void * solver_setup_thread_fun( void *data )
#endif
{
solverpair *sp = ( solverpair * ) data;
VSPAEROMgrSingleton* vsmgr = sp->first;
VSPAEROScreen *vsscreen = sp->second;
if( vsmgr && vsscreen )
{
vsscreen->m_SolverSetupThreadIsRunning = true;
// EXECUTE SOLVER
vsmgr->CreateSetupFile();
// Read setup file
vsscreen->ReadSetup();
vsscreen->m_SolverSetupThreadIsRunning = false;
vsscreen->GetScreenMgr()->SetUpdateFlag( true );
}
return 0;
}
void * monitorfun( void *data )
#endif
{
monitorpair *mp = ( monitorpair * ) data;
VSPAEROScreen *vs = mp->first;
int id = mp->second;
if( vs )
{
Fl_Text_Display *display = vs->GetDisplay( id );
ProcessUtil *pu = vs->GetProcess( id );
if( pu && display )
{
int bufsize = 1000;
char *buf;
buf = ( char* ) malloc( sizeof( char ) * ( bufsize + 1 ) );
unsigned long nread = 1;
bool runflag = pu->IsRunning();
while( runflag || nread > 0 )
{
nread = 0;
pu->ReadStdoutPipe( buf, bufsize, &nread );
if( nread > 0 )
{
buf[nread] = 0;
StringUtil::change_from_to( buf, '\r', '\n' );
Fl::lock();
// Any FL calls must occur between Fl::lock() and Fl::unlock().
vs->AddOutputText( display, buf );
Fl::unlock();
}
if( runflag )
{
SleepForMilliseconds( 100 );
}
runflag = pu->IsRunning();
}
#ifdef WIN32
CloseHandle( pu->m_StdoutPipe[0] );
pu->m_StdoutPipe[0] = NULL;
#else
close( pu->m_StdoutPipe[0] );
pu->m_StdoutPipe[0] = -1;
#endif
vs->GetScreenMgr()->SetUpdateFlag( true );
free( buf );
}
}
return 0;
}
