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#include <cstdio>
#include <cstdlib>
#include <cctk.h>
#include <cctk_Parameters.h>
#include <CactusTimerSet.hh>
#include <Timer.hh>
#include <dist.hh>
#include <carpet.hh>
namespace Carpet {
using namespace std;
int Shutdown (tFleshConfig* fc)
{
DECLARE_CCTK_PARAMETERS;
Waypoint ("Starting shutdown");
const int convlev = 0;
cGH* cctkGH = fc->GH[convlev];
static Timers::Timer timer ("Shutdown");
timer.start();
for (int rl=reflevels-1; rl>=0; --rl) {
BEGIN_REVERSE_MGLEVEL_LOOP(cctkGH) {
ENTER_LEVEL_MODE (cctkGH, rl) {
BeginTimingLevel (cctkGH);
do_early_global_mode = reflevel==reflevels-1;
do_late_global_mode = reflevel==0;
do_early_meta_mode = do_early_global_mode and mglevel==0;
do_late_meta_mode = do_late_global_mode and mglevel==mglevels-1;
do_global_mode = do_late_global_mode;
do_meta_mode = do_late_meta_mode;
Checkpoint ("Shutdown at iteration %d time %g%s%s",
cctkGH->cctk_iteration, (double)cctkGH->cctk_time,
(do_global_mode ? " (global)" : ""),
(do_meta_mode ? " (meta)" : ""));
// Terminate
Checkpoint ("Scheduling TERMINATE");
CCTK_ScheduleTraverse ("CCTK_TERMINATE", cctkGH, CallFunction);
EndTimingLevel (cctkGH);
} LEAVE_LEVEL_MODE;
} END_REVERSE_MGLEVEL_LOOP;
} // for rl
// Stop all timers before shutdown, since timers may rely on data
// structures which are destroyed during shutdown
int const ierr = CCTK_TimerStop ("CCTK total time");
assert (not ierr);
timer.stop();
if (output_timers_every > 0) {
Timers::CactusTimerSet::writeData (cctkGH, timer_file);
}
BEGIN_REVERSE_MGLEVEL_LOOP(cctkGH) {
do_early_global_mode = true;
do_late_global_mode = true;
do_early_meta_mode = do_early_global_mode and mglevel==0;
do_late_meta_mode = do_late_global_mode and mglevel==mglevels-1;
do_global_mode = do_late_global_mode;
do_meta_mode = do_late_meta_mode;
// Shutdown
Checkpoint ("Scheduling SHUTDOWN");
CCTK_ScheduleTraverse ("CCTK_SHUTDOWN", cctkGH, CallFunction);
} END_REVERSE_MGLEVEL_LOOP;
if (output_timer_tree_every > 0) {
Timers::Timer::outputTree("Evolve");
}
if (output_xml_timer_tree) {
Timers::Timer::outputTreeXML();
}
// Free all memory, call all destructors
for (size_t gi=0; gi<arrdata.size(); ++gi) {
for (size_t m=0; m<arrdata.AT(gi).size(); ++m) {
for (size_t vi=0; vi<arrdata.AT(gi).AT(m).data.size(); ++vi) {
ggf*& f = arrdata.AT(gi).AT(m).data.AT(vi);
if (f) {
delete f; f = 0;
}
}
}
}
// for (int gi=0; gi<CCTK_NumGroups(); ++gi) {
// const int tls = 0;
// CCTK_GroupStorageDecrease(cctkGH, 1, &gi, &tls, 0);
// }
for (size_t gi=0; gi<arrdata.size(); ++gi) {
if (CCTK_GroupTypeI(gi) == CCTK_GF) {
for (size_t m=0; m<arrdata.AT(gi).size(); ++m) {
arrdata.AT(gi).AT(m).tt = 0;
arrdata.AT(gi).AT(m).dd = 0;
arrdata.AT(gi).AT(m).hh = 0;
}
} else {
for (size_t m=0; m<arrdata.AT(gi).size(); ++m) {
delete arrdata.AT(gi).AT(m).tt; arrdata.AT(gi).AT(m).tt = 0;
delete arrdata.AT(gi).AT(m).dd; arrdata.AT(gi).AT(m).dd = 0;
delete arrdata.AT(gi).AT(m).hh; arrdata.AT(gi).AT(m).hh = 0;
}
}
}
delete tt; tt = 0;
for (size_t m=0; m<vdd.size(); ++m) {
delete vdd.AT(m); vdd.AT(m) = 0;
}
for (size_t m=0; m<vhh.size(); ++m) {
delete vhh.AT(m); vhh.AT(m) = 0;
}
// earlier checkpoint before finalising MPI
Waypoint ("Done with shutdown");
return 0;
}
} // namespace Carpet
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