch( i ) {
case 0:
fprintf(m_logFile, "Device Name: %s\n",sn);
break;
case 1:
fprintf(m_logFile, "Device Model: %s\n",sn);
break;
case 2:
fprintf(m_logFile, "Device FirmWare Version: %s\n", fw);
fprintf(m_logFile, "Device Serial Number: %s\n", sn);
break;
case 3:
fprintf(m_logFile, "Device Options: %s\n", sn);
break;
case 4:
default:
break;
}
}
}
fprintf(m_logFile, "Command C2\n[DATA START TAG]\n\t Time%s Accel X%s Accel Y%s Accel Z%s AngRate X%s AngRate Y%s AngRate Z%s Ticks\n", mListSep, mListSep, mListSep, mListSep, mListSep, mListSep, mListSep);
//put the node in continuous mode
status =SetContinuousMode(portNum, 0xC2);
printf("setcontinuous is %d", status);
//set up the output for the data
printf("\n\n");
printf("Reading streaming data (hit s to Stop streaming).\n");
printf("C2___________________________Acceleration_______________________________\n");
printf(" X Y Z \n");
/* acceleration values go here */
printf("\n\n\n");
printf("C2____________________________Angular_Rate______________________________\n");
printf(" X Y Z \n");
/* angle rate values go here */
getConXY(&Curs_posX, &Curs_posY);
printf("\n\n\n\n");
//continue until the user hits the <s>top key
while(!bStopContinuous)
{
if(ReadNextRecord(portNum, &Record, &cmd_return) != SUCCESS)
error_record++;
if (cmd_return == 0xC2){
if (AA_s_prev == 0){
fprintf(m_logFile, "\t 0.00");
AA_s_prev = Record.timer; //AA_Time_Stamp;
}
else
{
AA_convert = ((float)(Record.timer - AA_s_prev)/m_timerconst); //19660800);
AA_s_prev = Record.timer; //AA_Time_Stamp;
AA_prev = AA_prev + AA_convert;
fprintf(m_logFile, "\t%6.2f", AA_prev);
}
//move to the acceleration position and print the data
sprintf(consoleBuff, "\t%2.6f\t\t%2.6f\t\t%2.6f", Record.setA[0], Record.setA[1], Record.setA[2]);
fprintf(m_logFile, "%s %2.6f%s %2.6f%s %2.6f%s ", mListSep, Record.setA[0],mListSep, Record.setA[1], mListSep, Record.setA[2], mListSep);
setConXY(Curs_posX, Curs_posY -5, &consoleBuff[0]);
sprintf(consoleBuff, "\t%2.6f\t\t%2.6f\t\t%2.6f", Record.setB[0], Record.setB[1], Record.setB[2]);
fprintf(m_logFile, "%2.6f%s %2.6f%s %2.6f%s %u\n", Record.setB[0], mListSep, Record.setB[1], mListSep, Record.setB[2], mListSep, Record.timer);
setConXY(Curs_posX, Curs_posY, &consoleBuff[0]);
valid_rec++;
}else if (cmd_return != 0xc4){
if((cmd_return == 0xCB || cmd_return == 0xD3) && error_record == 0)
error_cmd = cmd_return;
else
error_record++;
}
//check for a key every 50 iterations
if(iCount++ > 50) {
int ch = 0;
if(ReadCharNoReturn(&ch)){
bStopContinuous = (ch == 's' || ch == 'S');
}
//reset the counter
iCount = 0;
}
}
printf("\n\n\nStopping Continuous Mode...");
StopContinuousMode(portNum);
printf("stopped.\n");
fclose(m_logFile);
if (error_record > 0)
printf("Number of records received in error were %d and received successfully %d\n", error_record, valid_rec);
else
printf("All %d records read successfully.\n", valid_rec);
}