int main(int argc, char *argv[])
{
PICTURE *pic,*pic2;
int opdim = 4;
float lowthresh = 0.05f, highthresh = 0.9f;
switch (argc) {
case 6: highthresh = (float)atof(argv[5]); argc--;
case 5: lowthresh = (float)atof(argv[4]); argc--;
case 4: opdim = atoi(argv[3]); argc--;
case 3: case 2: case 1: dofiles(argc,argv);
fprintf(stderr,"%s: operator side = %d\n", PROGNAME,opdim);
break;
default: fprintf(stderr,
"usage: %s [infile] [outfile] [side] [lowthresh] [highthresh]\n",
PROGNAME);
exit(1); }
if ((pic = readpic(FILEIN)) == NULL)
{ fprintf(stderr,"%s: failed to read input file\n",PROGNAME);
exit(1); }
if ((pic->fileid) != IMAGE_ID)
{ fprintf(stderr,"%s: wrong type of input file\n",PROGNAME);
exit(1); }
timex(); pic = grad(pic,opdim); timex();
// pic = morphgrads(pic); /* optional thinning */
pic = gradmag(pic);
pic2 = ftoim(pic,lowthresh,highthresh,1);
freepic(pic); /* ftoim does not free pic */
writepmpic(pic2,FILEOUT);
exit(0);
}
void getmax()
{
getch();
clrscr();
timex();
printf("\n");
printf("---------------------------Welcome----------------------------------\n");
printf("------------------BHARAT SANCHAR NIGAM LIMITED----------------------\n");
printf("----------------------Management System-----------------------------\n");
printf("-Software Developed By:Jaipuneet Singh, Jaswinder Pathania ---------\n");
printf("\n----------------------------------------------------------------\n\n");
}
void gimlocInit(){
static int rel_scan_count = -1;
static int frame_number = -1;
static double REC[336];
// std::cout <<"\nin gimloc init\n";
if(rel_scan_count != imagerDoc.rel_scan_count || frame_number != imagerDoc.frame_number) {
rel_scan_count = imagerDoc.rel_scan_count;
frame_number = imagerDoc.frame_number;
REC[0] = 0;
REC[1] = 0;
REC[2] = 0;
REC[3] = 0;
REC[4] = (double)imagerDoc.ReferenceLongitude; /* 295 298*/
REC[5] = (double)imagerDoc.ReferenceRadialDistance; /* 299 302*/
REC[6] = (double)imagerDoc.ReferenceLatitude; /* 303 306*/
REC[7] = (double)imagerDoc.ReferenceOrbitYaw; /* 307 310*/
REC[8] = (double)imagerDoc.ReferenceAttitudeRoll; /* 311 314*/
REC[9] = (double)imagerDoc.ReferenceAttitudePitch; /* 315 318*/
REC[10] = (double)imagerDoc.ReferenceAttitudeYaw; /* 319 322*/
REC[11] = (imagerDoc.EpochDate.year()* 10000 +
imagerDoc.EpochDate.day() * 10 +
(imagerDoc.EpochDate.hrs())/10 );
REC[12] = ( (imagerDoc.EpochDate.hrs()) % 10 * 10000000 +
imagerDoc.EpochDate.min() * 100000 +
imagerDoc.EpochDate.sec() * 10 +
imagerDoc.EpochDate.msec() );
REC[13] = (double)imagerDoc.IMCenableFromEpoch; /* 331 334*/
REC[14] = (double)imagerDoc.CompensationRoll; /* 335 338*/
REC[15] = (double)imagerDoc.CompensationPitch; /* 339 342*/
REC[16] = (double)imagerDoc.CompensationYaw; /* 343 346*/
int i ;
for(i=0; i<13; i++)
REC[i+17] = (double)imagerDoc.ChangeLongitude[i];/* 347 398*/
for(i = 0; i<11; i++)
REC[i+30] = (double)imagerDoc.ChangeRadialDistance[i]; /* 399 442*/
for(i = 0; i<9 ; i++)
REC[41+i] = (double)imagerDoc.SineGeocentricLatitude[i]; /* 443 478*/
for(i = 0; i<9; i++)
REC[50+i] = (double)imagerDoc.SineOrbitYaw[i]; /* 479 514*/
REC[59] = (double)imagerDoc.DailySolarRate; /* 515 518*/
REC[60] = (double)imagerDoc.ExponentialStartFromEpoch; /* 519 522*/
imagerDoc.RollAngle.toNoaaNavigation(REC+61);
imagerDoc.PitchAngle.toNoaaNavigation(REC+116); /* 743 962*/
imagerDoc.YawAngle.toNoaaNavigation(REC+171); /* 963 1182*/
imagerDoc.RollMisalignment.toNoaaNavigation(REC+226); /*1183 1402*/
imagerDoc.PitchMisalignment.toNoaaNavigation(REC+281); /*1403 1662*/
double T, TU;
int imc = 0; // imagerDoc.iscan.imcStatus() ;
double rlat, rlon;
double sec;
sec = imagerDoc.EpochDate.sec() + imagerDoc.EpochDate.msec()/1000.0;
timex(imagerDoc.EpochDate.year(),
imagerDoc.EpochDate.day(),
imagerDoc.EpochDate.hrs(),
imagerDoc.EpochDate.min(),
sec,
TU );
sec = imagerDoc.T_sps_current.sec() + imagerDoc.T_sps_current.msec()/1000.0;
timex(imagerDoc.T_sps_current.year(),
imagerDoc.T_sps_current.day(),
imagerDoc.T_sps_current.hrs(),
imagerDoc.T_sps_current.min(),
sec,
T );
int INSTRUMENT = 1;
int NS_NAD_CY = imagerDoc.ns_cycles;
int EW_NAD_CY = imagerDoc.ew_cycles;
int NS_NAD_INC = imagerDoc.ns_incr;
int EW_NAD_INC = imagerDoc.ew_incr;
setcon_(&INSTRUMENT,
&NS_NAD_CY,
&NS_NAD_INC,
&EW_NAD_CY,
&EW_NAD_INC);
double pi = 4 * atan(1.0);
/* ????? lmodel calculates rlat and rlon ????? */
rlat = (double) imagerDoc.Subsat_Lat* pi/180.0;
rlon = (double) imagerDoc.Subsat_Lon* pi/180.0;
lmodel_(&T,
&TU,
&REC,
&imc,
&rlat,
&rlon);
}
}
/*
* execute command tree
*/
int
execute(struct op * volatile t,
/* if XEXEC don't fork */
volatile int flags,
volatile int * volatile xerrok)
{
int i;
volatile int rv = 0, dummy = 0;
int pv[2];
const char ** volatile ap = NULL;
char ** volatile up;
const char *s, *ccp;
struct ioword **iowp;
struct tbl *tp = NULL;
char *cp;
if (t == NULL)
return (0);
/* Caller doesn't care if XERROK should propagate. */
if (xerrok == NULL)
xerrok = &dummy;
if ((flags&XFORK) && !(flags&XEXEC) && t->type != TPIPE)
/* run in sub-process */
return (exchild(t, flags & ~XTIME, xerrok, -1));
newenv(E_EXEC);
if (trap)
runtraps(0);
/* we want to run an executable, do some variance checks */
if (t->type == TCOM) {
/* check if this is 'var=<<EOF' */
if (
/* we have zero arguments, i.e. no programme to run */
t->args[0] == NULL &&
/* we have exactly one variable assignment */
t->vars[0] != NULL && t->vars[1] == NULL &&
/* we have exactly one I/O redirection */
t->ioact != NULL && t->ioact[0] != NULL &&
t->ioact[1] == NULL &&
/* of type "here document" (or "here string") */
(t->ioact[0]->flag & IOTYPE) == IOHERE &&
/* the variable assignment begins with a valid varname */
(ccp = skip_wdvarname(t->vars[0], true)) != t->vars[0] &&
/* and has no right-hand side (i.e. "varname=") */
ccp[0] == CHAR && ccp[1] == '=' && ccp[2] == EOS &&
/* plus we can have a here document content */
herein(t->ioact[0], &cp) == 0 && cp && *cp) {
char *sp = cp, *dp;
size_t n = ccp - t->vars[0] + 2, z;
/* drop redirection (will be garbage collected) */
t->ioact = NULL;
/* set variable to its expanded value */
z = strlen(cp) + 1;
if (notoktomul(z, 2) || notoktoadd(z * 2, n))
internal_errorf(Toomem, (unsigned long)-1);
dp = alloc(z * 2 + n, ATEMP);
memcpy(dp, t->vars[0], n);
t->vars[0] = dp;
dp += n;
while (*sp) {
*dp++ = QCHAR;
*dp++ = *sp++;
}
*dp = EOS;
/* free the expanded value */
afree(cp, APERM);
}
/*
* Clear subst_exstat before argument expansion. Used by
* null commands (see comexec() and c_eval()) and by c_set().
*/
subst_exstat = 0;
/* for $LINENO */
current_lineno = t->lineno;
/*
* POSIX says expand command words first, then redirections,
* and assignments last..
*/
up = eval(t->args, t->u.evalflags | DOBLANK | DOGLOB | DOTILDE);
if (flags & XTIME)
/* Allow option parsing (bizarre, but POSIX) */
timex_hook(t, &up);
ap = (const char **)up;
if (Flag(FXTRACE) && ap[0]) {
shf_puts(substitute(str_val(global("PS4")), 0),
shl_out);
for (i = 0; ap[i]; i++)
shf_fprintf(shl_out, "%s%c", ap[i],
ap[i + 1] ? ' ' : '\n');
shf_flush(shl_out);
}
if (ap[0])
tp = findcom(ap[0], FC_BI|FC_FUNC);
}
flags &= ~XTIME;
if (t->ioact != NULL || t->type == TPIPE || t->type == TCOPROC) {
e->savefd = alloc2(NUFILE, sizeof(short), ATEMP);
/* initialise to not redirected */
memset(e->savefd, 0, NUFILE * sizeof(short));
}
/* mark for replacement later (unless TPIPE) */
vp_pipest->flag |= INT_L;
/* do redirection, to be restored in quitenv() */
if (t->ioact != NULL)
for (iowp = t->ioact; *iowp != NULL; iowp++) {
if (iosetup(*iowp, tp) < 0) {
exstat = rv = 1;
/*
* Redirection failures for special commands
* cause (non-interactive) shell to exit.
*/
if (tp && tp->type == CSHELL &&
(tp->flag & SPEC_BI))
errorfz();
/* Deal with FERREXIT, quitenv(), etc. */
goto Break;
}
}
switch (t->type) {
case TCOM:
rv = comexec(t, tp, (const char **)ap, flags, xerrok);
break;
case TPAREN:
rv = execute(t->left, flags | XFORK, xerrok);
break;
case TPIPE:
flags |= XFORK;
flags &= ~XEXEC;
e->savefd[0] = savefd(0);
e->savefd[1] = savefd(1);
while (t->type == TPIPE) {
openpipe(pv);
/* stdout of curr */
ksh_dup2(pv[1], 1, false);
/**
* Let exchild() close pv[0] in child
* (if this isn't done, commands like
* (: ; cat /etc/termcap) | sleep 1
* will hang forever).
*/
exchild(t->left, flags | XPIPEO | XCCLOSE,
NULL, pv[0]);
/* stdin of next */
ksh_dup2(pv[0], 0, false);
closepipe(pv);
flags |= XPIPEI;
t = t->right;
}
/* stdout of last */
restfd(1, e->savefd[1]);
/* no need to re-restore this */
e->savefd[1] = 0;
/* Let exchild() close 0 in parent, after fork, before wait */
i = exchild(t, flags | XPCLOSE | XPIPEST, xerrok, 0);
if (!(flags&XBGND) && !(flags&XXCOM))
rv = i;
break;
case TLIST:
while (t->type == TLIST) {
execute(t->left, flags & XERROK, NULL);
t = t->right;
}
rv = execute(t, flags & XERROK, xerrok);
break;
case TCOPROC: {
#ifndef MKSH_NOPROSPECTOFWORK
sigset_t omask;
/*
* Block sigchild as we are using things changed in the
* signal handler
*/
sigprocmask(SIG_BLOCK, &sm_sigchld, &omask);
e->type = E_ERRH;
if ((i = kshsetjmp(e->jbuf))) {
sigprocmask(SIG_SETMASK, &omask, NULL);
quitenv(NULL);
unwind(i);
/* NOTREACHED */
}
#endif
/* Already have a (live) co-process? */
if (coproc.job && coproc.write >= 0)
errorf("coprocess already exists");
/* Can we re-use the existing co-process pipe? */
coproc_cleanup(true);
/* do this before opening pipes, in case these fail */
e->savefd[0] = savefd(0);
e->savefd[1] = savefd(1);
openpipe(pv);
if (pv[0] != 0) {
ksh_dup2(pv[0], 0, false);
close(pv[0]);
}
coproc.write = pv[1];
coproc.job = NULL;
if (coproc.readw >= 0)
ksh_dup2(coproc.readw, 1, false);
else {
openpipe(pv);
coproc.read = pv[0];
ksh_dup2(pv[1], 1, false);
/* closed before first read */
coproc.readw = pv[1];
coproc.njobs = 0;
/* create new coprocess id */
++coproc.id;
}
#ifndef MKSH_NOPROSPECTOFWORK
sigprocmask(SIG_SETMASK, &omask, NULL);
/* no more need for error handler */
e->type = E_EXEC;
#endif
/*
* exchild() closes coproc.* in child after fork,
* will also increment coproc.njobs when the
* job is actually created.
*/
flags &= ~XEXEC;
exchild(t->left, flags | XBGND | XFORK | XCOPROC | XCCLOSE,
NULL, coproc.readw);
break;
}
case TASYNC:
/*
* XXX non-optimal, I think - "(foo &)", forks for (),
* forks again for async... parent should optimise
* this to "foo &"...
*/
rv = execute(t->left, (flags&~XEXEC)|XBGND|XFORK, xerrok);
break;
case TOR:
case TAND:
rv = execute(t->left, XERROK, xerrok);
if ((rv == 0) == (t->type == TAND))
rv = execute(t->right, XERROK, xerrok);
flags |= XERROK;
if (xerrok)
*xerrok = 1;
break;
case TBANG:
rv = !execute(t->right, XERROK, xerrok);
flags |= XERROK;
if (xerrok)
*xerrok = 1;
break;
case TDBRACKET: {
Test_env te;
te.flags = TEF_DBRACKET;
te.pos.wp = t->args;
te.isa = dbteste_isa;
te.getopnd = dbteste_getopnd;
te.eval = test_eval;
te.error = dbteste_error;
rv = test_parse(&te);
break;
}
case TFOR:
case TSELECT: {
volatile bool is_first = true;
ap = (t->vars == NULL) ? e->loc->argv + 1 :
(const char **)eval((const char **)t->vars,
DOBLANK | DOGLOB | DOTILDE);
e->type = E_LOOP;
while ((i = kshsetjmp(e->jbuf))) {
if ((e->flags&EF_BRKCONT_PASS) ||
(i != LBREAK && i != LCONTIN)) {
quitenv(NULL);
unwind(i);
} else if (i == LBREAK) {
rv = 0;
goto Break;
}
}
/* in case of a continue */
rv = 0;
if (t->type == TFOR) {
while (*ap != NULL) {
setstr(global(t->str), *ap++, KSH_UNWIND_ERROR);
rv = execute(t->left, flags & XERROK, xerrok);
}
} else {
/* TSELECT */
for (;;) {
if (!(ccp = do_selectargs(ap, is_first))) {
rv = 1;
break;
}
is_first = false;
setstr(global(t->str), ccp, KSH_UNWIND_ERROR);
execute(t->left, flags & XERROK, xerrok);
}
}
break;
}
case TWHILE:
case TUNTIL:
e->type = E_LOOP;
while ((i = kshsetjmp(e->jbuf))) {
if ((e->flags&EF_BRKCONT_PASS) ||
(i != LBREAK && i != LCONTIN)) {
quitenv(NULL);
unwind(i);
} else if (i == LBREAK) {
rv = 0;
goto Break;
}
}
/* in case of a continue */
rv = 0;
while ((execute(t->left, XERROK, NULL) == 0) ==
(t->type == TWHILE))
rv = execute(t->right, flags & XERROK, xerrok);
break;
case TIF:
case TELIF:
if (t->right == NULL)
/* should be error */
break;
rv = execute(t->left, XERROK, NULL) == 0 ?
execute(t->right->left, flags & XERROK, xerrok) :
execute(t->right->right, flags & XERROK, xerrok);
break;
case TCASE:
i = 0;
ccp = evalstr(t->str, DOTILDE);
for (t = t->left; t != NULL && t->type == TPAT; t = t->right) {
for (ap = (const char **)t->vars; *ap; ap++) {
if (i || ((s = evalstr(*ap, DOTILDE|DOPAT)) &&
gmatchx(ccp, s, false))) {
rv = execute(t->left, flags & XERROK,
xerrok);
i = 0;
switch (t->u.charflag) {
case '&':
i = 1;
/* FALLTHROUGH */
case '|':
goto TCASE_next;
}
goto TCASE_out;
}
}
i = 0;
TCASE_next:
/* empty */;
}
TCASE_out:
break;
case TBRACE:
rv = execute(t->left, flags & XERROK, xerrok);
break;
case TFUNCT:
rv = define(t->str, t);
break;
case TTIME:
/*
* Clear XEXEC so nested execute() call doesn't exit
* (allows "ls -l | time grep foo").
*/
rv = timex(t, flags & ~XEXEC, xerrok);
break;
case TEXEC:
/* an eval'd TCOM */
s = t->args[0];
up = makenv();
restoresigs();
cleanup_proc_env();
{
union mksh_ccphack cargs;
cargs.ro = t->args;
execve(t->str, cargs.rw, up);
rv = errno;
}
if (rv == ENOEXEC)
scriptexec(t, (const char **)up);
else
errorf("%s: %s", s, cstrerror(rv));
}
Break:
exstat = rv & 0xFF;
if (vp_pipest->flag & INT_L) {
unset(vp_pipest, 1);
vp_pipest->flag = DEFINED | ISSET | INTEGER | RDONLY |
ARRAY | INT_U;
vp_pipest->val.i = rv;
}
/* restores IO */
quitenv(NULL);
if ((flags&XEXEC))
/* exit child */
unwind(LEXIT);
if (rv != 0 && !(flags & XERROK) &&
(xerrok == NULL || !*xerrok)) {
if (Flag(FERREXIT) & 0x80) {
/* inside eval */
Flag(FERREXIT) = 0;
} else {
trapsig(ksh_SIGERR);
if (Flag(FERREXIT))
unwind(LERROR);
}
}
return (rv);
}
int cond::TestGTPerf::execute(){
std::string gtag = getOptionValue<std::string>("globaltag");
bool debug = hasDebug();
std::string connect = getOptionValue<std::string>("connect");
bool verbose = hasOptionValue("verbose");
int nThrF = getOptionValue<int>("n_fetch");
int nThrD = getOptionValue<int>("n_deser");
std::cout << "\n++> going to use " << nThrF << " threads for loading, " << nThrD << " threads for deserialization. \n" << std::endl;
std::string serType = "unknown";
if ( connect.find("CMS_CONDITIONS") != -1 ) {
serType = "ROOT-5";
} else if (connect.find("CMS_TEST_CONDITIONS") != -1 ) {
serType = "boost";
}
Time_t startRun= 150005;
if(hasOptionValue("start_run")) startRun = getOptionValue<Time_t>("start_run");
Time_t startTs= 5800013687234232320;
if(hasOptionValue("start_ts")) startTs = getOptionValue<Time_t>("start_ts");
Time_t startLumi= 908900979179966;
if(hasOptionValue("start_lumi")) startLumi = getOptionValue<Time_t>("start_lumi");
std::string authPath("");
if( hasOptionValue("authPath")) authPath = getOptionValue<std::string>("authPath");
initializePluginManager();
Timer timex(serType);
ConnectionPoolWrapper connPool( 1, authPath, hasDebug() );
Session session = connPool.createSession( connect );
session.transaction().start();
std::cout <<"Loading Global Tag "<<gtag<<std::endl;
GTProxy gt = session.readGlobalTag( gtag );
session.transaction().commit();
std::cout <<"Loading "<<gt.size()<<" tags..."<<std::endl;
std::vector<UntypedPayloadProxy *> proxies;
std::map<std::string,size_t> requests;
size_t nt = 0;
for( auto t: gt ){
nt++;
UntypedPayloadProxy * p = new UntypedPayloadProxy;
p->init( session );
try{
p->load( t.tagName() );
if (nThrF == 1) { // detailed info only needed in single-threaded mode to get the types/names
p->setRecordInfo( t.recordName(), t.recordLabel() );
}
proxies.push_back( p );
requests.insert( std::make_pair( t.tagName(), 0 ) );
} catch ( const cond::Exception& e ){
std::cout <<"ERROR: "<<e.what()<<std::endl;
}
}
std::cout << proxies.size() << " tags successfully loaded." << std::endl;
timex.interval("loading iovs");
Time_t run = startRun;
Time_t lumi = startLumi;
Time_t ts = startTs;
if (nThrF > 1) session.transaction().commit();
tbb::task_scheduler_init init( nThrF );
std::vector<std::shared_ptr<FetchWorker> > tasks;
std::string payloadTypeName;
for( auto p: proxies ){
payloadTypeName = p->payloadType();
// ignore problematic ones for now
if ( (payloadTypeName == "SiPixelGainCalibrationOffline") // 2 * 133 MB !!!
) {
std::cout << "WARNING: Ignoring problematic payload of type " << payloadTypeName << std::endl;
continue;
}
if (nThrF > 1) {
auto fw = std::make_shared<FetchWorker>(connPool, connect, p, (std::map<std::string,size_t> *) &requests,
run, lumi, ts);
tasks.push_back(fw);
} else {
bool loaded = false;
time::TimeType ttype = p->timeType();
auto r = requests.find( p->tag() );
try{
if( ttype==runnumber ){
p->get( run, hasDebug() );
r->second++;
} else if( ttype==lumiid ){
p->get( lumi, hasDebug() );
r->second++;
} else if( ttype==timestamp){
p->get( ts, hasDebug() );
r->second++;
} else {
std::cout <<"WARNING: iov request on tag "<<p->tag()<<" (timeType="<<time::timeTypeName(p->timeType())<<") has been skipped."<<std::endl;
}
timex.fetchInt(p->getBufferSize()); // keep track of time vs. size
} catch ( const cond::Exception& e ){
std::cout <<"ERROR:"<<e.what()<<std::endl;
}
} // end else (single thread)
}
tbb::parallel_for_each(tasks.begin(),tasks.end(),invoker<std::shared_ptr<FetchWorker> >() );
std::cout << "global counter : " << fooGlobal << std::endl;
if (nThrF == 1) session.transaction().commit();
// session.transaction().commit();
timex.interval("loading payloads");
size_t totBufSize = 0;
for( auto p: proxies ){
totBufSize += p->getBufferSize();
}
std::cout << "++> total buffer size used : " << totBufSize << std::endl;
std::vector<std::shared_ptr<void> > payloads;
payloads.resize(400); //-todo: check we don't have more payloads than that !!
std::shared_ptr<void> payloadPtr;
tbb::task_scheduler_init initD( nThrD );
std::vector<std::shared_ptr<DeserialWorker> > tasksD;
timex.interval("setup deserialization");
int nEmpty = 0;
int nBig = 0;
int index = 0;
for( auto p: proxies ){
/// if ( p->getBufferSize() == 0 ) { // nothing to do for these ...
/// std::cout << "empty buffer found for " << p->payloadType() << std::endl;
/// nEmpty++;
/// continue;
/// }
payloadTypeName = p->payloadType();
// ignore problematic ones for now
if ( (payloadTypeName == "SiPixelGainCalibrationForHLT")
or (payloadTypeName == "SiPixelGainCalibrationOffline") // 2 * 133 MB !!!
or (payloadTypeName == "DTKeyedConfig")
or (payloadTypeName == "std::vector<unsigned long long>")
or (payloadTypeName == " AlignmentSurfaceDeformations")
// only in root for now:
or (payloadTypeName == "PhysicsTools::Calibration::MVAComputerContainer")
or (payloadTypeName == "PhysicsTools::Calibration::MVAComputerContainer")
or (payloadTypeName == "PhysicsTools::Calibration::MVAComputerContainer")
or (payloadTypeName == "PhysicsTools::Calibration::MVAComputerContainer")
) {
std::cout << "INFO: Ignoring payload of type " << payloadTypeName << std::endl;
continue;
}
if (nThrD > 1) {
auto dw = std::make_shared<DeserialWorker>(p, payloads[index]);
tasksD.push_back(dw);
} else { // single tread only
try {
std::pair<std::string, std::shared_ptr<void> > result = fetchOne( payloadTypeName, p->getBuffer(), p->getStreamerInfo(), payloadPtr);
payloads.push_back(result.second);
} catch ( const cond::Exception& e ){
std::cout << "\nERROR (cond): " << e.what() << std::endl;
std::cout << "for payload type name: " << payloadTypeName << std::endl;
} catch ( const std::exception& e ){
std::cout << "\nERROR (boost/std): " << e.what() << std::endl;
std::cout << "for payload type name: " << payloadTypeName << std::endl;
}
timex.deserInt(p->getBufferSize()); // keep track of time vs. size
} // single-thread
index++; // increment index into payloads
}
std::cout << std::endl;
tbb::parallel_for_each(tasksD.begin(),tasksD.end(),invoker<std::shared_ptr<DeserialWorker> >() );
timex.interval("deserializing payloads");
std::cout << "global counter : " << fooGlobal << std::endl;
std::cout << "found " << nEmpty << " empty payloads while deserialising " << std::endl;
std::cout <<std::endl;
std::cout <<"*** End of job."<<std::endl;
std::cout <<"*** GT: "<<gtag<<" Tags:"<<gt.size()<<" Loaded:"<<proxies.size()<<std::endl;
std::cout<<std::endl;
for( auto p: proxies ){
auto r = requests.find( p->tag() );
if( verbose ){
std::cout <<"*** Tag: "<<p->tag()<<" Requests processed:"<<r->second<<" Queries:"<< p->numberOfQueries() <<std::endl;
const std::vector<std::string>& hist = p->history();
for( auto e: p->history() ) std::cout <<" "<<e<<std::endl;
}
}
// only for igprof checking of live mem:
// ::exit(0);
timex.interval("postprocessing ... ");
timex.showIntervals();
if ( nThrF == 1) {
std::ofstream ofs("fetchInfo.txt");
timex.showFetchInfo(ofs);
std::ofstream ofs2("sizeInfo.txt");
for ( auto p: proxies ) {
ofs2 << p->payloadType() << "[" << p->recName() << ":" << p->recLabel() << "]" << " : " << p->getBufferSize() << std::endl;
}
}
if ( nThrD == 1) {
std::ofstream ofs1("deserializeInfo.txt");
timex.showDeserInfo(ofs1);
}
return 0;
}
