/* KeyManager - intercept keystrokes and hand them to the active window
*
* We use the top of winList as the current input focus. All input is handed
* to the window procedure EXCEPT for the tab key. The tab key is responsible
* for placing the top window on the bottom of the stack to cycle through the
* set of windows.
*
*/
VOID PASCAL INTERNAL KeyManager (VOID)
{
LONG now;
#if defined (HEAPCRAP)
INT fHeapChk;
#endif
/* do script first in case in contains a password command
*/
if ( pInitScript )
DoScript ( hCommand, pInitScript, 0 );
if (fMailAllowed) {
GetAliases ( fNotifyTools & F_LOADALIAS );
fNotifyTools &= ~(FLAG)F_LOADALIAS;
NotifyTools ( );
}
if ( fComposeOnBoot )
( *( winList->wndProc ) ) ( winList, KEY, 0 );
SendMessage ( hCommand, DISPPROMPT, TRUE );
while ( ( winList != NULL ) && ( !fQuit ) ) {
time ( &now );
CheckTimeDisplay ( now );
if ( pInitHdrCmd ) {
DoHeaders ( hCommand, pInitHdrCmd, TRUE );
SendMessage ( hCommand, DISPPROMPT, 0 );
ZMfree ( pInitHdrCmd );
pInitHdrCmd = NULL;
}
/* if system has not received a char for 10 sec then checkmail
*/
if (fMailAllowed)
CheckMail ( now );
/* time out password after (default) 6 hours in case user has
* left WZMAIL running and gone home
*/
if ( now > lTmPassword + lPasswordAge )
ResetPassword ( );
if ( now > lTmConnect + cSecConnect )
ZMDisconnect ( );
/* On multitasking systems, it is rude to go into polling loops.
*
* For OS/2, we have a separate thread dedicated to reading from the
* console. We clear a semaphore to let him read and then wait on
* a response semaphore with the specified timeout. This avoids
* polling.
*
* For real mode DOS, we presume that INT 16 (poll) will cause an
* explicit yield to other runnable threads.
*/
if (kbwait (60 * 1000)) {
fMailUnSeen = FALSE;
do {
(*winList->wndProc) ( winList, KEY, ReadKey() );
} while (!fQuit && kbwait (10000));
}
#if defined (HEAPCRAP)
if ( ( fHeapChk = heapchk ( ) ) != HEAPOK ) {
fprintf ( stderr, "%s\n",
( fHeapChk == HEAPBADBEGIN ? "Can't find heap" :
"Damaged heap" ) );
assert ( fHeapChk == HEAPOK );
}
#endif
}
return;
}
int main( int argc, char *argv[]){
#ifdef ZOOM_PROFILE
std::cout << "Connect" << ZMConnect() << std::endl;
#endif
po::variables_map vm;
process_args( argc, argv, vm);
size_t num_parts = atoi( vm[ "num-parts"].as< std::string>().c_str());
//setup some variables
std::string full_complex_name = vm[ "input-file"].as< std::string>();
std::string complex_name( full_complex_name);
std::string binary_name( argv[ 0]);
size_t found = complex_name.rfind( '/');
if ( found != std::string::npos){
complex_name.replace( 0, found+1, "");
}
tbb::task_scheduler_init init;
Complex complex;
Nerve nerve;
tbb::concurrent_vector< Complex_iterator> nearly_pure;
Stats stats;
// Read the cell_set in
//read_complex( full_complex_name, complex);
stats.timer.start();
Complex_filtration complex_filtration( complex);
stats.timer.stop();
double orig_filtration_time = stats.timer.elapsed();
std::cout << "filtered complex " << orig_filtration_time << std::endl;
stats.timer.start();
ctl::parallel::init_cover_complex( nerve, num_parts);
ctl::parallel::graph_partition_open_cover( complex_filtration, nerve, nearly_pure);
stats.timer.stop();
double cover_time = stats.timer.elapsed();
std::cout << "built cover." << std::endl;
#ifdef ZOOM_PROFILE
std::cout << "Profiling Begin";
ZMError start_error = ZMStartSession();
std::cout << start_error << std::endl;
#endif
ctl::parallel::compute_homology( complex, nerve, num_parts, stats);
#ifdef ZOOM_PROFILE
ZMError end_error = ZMStopSession();
std::cout << "Profiling End" << end_error << std::endl;
#endif
#ifdef ZOOM_PROFILE
std::cout << "Disconnect" << ZMDisconnect() << std::endl;
#endif
double total_time = cover_time + stats.filtration_time + stats.get_iterators +
stats.parallel_persistence + stats.initialize_cascade_boundary;
std::cout << std::setprecision( 2) << std::fixed;
std::cout << "build cover: " << cover_time
<< " (" << (cover_time/total_time)*100 << "%)" << std::endl;
std::cout << "re-filter complex: " << stats.filtration_time
<< " (" << (stats.filtration_time/total_time)*100 << "%)"
<< std::endl;
std::cout << "compute parallel ranges: " << stats.get_iterators
<< " (" << (stats.get_iterators/total_time)*100 << "%)"
<< std::endl;
std::cout << "initialize_cascade_boundary: "
<< stats.initialize_cascade_boundary << " ("
<< (stats.initialize_cascade_boundary/total_time)*100 << "%)" << std::endl;
std::cout << "parallel_homology: "
<< stats.parallel_persistence << " ("
<< (stats.parallel_persistence/total_time)*100 << "%)" << std::endl;
std::cout << "total time: " << total_time << " (100%)" << std::endl;
#ifdef TESTS_ON
ctl::run_tests( complex, blowup_complex, nerve);
#endif
init.terminate();
return 0;
}