void gmx_log_open(const char *lognm, const t_commrec *cr,
gmx_bool bAppendFiles, FILE** fplog)
{
int pid;
char host[256];
char timebuf[STRLEN];
FILE *fp = *fplog;
debug_gmx();
if (!bAppendFiles)
{
fp = gmx_fio_fopen(lognm, bAppendFiles ? "a+" : "w+" );
}
gmx_fatal_set_log_file(fp);
/* Get some machine parameters */
gmx_gethostname(host, 256);
pid = gmx_getpid();
gmx_format_current_time(timebuf, STRLEN);
if (bAppendFiles)
{
fprintf(fp,
"\n"
"\n"
"-----------------------------------------------------------\n"
"Restarting from checkpoint, appending to previous log file.\n"
"\n"
);
}
fprintf(fp,
"Log file opened on %s"
"Host: %s pid: %d rank ID: %d number of ranks: %d\n",
timebuf, host, pid, cr->nodeid, cr->nnodes);
try
{
gmx::BinaryInformationSettings settings;
settings.extendedInfo(true);
settings.copyright(!bAppendFiles);
gmx::printBinaryInformation(fp, gmx::getProgramContext(), settings);
}
GMX_CATCH_ALL_AND_EXIT_WITH_FATAL_ERROR;
fprintf(fp, "\n");
fflush(fp);
debug_gmx();
*fplog = fp;
}
static void comm_args(const t_commrec *cr, int *argc, char ***argv)
{
int i, len;
if (PAR(cr))
{
gmx_bcast(sizeof(*argc), argc, cr);
}
if (!MASTER(cr))
{
snew(*argv, *argc+1);
}
if (debug)
{
fprintf(debug, "NODEID=%d argc=%d\n", cr->nodeid, *argc);
}
for (i = 0; (i < *argc); i++)
{
if (MASTER(cr))
{
len = strlen((*argv)[i])+1;
}
gmx_bcast(sizeof(len), &len, cr);
if (!MASTER(cr))
{
snew((*argv)[i], len);
}
/*gmx_bcast(len*sizeof((*argv)[i][0]),(*argv)[i],cr);*/
gmx_bcast(len*sizeof(char), (*argv)[i], cr);
}
debug_gmx();
}
static void comm_args(const t_commrec *cr,int *argc,char ***argv)
{
int i,len;
if ((cr) && PAR(cr))
gmx_bcast(sizeof(*argc),argc,cr);
if (!MASTER(cr))
snew(*argv,*argc+1);
fprintf(stderr,"NODEID=%d argc=%d\n",cr->nodeid,*argc);
for(i=0; (i<*argc); i++) {
if (MASTER(cr))
len = strlen((*argv)[i])+1;
gmx_bcast(sizeof(len),&len,cr);
if (!MASTER(cr))
snew((*argv)[i],len);
gmx_bcast(len*sizeof((*argv)[i][0]),(*argv)[i],cr);
}
debug_gmx();
}
void do_force_lowlevel(t_forcerec *fr, t_inputrec *ir,
t_idef *idef, t_commrec *cr,
t_nrnb *nrnb, gmx_wallcycle_t wcycle,
t_mdatoms *md,
rvec x[], history_t *hist,
rvec f[],
rvec f_longrange[],
gmx_enerdata_t *enerd,
t_fcdata *fcd,
gmx_localtop_t *top,
gmx_genborn_t *born,
gmx_bool bBornRadii,
matrix box,
t_lambda *fepvals,
real *lambda,
t_graph *graph,
t_blocka *excl,
rvec mu_tot[],
int flags,
float *cycles_pme)
{
int i, j;
int donb_flags;
gmx_bool bSB;
int pme_flags;
matrix boxs;
rvec box_size;
t_pbc pbc;
real dvdl_dum[efptNR], dvdl_nb[efptNR];
#ifdef GMX_MPI
double t0 = 0.0, t1, t2, t3; /* time measurement for coarse load balancing */
#endif
set_pbc(&pbc, fr->ePBC, box);
/* reset free energy components */
for (i = 0; i < efptNR; i++)
{
dvdl_nb[i] = 0;
dvdl_dum[i] = 0;
}
/* Reset box */
for (i = 0; (i < DIM); i++)
{
box_size[i] = box[i][i];
}
debug_gmx();
/* do QMMM first if requested */
if (fr->bQMMM)
{
enerd->term[F_EQM] = calculate_QMMM(cr, x, f, fr);
}
/* Call the short range functions all in one go. */
#ifdef GMX_MPI
/*#define TAKETIME ((cr->npmenodes) && (fr->timesteps < 12))*/
#define TAKETIME FALSE
if (TAKETIME)
{
MPI_Barrier(cr->mpi_comm_mygroup);
t0 = MPI_Wtime();
}
#endif
if (ir->nwall)
{
/* foreign lambda component for walls */
real dvdl_walls = do_walls(ir, fr, box, md, x, f, lambda[efptVDW],
enerd->grpp.ener[egLJSR], nrnb);
enerd->dvdl_lin[efptVDW] += dvdl_walls;
}
/* If doing GB, reset dvda and calculate the Born radii */
if (ir->implicit_solvent)
{
wallcycle_sub_start(wcycle, ewcsNONBONDED);
for (i = 0; i < born->nr; i++)
{
fr->dvda[i] = 0;
}
if (bBornRadii)
{
calc_gb_rad(cr, fr, ir, top, x, &(fr->gblist), born, md, nrnb);
}
wallcycle_sub_stop(wcycle, ewcsNONBONDED);
}
where();
/* We only do non-bonded calculation with group scheme here, the verlet
* calls are done from do_force_cutsVERLET(). */
if (fr->cutoff_scheme == ecutsGROUP && (flags & GMX_FORCE_NONBONDED))
{
donb_flags = 0;
/* Add short-range interactions */
donb_flags |= GMX_NONBONDED_DO_SR;
/* Currently all group scheme kernels always calculate (shift-)forces */
if (flags & GMX_FORCE_FORCES)
{
donb_flags |= GMX_NONBONDED_DO_FORCE;
}
if (flags & GMX_FORCE_VIRIAL)
{
donb_flags |= GMX_NONBONDED_DO_SHIFTFORCE;
}
if (flags & GMX_FORCE_ENERGY)
{
donb_flags |= GMX_NONBONDED_DO_POTENTIAL;
}
if (flags & GMX_FORCE_DO_LR)
{
donb_flags |= GMX_NONBONDED_DO_LR;
}
wallcycle_sub_start(wcycle, ewcsNONBONDED);
do_nonbonded(fr, x, f, f_longrange, md, excl,
&enerd->grpp, nrnb,
lambda, dvdl_nb, -1, -1, donb_flags);
/* If we do foreign lambda and we have soft-core interactions
* we have to recalculate the (non-linear) energies contributions.
*/
if (fepvals->n_lambda > 0 && (flags & GMX_FORCE_DHDL) && fepvals->sc_alpha != 0)
{
for (i = 0; i < enerd->n_lambda; i++)
{
real lam_i[efptNR];
for (j = 0; j < efptNR; j++)
{
lam_i[j] = (i == 0 ? lambda[j] : fepvals->all_lambda[j][i-1]);
}
reset_foreign_enerdata(enerd);
do_nonbonded(fr, x, f, f_longrange, md, excl,
&(enerd->foreign_grpp), nrnb,
lam_i, dvdl_dum, -1, -1,
(donb_flags & ~GMX_NONBONDED_DO_FORCE) | GMX_NONBONDED_DO_FOREIGNLAMBDA);
sum_epot(&(enerd->foreign_grpp), enerd->foreign_term);
enerd->enerpart_lambda[i] += enerd->foreign_term[F_EPOT];
}
}
wallcycle_sub_stop(wcycle, ewcsNONBONDED);
where();
}
/* If we are doing GB, calculate bonded forces and apply corrections
* to the solvation forces */
/* MRS: Eventually, many need to include free energy contribution here! */
if (ir->implicit_solvent)
{
wallcycle_sub_start(wcycle, ewcsLISTED);
calc_gb_forces(cr, md, born, top, x, f, fr, idef,
ir->gb_algorithm, ir->sa_algorithm, nrnb, &pbc, graph, enerd);
wallcycle_sub_stop(wcycle, ewcsLISTED);
}
#ifdef GMX_MPI
if (TAKETIME)
{
t1 = MPI_Wtime();
fr->t_fnbf += t1-t0;
}
#endif
if (fepvals->sc_alpha != 0)
{
enerd->dvdl_nonlin[efptVDW] += dvdl_nb[efptVDW];
}
else
{
enerd->dvdl_lin[efptVDW] += dvdl_nb[efptVDW];
}
if (fepvals->sc_alpha != 0)
/* even though coulomb part is linear, we already added it, beacuse we
need to go through the vdw calculation anyway */
{
enerd->dvdl_nonlin[efptCOUL] += dvdl_nb[efptCOUL];
}
else
{
enerd->dvdl_lin[efptCOUL] += dvdl_nb[efptCOUL];
}
debug_gmx();
if (debug)
{
pr_rvecs(debug, 0, "fshift after SR", fr->fshift, SHIFTS);
}
/* Shift the coordinates. Must be done before listed forces and PPPM,
* but is also necessary for SHAKE and update, therefore it can NOT
* go when no listed forces have to be evaluated.
*
* The shifting and PBC code is deliberately not timed, since with
* the Verlet scheme it only takes non-zero time with triclinic
* boxes, and even then the time is around a factor of 100 less
* than the next smallest counter.
*/
/* Here sometimes we would not need to shift with NBFonly,
* but we do so anyhow for consistency of the returned coordinates.
*/
if (graph)
{
shift_self(graph, box, x);
if (TRICLINIC(box))
{
inc_nrnb(nrnb, eNR_SHIFTX, 2*graph->nnodes);
}
else
{
inc_nrnb(nrnb, eNR_SHIFTX, graph->nnodes);
}
}
/* Check whether we need to do listed interactions or correct for exclusions */
if (fr->bMolPBC &&
((flags & GMX_FORCE_LISTED)
|| EEL_RF(fr->eeltype) || EEL_FULL(fr->eeltype) || EVDW_PME(fr->vdwtype)))
{
/* TODO There are no electrostatics methods that require this
transformation, when using the Verlet scheme, so update the
above conditional. */
/* Since all atoms are in the rectangular or triclinic unit-cell,
* only single box vector shifts (2 in x) are required.
*/
set_pbc_dd(&pbc, fr->ePBC, cr->dd, TRUE, box);
}
debug_gmx();
do_force_listed(wcycle, box, ir->fepvals, cr->ms,
idef, (const rvec *) x, hist, f, fr,
&pbc, graph, enerd, nrnb, lambda, md, fcd,
DOMAINDECOMP(cr) ? cr->dd->gatindex : NULL,
flags);
where();
*cycles_pme = 0;
clear_mat(fr->vir_el_recip);
clear_mat(fr->vir_lj_recip);
/* Do long-range electrostatics and/or LJ-PME, including related short-range
* corrections.
*/
if (EEL_FULL(fr->eeltype) || EVDW_PME(fr->vdwtype))
{
int status = 0;
real Vlr_q = 0, Vlr_lj = 0, Vcorr_q = 0, Vcorr_lj = 0;
real dvdl_long_range_q = 0, dvdl_long_range_lj = 0;
bSB = (ir->nwall == 2);
if (bSB)
{
copy_mat(box, boxs);
svmul(ir->wall_ewald_zfac, boxs[ZZ], boxs[ZZ]);
box_size[ZZ] *= ir->wall_ewald_zfac;
}
if (EEL_PME_EWALD(fr->eeltype) || EVDW_PME(fr->vdwtype))
{
real dvdl_long_range_correction_q = 0;
real dvdl_long_range_correction_lj = 0;
/* With the Verlet scheme exclusion forces are calculated
* in the non-bonded kernel.
*/
/* The TPI molecule does not have exclusions with the rest
* of the system and no intra-molecular PME grid
* contributions will be calculated in
* gmx_pme_calc_energy.
*/
if ((ir->cutoff_scheme == ecutsGROUP && fr->n_tpi == 0) ||
ir->ewald_geometry != eewg3D ||
ir->epsilon_surface != 0)
{
int nthreads, t;
wallcycle_sub_start(wcycle, ewcsEWALD_CORRECTION);
if (fr->n_tpi > 0)
{
gmx_fatal(FARGS, "TPI with PME currently only works in a 3D geometry with tin-foil boundary conditions");
}
nthreads = fr->nthread_ewc;
#pragma omp parallel for num_threads(nthreads) schedule(static)
for (t = 0; t < nthreads; t++)
{
try
{
tensor *vir_q, *vir_lj;
real *Vcorrt_q, *Vcorrt_lj, *dvdlt_q, *dvdlt_lj;
if (t == 0)
{
vir_q = &fr->vir_el_recip;
vir_lj = &fr->vir_lj_recip;
Vcorrt_q = &Vcorr_q;
Vcorrt_lj = &Vcorr_lj;
dvdlt_q = &dvdl_long_range_correction_q;
dvdlt_lj = &dvdl_long_range_correction_lj;
}
else
{
vir_q = &fr->ewc_t[t].vir_q;
vir_lj = &fr->ewc_t[t].vir_lj;
Vcorrt_q = &fr->ewc_t[t].Vcorr_q;
Vcorrt_lj = &fr->ewc_t[t].Vcorr_lj;
dvdlt_q = &fr->ewc_t[t].dvdl[efptCOUL];
dvdlt_lj = &fr->ewc_t[t].dvdl[efptVDW];
clear_mat(*vir_q);
clear_mat(*vir_lj);
}
*dvdlt_q = 0;
*dvdlt_lj = 0;
/* Threading is only supported with the Verlet cut-off
* scheme and then only single particle forces (no
* exclusion forces) are calculated, so we can store
* the forces in the normal, single fr->f_novirsum array.
*/
ewald_LRcorrection(fr->excl_load[t], fr->excl_load[t+1],
cr, t, fr,
md->chargeA, md->chargeB,
md->sqrt_c6A, md->sqrt_c6B,
md->sigmaA, md->sigmaB,
md->sigma3A, md->sigma3B,
md->nChargePerturbed || md->nTypePerturbed,
ir->cutoff_scheme != ecutsVERLET,
excl, x, bSB ? boxs : box, mu_tot,
ir->ewald_geometry,
ir->epsilon_surface,
fr->f_novirsum, *vir_q, *vir_lj,
Vcorrt_q, Vcorrt_lj,
lambda[efptCOUL], lambda[efptVDW],
dvdlt_q, dvdlt_lj);
}
GMX_CATCH_ALL_AND_EXIT_WITH_FATAL_ERROR;
}
if (nthreads > 1)
{
reduce_thread_energies(fr->vir_el_recip, fr->vir_lj_recip,
&Vcorr_q, &Vcorr_lj,
&dvdl_long_range_correction_q,
&dvdl_long_range_correction_lj,
nthreads, fr->ewc_t);
}
wallcycle_sub_stop(wcycle, ewcsEWALD_CORRECTION);
}
void
do_force_listed(gmx_wallcycle *wcycle,
matrix box,
const t_lambda *fepvals,
const gmx_multisim_t *ms,
const t_idef *idef,
const rvec x[],
history_t *hist,
rvec f[],
t_forcerec *fr,
const struct t_pbc *pbc,
const struct t_graph *graph,
gmx_enerdata_t *enerd,
t_nrnb *nrnb,
real *lambda,
const t_mdatoms *md,
t_fcdata *fcd,
int *global_atom_index,
int flags)
{
t_pbc pbc_full; /* Full PBC is needed for position restraints */
if (!(flags & GMX_FORCE_LISTED))
{
return;
}
if ((idef->il[F_POSRES].nr > 0) ||
(idef->il[F_FBPOSRES].nr > 0))
{
/* Not enough flops to bother counting */
set_pbc(&pbc_full, fr->ePBC, box);
}
calc_listed(ms, wcycle, idef, x, hist, f, fr, pbc, &pbc_full,
graph, enerd, nrnb, lambda, md, fcd,
global_atom_index, flags);
/* Check if we have to determine energy differences
* at foreign lambda's.
*/
if (fepvals->n_lambda > 0 && (flags & GMX_FORCE_DHDL))
{
posres_wrapper_lambda(wcycle, fepvals, idef, &pbc_full, x, enerd, lambda, fr);
if (idef->ilsort != ilsortNO_FE)
{
wallcycle_sub_start(wcycle, ewcsLISTED_FEP);
if (idef->ilsort != ilsortFE_SORTED)
{
gmx_incons("The bonded interactions are not sorted for free energy");
}
for (int i = 0; i < enerd->n_lambda; i++)
{
real lam_i[efptNR];
reset_foreign_enerdata(enerd);
for (int j = 0; j < efptNR; j++)
{
lam_i[j] = (i == 0 ? lambda[j] : fepvals->all_lambda[j][i-1]);
}
calc_listed_lambda(idef, x, fr, pbc, graph, &(enerd->foreign_grpp), enerd->foreign_term, nrnb, lam_i, md,
fcd, global_atom_index);
sum_epot(&(enerd->foreign_grpp), enerd->foreign_term);
enerd->enerpart_lambda[i] += enerd->foreign_term[F_EPOT];
}
wallcycle_sub_stop(wcycle, ewcsLISTED_FEP);
}
}
debug_gmx();
}
void parse_common_args(int *argc,char *argv[],unsigned long Flags,
int nfile,t_filenm fnm[],int npargs,t_pargs *pa,
int ndesc,char **desc,int nbugs,char **bugs)
{
static bool bHelp=FALSE,bHidden=FALSE,bQuiet=FALSE;
static char *manstr[] = { NULL, "no", "html", "tex", "nroff", "ascii", "completion", NULL };
static char *not_nicestr[] = { NULL, "0", "4", "10", "19", NULL };
static char *nicestr[] = { NULL, "19", "10", "4", "0", NULL };
static char *not_npristr[] = { NULL, "0", "128", "100", "200", "250", NULL };
static char *npristr[] = { NULL, "128", "250", "200", "100", "0", NULL };
static int nicelevel=0,mantp=0,npri=0;
static bool bGUI=FALSE,bDebug=FALSE;
static char *deffnm=NULL;
FILE *fp;
bool bPrint,bExit;
int i,j,k,npall;
char *ptr,*newdesc;
char *envstr;
t_pargs *all_pa=NULL;
t_pargs motif_pa = { "-X", FALSE, etBOOL, {&bGUI},
"Use dialog box GUI to edit command line options" };
t_pargs npri_paX = { "-npri", FALSE, etENUM, {not_npristr},
"Set non blocking priority" };
t_pargs npri_pa = { "-npri", FALSE, etINT, {&npri},
"HIDDEN Set non blocking priority (try 128)" };
t_pargs nice_paX = { "-nice", FALSE, etENUM, {not_nicestr},
"Set the nicelevel" };
t_pargs nice_pa = { "-nice", FALSE, etINT, {&nicelevel},
"Set the nicelevel" };
t_pargs deffnm_pa = { "-deffnm", FALSE, etSTR, {&deffnm},
"Set the default filename for all file options" };
t_pargs begin_pa = { "-b", FALSE, etTIME, {&tbegin},
"First frame (%t) to read from trajectory" };
t_pargs end_pa = { "-e", FALSE, etTIME, {&tend},
"Last frame (%t) to read from trajectory" };
t_pargs dt_pa = { "-dt", FALSE, etTIME, {&tdelta},
"Only use frame when t MOD dt = first time (%t)" };
t_pargs view_pa = { "-w", FALSE, etBOOL, {&bView},
"View output xvg, xpm, eps and pdb files" };
t_pargs time_pa = { "-tu", FALSE, etENUM, {timestr},
"Time unit" };
t_pargs pca_pa[] = {
{ "-h", FALSE, etBOOL, {&bHelp},
"Print help info and quit" },
{ "-hidden", FALSE, etBOOL, {&bHidden},
"HIDDENPrint hidden options" },
{ "-quiet",FALSE, etBOOL, {&bQuiet},
"HIDDENDo not print help info" },
{ "-man", FALSE, etENUM, {manstr},
"HIDDENWrite manual and quit" },
{ "-debug",FALSE, etBOOL, {&bDebug},
"HIDDENWrite file with debug information" },
};
#define NPCA_PA asize(pca_pa)
debug_gmx();
if (debug) {
fprintf(debug,"PID=%d, argc = %d\n",gmx_node_id(),*argc);
for(i=0; (i<*argc); i++)
fprintf(debug,"PID=%d, argv[%d] = %s\n",gmx_node_id(),i,argv[i]);
}
/* Check for double arguments */
for (i=1; (i<*argc); i++) {
if (argv[i] && (strlen(argv[i]) > 1) && (!isdigit(argv[i][1]))) {
for (j=i+1; (j<*argc); j++) {
if ( (argv[i][0]=='-') && (argv[j][0]=='-') &&
(strcmp(argv[i],argv[j])==0) ) {
if (FF(PCA_NOEXIT_ON_ARGS))
fprintf(stderr,"Double command line argument %s\n",argv[i]);
else
fatal_error(0,"Double command line argument %s\n",argv[i]);
}
}
}
}
debug_gmx();
/* Handle the flags argument, which is a bit field
* The FF macro returns whether or not the bit is set
*/
uFlags = Flags;
bPrint = !FF(PCA_SILENT);
/* Check whether we should have GUI or not */
#ifdef HAVE_MOTIF
bGUI = (getenv("GMXMOTIF") != NULL);
for(i=1; (i<*argc); i++) {
if (strcmp(argv[i],"-X") == 0)
bGUI = TRUE;
else if (strcmp(argv[i],"-noX") == 0)
bGUI = FALSE;
}
if (bGUI)
bQuiet = TRUE;
#else
bGUI = FALSE;
#endif
set_program_name(argv[0]);
/* Check ALL the flags ... */
snew(all_pa,NPCA_PA+npargs);
for(i=npall=0; (i<NPCA_PA); i++)
npall = add_parg(npall,&(all_pa),&(pca_pa[i]));
/* Motif options */
npall = add_parg(npall,&(all_pa),&motif_pa);
#if (defined __sgi && !defined SPEC_CPU)
envstr = getenv("GMXNPRIALL");
if (envstr)
npri=atoi(envstr);
if (FF(PCA_BE_NICE)) {
envstr = getenv("GMXNPRI");
if (envstr)
npri=atoi(envstr);
}
if (bGUI) {
if (npri)
npri_paX.u.c = npristr;
npall = add_parg(npall,&(all_pa),&npri_paX);
}
else
npall = add_parg(npall,&(all_pa),&npri_pa);
#endif
if (bGUI) {
/* Automatic nice or scheduling options */
if (FF(PCA_BE_NICE))
nice_paX.u.c = nicestr;
npall = add_parg(npall,&(all_pa),&nice_paX);
}
else {
if (FF(PCA_BE_NICE))
nicelevel=19;
npall = add_parg(npall,&(all_pa),&nice_pa);
}
if (FF(PCA_CAN_SET_DEFFNM))
npall = add_parg(npall,&(all_pa),&deffnm_pa);
if (FF(PCA_CAN_BEGIN))
npall = add_parg(npall,&(all_pa),&begin_pa);
if (FF(PCA_CAN_END))
npall = add_parg(npall,&(all_pa),&end_pa);
if (FF(PCA_CAN_DT))
npall = add_parg(npall,&(all_pa),&dt_pa);
#ifndef SPEC_CPU
if (FF(PCA_TIME_UNIT)) {
envstr = getenv("GMXTIMEUNIT");
if ( envstr == NULL )
envstr="ps";
set_default_time_unit(envstr);
npall = add_parg(npall,&(all_pa),&time_pa);
} else
#endif
set_default_time_unit("ps");
if (FF(PCA_CAN_VIEW))
npall = add_parg(npall,&(all_pa),&view_pa);
/* Now append the program specific arguments */
for(i=0; (i<npargs); i++)
npall = add_parg(npall,&(all_pa),&(pa[i]));
/* set etENUM options to default */
for(i=0; (i<npall); i++)
if (all_pa[i].type==etENUM)
all_pa[i].u.c[0]=all_pa[i].u.c[1];
/* Now parse all the command-line options */
get_pargs(argc,argv,npall,all_pa,FF(PCA_KEEP_ARGS));
if (FF(PCA_CAN_SET_DEFFNM) && (deffnm!=NULL))
set_default_file_name(deffnm);
/* Parse the file args */
parse_file_args(argc,argv,nfile,fnm,FF(PCA_KEEP_ARGS));
/* Open the debug file */
if (bDebug) {
char buf[256];
if (gmx_node_num() > 1)
sprintf(buf,"%s%d.log",ShortProgram(),gmx_node_id());
else
sprintf(buf,"%s.log",ShortProgram());
init_debug(buf);
fprintf(debug,"%s (this file) opened in file %s, line %d\n",
buf,__FILE__,__LINE__);
}
/* Now we have parsed the command line arguments. If the user wants it
* we can now plop up a GUI dialog box to edit options.
*/
if (bGUI) {
#ifdef HAVE_MOTIF
gmx_gui(argc,argv,nfile,fnm,npall,all_pa,ndesc,desc,nbugs,bugs);
#else
fatal_error(0,"GROMACS compiled without MOTIF support - can't use X interface");
#endif
}
/* Now copy the results back... */
for(i=0,k=npall-npargs; (i<npargs); i++,k++)
memcpy(&(pa[i]),&(all_pa[k]),(size_t)sizeof(pa[i]));
for(i=0; (i<npall); i++)
all_pa[i].desc = mk_desc(&(all_pa[i]), time_unit() );
bExit = bHelp || (strcmp(manstr[0],"no") != 0);
#if (defined __sgi && USE_SGI_FPE)
doexceptions();
#endif
/* Set the nice level */
#ifdef __sgi
if (bGUI)
if (npri)
sscanf(npristr[0],"%d",&npri);
else
sscanf(not_npristr[0],"%d",&npri);
if (npri != 0 && !bExit) {
(void) schedctl(MPTS_RTPRI,0,npri);
}
else
#endif
#ifdef HAVE_UNISTD_H
if (bGUI) {
if (FF(PCA_BE_NICE))
sscanf(nicestr[0],"%d",&nicelevel);
else
sscanf(not_nicestr[0],"%d",&nicelevel);
}
if (nicelevel != 0 && !bExit)
nice(nicelevel);
#endif
if (!(FF(PCA_QUIET) || bQuiet )) {
if (bHelp)
write_man(stderr,"help",program,ndesc,desc,nfile,fnm,npall,all_pa,
nbugs,bugs,bHidden);
else if (bPrint) {
pr_fns(stderr,nfile,fnm);
print_pargs(stderr,npall,all_pa);
}
}
if (strcmp(manstr[0],"no") != 0) {
if(!strcmp(manstr[0],"completion")) {
/* one file each for csh, bash and zsh if we do completions */
fp=man_file(program,"completion-zsh");
write_man(fp,"completion-zsh",program,ndesc,desc,nfile,fnm,npall,all_pa,nbugs,bugs,bHidden);
fclose(fp);
fp=man_file(program,"completion-bash");
write_man(fp,"completion-bash",program,ndesc,desc,nfile,fnm,npall,all_pa,nbugs,bugs,bHidden);
fclose(fp);
fp=man_file(program,"completion-csh");
write_man(fp,"completion-csh",program,ndesc,desc,nfile,fnm,npall,all_pa,nbugs,bugs,bHidden);
fclose(fp);
} else {
fp=man_file(program,manstr[0]);
write_man(fp,manstr[0],program,ndesc,desc,nfile,fnm,npall,all_pa,nbugs,bugs,bHidden);
fclose(fp);
}
}
/* convert time options, must be done after printing! */
init_time_factor();
for(i=0; i<npall; i++) {
if ((all_pa[i].type == etTIME) && (*all_pa[i].u.r >= 0)) {
*all_pa[i].u.r /= timefactor;
}
}
/* clear memory */
for(i=0; i<npall; i++)
sfree(all_pa[i].desc);
sfree(all_pa);
if (!FF(PCA_NOEXIT_ON_ARGS)) {
if (*argc > 1) {
for(i=1; (i<*argc); i++)
fprintf(stderr,"Unknown argument: %s\n",argv[i]);
fatal_error(0,"Program %s halted",Program());
}
}
if (bExit) {
#ifdef USE_MPI
if (gmx_parallel)
gmx_abort(gmx_node_id(),gmx_node_num(),0);
#endif
exit(0);
}
}
FILE *gmx_log_open(char *lognm,const t_commrec *cr,bool bMasterOnly, unsigned long Flags)
{
int len,testlen,pid;
char buf[256],host[256];
time_t t;
FILE *fp;
bool bAppend = Flags & MD_APPENDFILES;
debug_gmx();
/* Communicate the filename for logfile */
if (cr->nnodes > 1 && !bMasterOnly) {
if (MASTER(cr))
len = strlen(lognm)+1;
gmx_bcast(sizeof(len),&len,cr);
if (!MASTER(cr))
snew(lognm,len+8);
gmx_bcast(len*sizeof(*lognm),lognm,cr);
}
debug_gmx();
if (PAR(cr) && !bMasterOnly) {
/* Since log always ends with '.log' let's use this info */
par_fn(lognm,efLOG,cr,cr->ms!=NULL,buf,255);
fp = gmx_fio_fopen(buf, bAppend ? "a" : "w" );
} else {
fp = gmx_fio_fopen(lognm, bAppend ? "a" : "w" );
}
gmx_fatal_set_log_file(fp);
/* Get some machine parameters */
#ifdef HAVE_UNISTD_H
if( gethostname(host,255) != 0)
sprintf(host,"unknown");
#else
sprintf(host,"unknown");
#endif
time(&t);
#ifndef NO_GETPID
# if ((defined WIN32 || defined _WIN32 || defined WIN64 || defined _WIN64) && !defined __CYGWIN__ && !defined __CYGWIN32__)
pid = _getpid();
# else
pid = getpid();
# endif
#else
pid = 0;
#endif
if(bAppend)
{
fprintf(fp,
"\n\n"
"-----------------------------------------------------------\n"
"Restarting from checkpoint, appending to previous log file.\n\n"
);
}
fprintf(fp,
"Log file opened on %s"
"Host: %s pid: %d nodeid: %d nnodes: %d\n",
ctime(&t),host,pid,cr->nodeid,cr->nnodes);
#if (defined BUILD_MACHINE && defined BUILD_TIME && defined BUILD_USER)
fprintf(fp,
"The Gromacs distribution was built %s by\n"
"%s (%s)\n\n\n",BUILD_TIME,BUILD_USER,BUILD_MACHINE);
#endif
fflush(fp);
debug_gmx();
return fp;
}
gmx_bool parse_common_args(int *argc, char *argv[], unsigned long Flags,
int nfile, t_filenm fnm[], int npargs, t_pargs *pa,
int ndesc, const char **desc,
int nbugs, const char **bugs,
output_env_t *oenv)
{
/* This array should match the order of the enum in oenv.h */
const char *xvg_format[] = { NULL, "xmgrace", "xmgr", "none", NULL };
/* This array should match the order of the enum in oenv.h */
const char *time_units[] = {
NULL, "fs", "ps", "ns", "us", "ms", "s",
NULL
};
int nicelevel = 0, debug_level = 0;
char *deffnm = NULL;
real tbegin = 0, tend = 0, tdelta = 0;
gmx_bool bView = FALSE;
t_pargs *all_pa = NULL;
t_pargs nice_pa = {
"-nice", FALSE, etINT, {&nicelevel},
"Set the nicelevel"
};
t_pargs deffnm_pa = {
"-deffnm", FALSE, etSTR, {&deffnm},
"Set the default filename for all file options"
};
t_pargs begin_pa = {
"-b", FALSE, etTIME, {&tbegin},
"First frame (%t) to read from trajectory"
};
t_pargs end_pa = {
"-e", FALSE, etTIME, {&tend},
"Last frame (%t) to read from trajectory"
};
t_pargs dt_pa = {
"-dt", FALSE, etTIME, {&tdelta},
"Only use frame when t MOD dt = first time (%t)"
};
t_pargs view_pa = {
"-w", FALSE, etBOOL, {&bView},
"View output [TT].xvg[tt], [TT].xpm[tt], [TT].eps[tt] and [TT].pdb[tt] files"
};
t_pargs xvg_pa = {
"-xvg", FALSE, etENUM, {xvg_format},
"xvg plot formatting"
};
t_pargs time_pa = {
"-tu", FALSE, etENUM, {time_units},
"Time unit"
};
/* Maximum number of extra arguments */
#define EXTRA_PA 16
t_pargs pca_pa[] = {
{ "-debug", FALSE, etINT, {&debug_level},
"HIDDENWrite file with debug information, 1: short, 2: also x and f" },
};
#define NPCA_PA asize(pca_pa)
gmx_bool bXvgr;
int i, j, k, npall, max_pa;
// Handle the flags argument, which is a bit field
// The FF macro returns whether or not the bit is set
#define FF(arg) ((Flags & arg) == arg)
/* Check for double arguments */
for (i = 1; (i < *argc); i++)
{
if (argv[i] && (strlen(argv[i]) > 1) && (!std::isdigit(argv[i][1])))
{
for (j = i+1; (j < *argc); j++)
{
if ( (argv[i][0] == '-') && (argv[j][0] == '-') &&
(strcmp(argv[i], argv[j]) == 0) )
{
if (FF(PCA_NOEXIT_ON_ARGS))
{
fprintf(stderr, "Double command line argument %s\n",
argv[i]);
}
else
{
gmx_fatal(FARGS, "Double command line argument %s\n",
argv[i]);
}
}
}
}
}
debug_gmx();
/* Check ALL the flags ... */
max_pa = NPCA_PA + EXTRA_PA + npargs+1;
snew(all_pa, max_pa);
for (i = npall = 0; (i < static_cast<int>(NPCA_PA)); i++)
{
npall = add_parg(npall, all_pa, &(pca_pa[i]));
}
if (FF(PCA_BE_NICE))
{
nicelevel = 19;
}
npall = add_parg(npall, all_pa, &nice_pa);
if (FF(PCA_CAN_SET_DEFFNM))
{
npall = add_parg(npall, all_pa, &deffnm_pa);
}
if (FF(PCA_CAN_BEGIN))
{
npall = add_parg(npall, all_pa, &begin_pa);
}
if (FF(PCA_CAN_END))
{
npall = add_parg(npall, all_pa, &end_pa);
}
if (FF(PCA_CAN_DT))
{
npall = add_parg(npall, all_pa, &dt_pa);
}
if (FF(PCA_TIME_UNIT))
{
npall = add_parg(npall, all_pa, &time_pa);
}
if (FF(PCA_CAN_VIEW))
{
npall = add_parg(npall, all_pa, &view_pa);
}
bXvgr = FALSE;
for (i = 0; (i < nfile); i++)
{
bXvgr = bXvgr || (fnm[i].ftp == efXVG);
}
if (bXvgr)
{
npall = add_parg(npall, all_pa, &xvg_pa);
}
/* Now append the program specific arguments */
for (i = 0; (i < npargs); i++)
{
npall = add_parg(npall, all_pa, &(pa[i]));
}
/* set etENUM options to default */
for (i = 0; (i < npall); i++)
{
if (all_pa[i].type == etENUM)
{
all_pa[i].u.c[0] = all_pa[i].u.c[1];
}
}
set_default_time_unit(time_units, FF(PCA_TIME_UNIT));
set_default_xvg_format(xvg_format);
/* Now parse all the command-line options */
get_pargs(argc, argv, npall, all_pa);
/* set program name, command line, and default values for output options */
output_env_init(oenv, gmx::getProgramContext(), (time_unit_t)nenum(time_units), bView,
(xvg_format_t)nenum(xvg_format), 0, debug_level);
/* Parse the file args */
parse_file_args(argc, argv, nfile, fnm, deffnm, !FF(PCA_NOT_READ_NODE));
/* Open the debug file */
if (debug_level > 0)
{
char buf[256];
if (gmx_mpi_initialized())
{
sprintf(buf, "%s%d.debug", output_env_get_short_program_name(*oenv),
gmx_node_rank());
}
else
{
sprintf(buf, "%s.debug", output_env_get_short_program_name(*oenv));
}
init_debug(debug_level, buf);
fprintf(stderr, "Opening debug file %s (src code file %s, line %d)\n",
buf, __FILE__, __LINE__);
}
/* Now copy the results back... */
for (i = 0, k = npall-npargs; (i < npargs); i++, k++)
{
memcpy(&(pa[i]), &(all_pa[k]), (size_t)sizeof(pa[i]));
}
bool bExit = false;
try
{
const gmx::CommandLineHelpContext *context =
gmx::GlobalCommandLineHelpContext::get();
bExit = (context != NULL);
if (context != NULL && !(FF(PCA_QUIET)))
{
gmx::Options options(NULL, NULL);
options.setDescription(gmx::constArrayRefFromArray(desc, ndesc));
for (i = 0; i < nfile; i++)
{
gmx::filenmToOptions(&options, &fnm[i]);
}
for (i = 0; i < npall; i++)
{
gmx::pargsToOptions(&options, &all_pa[i]);
}
gmx::CommandLineHelpWriter(options)
.setShowDescriptions(true)
.setTimeUnitString(output_env_get_time_unit(*oenv))
.setKnownIssues(gmx::constArrayRefFromArray(bugs, nbugs))
.writeHelp(*context);
}
}
GMX_CATCH_ALL_AND_EXIT_WITH_FATAL_ERROR;
/* Set the nice level */
#if defined(HAVE_UNISTD_H) && !defined(__MINGW32__)
#ifndef GMX_NO_NICE
/* The some system, e.g. the catamount kernel on cray xt3 do not have nice(2). */
if (nicelevel != 0 && !bExit)
{
static gmx_bool nice_set = FALSE; /* only set it once */
static tMPI_Thread_mutex_t init_mutex = TMPI_THREAD_MUTEX_INITIALIZER;
tMPI_Thread_mutex_lock(&init_mutex);
if (!nice_set)
{
if (nice(nicelevel) == -1)
{
/* Do nothing, but use the return value to avoid warnings. */
}
nice_set = TRUE;
}
tMPI_Thread_mutex_unlock(&init_mutex);
}
#endif
#endif
/* convert time options, must be done after printing! */
for (i = 0; i < npall; i++)
{
if (all_pa[i].type == etTIME && all_pa[i].bSet)
{
*all_pa[i].u.r *= output_env_get_time_invfactor(*oenv);
}
}
/* Extract Time info from arguments */
if (FF(PCA_CAN_BEGIN) && opt2parg_bSet("-b", npall, all_pa))
{
setTimeValue(TBEGIN, opt2parg_real("-b", npall, all_pa));
}
if (FF(PCA_CAN_END) && opt2parg_bSet("-e", npall, all_pa))
{
setTimeValue(TEND, opt2parg_real("-e", npall, all_pa));
}
if (FF(PCA_CAN_DT) && opt2parg_bSet("-dt", npall, all_pa))
{
setTimeValue(TDELTA, opt2parg_real("-dt", npall, all_pa));
}
/* clear memory */
sfree(all_pa);
if (!FF(PCA_NOEXIT_ON_ARGS))
{
if (*argc > 1)
{
gmx_cmd(argv[1]);
}
}
return !bExit;
#undef FF
}
void parse_common_args(int *argc,char *argv[],unsigned long Flags,
int nfile,t_filenm fnm[],int npargs,t_pargs *pa,
int ndesc,const char **desc,
int nbugs,const char **bugs,
output_env_t *oenv)
{
gmx_bool bHelp=FALSE,bHidden=FALSE,bQuiet=FALSE,bVersion=FALSE;
const char *manstr[] = { NULL, "no", "html", "tex", "nroff", "ascii",
"completion", "py", "xml", "wiki", NULL };
/* This array should match the order of the enum in oenv.h */
const char *xvg_format[] = { NULL, "xmgrace", "xmgr", "none", NULL };
/* This array should match the order of the enum in oenv.h */
const char *time_units[] = { NULL, "fs", "ps", "ns", "us", "ms", "s",
NULL };
int nicelevel=0,mantp=0,npri=0,debug_level=0,verbose_level=0;
char *deffnm=NULL;
real tbegin=0,tend=0,tdelta=0;
gmx_bool bView=FALSE;
t_pargs *all_pa=NULL;
t_pargs npri_pa = { "-npri", FALSE, etINT, {&npri},
"HIDDEN Set non blocking priority (try 128)" };
t_pargs nice_pa = { "-nice", FALSE, etINT, {&nicelevel},
"Set the nicelevel" };
t_pargs deffnm_pa = { "-deffnm", FALSE, etSTR, {&deffnm},
"Set the default filename for all file options" };
t_pargs begin_pa = { "-b", FALSE, etTIME, {&tbegin},
"First frame (%t) to read from trajectory" };
t_pargs end_pa = { "-e", FALSE, etTIME, {&tend},
"Last frame (%t) to read from trajectory" };
t_pargs dt_pa = { "-dt", FALSE, etTIME, {&tdelta},
"Only use frame when t MOD dt = first time (%t)" };
t_pargs view_pa = { "-w", FALSE, etBOOL, {&bView},
"View output xvg, xpm, eps and pdb files" };
t_pargs xvg_pa = { "-xvg", FALSE, etENUM, {xvg_format},
"xvg plot formatting" };
t_pargs time_pa = { "-tu", FALSE, etENUM, {time_units},
"Time unit" };
/* Maximum number of extra arguments */
#define EXTRA_PA 16
t_pargs pca_pa[] = {
{ "-h", FALSE, etBOOL, {&bHelp},
"Print help info and quit" },
{ "-version", FALSE, etBOOL, {&bVersion},
"Print version info and quit" },
{ "-verb", FALSE, etINT, {&verbose_level},
"HIDDENLevel of verbosity for this program" },
{ "-hidden", FALSE, etBOOL, {&bHidden},
"HIDDENPrint hidden options" },
{ "-quiet",FALSE, etBOOL, {&bQuiet},
"HIDDENDo not print help info" },
{ "-man", FALSE, etENUM, {manstr},
"HIDDENWrite manual and quit" },
{ "-debug",FALSE, etINT, {&debug_level},
"HIDDENWrite file with debug information, 1: short, 2: also x and f" },
};
#define NPCA_PA asize(pca_pa)
FILE *fp;
gmx_bool bPrint,bExit,bXvgr;
int i,j,k,npall,max_pa,cmdlength;
char *ptr,*newdesc;
const char *envstr;
#define FF(arg) ((Flags & arg)==arg)
snew(*oenv, 1);
cmdlength = strlen(argv[0]);
/* Check for double arguments */
for (i=1; (i<*argc); i++)
{
cmdlength += strlen(argv[i]);
if (argv[i] && (strlen(argv[i]) > 1) && (!isdigit(argv[i][1])))
{
for (j=i+1; (j<*argc); j++)
{
if ( (argv[i][0]=='-') && (argv[j][0]=='-') &&
(strcmp(argv[i],argv[j])==0) )
{
if (FF(PCA_NOEXIT_ON_ARGS))
fprintf(stderr,"Double command line argument %s\n",
argv[i]);
else
gmx_fatal(FARGS,"Double command line argument %s\n",
argv[i]);
}
}
}
}
debug_gmx();
set_program_name(argv[0]);
set_command_line(*argc, argv);
/* Handle the flags argument, which is a bit field
* The FF macro returns whether or not the bit is set
*/
bPrint = !FF(PCA_SILENT);
/* Check ALL the flags ... */
max_pa = NPCA_PA + EXTRA_PA + npargs+1;
snew(all_pa,max_pa);
for(i=npall=0; (i<NPCA_PA); i++)
npall = add_parg(npall,all_pa,&(pca_pa[i]));
#ifdef __sgi
envstr = getenv("GMXNPRIALL");
if (envstr)
npri=strtol(envstr,NULL,10);
if (FF(PCA_BE_NICE)) {
envstr = getenv("GMXNPRI");
if (envstr)
npri=strtol(envstr,NULL,10);
}
npall = add_parg(npall,all_pa,&npri_pa);
#endif
if (FF(PCA_BE_NICE))
nicelevel=19;
npall = add_parg(npall,all_pa,&nice_pa);
if (FF(PCA_CAN_SET_DEFFNM))
npall = add_parg(npall,all_pa,&deffnm_pa);
if (FF(PCA_CAN_BEGIN))
npall = add_parg(npall,all_pa,&begin_pa);
if (FF(PCA_CAN_END))
npall = add_parg(npall,all_pa,&end_pa);
if (FF(PCA_CAN_DT))
{
npall = add_parg(npall,all_pa,&dt_pa);
}
if (FF(PCA_TIME_UNIT)) {
npall = add_parg(npall,all_pa,&time_pa);
}
if (FF(PCA_CAN_VIEW))
npall = add_parg(npall,all_pa,&view_pa);
bXvgr = FALSE;
for(i=0; (i<nfile); i++)
{
bXvgr = bXvgr || (fnm[i].ftp == efXVG);
}
if (bXvgr)
{
npall = add_parg(npall,all_pa,&xvg_pa);
}
/* Now append the program specific arguments */
for(i=0; (i<npargs); i++)
npall = add_parg(npall,all_pa,&(pa[i]));
/* set etENUM options to default */
for(i=0; (i<npall); i++)
{
if (all_pa[i].type==etENUM)
{
all_pa[i].u.c[0]=all_pa[i].u.c[1];
}
}
set_default_time_unit(time_units,FF(PCA_TIME_UNIT));
set_default_xvg_format(xvg_format);
/* Now parse all the command-line options */
get_pargs(argc,argv,npall,all_pa,FF(PCA_KEEP_ARGS));
/* set program name, command line, and default values for output options */
output_env_init(*oenv, *argc, argv, (time_unit_t)nenum(time_units), bView,
(xvg_format_t)nenum(xvg_format), verbose_level, debug_level);
if (bVersion) {
printf("Program: %s\n",output_env_get_program_name(*oenv));
gmx_print_version_info(stdout);
exit(0);
}
if (FF(PCA_CAN_SET_DEFFNM) && (deffnm!=NULL))
set_default_file_name(deffnm);
/* Parse the file args */
parse_file_args(argc,argv,nfile,fnm,FF(PCA_KEEP_ARGS),!FF(PCA_NOT_READ_NODE));
/* Open the debug file */
if (debug_level > 0) {
char buf[256];
if (gmx_mpi_initialized())
sprintf(buf,"%s%d.debug",output_env_get_short_program_name(*oenv),
gmx_node_rank());
else
sprintf(buf,"%s.debug",output_env_get_short_program_name(*oenv));
init_debug(debug_level,buf);
fprintf(stderr,"Opening debug file %s (src code file %s, line %d)\n",
buf,__FILE__,__LINE__);
}
/* Now copy the results back... */
for(i=0,k=npall-npargs; (i<npargs); i++,k++)
memcpy(&(pa[i]),&(all_pa[k]),(size_t)sizeof(pa[i]));
for(i=0; (i<npall); i++)
all_pa[i].desc = mk_desc(&(all_pa[i]), output_env_get_time_unit(*oenv));
bExit = bHelp || (strcmp(manstr[0],"no") != 0);
#if (defined __sgi && USE_SGI_FPE)
doexceptions();
#endif
/* Set the nice level */
#ifdef __sgi
if (npri != 0 && !bExit) {
schedctl(MPTS_RTPRI,0,npri);
}
#endif
#ifdef HAVE_UNISTD_H
#ifndef GMX_NO_NICE
/* The some system, e.g. the catamount kernel on cray xt3 do not have nice(2). */
if (nicelevel != 0 && !bExit)
{
#ifdef GMX_THREADS
static gmx_bool nice_set=FALSE; /* only set it once */
tMPI_Thread_mutex_lock(&init_mutex);
if (!nice_set)
{
#endif
i=nice(nicelevel); /* assign ret value to avoid warnings */
#ifdef GMX_THREADS
nice_set=TRUE;
}
tMPI_Thread_mutex_unlock(&init_mutex);
#endif
}
#endif
#endif
/* Update oenv for parsed command line options settings. */
(*oenv)->xvg_format = (xvg_format_t)nenum(xvg_format);
(*oenv)->time_unit = (time_unit_t)nenum(time_units);
if (!(FF(PCA_QUIET) || bQuiet )) {
if (bHelp)
write_man(stderr,"help",output_env_get_program_name(*oenv),
ndesc,desc,nfile, fnm,npall,all_pa, nbugs,bugs,bHidden);
else if (bPrint) {
pr_fns(stderr,nfile,fnm);
print_pargs(stderr,npall,all_pa,FALSE);
}
}
if (strcmp(manstr[0],"no") != 0) {
if(!strcmp(manstr[0],"completion")) {
/* one file each for csh, bash and zsh if we do completions */
fp=man_file(*oenv,"completion-zsh");
write_man(fp,"completion-zsh",output_env_get_program_name(*oenv),
ndesc,desc,nfile, fnm, npall,all_pa,nbugs,bugs,bHidden);
gmx_fio_fclose(fp);
fp=man_file(*oenv,"completion-bash");
write_man(fp,"completion-bash",output_env_get_program_name(*oenv),
ndesc,desc,nfile, fnm, npall,all_pa,nbugs,bugs,bHidden);
gmx_fio_fclose(fp);
fp=man_file(*oenv,"completion-csh");
write_man(fp,"completion-csh",output_env_get_program_name(*oenv),
ndesc,desc,nfile, fnm, npall,all_pa,nbugs,bugs,bHidden);
gmx_fio_fclose(fp);
} else {
fp=man_file(*oenv,manstr[0]);
write_man(fp,manstr[0],output_env_get_program_name(*oenv),
ndesc,desc,nfile,fnm, npall, all_pa,nbugs,bugs,bHidden);
gmx_fio_fclose(fp);
}
}
/* convert time options, must be done after printing! */
for(i=0; i<npall; i++) {
if ((all_pa[i].type == etTIME) && (*all_pa[i].u.r >= 0)) {
*all_pa[i].u.r *= output_env_get_time_invfactor(*oenv);
}
}
/* Extract Time info from arguments */
if (FF(PCA_CAN_BEGIN) && opt2parg_bSet("-b",npall,all_pa))
setTimeValue(TBEGIN,opt2parg_real("-b",npall,all_pa));
if (FF(PCA_CAN_END) && opt2parg_bSet("-e",npall,all_pa))
setTimeValue(TEND,opt2parg_real("-e",npall,all_pa));
if (FF(PCA_CAN_DT) && opt2parg_bSet("-dt",npall,all_pa))
setTimeValue(TDELTA,opt2parg_real("-dt",npall,all_pa));
/* clear memory */
for (i = 0; i < npall; ++i)
sfree((void *)all_pa[i].desc);
sfree(all_pa);
if (!FF(PCA_NOEXIT_ON_ARGS)) {
if (*argc > 1) {
gmx_cmd(argv[1]);
}
}
if (bExit) {
if (gmx_parallel_env_initialized())
/*gmx_abort(gmx_node_rank(),gmx_node_num(),0);*/
gmx_finalize();
exit(0);
}
#undef FF
}
void do_force_lowlevel(t_forcerec *fr, t_inputrec *ir,
t_idef *idef, t_commrec *cr,
t_nrnb *nrnb, gmx_wallcycle_t wcycle,
t_mdatoms *md,
rvec x[], history_t *hist,
rvec f[],
rvec f_longrange[],
gmx_enerdata_t *enerd,
t_fcdata *fcd,
gmx_localtop_t *top,
gmx_genborn_t *born,
gmx_bool bBornRadii,
matrix box,
t_lambda *fepvals,
real *lambda,
t_graph *graph,
t_blocka *excl,
rvec mu_tot[],
int flags,
float *cycles_pme)
{
int i, j;
int donb_flags;
gmx_bool bSB;
int pme_flags;
matrix boxs;
rvec box_size;
t_pbc pbc;
real dvdl_dum[efptNR], dvdl_nb[efptNR];
#ifdef GMX_MPI
double t0 = 0.0, t1, t2, t3; /* time measurement for coarse load balancing */
#endif
set_pbc(&pbc, fr->ePBC, box);
/* reset free energy components */
for (i = 0; i < efptNR; i++)
{
dvdl_nb[i] = 0;
dvdl_dum[i] = 0;
}
/* Reset box */
for (i = 0; (i < DIM); i++)
{
box_size[i] = box[i][i];
}
debug_gmx();
/* do QMMM first if requested */
if (fr->bQMMM)
{
enerd->term[F_EQM] = calculate_QMMM(cr, x, f, fr);
}
/* Call the short range functions all in one go. */
#ifdef GMX_MPI
/*#define TAKETIME ((cr->npmenodes) && (fr->timesteps < 12))*/
#define TAKETIME FALSE
if (TAKETIME)
{
MPI_Barrier(cr->mpi_comm_mygroup);
t0 = MPI_Wtime();
}
#endif
if (ir->nwall)
{
/* foreign lambda component for walls */
real dvdl_walls = do_walls(ir, fr, box, md, x, f, lambda[efptVDW],
enerd->grpp.ener[egLJSR], nrnb);
enerd->dvdl_lin[efptVDW] += dvdl_walls;
}
/* If doing GB, reset dvda and calculate the Born radii */
if (ir->implicit_solvent)
{
wallcycle_sub_start(wcycle, ewcsNONBONDED);
for (i = 0; i < born->nr; i++)
{
fr->dvda[i] = 0;
}
if (bBornRadii)
{
calc_gb_rad(cr, fr, ir, top, x, &(fr->gblist), born, md, nrnb);
}
wallcycle_sub_stop(wcycle, ewcsNONBONDED);
}
where();
/* We only do non-bonded calculation with group scheme here, the verlet
* calls are done from do_force_cutsVERLET(). */
if (fr->cutoff_scheme == ecutsGROUP && (flags & GMX_FORCE_NONBONDED))
{
donb_flags = 0;
/* Add short-range interactions */
donb_flags |= GMX_NONBONDED_DO_SR;
/* Currently all group scheme kernels always calculate (shift-)forces */
if (flags & GMX_FORCE_FORCES)
{
donb_flags |= GMX_NONBONDED_DO_FORCE;
}
if (flags & GMX_FORCE_VIRIAL)
{
donb_flags |= GMX_NONBONDED_DO_SHIFTFORCE;
}
if (flags & GMX_FORCE_ENERGY)
{
donb_flags |= GMX_NONBONDED_DO_POTENTIAL;
}
if (flags & GMX_FORCE_DO_LR)
{
donb_flags |= GMX_NONBONDED_DO_LR;
}
wallcycle_sub_start(wcycle, ewcsNONBONDED);
do_nonbonded(fr, x, f, f_longrange, md, excl,
&enerd->grpp, nrnb,
lambda, dvdl_nb, -1, -1, donb_flags);
/* If we do foreign lambda and we have soft-core interactions
* we have to recalculate the (non-linear) energies contributions.
*/
if (fepvals->n_lambda > 0 && (flags & GMX_FORCE_DHDL) && fepvals->sc_alpha != 0)
{
for (i = 0; i < enerd->n_lambda; i++)
{
real lam_i[efptNR];
for (j = 0; j < efptNR; j++)
{
lam_i[j] = (i == 0 ? lambda[j] : fepvals->all_lambda[j][i-1]);
}
reset_foreign_enerdata(enerd);
do_nonbonded(fr, x, f, f_longrange, md, excl,
&(enerd->foreign_grpp), nrnb,
lam_i, dvdl_dum, -1, -1,
(donb_flags & ~GMX_NONBONDED_DO_FORCE) | GMX_NONBONDED_DO_FOREIGNLAMBDA);
sum_epot(&(enerd->foreign_grpp), enerd->foreign_term);
enerd->enerpart_lambda[i] += enerd->foreign_term[F_EPOT];
}
}
wallcycle_sub_stop(wcycle, ewcsNONBONDED);
where();
}
/* If we are doing GB, calculate bonded forces and apply corrections
* to the solvation forces */
/* MRS: Eventually, many need to include free energy contribution here! */
if (ir->implicit_solvent)
{
wallcycle_sub_start(wcycle, ewcsLISTED);
calc_gb_forces(cr, md, born, top, x, f, fr, idef,
ir->gb_algorithm, ir->sa_algorithm, nrnb, &pbc, graph, enerd);
wallcycle_sub_stop(wcycle, ewcsLISTED);
}
#ifdef GMX_MPI
if (TAKETIME)
{
t1 = MPI_Wtime();
fr->t_fnbf += t1-t0;
}
#endif
if (fepvals->sc_alpha != 0)
{
enerd->dvdl_nonlin[efptVDW] += dvdl_nb[efptVDW];
}
else
{
enerd->dvdl_lin[efptVDW] += dvdl_nb[efptVDW];
}
if (fepvals->sc_alpha != 0)
/* even though coulomb part is linear, we already added it, beacuse we
need to go through the vdw calculation anyway */
{
enerd->dvdl_nonlin[efptCOUL] += dvdl_nb[efptCOUL];
}
else
{
enerd->dvdl_lin[efptCOUL] += dvdl_nb[efptCOUL];
}
debug_gmx();
if (debug)
{
pr_rvecs(debug, 0, "fshift after SR", fr->fshift, SHIFTS);
}
/* Shift the coordinates. Must be done before listed forces and PPPM,
* but is also necessary for SHAKE and update, therefore it can NOT
* go when no listed forces have to be evaluated.
*
* The shifting and PBC code is deliberately not timed, since with
* the Verlet scheme it only takes non-zero time with triclinic
* boxes, and even then the time is around a factor of 100 less
* than the next smallest counter.
*/
/* Here sometimes we would not need to shift with NBFonly,
* but we do so anyhow for consistency of the returned coordinates.
*/
if (graph)
{
shift_self(graph, box, x);
if (TRICLINIC(box))
{
inc_nrnb(nrnb, eNR_SHIFTX, 2*graph->nnodes);
}
else
{
inc_nrnb(nrnb, eNR_SHIFTX, graph->nnodes);
}
}
/* Check whether we need to do listed interactions or correct for exclusions */
if (fr->bMolPBC &&
((flags & GMX_FORCE_LISTED)
|| EEL_RF(fr->eeltype) || EEL_FULL(fr->eeltype) || EVDW_PME(fr->vdwtype)))
{
/* TODO There are no electrostatics methods that require this
transformation, when using the Verlet scheme, so update the
above conditional. */
/* Since all atoms are in the rectangular or triclinic unit-cell,
* only single box vector shifts (2 in x) are required.
*/
set_pbc_dd(&pbc, fr->ePBC, cr->dd, TRUE, box);
}
debug_gmx();
do_force_listed(wcycle, box, ir->fepvals, cr->ms,
idef, (const rvec *) x, hist, f, fr,
&pbc, graph, enerd, nrnb, lambda, md, fcd,
DOMAINDECOMP(cr) ? cr->dd->gatindex : NULL,
flags);
where();
*cycles_pme = 0;
clear_mat(fr->vir_el_recip);
clear_mat(fr->vir_lj_recip);
/* Do long-range electrostatics and/or LJ-PME, including related short-range
* corrections.
*/
if (EEL_FULL(fr->eeltype) || EVDW_PME(fr->vdwtype))
{
int status = 0;
real Vlr_q = 0, Vlr_lj = 0, Vcorr_q = 0, Vcorr_lj = 0;
real dvdl_long_range_q = 0, dvdl_long_range_lj = 0;
bSB = (ir->nwall == 2);
if (bSB)
{
copy_mat(box, boxs);
svmul(ir->wall_ewald_zfac, boxs[ZZ], boxs[ZZ]);
box_size[ZZ] *= ir->wall_ewald_zfac;
}
if (EEL_PME_EWALD(fr->eeltype) || EVDW_PME(fr->vdwtype))
{
real dvdl_long_range_correction_q = 0;
real dvdl_long_range_correction_lj = 0;
/* With the Verlet scheme exclusion forces are calculated
* in the non-bonded kernel.
*/
/* The TPI molecule does not have exclusions with the rest
* of the system and no intra-molecular PME grid
* contributions will be calculated in
* gmx_pme_calc_energy.
*/
if ((ir->cutoff_scheme == ecutsGROUP && fr->n_tpi == 0) ||
ir->ewald_geometry != eewg3D ||
ir->epsilon_surface != 0)
{
int nthreads, t;
wallcycle_sub_start(wcycle, ewcsEWALD_CORRECTION);
if (fr->n_tpi > 0)
{
gmx_fatal(FARGS, "TPI with PME currently only works in a 3D geometry with tin-foil boundary conditions");
}
nthreads = gmx_omp_nthreads_get(emntBonded);
#pragma omp parallel for num_threads(nthreads) schedule(static)
for (t = 0; t < nthreads; t++)
{
int i;
rvec *fnv;
tensor *vir_q, *vir_lj;
real *Vcorrt_q, *Vcorrt_lj, *dvdlt_q, *dvdlt_lj;
if (t == 0)
{
fnv = fr->f_novirsum;
vir_q = &fr->vir_el_recip;
vir_lj = &fr->vir_lj_recip;
Vcorrt_q = &Vcorr_q;
Vcorrt_lj = &Vcorr_lj;
dvdlt_q = &dvdl_long_range_correction_q;
dvdlt_lj = &dvdl_long_range_correction_lj;
}
else
{
fnv = fr->f_t[t].f;
vir_q = &fr->f_t[t].vir_q;
vir_lj = &fr->f_t[t].vir_lj;
Vcorrt_q = &fr->f_t[t].Vcorr_q;
Vcorrt_lj = &fr->f_t[t].Vcorr_lj;
dvdlt_q = &fr->f_t[t].dvdl[efptCOUL];
dvdlt_lj = &fr->f_t[t].dvdl[efptVDW];
for (i = 0; i < fr->natoms_force; i++)
{
clear_rvec(fnv[i]);
}
clear_mat(*vir_q);
clear_mat(*vir_lj);
}
*dvdlt_q = 0;
*dvdlt_lj = 0;
ewald_LRcorrection(fr->excl_load[t], fr->excl_load[t+1],
cr, t, fr,
md->chargeA, md->chargeB,
md->sqrt_c6A, md->sqrt_c6B,
md->sigmaA, md->sigmaB,
md->sigma3A, md->sigma3B,
md->nChargePerturbed || md->nTypePerturbed,
ir->cutoff_scheme != ecutsVERLET,
excl, x, bSB ? boxs : box, mu_tot,
ir->ewald_geometry,
ir->epsilon_surface,
fnv, *vir_q, *vir_lj,
Vcorrt_q, Vcorrt_lj,
lambda[efptCOUL], lambda[efptVDW],
dvdlt_q, dvdlt_lj);
}
if (nthreads > 1)
{
reduce_thread_forces(fr->natoms_force, fr->f_novirsum,
fr->vir_el_recip, fr->vir_lj_recip,
&Vcorr_q, &Vcorr_lj,
&dvdl_long_range_correction_q,
&dvdl_long_range_correction_lj,
nthreads, fr->f_t);
}
wallcycle_sub_stop(wcycle, ewcsEWALD_CORRECTION);
}
if (EEL_PME_EWALD(fr->eeltype) && fr->n_tpi == 0)
{
/* This is not in a subcounter because it takes a
negligible and constant-sized amount of time */
Vcorr_q += ewald_charge_correction(cr, fr, lambda[efptCOUL], box,
&dvdl_long_range_correction_q,
fr->vir_el_recip);
}
enerd->dvdl_lin[efptCOUL] += dvdl_long_range_correction_q;
enerd->dvdl_lin[efptVDW] += dvdl_long_range_correction_lj;
if ((EEL_PME(fr->eeltype) || EVDW_PME(fr->vdwtype)) && (cr->duty & DUTY_PME))
{
/* Do reciprocal PME for Coulomb and/or LJ. */
assert(fr->n_tpi >= 0);
if (fr->n_tpi == 0 || (flags & GMX_FORCE_STATECHANGED))
{
pme_flags = GMX_PME_SPREAD | GMX_PME_SOLVE;
if (EEL_PME(fr->eeltype))
{
pme_flags |= GMX_PME_DO_COULOMB;
}
if (EVDW_PME(fr->vdwtype))
{
pme_flags |= GMX_PME_DO_LJ;
}
if (flags & GMX_FORCE_FORCES)
{
pme_flags |= GMX_PME_CALC_F;
}
if (flags & GMX_FORCE_VIRIAL)
{
pme_flags |= GMX_PME_CALC_ENER_VIR;
}
if (fr->n_tpi > 0)
{
/* We don't calculate f, but we do want the potential */
pme_flags |= GMX_PME_CALC_POT;
}
wallcycle_start(wcycle, ewcPMEMESH);
status = gmx_pme_do(fr->pmedata,
0, md->homenr - fr->n_tpi,
x, fr->f_novirsum,
md->chargeA, md->chargeB,
md->sqrt_c6A, md->sqrt_c6B,
md->sigmaA, md->sigmaB,
bSB ? boxs : box, cr,
DOMAINDECOMP(cr) ? dd_pme_maxshift_x(cr->dd) : 0,
DOMAINDECOMP(cr) ? dd_pme_maxshift_y(cr->dd) : 0,
nrnb, wcycle,
fr->vir_el_recip, fr->ewaldcoeff_q,
fr->vir_lj_recip, fr->ewaldcoeff_lj,
&Vlr_q, &Vlr_lj,
lambda[efptCOUL], lambda[efptVDW],
&dvdl_long_range_q, &dvdl_long_range_lj, pme_flags);
*cycles_pme = wallcycle_stop(wcycle, ewcPMEMESH);
if (status != 0)
{
gmx_fatal(FARGS, "Error %d in reciprocal PME routine", status);
}
/* We should try to do as little computation after
* this as possible, because parallel PME synchronizes
* the nodes, so we want all load imbalance of the
* rest of the force calculation to be before the PME
* call. DD load balancing is done on the whole time
* of the force call (without PME).
*/
}
if (fr->n_tpi > 0)
{
if (EVDW_PME(ir->vdwtype))
{
gmx_fatal(FARGS, "Test particle insertion not implemented with LJ-PME");
}
/* Determine the PME grid energy of the test molecule
* with the PME grid potential of the other charges.
*/
gmx_pme_calc_energy(fr->pmedata, fr->n_tpi,
x + md->homenr - fr->n_tpi,
md->chargeA + md->homenr - fr->n_tpi,
&Vlr_q);
}
}
}
if (!EEL_PME(fr->eeltype) && EEL_PME_EWALD(fr->eeltype))
{
Vlr_q = do_ewald(ir, x, fr->f_novirsum,
md->chargeA, md->chargeB,
box_size, cr, md->homenr,
fr->vir_el_recip, fr->ewaldcoeff_q,
lambda[efptCOUL], &dvdl_long_range_q, fr->ewald_table);
}
/* Note that with separate PME nodes we get the real energies later */
enerd->dvdl_lin[efptCOUL] += dvdl_long_range_q;
enerd->dvdl_lin[efptVDW] += dvdl_long_range_lj;
enerd->term[F_COUL_RECIP] = Vlr_q + Vcorr_q;
enerd->term[F_LJ_RECIP] = Vlr_lj + Vcorr_lj;
if (debug)
{
fprintf(debug, "Vlr_q = %g, Vcorr_q = %g, Vlr_corr_q = %g\n",
Vlr_q, Vcorr_q, enerd->term[F_COUL_RECIP]);
pr_rvecs(debug, 0, "vir_el_recip after corr", fr->vir_el_recip, DIM);
pr_rvecs(debug, 0, "fshift after LR Corrections", fr->fshift, SHIFTS);
fprintf(debug, "Vlr_lj: %g, Vcorr_lj = %g, Vlr_corr_lj = %g\n",
Vlr_lj, Vcorr_lj, enerd->term[F_LJ_RECIP]);
pr_rvecs(debug, 0, "vir_lj_recip after corr", fr->vir_lj_recip, DIM);
}
}
else
{
/* Is there a reaction-field exclusion correction needed? */
if (EEL_RF(fr->eeltype) && eelRF_NEC != fr->eeltype)
{
/* With the Verlet scheme, exclusion forces are calculated
* in the non-bonded kernel.
*/
if (ir->cutoff_scheme != ecutsVERLET)
{
real dvdl_rf_excl = 0;
enerd->term[F_RF_EXCL] =
RF_excl_correction(fr, graph, md, excl, x, f,
fr->fshift, &pbc, lambda[efptCOUL], &dvdl_rf_excl);
enerd->dvdl_lin[efptCOUL] += dvdl_rf_excl;
}
}
}
where();
debug_gmx();
if (debug)
{
print_nrnb(debug, nrnb);
}
debug_gmx();
#ifdef GMX_MPI
if (TAKETIME)
{
t2 = MPI_Wtime();
MPI_Barrier(cr->mpi_comm_mygroup);
t3 = MPI_Wtime();
fr->t_wait += t3-t2;
if (fr->timesteps == 11)
{
char buf[22];
fprintf(stderr, "* PP load balancing info: rank %d, step %s, rel wait time=%3.0f%% , load string value: %7.2f\n",
cr->nodeid, gmx_step_str(fr->timesteps, buf),
100*fr->t_wait/(fr->t_wait+fr->t_fnbf),
(fr->t_fnbf+fr->t_wait)/fr->t_fnbf);
}
fr->timesteps++;
}
#endif
if (debug)
{
pr_rvecs(debug, 0, "fshift after bondeds", fr->fshift, SHIFTS);
}
}
static int add_h_low(t_atoms **pdbaptr, rvec *xptr[],
int nah, t_hackblock ah[],
int nterpairs, t_hackblock **ntdb, t_hackblock **ctdb,
int *rN, int *rC, gmx_bool bCheckMissing,
int **nabptr, t_hack ***abptr,
gmx_bool bUpdate_pdba, gmx_bool bKeep_old_pdba)
{
t_atoms *newpdba = NULL, *pdba = NULL;
int nadd;
int i, newi, j, d, natoms, nalreadypresent;
int *nab = NULL;
t_hack **ab = NULL;
t_hackblock *hb;
rvec *xn;
gmx_bool bKeep_ab;
/* set flags for adding hydrogens (according to hdb) */
pdba = *pdbaptr;
natoms = pdba->nr;
if (nabptr && abptr)
{
/* the first time these will be pointers to NULL, but we will
return in them the completed arrays, which we will get back
the second time */
nab = *nabptr;
ab = *abptr;
bKeep_ab = TRUE;
if (debug)
{
fprintf(debug, "pointer to ab found\n");
}
}
else
{
bKeep_ab = FALSE;
}
if (nab && ab)
{
/* WOW, everything was already figured out */
bUpdate_pdba = FALSE;
if (debug)
{
fprintf(debug, "pointer to non-null ab found\n");
}
}
else
{
/* We'll have to do all the hard work */
bUpdate_pdba = TRUE;
/* first get all the hackblocks for each residue: */
hb = get_hackblocks(pdba, nah, ah, nterpairs, ntdb, ctdb, rN, rC);
if (debug)
{
dump_hb(debug, pdba->nres, hb);
}
/* expand the hackblocks to atom level */
snew(nab, natoms);
snew(ab, natoms);
expand_hackblocks(pdba, hb, nab, ab, nterpairs, rN, rC);
free_t_hackblock(pdba->nres, &hb);
}
if (debug)
{
fprintf(debug, "before calc_all_pos\n");
dump_ab(debug, natoms, nab, ab, TRUE);
}
/* Now calc the positions */
calc_all_pos(pdba, *xptr, nab, ab, bCheckMissing);
if (debug)
{
fprintf(debug, "after calc_all_pos\n");
dump_ab(debug, natoms, nab, ab, TRUE);
}
if (bUpdate_pdba)
{
/* we don't have to add atoms that are already present in pdba,
so we will remove them from the ab (t_hack) */
nadd = check_atoms_present(pdba, nab, ab);
if (debug)
{
fprintf(debug, "removed add hacks that were already in pdba:\n");
dump_ab(debug, natoms, nab, ab, TRUE);
fprintf(debug, "will be adding %d atoms\n", nadd);
}
/* Copy old atoms, making space for new ones */
snew(newpdba, 1);
init_t_atoms(newpdba, natoms+nadd, FALSE);
newpdba->nres = pdba->nres;
sfree(newpdba->resinfo);
newpdba->resinfo = pdba->resinfo;
}
else
{
nadd = 0;
}
if (debug)
{
fprintf(debug, "snew xn for %d old + %d new atoms %d total)\n",
natoms, nadd, natoms+nadd);
}
if (nadd == 0)
{
/* There is nothing to do: return now */
if (!bKeep_ab)
{
free_ab(natoms, nab, ab);
}
return natoms;
}
snew(xn, natoms+nadd);
newi = 0;
for (i = 0; (i < natoms); i++)
{
/* check if this atom wasn't scheduled for deletion */
if (nab[i] == 0 || (ab[i][0].nname != NULL) )
{
if (newi >= natoms+nadd)
{
/*gmx_fatal(FARGS,"Not enough space for adding atoms");*/
nadd += 10;
srenew(xn, natoms+nadd);
if (bUpdate_pdba)
{
srenew(newpdba->atom, natoms+nadd);
srenew(newpdba->atomname, natoms+nadd);
}
debug_gmx();
}
if (debug)
{
fprintf(debug, "(%3d) %3d %4s %4s%3d %3d",
i+1, newi+1, *pdba->atomname[i],
*pdba->resinfo[pdba->atom[i].resind].name,
pdba->resinfo[pdba->atom[i].resind].nr, nab[i]);
}
if (bUpdate_pdba)
{
copy_atom(pdba, i, newpdba, newi);
}
copy_rvec((*xptr)[i], xn[newi]);
/* process the hacks for this atom */
nalreadypresent = 0;
for (j = 0; j < nab[i]; j++)
{
if (ab[i][j].oname == NULL) /* add */
{
newi++;
if (newi >= natoms+nadd)
{
/* gmx_fatal(FARGS,"Not enough space for adding atoms");*/
nadd += 10;
srenew(xn, natoms+nadd);
if (bUpdate_pdba)
{
srenew(newpdba->atom, natoms+nadd);
srenew(newpdba->atomname, natoms+nadd);
}
debug_gmx();
}
if (bUpdate_pdba)
{
newpdba->atom[newi].resind = pdba->atom[i].resind;
}
if (debug)
{
fprintf(debug, " + %d", newi+1);
}
}
if (ab[i][j].nname != NULL &&
(ab[i][j].oname == NULL ||
strcmp(ab[i][j].oname, *newpdba->atomname[newi]) == 0))
{
/* add or replace */
if (ab[i][j].oname == NULL && ab[i][j].bAlreadyPresent)
{
/* This atom is already present, copy it from the input. */
nalreadypresent++;
if (bUpdate_pdba)
{
copy_atom(pdba, i+nalreadypresent, newpdba, newi);
}
copy_rvec((*xptr)[i+nalreadypresent], xn[newi]);
}
else
{
if (bUpdate_pdba)
{
if (gmx_debug_at)
{
fprintf(debug, "Replacing %d '%s' with (old name '%s') %s\n",
newi,
(newpdba->atomname[newi] && *newpdba->atomname[newi]) ? *newpdba->atomname[newi] : "",
ab[i][j].oname ? ab[i][j].oname : "",
ab[i][j].nname);
}
snew(newpdba->atomname[newi], 1);
*newpdba->atomname[newi] = strdup(ab[i][j].nname);
if (ab[i][j].oname != NULL && ab[i][j].atom) /* replace */
{ /* newpdba->atom[newi].m = ab[i][j].atom->m; */
/* newpdba->atom[newi].q = ab[i][j].atom->q; */
/* newpdba->atom[newi].type = ab[i][j].atom->type; */
}
}
if (ab[i][j].bXSet)
{
copy_rvec(ab[i][j].newx, xn[newi]);
}
}
if (bUpdate_pdba && debug)
{
fprintf(debug, " %s %g %g", *newpdba->atomname[newi],
newpdba->atom[newi].m, newpdba->atom[newi].q);
}
}
}
newi++;
i += nalreadypresent;
if (debug)
{
fprintf(debug, "\n");
}
}
}
if (bUpdate_pdba)
{
newpdba->nr = newi;
}
if (bKeep_ab)
{
*nabptr = nab;
*abptr = ab;
}
else
{
/* Clean up */
free_ab(natoms, nab, ab);
}
if (bUpdate_pdba)
{
if (!bKeep_old_pdba)
{
for (i = 0; i < natoms; i++)
{
/* Do not free the atomname string itself, it might be in symtab */
/* sfree(*(pdba->atomname[i])); */
/* sfree(pdba->atomname[i]); */
}
sfree(pdba->atomname);
sfree(pdba->atom);
sfree(pdba->pdbinfo);
sfree(pdba);
}
*pdbaptr = newpdba;
}
else
{
nadd = newi-natoms;
}
sfree(*xptr);
*xptr = xn;
return newi;
}
void init_md(t_commrec *cr,t_inputrec *ir,tensor box,real *t,real *t0,
real *lambda,real *lam0,real *SAfactor,
t_nrnb *mynrnb,bool *bTYZ,t_topology *top,
int nfile,t_filenm fnm[],char **traj,
char **xtc_traj,int *fp_ene,
FILE **fp_dgdl,t_mdebin **mdebin,t_groups *grps,
tensor force_vir,tensor pme_vir,
tensor shake_vir,t_mdatoms *mdatoms,rvec mu_tot,
bool *bNEMD,t_vcm **vcm,t_nsborder *nsb)
{
bool bBHAM,b14,bLR,bLJLR;
int i;
/* Initial values */
*t = *t0 = ir->init_t;
if (ir->efep != efepNO) {
*lambda = *lam0 = ir->init_lambda;
}
else {
*lambda = *lam0 = 0.0;
}
if (ir->bSimAnn) {
*SAfactor = 1.0 - *t0/ir->zero_temp_time;
if (*SAfactor < 0)
*SAfactor = 0;
} else
*SAfactor = 1.0;
init_nrnb(mynrnb);
/* Check Environment variables & other booleans */
#ifdef SPEC_CPU
*bTYZ = FALSE;
#else
*bTYZ=getenv("TYZ") != NULL;
#endif
set_pot_bools(ir,top,&bLR,&bLJLR,&bBHAM,&b14);
if (nfile != -1) {
/* Filenames */
*traj = ftp2fn(efTRN,nfile,fnm);
*xtc_traj = ftp2fn(efXTC,nfile,fnm);
#ifndef SPEC_CPU
if (MASTER(cr)) {
*fp_ene = open_enx(ftp2fn(efENX,nfile,fnm),"w");
if ((fp_dgdl != NULL) && ir->efep!=efepNO)
*fp_dgdl =
xvgropen(opt2fn("-dgdl",nfile,fnm),
"dG/d\\8l\\4","Time (ps)",
"dG/d\\8l\\4 (kJ mol\\S-1\\N nm\\S-2\\N \\8l\\4\\S-1\\N)");
} else
#endif
*fp_ene = -1;
*mdebin = init_mdebin(*fp_ene,grps,&(top->atoms),&(top->idef),
bLR,bLJLR,bBHAM,b14,ir->efep!=efepNO,ir->epc,
ir->eDispCorr,(TRICLINIC(ir->compress) || TRICLINIC(box)),
(ir->etc==etcNOSEHOOVER),cr);
}
/* Initiate variables */
clear_mat(force_vir);
clear_mat(pme_vir);
clear_mat(shake_vir);
clear_rvec(mu_tot);
/* Set initial values for invmass etc. */
init_mdatoms(mdatoms,*lambda,TRUE);
*vcm = init_vcm(stdlog,top,cr,mdatoms,START(nsb),HOMENR(nsb),ir->nstcomm);
debug_gmx();
*bNEMD = (ir->opts.ngacc > 1) || (norm(ir->opts.acc[0]) > 0);
if (ir->eI == eiSD)
init_sd_consts(ir->opts.ngtc,ir->opts.tau_t,ir->delta_t);
}
void init_md(FILE *fplog,
t_commrec *cr,t_inputrec *ir,real *t,real *t0,
real *lambda,real *lam0,
t_nrnb *nrnb,gmx_mtop_t *mtop,
gmx_stochd_t *sd,
int nfile,t_filenm fnm[],
int *fp_trn,int *fp_xtc,int *fp_ene,char **fn_cpt,
FILE **fp_dgdl,FILE **fp_field,
t_mdebin **mdebin,
tensor force_vir,tensor shake_vir,rvec mu_tot,
bool *bNEMD,bool *bSimAnn,t_vcm **vcm, unsigned long Flags)
{
int i,j,n;
real tmpt,mod;
char filemode[2];
sprintf(filemode, (Flags & MD_APPENDFILES) ? "a" : "w");
/* Initial values */
*t = *t0 = ir->init_t;
if (ir->efep != efepNO) {
*lam0 = ir->init_lambda;
*lambda = *lam0 + ir->init_step*ir->delta_lambda;
}
else {
*lambda = *lam0 = 0.0;
}
*bSimAnn=FALSE;
for(i=0;i<ir->opts.ngtc;i++) {
/* set bSimAnn if any group is being annealed */
if(ir->opts.annealing[i]!=eannNO)
*bSimAnn = TRUE;
}
if (*bSimAnn) {
update_annealing_target_temp(&(ir->opts),ir->init_t);
}
*bNEMD = (ir->opts.ngacc > 1) || (norm(ir->opts.acc[0]) > 0);
if (sd && (ir->eI == eiBD || EI_SD(ir->eI) || ir->etc == etcVRESCALE)) {
*sd = init_stochd(fplog,ir);
}
if (vcm) {
*vcm = init_vcm(fplog,&mtop->groups,ir);
}
if (EI_DYNAMICS(ir->eI) && !(Flags & MD_APPENDFILES)) {
if (ir->etc == etcBERENDSEN) {
please_cite(fplog,"Berendsen84a");
}
if (ir->etc == etcVRESCALE) {
please_cite(fplog,"Bussi2007a");
}
}
init_nrnb(nrnb);
if (nfile != -1)
{
*fp_trn = -1;
*fp_ene = -1;
*fp_xtc = -1;
if (MASTER(cr))
{
*fp_trn = open_trn(ftp2fn(efTRN,nfile,fnm), filemode);
if (ir->nstxtcout > 0)
{
*fp_xtc = open_xtc(ftp2fn(efXTC,nfile,fnm), filemode);
}
*fp_ene = open_enx(ftp2fn(efENX,nfile,fnm), filemode);
*fn_cpt = opt2fn("-cpo",nfile,fnm);
if ((fp_dgdl != NULL) && ir->efep!=efepNO)
{
if(Flags & MD_APPENDFILES)
{
*fp_dgdl= gmx_fio_fopen(opt2fn("-dgdl",nfile,fnm),filemode);
}
else
{
*fp_dgdl = xvgropen(opt2fn("-dgdl",nfile,fnm),
"dG/d\\8l\\4","Time (ps)",
"dG/d\\8l\\4 (kJ mol\\S-1\\N [\\8l\\4]\\S-1\\N)");
}
}
if ((fp_field != NULL) && (ir->ex[XX].n || ir->ex[YY].n ||ir->ex[ZZ].n))
{
if(Flags & MD_APPENDFILES)
{
*fp_field = gmx_fio_fopen(opt2fn("-field",nfile,fnm),filemode);
}
else
{
*fp_field = xvgropen(opt2fn("-field",nfile,fnm),
"Applied electric field","Time (ps)",
"E (V/nm)");
}
}
}
*mdebin = init_mdebin( (Flags & MD_APPENDFILES) ? -1 : *fp_ene,mtop,ir);
}
/* Initiate variables */
clear_mat(force_vir);
clear_mat(shake_vir);
clear_rvec(mu_tot);
debug_gmx();
}
void parse_common_args(int *argc,char *argv[],unsigned long Flags,
int nfile,t_filenm fnm[],int npargs,t_pargs *pa,
int ndesc,char **desc,int nbugs,char **bugs)
{
static bool bHelp=FALSE,bHidden=FALSE,bQuiet=FALSE;
static char *manstr[] = { NULL, "no", "html", "tex", "nroff", "ascii", "completion", "py", "xml", "wiki", NULL };
static int nicelevel=0,mantp=0,npri=0,debug_level=0;
static char *deffnm=NULL;
static real tbegin=0,tend=0,tdelta=0;
t_pargs *all_pa=NULL;
t_pargs npri_pa = { "-npri", FALSE, etINT, {&npri},
"HIDDEN Set non blocking priority (try 128)" };
t_pargs nice_pa = { "-nice", FALSE, etINT, {&nicelevel},
"Set the nicelevel" };
t_pargs deffnm_pa = { "-deffnm", FALSE, etSTR, {&deffnm},
"Set the default filename for all file options" };
t_pargs begin_pa = { "-b", FALSE, etTIME, {&tbegin},
"First frame (%t) to read from trajectory" };
t_pargs end_pa = { "-e", FALSE, etTIME, {&tend},
"Last frame (%t) to read from trajectory" };
t_pargs dt_pa = { "-dt", FALSE, etTIME, {&tdelta},
"Only use frame when t MOD dt = first time (%t)" };
t_pargs view_pa = { "-w", FALSE, etBOOL, {&bView},
"View output xvg, xpm, eps and pdb files" };
t_pargs code_pa = { "-xvgr", FALSE, etBOOL, {&bXvgrCodes},
"Add specific codes (legends etc.) in the output xvg files for the xmgrace program" };
t_pargs time_pa = { "-tu", FALSE, etENUM, {timestr},
"Time unit" };
/* Maximum number of extra arguments */
#define EXTRA_PA 16
t_pargs pca_pa[] = {
{ "-h", FALSE, etBOOL, {&bHelp},
"Print help info and quit" },
{ "-hidden", FALSE, etBOOL, {&bHidden},
"HIDDENPrint hidden options" },
{ "-quiet",FALSE, etBOOL, {&bQuiet},
"HIDDENDo not print help info" },
{ "-man", FALSE, etENUM, {manstr},
"HIDDENWrite manual and quit" },
{ "-debug",FALSE, etINT, {&debug_level},
"HIDDENWrite file with debug information, 1: short, 2: also x and f" },
};
#define NPCA_PA asize(pca_pa)
FILE *fp;
bool bPrint,bExit,bXvgr;
int i,j,k,npall,max_pa,cmdlength;
char *ptr,*newdesc;
char *envstr;
#define FF(arg) ((Flags & arg)==arg)
cmdlength = strlen(argv[0]);
/* Check for double arguments */
for (i=1; (i<*argc); i++) {
cmdlength += strlen(argv[i]);
if (argv[i] && (strlen(argv[i]) > 1) && (!isdigit(argv[i][1]))) {
for (j=i+1; (j<*argc); j++) {
if ( (argv[i][0]=='-') && (argv[j][0]=='-') &&
(strcmp(argv[i],argv[j])==0) ) {
if (FF(PCA_NOEXIT_ON_ARGS))
fprintf(stderr,"Double command line argument %s\n",argv[i]);
else
gmx_fatal(FARGS,"Double command line argument %s\n",argv[i]);
}
}
}
}
debug_gmx();
/* Fill the cmdline string */
snew(cmdline,cmdlength+*argc+1);
for (i=0; (i<*argc); i++) {
strcat(cmdline,argv[i]);
strcat(cmdline," ");
}
/* Handle the flags argument, which is a bit field
* The FF macro returns whether or not the bit is set
*/
bPrint = !FF(PCA_SILENT);
set_program_name(argv[0]);
/* Check ALL the flags ... */
max_pa = NPCA_PA + EXTRA_PA + npargs;
snew(all_pa,max_pa);
for(i=npall=0; (i<NPCA_PA); i++)
npall = add_parg(npall,all_pa,&(pca_pa[i]));
#ifdef __sgi
envstr = getenv("GMXNPRIALL");
if (envstr)
npri=atoi(envstr);
if (FF(PCA_BE_NICE)) {
envstr = getenv("GMXNPRI");
if (envstr)
npri=atoi(envstr);
}
npall = add_parg(npall,all_pa,&npri_pa);
#endif
if (FF(PCA_BE_NICE))
nicelevel=19;
npall = add_parg(npall,all_pa,&nice_pa);
if (FF(PCA_CAN_SET_DEFFNM))
npall = add_parg(npall,all_pa,&deffnm_pa);
if (FF(PCA_CAN_BEGIN))
npall = add_parg(npall,all_pa,&begin_pa);
if (FF(PCA_CAN_END))
npall = add_parg(npall,all_pa,&end_pa);
if (FF(PCA_CAN_DT))
npall = add_parg(npall,all_pa,&dt_pa);
if (FF(PCA_TIME_UNIT)) {
envstr = getenv("GMXTIMEUNIT");
if ( envstr == NULL )
envstr="ps";
set_default_time_unit(envstr);
npall = add_parg(npall,all_pa,&time_pa);
} else
set_default_time_unit("ps");
if (FF(PCA_CAN_VIEW))
npall = add_parg(npall,all_pa,&view_pa);
bXvgr = FALSE;
for(i=0; (i<nfile); i++)
bXvgr = bXvgr || (fnm[i].ftp == efXVG);
if (bXvgr)
npall = add_parg(npall,all_pa,&code_pa);
/* Now append the program specific arguments */
for(i=0; (i<npargs); i++)
npall = add_parg(npall,all_pa,&(pa[i]));
/* set etENUM options to default */
for(i=0; (i<npall); i++)
if (all_pa[i].type==etENUM)
all_pa[i].u.c[0]=all_pa[i].u.c[1];
/* Now parse all the command-line options */
get_pargs(argc,argv,npall,all_pa,FF(PCA_KEEP_ARGS));
if (FF(PCA_CAN_SET_DEFFNM) && (deffnm!=NULL))
set_default_file_name(deffnm);
/* Parse the file args */
parse_file_args(argc,argv,nfile,fnm,FF(PCA_KEEP_ARGS));
/* Open the debug file */
if (debug_level > 0) {
char buf[256];
if (gmx_mpi_initialized())
sprintf(buf,"%s%d.log",ShortProgram(),gmx_node_rank());
else
sprintf(buf,"%s.log",ShortProgram());
init_debug(debug_level,buf);
fprintf(stderr,"Opening debug file %s (src code file %s, line %d)\n",
buf,__FILE__,__LINE__);
}
/* Now copy the results back... */
for(i=0,k=npall-npargs; (i<npargs); i++,k++)
memcpy(&(pa[i]),&(all_pa[k]),(size_t)sizeof(pa[i]));
for(i=0; (i<npall); i++)
all_pa[i].desc = mk_desc(&(all_pa[i]), time_unit() );
bExit = bHelp || (strcmp(manstr[0],"no") != 0);
#if (defined __sgi && USE_SGI_FPE)
doexceptions();
#endif
/* Set the nice level */
#ifdef __sgi
if (npri != 0 && !bExit) {
schedctl(MPTS_RTPRI,0,npri);
}
#endif
#ifdef HAVE_UNISTD_H
#ifndef GMX_NO_NICE
/* The some system, e.g. the catamount kernel on cray xt3 do not have nice(2). */
if (nicelevel != 0 && !bExit)
i=nice(nicelevel); /* assign ret value to avoid warnings */
#endif
#endif
if (!(FF(PCA_QUIET) || bQuiet )) {
if (bHelp)
write_man(stderr,"help",program,ndesc,desc,nfile,fnm,npall,all_pa,
nbugs,bugs,bHidden);
else if (bPrint) {
pr_fns(stderr,nfile,fnm);
print_pargs(stderr,npall,all_pa,FALSE);
}
}
if (strcmp(manstr[0],"no") != 0) {
if(!strcmp(manstr[0],"completion")) {
/* one file each for csh, bash and zsh if we do completions */
fp=man_file(program,"completion-zsh");
write_man(fp,"completion-zsh",program,ndesc,desc,nfile,fnm,npall,all_pa,nbugs,bugs,bHidden);
gmx_fio_fclose(fp);
fp=man_file(program,"completion-bash");
write_man(fp,"completion-bash",program,ndesc,desc,nfile,fnm,npall,all_pa,nbugs,bugs,bHidden);
gmx_fio_fclose(fp);
fp=man_file(program,"completion-csh");
write_man(fp,"completion-csh",program,ndesc,desc,nfile,fnm,npall,all_pa,nbugs,bugs,bHidden);
gmx_fio_fclose(fp);
} else {
fp=man_file(program,manstr[0]);
write_man(fp,manstr[0],program,ndesc,desc,nfile,fnm,npall,all_pa,nbugs,bugs,bHidden);
gmx_fio_fclose(fp);
}
}
/* convert time options, must be done after printing! */
init_time_factor();
for(i=0; i<npall; i++) {
if ((all_pa[i].type == etTIME) && (*all_pa[i].u.r >= 0)) {
*all_pa[i].u.r *= timeinvfac;
}
}
/* Extract Time info from arguments */
if (FF(PCA_CAN_BEGIN) && opt2parg_bSet("-b",npall,all_pa))
setTimeValue(TBEGIN,opt2parg_real("-b",npall,all_pa));
if (FF(PCA_CAN_END) && opt2parg_bSet("-e",npall,all_pa))
setTimeValue(TEND,opt2parg_real("-e",npall,all_pa));
if (FF(PCA_CAN_DT) && opt2parg_bSet("-dt",npall,all_pa))
setTimeValue(TDELTA,opt2parg_real("-dt",npall,all_pa));
/* clear memory */
sfree(all_pa);
if (!FF(PCA_NOEXIT_ON_ARGS)) {
if (*argc > 1) {
gmx_cmd(argv[1]);
}
}
if (bExit) {
if (gmx_parallel_env)
gmx_abort(gmx_node_rank(),gmx_node_num(),0);
else
exit(0);
}
#undef FF
}
double do_md_openmm(FILE *fplog,t_commrec *cr,int nfile,const t_filenm fnm[],
const output_env_t oenv, gmx_bool bVerbose,gmx_bool bCompact,
int nstglobalcomm,
gmx_vsite_t *vsite,gmx_constr_t constr,
int stepout,t_inputrec *ir,
gmx_mtop_t *top_global,
t_fcdata *fcd,
t_state *state_global,
t_mdatoms *mdatoms,
t_nrnb *nrnb,gmx_wallcycle_t wcycle,
gmx_edsam_t ed,t_forcerec *fr,
int repl_ex_nst,int repl_ex_seed,
real cpt_period,real max_hours,
const char *deviceOptions,
unsigned long Flags,
gmx_runtime_t *runtime)
{
gmx_mdoutf_t *outf;
gmx_large_int_t step,step_rel;
double run_time;
double t,t0,lam0;
gmx_bool bSimAnn,
bFirstStep,bStateFromTPX,bLastStep,bStartingFromCpt;
gmx_bool bInitStep=TRUE;
gmx_bool do_ene,do_log, do_verbose,
bX,bV,bF,bCPT;
tensor force_vir,shake_vir,total_vir,pres;
int i,m;
int mdof_flags;
rvec mu_tot;
t_vcm *vcm;
int nchkpt=1;
gmx_localtop_t *top;
t_mdebin *mdebin=NULL;
t_state *state=NULL;
rvec *f_global=NULL;
int n_xtc=-1;
rvec *x_xtc=NULL;
gmx_enerdata_t *enerd;
rvec *f=NULL;
gmx_global_stat_t gstat;
gmx_update_t upd=NULL;
t_graph *graph=NULL;
globsig_t gs;
gmx_groups_t *groups;
gmx_ekindata_t *ekind, *ekind_save;
gmx_bool bAppend;
int a0,a1;
matrix lastbox;
real reset_counters=0,reset_counters_now=0;
char sbuf[STEPSTRSIZE],sbuf2[STEPSTRSIZE];
int handled_stop_condition=gmx_stop_cond_none;
const char *ommOptions = NULL;
void *openmmData;
bAppend = (Flags & MD_APPENDFILES);
check_ir_old_tpx_versions(cr,fplog,ir,top_global);
groups = &top_global->groups;
/* Initial values */
init_md(fplog,cr,ir,oenv,&t,&t0,&state_global->lambda,&lam0,
nrnb,top_global,&upd,
nfile,fnm,&outf,&mdebin,
force_vir,shake_vir,mu_tot,&bSimAnn,&vcm,state_global,Flags);
clear_mat(total_vir);
clear_mat(pres);
/* Energy terms and groups */
snew(enerd,1);
init_enerdata(top_global->groups.grps[egcENER].nr,ir->n_flambda,enerd);
snew(f,top_global->natoms);
/* Kinetic energy data */
snew(ekind,1);
init_ekindata(fplog,top_global,&(ir->opts),ekind);
/* needed for iteration of constraints */
snew(ekind_save,1);
init_ekindata(fplog,top_global,&(ir->opts),ekind_save);
/* Copy the cos acceleration to the groups struct */
ekind->cosacc.cos_accel = ir->cos_accel;
gstat = global_stat_init(ir);
debug_gmx();
{
double io = compute_io(ir,top_global->natoms,groups,mdebin->ebin->nener,1);
if ((io > 2000) && MASTER(cr))
fprintf(stderr,
"\nWARNING: This run will generate roughly %.0f Mb of data\n\n",
io);
}
top = gmx_mtop_generate_local_top(top_global,ir);
a0 = 0;
a1 = top_global->natoms;
state = partdec_init_local_state(cr,state_global);
f_global = f;
atoms2md(top_global,ir,0,NULL,a0,a1-a0,mdatoms);
if (vsite)
{
set_vsite_top(vsite,top,mdatoms,cr);
}
if (ir->ePBC != epbcNONE && !ir->bPeriodicMols)
{
graph = mk_graph(fplog,&(top->idef),0,top_global->natoms,FALSE,FALSE);
}
update_mdatoms(mdatoms,state->lambda);
if (deviceOptions[0]=='\0')
{
/* empty options, which should default to OpenMM in this build */
ommOptions=deviceOptions;
}
else
{
if (gmx_strncasecmp(deviceOptions,"OpenMM",6)!=0)
{
gmx_fatal(FARGS, "This Gromacs version currently only works with OpenMM. Use -device \"OpenMM:<options>\"");
}
else
{
ommOptions=strchr(deviceOptions,':');
if (NULL!=ommOptions)
{
/* Increase the pointer to skip the colon */
ommOptions++;
}
}
}
openmmData = openmm_init(fplog, ommOptions, ir, top_global, top, mdatoms, fr, state);
please_cite(fplog,"Friedrichs2009");
if (MASTER(cr))
{
/* Update mdebin with energy history if appending to output files */
if ( Flags & MD_APPENDFILES )
{
restore_energyhistory_from_state(mdebin,&state_global->enerhist);
}
/* Set the initial energy history in state to zero by updating once */
update_energyhistory(&state_global->enerhist,mdebin);
}
if (constr)
{
set_constraints(constr,top,ir,mdatoms,cr);
}
if (!ir->bContinuation)
{
if (mdatoms->cFREEZE && (state->flags & (1<<estV)))
{
/* Set the velocities of frozen particles to zero */
for (i=mdatoms->start; i<mdatoms->start+mdatoms->homenr; i++)
{
for (m=0; m<DIM; m++)
{
if (ir->opts.nFreeze[mdatoms->cFREEZE[i]][m])
{
state->v[i][m] = 0;
}
}
}
}
if (constr)
{
/* Constrain the initial coordinates and velocities */
do_constrain_first(fplog,constr,ir,mdatoms,state,f,
graph,cr,nrnb,fr,top,shake_vir);
}
if (vsite)
{
/* Construct the virtual sites for the initial configuration */
construct_vsites(fplog,vsite,state->x,nrnb,ir->delta_t,NULL,
top->idef.iparams,top->idef.il,
fr->ePBC,fr->bMolPBC,graph,cr,state->box);
}
}
debug_gmx();
if (MASTER(cr))
{
char tbuf[20];
fprintf(fplog,"Initial temperature: %g K\n",enerd->term[F_TEMP]);
fprintf(stderr,"starting mdrun '%s'\n",
*(top_global->name));
if (ir->nsteps >= 0)
{
sprintf(tbuf,"%8.1f",(ir->init_step+ir->nsteps)*ir->delta_t);
}
else
{
sprintf(tbuf,"%s","infinite");
}
if (ir->init_step > 0)
{
fprintf(stderr,"%s steps, %s ps (continuing from step %s, %8.1f ps).\n",
gmx_step_str(ir->init_step+ir->nsteps,sbuf),tbuf,
gmx_step_str(ir->init_step,sbuf2),
ir->init_step*ir->delta_t);
}
else
{
fprintf(stderr,"%s steps, %s ps.\n",
gmx_step_str(ir->nsteps,sbuf),tbuf);
}
}
fprintf(fplog,"\n");
/* Set and write start time */
runtime_start(runtime);
print_date_and_time(fplog,cr->nodeid,"Started mdrun",runtime);
wallcycle_start(wcycle,ewcRUN);
if (fplog)
fprintf(fplog,"\n");
/* safest point to do file checkpointing is here. More general point would be immediately before integrator call */
debug_gmx();
/***********************************************************
*
* Loop over MD steps
*
************************************************************/
/* loop over MD steps or if rerunMD to end of input trajectory */
bFirstStep = TRUE;
/* Skip the first Nose-Hoover integration when we get the state from tpx */
bStateFromTPX = !opt2bSet("-cpi",nfile,fnm);
bInitStep = bFirstStep && bStateFromTPX;
bStartingFromCpt = (Flags & MD_STARTFROMCPT) && bInitStep;
bLastStep = FALSE;
init_global_signals(&gs,cr,ir,repl_ex_nst);
step = ir->init_step;
step_rel = 0;
while (!bLastStep)
{
wallcycle_start(wcycle,ewcSTEP);
GMX_MPE_LOG(ev_timestep1);
bLastStep = (step_rel == ir->nsteps);
t = t0 + step*ir->delta_t;
if (gs.set[eglsSTOPCOND] != 0)
{
bLastStep = TRUE;
}
do_log = do_per_step(step,ir->nstlog) || bFirstStep || bLastStep;
do_verbose = bVerbose &&
(step % stepout == 0 || bFirstStep || bLastStep);
if (MASTER(cr) && do_log)
{
print_ebin_header(fplog,step,t,state->lambda);
}
clear_mat(force_vir);
GMX_MPE_LOG(ev_timestep2);
/* We write a checkpoint at this MD step when:
* either when we signalled through gs (in OpenMM NS works different),
* or at the last step (but not when we do not want confout),
* but never at the first step.
*/
bCPT = ((gs.set[eglsCHKPT] ||
(bLastStep && (Flags & MD_CONFOUT))) &&
step > ir->init_step );
if (bCPT)
{
gs.set[eglsCHKPT] = 0;
}
/* Now we have the energies and forces corresponding to the
* coordinates at time t. We must output all of this before
* the update.
* for RerunMD t is read from input trajectory
*/
GMX_MPE_LOG(ev_output_start);
mdof_flags = 0;
if (do_per_step(step,ir->nstxout))
{
mdof_flags |= MDOF_X;
}
if (do_per_step(step,ir->nstvout))
{
mdof_flags |= MDOF_V;
}
if (do_per_step(step,ir->nstfout))
{
mdof_flags |= MDOF_F;
}
if (do_per_step(step,ir->nstxtcout))
{
mdof_flags |= MDOF_XTC;
}
if (bCPT)
{
mdof_flags |= MDOF_CPT;
};
do_ene = (do_per_step(step,ir->nstenergy) || bLastStep);
if (mdof_flags != 0 || do_ene || do_log)
{
wallcycle_start(wcycle,ewcTRAJ);
bF = (mdof_flags & MDOF_F);
bX = (mdof_flags & (MDOF_X | MDOF_XTC | MDOF_CPT));
bV = (mdof_flags & (MDOF_V | MDOF_CPT));
openmm_copy_state(openmmData, state, &t, f, enerd, bX, bV, bF, do_ene);
upd_mdebin(mdebin, FALSE,TRUE,
t,mdatoms->tmass,enerd,state,lastbox,
shake_vir,force_vir,total_vir,pres,
ekind,mu_tot,constr);
print_ebin(outf->fp_ene,do_ene,FALSE,FALSE,do_log?fplog:NULL,
step,t,
eprNORMAL,bCompact,mdebin,fcd,groups,&(ir->opts));
write_traj(fplog,cr,outf,mdof_flags,top_global,
step,t,state,state_global,f,f_global,&n_xtc,&x_xtc);
if (bCPT)
{
nchkpt++;
bCPT = FALSE;
}
debug_gmx();
if (bLastStep && step_rel == ir->nsteps &&
(Flags & MD_CONFOUT) && MASTER(cr))
{
/* x and v have been collected in write_traj,
* because a checkpoint file will always be written
* at the last step.
*/
fprintf(stderr,"\nWriting final coordinates.\n");
if (ir->ePBC != epbcNONE && !ir->bPeriodicMols)
{
/* Make molecules whole only for confout writing */
do_pbc_mtop(fplog,ir->ePBC,state->box,top_global,state_global->x);
}
write_sto_conf_mtop(ftp2fn(efSTO,nfile,fnm),
*top_global->name,top_global,
state_global->x,state_global->v,
ir->ePBC,state->box);
debug_gmx();
}
wallcycle_stop(wcycle,ewcTRAJ);
}
GMX_MPE_LOG(ev_output_finish);
/* Determine the wallclock run time up till now */
run_time = gmx_gettime() - (double)runtime->real;
/* Check whether everything is still allright */
if (((int)gmx_get_stop_condition() > handled_stop_condition)
#ifdef GMX_THREADS
&& MASTER(cr)
#endif
)
{
/* this is just make gs.sig compatible with the hack
of sending signals around by MPI_Reduce with together with
other floats */
/* NOTE: this only works for serial code. For code that allows
MPI nodes to propagate their condition, see kernel/md.c*/
if ( gmx_get_stop_condition() == gmx_stop_cond_next_ns )
gs.set[eglsSTOPCOND]=1;
if ( gmx_get_stop_condition() == gmx_stop_cond_next )
gs.set[eglsSTOPCOND]=1;
/* < 0 means stop at next step, > 0 means stop at next NS step */
if (fplog)
{
fprintf(fplog,
"\n\nReceived the %s signal, stopping at the next %sstep\n\n",
gmx_get_signal_name(),
gs.sig[eglsSTOPCOND]==1 ? "NS " : "");
fflush(fplog);
}
fprintf(stderr,
"\n\nReceived the %s signal, stopping at the next %sstep\n\n",
gmx_get_signal_name(),
gs.sig[eglsSTOPCOND]==1 ? "NS " : "");
fflush(stderr);
handled_stop_condition=(int)gmx_get_stop_condition();
}
else if (MASTER(cr) &&
(max_hours > 0 && run_time > max_hours*60.0*60.0*0.99) &&
gs.set[eglsSTOPCOND] == 0)
{
/* Signal to terminate the run */
gs.set[eglsSTOPCOND] = 1;
if (fplog)
{
fprintf(fplog,"\nStep %s: Run time exceeded %.3f hours, will terminate the run\n",gmx_step_str(step,sbuf),max_hours*0.99);
}
fprintf(stderr, "\nStep %s: Run time exceeded %.3f hours, will terminate the run\n",gmx_step_str(step,sbuf),max_hours*0.99);
}
/* checkpoints */
if (MASTER(cr) && (cpt_period >= 0 &&
(cpt_period == 0 ||
run_time >= nchkpt*cpt_period*60.0)) &&
gs.set[eglsCHKPT] == 0)
{
gs.set[eglsCHKPT] = 1;
}
/* Time for performance */
if (((step % stepout) == 0) || bLastStep)
{
runtime_upd_proc(runtime);
}
if (do_per_step(step,ir->nstlog))
{
if (fflush(fplog) != 0)
{
gmx_fatal(FARGS,"Cannot flush logfile - maybe you are out of quota?");
}
}
/* Remaining runtime */
if (MULTIMASTER(cr) && (do_verbose || gmx_got_usr_signal() ))
{
print_time(stderr,runtime,step,ir,cr);
}
bFirstStep = FALSE;
bInitStep = FALSE;
bStartingFromCpt = FALSE;
step++;
step_rel++;
openmm_take_one_step(openmmData);
}
/* End of main MD loop */
debug_gmx();
/* Stop the time */
runtime_end(runtime);
if (MASTER(cr))
{
if (ir->nstcalcenergy > 0)
{
print_ebin(outf->fp_ene,FALSE,FALSE,FALSE,fplog,step,t,
eprAVER,FALSE,mdebin,fcd,groups,&(ir->opts));
}
}
openmm_cleanup(fplog, openmmData);
done_mdoutf(outf);
debug_gmx();
runtime->nsteps_done = step_rel;
return 0;
}
int add_h(t_atoms **pdbaptr, rvec *xptr[],
int nah, t_hackblock ah[],
int nterpairs, t_hackblock **ntdb, t_hackblock **ctdb,
int *rN, int *rC, bool bMissing,
int **nabptr, t_hack ***abptr,
bool bUpdate_pdba, bool bKeep_old_pdba)
{
t_atoms *newpdba=NULL,*pdba=NULL;
bool bSet;
int nadd;
int i,newi,j,d,natoms;
int *nab=NULL;
t_hack **ab=NULL;
t_hackblock *hb;
rvec *xn;
bool bKeep_ab;
/* set flags for adding hydrogens (according to hdb) */
pdba=*pdbaptr;
natoms=pdba->nr;
if (nabptr && abptr) {
/* the first time these will be pointers to NULL, but we will
return in them the completed arrays, which we will get back
the second time */
nab = *nabptr;
ab = *abptr;
bKeep_ab=TRUE;
if (debug) fprintf(debug,"pointer to ab found\n");
} else
bKeep_ab=FALSE;
if (nab && ab) {
/* WOW, everything was already figured out */
bUpdate_pdba = FALSE;
if (debug) fprintf(debug,"pointer to non-null ab found\n");
} else {
/* We'll have to do all the hard work */
bUpdate_pdba = TRUE;
/* first get all the hackblocks for each residue: */
hb = get_hackblocks(pdba, nah, ah, nterpairs, ntdb, ctdb, rN, rC);
if (debug) dump_hb(debug, pdba->nres, hb);
/* expand the hackblocks to atom level */
snew(nab,natoms);
snew(ab,natoms);
expand_hackblocks(pdba, hb, nab, ab, nterpairs, rN, rC);
free_t_hackblock(pdba->nres, &hb);
}
if (debug) {
fprintf(debug,"before calc_all_pos\n");
dump_ab(debug, natoms, nab, ab, TRUE);
}
/* Now calc the positions */
calc_all_pos(pdba, *xptr, nab, ab, bMissing);
if (debug) {
fprintf(debug,"after calc_all_pos\n");
dump_ab(debug, natoms, nab, ab, TRUE);
}
if (bUpdate_pdba) {
/* we don't have to add atoms that are already present in pdba,
so we will remove them from the ab (t_hack) */
nadd = check_atoms_present(pdba, nab, ab, bMissing);
if (debug) {
fprintf(debug, "removed add hacks that were already in pdba:\n");
dump_ab(debug, natoms, nab, ab, TRUE);
fprintf(debug, "will be adding %d atoms\n",nadd);
}
/* Copy old atoms, making space for new ones */
snew(newpdba,1);
init_t_atoms(newpdba,natoms+nadd,FALSE);
newpdba->nres = pdba->nres;
sfree(newpdba->resname);
newpdba->resname = pdba->resname;
} else {
nadd = 0;
}
if (debug) fprintf(debug,"snew xn for %d old + %d new atoms %d total)\n",
natoms, nadd, natoms+nadd);
snew(xn,natoms+nadd);
newi=0;
for(i=0; (i<natoms); i++) {
/* check if this atom wasn't scheduled for deletion */
if ( nab[i]==0 || (ab[i][0].nname != NULL) ) {
if (newi >= natoms+nadd) {
/*gmx_fatal(FARGS,"Not enough space for adding atoms");*/
nadd+=10;
srenew(xn,natoms+nadd);
if (bUpdate_pdba) {
srenew(newpdba->atom,natoms+nadd);
srenew(newpdba->atomname,natoms+nadd);
}
debug_gmx();
}
if (debug) fprintf(debug,"(%3d) %3d %4s %4s%3d %3d",
i+1, newi+1, *pdba->atomname[i],
*pdba->resname[pdba->atom[i].resnr],
pdba->atom[i].resnr+1, nab[i]);
if (bUpdate_pdba)
copy_atom(pdba,i, newpdba,newi);
copy_rvec((*xptr)[i],xn[newi]);
/* process the hacks for this atom */
for(j=0; j<nab[i]; j++) {
if ( ab[i][j].oname==NULL ) { /* add */
newi++;
if (newi >= natoms+nadd) {
/* gmx_fatal(FARGS,"Not enough space for adding atoms");*/
nadd+=10;
srenew(xn,natoms+nadd);
if (bUpdate_pdba) {
srenew(newpdba->atom,natoms+nadd);
srenew(newpdba->atomname,natoms+nadd);
}
debug_gmx();
}
if (bUpdate_pdba) {
newpdba->atom[newi].resnr=pdba->atom[i].resnr;
}
if (debug) fprintf(debug," + %d",newi+1);
}
if ( ab[i][j].nname!=NULL ) { /* add or replace */
if (bUpdate_pdba) {
snew(newpdba->atomname[newi],1);
*newpdba->atomname[newi]=strdup(ab[i][j].nname);
if ( ab[i][j].oname!=NULL && ab[i][j].atom ) { /* replace */
/* newpdba->atom[newi].m = ab[i][j].atom->m; */
/* newpdba->atom[newi].q = ab[i][j].atom->q; */
/* newpdba->atom[newi].type = ab[i][j].atom->type; */
}
}
bSet=TRUE;
for(d=0; d<DIM; d++)
bSet = bSet && ab[i][j].newx[d]!=NOTSET;
if (bSet)
copy_rvec(ab[i][j].newx, xn[newi]);
if (bUpdate_pdba && debug)
fprintf(debug," %s %g %g",*newpdba->atomname[newi],
newpdba->atom[newi].m,newpdba->atom[newi].q);
}
}
newi++;
if (debug) fprintf(debug,"\n");
}
}
if (bUpdate_pdba)
newpdba->nr = newi;
if ( bKeep_ab ) {
*nabptr=nab;
*abptr=ab;
} else {
/* Clean up */
for(i=0; i<natoms; i++)
free_t_hack(nab[i], &ab[i]);
sfree(nab);
sfree(ab);
}
if ( bUpdate_pdba ) {
if ( !bKeep_old_pdba ) {
for(i=0; i < natoms; i++) {
sfree(*(pdba->atomname[i]));
/* sfree(pdba->atomname[i]); */
}
sfree(pdba->atomname);
sfree(pdba->atom);
sfree(pdba->pdbinfo);
sfree(pdba);
}
*pdbaptr=newpdba;
} else
nadd = newi-natoms;
sfree(*xptr);
*xptr=xn;
return newi;
}
void do_force_lowlevel(FILE *fplog, gmx_large_int_t step,
t_forcerec *fr, t_inputrec *ir,
t_idef *idef, t_commrec *cr,
t_nrnb *nrnb, gmx_wallcycle_t wcycle,
t_mdatoms *md,
t_grpopts *opts,
rvec x[], history_t *hist,
rvec f[],
rvec f_longrange[],
gmx_enerdata_t *enerd,
t_fcdata *fcd,
gmx_mtop_t *mtop,
gmx_localtop_t *top,
gmx_genborn_t *born,
t_atomtypes *atype,
gmx_bool bBornRadii,
matrix box,
t_lambda *fepvals,
real *lambda,
t_graph *graph,
t_blocka *excl,
rvec mu_tot[],
int flags,
float *cycles_pme)
{
int i, j, status;
int donb_flags;
gmx_bool bDoEpot, bSepDVDL, bSB;
int pme_flags;
matrix boxs;
rvec box_size;
real Vsr, Vlr, Vcorr = 0;
t_pbc pbc;
real dvdgb;
char buf[22];
double clam_i, vlam_i;
real dvdl_dum[efptNR], dvdl, dvdl_nb[efptNR], lam_i[efptNR];
real dvdlsum;
#ifdef GMX_MPI
double t0 = 0.0, t1, t2, t3; /* time measurement for coarse load balancing */
#endif
#define PRINT_SEPDVDL(s, v, dvdlambda) if (bSepDVDL) {fprintf(fplog, sepdvdlformat, s, v, dvdlambda); }
GMX_MPE_LOG(ev_force_start);
set_pbc(&pbc, fr->ePBC, box);
/* reset free energy components */
for (i = 0; i < efptNR; i++)
{
dvdl_nb[i] = 0;
dvdl_dum[i] = 0;
}
/* Reset box */
for (i = 0; (i < DIM); i++)
{
box_size[i] = box[i][i];
}
bSepDVDL = (fr->bSepDVDL && do_per_step(step, ir->nstlog));
debug_gmx();
/* do QMMM first if requested */
if (fr->bQMMM)
{
enerd->term[F_EQM] = calculate_QMMM(cr, x, f, fr, md);
}
if (bSepDVDL)
{
fprintf(fplog, "Step %s: non-bonded V and dVdl for node %d:\n",
gmx_step_str(step, buf), cr->nodeid);
}
/* Call the short range functions all in one go. */
GMX_MPE_LOG(ev_do_fnbf_start);
#ifdef GMX_MPI
/*#define TAKETIME ((cr->npmenodes) && (fr->timesteps < 12))*/
#define TAKETIME FALSE
if (TAKETIME)
{
MPI_Barrier(cr->mpi_comm_mygroup);
t0 = MPI_Wtime();
}
#endif
if (ir->nwall)
{
/* foreign lambda component for walls */
dvdl = do_walls(ir, fr, box, md, x, f, lambda[efptVDW],
enerd->grpp.ener[egLJSR], nrnb);
PRINT_SEPDVDL("Walls", 0.0, dvdl);
enerd->dvdl_lin[efptVDW] += dvdl;
}
/* If doing GB, reset dvda and calculate the Born radii */
if (ir->implicit_solvent)
{
wallcycle_sub_start(wcycle, ewcsNONBONDED);
for (i = 0; i < born->nr; i++)
{
fr->dvda[i] = 0;
}
if (bBornRadii)
{
calc_gb_rad(cr, fr, ir, top, atype, x, &(fr->gblist), born, md, nrnb);
}
wallcycle_sub_stop(wcycle, ewcsNONBONDED);
}
where();
/* We only do non-bonded calculation with group scheme here, the verlet
* calls are done from do_force_cutsVERLET(). */
if (fr->cutoff_scheme == ecutsGROUP && (flags & GMX_FORCE_NONBONDED))
{
donb_flags = 0;
/* Add short-range interactions */
donb_flags |= GMX_NONBONDED_DO_SR;
if (flags & GMX_FORCE_FORCES)
{
donb_flags |= GMX_NONBONDED_DO_FORCE;
}
if (flags & GMX_FORCE_ENERGY)
{
donb_flags |= GMX_NONBONDED_DO_POTENTIAL;
}
if (flags & GMX_FORCE_DO_LR)
{
donb_flags |= GMX_NONBONDED_DO_LR;
}
wallcycle_sub_start(wcycle, ewcsNONBONDED);
do_nonbonded(cr, fr, x, f, f_longrange, md, excl,
&enerd->grpp, box_size, nrnb,
lambda, dvdl_nb, -1, -1, donb_flags);
/* If we do foreign lambda and we have soft-core interactions
* we have to recalculate the (non-linear) energies contributions.
*/
if (fepvals->n_lambda > 0 && (flags & GMX_FORCE_DHDL) && fepvals->sc_alpha != 0)
{
for (i = 0; i < enerd->n_lambda; i++)
{
for (j = 0; j < efptNR; j++)
{
lam_i[j] = (i == 0 ? lambda[j] : fepvals->all_lambda[j][i-1]);
}
reset_foreign_enerdata(enerd);
do_nonbonded(cr, fr, x, f, f_longrange, md, excl,
&(enerd->foreign_grpp), box_size, nrnb,
lam_i, dvdl_dum, -1, -1,
(donb_flags & ~GMX_NONBONDED_DO_FORCE) | GMX_NONBONDED_DO_FOREIGNLAMBDA);
sum_epot(&ir->opts, &(enerd->foreign_grpp), enerd->foreign_term);
enerd->enerpart_lambda[i] += enerd->foreign_term[F_EPOT];
}
}
wallcycle_sub_stop(wcycle, ewcsNONBONDED);
where();
}
/* If we are doing GB, calculate bonded forces and apply corrections
* to the solvation forces */
/* MRS: Eventually, many need to include free energy contribution here! */
if (ir->implicit_solvent)
{
wallcycle_sub_start(wcycle, ewcsBONDED);
calc_gb_forces(cr, md, born, top, atype, x, f, fr, idef,
ir->gb_algorithm, ir->sa_algorithm, nrnb, bBornRadii, &pbc, graph, enerd);
wallcycle_sub_stop(wcycle, ewcsBONDED);
}
#ifdef GMX_MPI
if (TAKETIME)
{
t1 = MPI_Wtime();
fr->t_fnbf += t1-t0;
}
#endif
if (fepvals->sc_alpha != 0)
{
enerd->dvdl_nonlin[efptVDW] += dvdl_nb[efptVDW];
}
else
{
enerd->dvdl_lin[efptVDW] += dvdl_nb[efptVDW];
}
if (fepvals->sc_alpha != 0)
/* even though coulomb part is linear, we already added it, beacuse we
need to go through the vdw calculation anyway */
{
enerd->dvdl_nonlin[efptCOUL] += dvdl_nb[efptCOUL];
}
else
{
enerd->dvdl_lin[efptCOUL] += dvdl_nb[efptCOUL];
}
Vsr = 0;
if (bSepDVDL)
{
for (i = 0; i < enerd->grpp.nener; i++)
{
Vsr +=
(fr->bBHAM ?
enerd->grpp.ener[egBHAMSR][i] :
enerd->grpp.ener[egLJSR][i])
+ enerd->grpp.ener[egCOULSR][i] + enerd->grpp.ener[egGB][i];
}
dvdlsum = dvdl_nb[efptVDW] + dvdl_nb[efptCOUL];
PRINT_SEPDVDL("VdW and Coulomb SR particle-p.", Vsr, dvdlsum);
}
debug_gmx();
GMX_MPE_LOG(ev_do_fnbf_finish);
if (debug)
{
pr_rvecs(debug, 0, "fshift after SR", fr->fshift, SHIFTS);
}
/* Shift the coordinates. Must be done before bonded forces and PPPM,
* but is also necessary for SHAKE and update, therefore it can NOT
* go when no bonded forces have to be evaluated.
*/
/* Here sometimes we would not need to shift with NBFonly,
* but we do so anyhow for consistency of the returned coordinates.
*/
if (graph)
{
shift_self(graph, box, x);
if (TRICLINIC(box))
{
inc_nrnb(nrnb, eNR_SHIFTX, 2*graph->nnodes);
}
else
{
inc_nrnb(nrnb, eNR_SHIFTX, graph->nnodes);
}
}
/* Check whether we need to do bondeds or correct for exclusions */
if (fr->bMolPBC &&
((flags & GMX_FORCE_BONDED)
|| EEL_RF(fr->eeltype) || EEL_FULL(fr->eeltype)))
{
/* Since all atoms are in the rectangular or triclinic unit-cell,
* only single box vector shifts (2 in x) are required.
*/
set_pbc_dd(&pbc, fr->ePBC, cr->dd, TRUE, box);
}
debug_gmx();
if (flags & GMX_FORCE_BONDED)
{
GMX_MPE_LOG(ev_calc_bonds_start);
wallcycle_sub_start(wcycle, ewcsBONDED);
calc_bonds(fplog, cr->ms,
idef, x, hist, f, fr, &pbc, graph, enerd, nrnb, lambda, md, fcd,
DOMAINDECOMP(cr) ? cr->dd->gatindex : NULL, atype, born,
flags,
fr->bSepDVDL && do_per_step(step, ir->nstlog), step);
/* Check if we have to determine energy differences
* at foreign lambda's.
*/
if (fepvals->n_lambda > 0 && (flags & GMX_FORCE_DHDL) &&
idef->ilsort != ilsortNO_FE)
{
if (idef->ilsort != ilsortFE_SORTED)
{
gmx_incons("The bonded interactions are not sorted for free energy");
}
for (i = 0; i < enerd->n_lambda; i++)
{
reset_foreign_enerdata(enerd);
for (j = 0; j < efptNR; j++)
{
lam_i[j] = (i == 0 ? lambda[j] : fepvals->all_lambda[j][i-1]);
}
calc_bonds_lambda(fplog, idef, x, fr, &pbc, graph, &(enerd->foreign_grpp), enerd->foreign_term, nrnb, lam_i, md,
fcd, DOMAINDECOMP(cr) ? cr->dd->gatindex : NULL);
sum_epot(&ir->opts, &(enerd->foreign_grpp), enerd->foreign_term);
enerd->enerpart_lambda[i] += enerd->foreign_term[F_EPOT];
}
}
debug_gmx();
GMX_MPE_LOG(ev_calc_bonds_finish);
wallcycle_sub_stop(wcycle, ewcsBONDED);
}
where();
*cycles_pme = 0;
if (EEL_FULL(fr->eeltype))
{
bSB = (ir->nwall == 2);
if (bSB)
{
copy_mat(box, boxs);
svmul(ir->wall_ewald_zfac, boxs[ZZ], boxs[ZZ]);
box_size[ZZ] *= ir->wall_ewald_zfac;
}
clear_mat(fr->vir_el_recip);
if (fr->bEwald)
{
Vcorr = 0;
dvdl = 0;
/* With the Verlet scheme exclusion forces are calculated
* in the non-bonded kernel.
*/
/* The TPI molecule does not have exclusions with the rest
* of the system and no intra-molecular PME grid contributions
* will be calculated in gmx_pme_calc_energy.
*/
if ((ir->cutoff_scheme == ecutsGROUP && fr->n_tpi == 0) ||
ir->ewald_geometry != eewg3D ||
ir->epsilon_surface != 0)
{
int nthreads, t;
wallcycle_sub_start(wcycle, ewcsEWALD_CORRECTION);
if (fr->n_tpi > 0)
{
gmx_fatal(FARGS, "TPI with PME currently only works in a 3D geometry with tin-foil boundary conditions");
}
nthreads = gmx_omp_nthreads_get(emntBonded);
#pragma omp parallel for num_threads(nthreads) schedule(static)
for (t = 0; t < nthreads; t++)
{
int s, e, i;
rvec *fnv;
tensor *vir;
real *Vcorrt, *dvdlt;
if (t == 0)
{
fnv = fr->f_novirsum;
vir = &fr->vir_el_recip;
Vcorrt = &Vcorr;
dvdlt = &dvdl;
}
else
{
fnv = fr->f_t[t].f;
vir = &fr->f_t[t].vir;
Vcorrt = &fr->f_t[t].Vcorr;
dvdlt = &fr->f_t[t].dvdl[efptCOUL];
for (i = 0; i < fr->natoms_force; i++)
{
clear_rvec(fnv[i]);
}
clear_mat(*vir);
}
*dvdlt = 0;
*Vcorrt =
ewald_LRcorrection(fplog,
fr->excl_load[t], fr->excl_load[t+1],
cr, t, fr,
md->chargeA,
md->nChargePerturbed ? md->chargeB : NULL,
ir->cutoff_scheme != ecutsVERLET,
excl, x, bSB ? boxs : box, mu_tot,
ir->ewald_geometry,
ir->epsilon_surface,
fnv, *vir,
lambda[efptCOUL], dvdlt);
}
if (nthreads > 1)
{
reduce_thread_forces(fr->natoms_force, fr->f_novirsum,
fr->vir_el_recip,
&Vcorr, efptCOUL, &dvdl,
nthreads, fr->f_t);
}
wallcycle_sub_stop(wcycle, ewcsEWALD_CORRECTION);
}
if (fr->n_tpi == 0)
{
Vcorr += ewald_charge_correction(cr, fr, lambda[efptCOUL], box,
&dvdl, fr->vir_el_recip);
}
PRINT_SEPDVDL("Ewald excl./charge/dip. corr.", Vcorr, dvdl);
enerd->dvdl_lin[efptCOUL] += dvdl;
}
status = 0;
Vlr = 0;
dvdl = 0;
switch (fr->eeltype)
{
case eelPME:
case eelPMESWITCH:
case eelPMEUSER:
case eelPMEUSERSWITCH:
case eelP3M_AD:
if (cr->duty & DUTY_PME)
{
assert(fr->n_tpi >= 0);
if (fr->n_tpi == 0 || (flags & GMX_FORCE_STATECHANGED))
{
pme_flags = GMX_PME_SPREAD_Q | GMX_PME_SOLVE;
if (flags & GMX_FORCE_FORCES)
{
pme_flags |= GMX_PME_CALC_F;
}
if (flags & (GMX_FORCE_VIRIAL | GMX_FORCE_ENERGY))
{
pme_flags |= GMX_PME_CALC_ENER_VIR;
}
if (fr->n_tpi > 0)
{
/* We don't calculate f, but we do want the potential */
pme_flags |= GMX_PME_CALC_POT;
}
wallcycle_start(wcycle, ewcPMEMESH);
status = gmx_pme_do(fr->pmedata,
md->start, md->homenr - fr->n_tpi,
x, fr->f_novirsum,
md->chargeA, md->chargeB,
bSB ? boxs : box, cr,
DOMAINDECOMP(cr) ? dd_pme_maxshift_x(cr->dd) : 0,
DOMAINDECOMP(cr) ? dd_pme_maxshift_y(cr->dd) : 0,
nrnb, wcycle,
fr->vir_el_recip, fr->ewaldcoeff,
&Vlr, lambda[efptCOUL], &dvdl,
pme_flags);
*cycles_pme = wallcycle_stop(wcycle, ewcPMEMESH);
/* We should try to do as little computation after
* this as possible, because parallel PME synchronizes
* the nodes, so we want all load imbalance of the rest
* of the force calculation to be before the PME call.
* DD load balancing is done on the whole time of
* the force call (without PME).
*/
}
if (fr->n_tpi > 0)
{
/* Determine the PME grid energy of the test molecule
* with the PME grid potential of the other charges.
*/
gmx_pme_calc_energy(fr->pmedata, fr->n_tpi,
x + md->homenr - fr->n_tpi,
md->chargeA + md->homenr - fr->n_tpi,
&Vlr);
}
PRINT_SEPDVDL("PME mesh", Vlr, dvdl);
}
break;
case eelEWALD:
Vlr = do_ewald(fplog, FALSE, ir, x, fr->f_novirsum,
md->chargeA, md->chargeB,
box_size, cr, md->homenr,
fr->vir_el_recip, fr->ewaldcoeff,
lambda[efptCOUL], &dvdl, fr->ewald_table);
PRINT_SEPDVDL("Ewald long-range", Vlr, dvdl);
break;
default:
gmx_fatal(FARGS, "No such electrostatics method implemented %s",
eel_names[fr->eeltype]);
}
if (status != 0)
{
gmx_fatal(FARGS, "Error %d in long range electrostatics routine %s",
status, EELTYPE(fr->eeltype));
}
/* Note that with separate PME nodes we get the real energies later */
enerd->dvdl_lin[efptCOUL] += dvdl;
enerd->term[F_COUL_RECIP] = Vlr + Vcorr;
if (debug)
{
fprintf(debug, "Vlr = %g, Vcorr = %g, Vlr_corr = %g\n",
Vlr, Vcorr, enerd->term[F_COUL_RECIP]);
pr_rvecs(debug, 0, "vir_el_recip after corr", fr->vir_el_recip, DIM);
pr_rvecs(debug, 0, "fshift after LR Corrections", fr->fshift, SHIFTS);
}
}
else
{
if (EEL_RF(fr->eeltype))
{
/* With the Verlet scheme exclusion forces are calculated
* in the non-bonded kernel.
*/
if (ir->cutoff_scheme != ecutsVERLET && fr->eeltype != eelRF_NEC)
{
dvdl = 0;
enerd->term[F_RF_EXCL] =
RF_excl_correction(fplog, fr, graph, md, excl, x, f,
fr->fshift, &pbc, lambda[efptCOUL], &dvdl);
}
enerd->dvdl_lin[efptCOUL] += dvdl;
PRINT_SEPDVDL("RF exclusion correction",
enerd->term[F_RF_EXCL], dvdl);
}
}
where();
debug_gmx();
if (debug)
{
print_nrnb(debug, nrnb);
}
debug_gmx();
#ifdef GMX_MPI
if (TAKETIME)
{
t2 = MPI_Wtime();
MPI_Barrier(cr->mpi_comm_mygroup);
t3 = MPI_Wtime();
fr->t_wait += t3-t2;
if (fr->timesteps == 11)
{
fprintf(stderr, "* PP load balancing info: node %d, step %s, rel wait time=%3.0f%% , load string value: %7.2f\n",
cr->nodeid, gmx_step_str(fr->timesteps, buf),
100*fr->t_wait/(fr->t_wait+fr->t_fnbf),
(fr->t_fnbf+fr->t_wait)/fr->t_fnbf);
}
fr->timesteps++;
}
#endif
if (debug)
{
pr_rvecs(debug, 0, "fshift after bondeds", fr->fshift, SHIFTS);
}
GMX_MPE_LOG(ev_force_finish);
}
void compute_globals(FILE *fplog, gmx_global_stat_t gstat, t_commrec *cr, t_inputrec *ir,
t_forcerec *fr, gmx_ekindata_t *ekind,
t_state *state, t_state *state_global, t_mdatoms *mdatoms,
t_nrnb *nrnb, t_vcm *vcm, gmx_wallcycle_t wcycle,
gmx_enerdata_t *enerd, tensor force_vir, tensor shake_vir, tensor total_vir,
tensor pres, rvec mu_tot, gmx_constr_t constr,
globsig_t *gs, gmx_bool bInterSimGS,
matrix box, gmx_mtop_t *top_global,
gmx_bool *bSumEkinhOld, int flags)
{
int i, gsi;
real gs_buf[eglsNR];
tensor corr_vir, corr_pres;
gmx_bool bEner, bPres, bTemp;
gmx_bool bStopCM, bGStat,
bReadEkin, bEkinAveVel, bScaleEkin, bConstrain;
real prescorr, enercorr, dvdlcorr, dvdl_ekin;
/* translate CGLO flags to gmx_booleans */
bStopCM = flags & CGLO_STOPCM;
bGStat = flags & CGLO_GSTAT;
bReadEkin = (flags & CGLO_READEKIN);
bScaleEkin = (flags & CGLO_SCALEEKIN);
bEner = flags & CGLO_ENERGY;
bTemp = flags & CGLO_TEMPERATURE;
bPres = (flags & CGLO_PRESSURE);
bConstrain = (flags & CGLO_CONSTRAINT);
/* we calculate a full state kinetic energy either with full-step velocity verlet
or half step where we need the pressure */
bEkinAveVel = (ir->eI == eiVV || (ir->eI == eiVVAK && bPres) || bReadEkin);
/* in initalization, it sums the shake virial in vv, and to
sums ekinh_old in leapfrog (or if we are calculating ekinh_old) for other reasons */
/* ########## Kinetic energy ############## */
if (bTemp)
{
/* Non-equilibrium MD: this is parallellized, but only does communication
* when there really is NEMD.
*/
if (PAR(cr) && (ekind->bNEMD))
{
accumulate_u(cr, &(ir->opts), ekind);
}
debug_gmx();
if (bReadEkin)
{
restore_ekinstate_from_state(cr, ekind, &state_global->ekinstate);
}
else
{
calc_ke_part(state, &(ir->opts), mdatoms, ekind, nrnb, bEkinAveVel);
}
debug_gmx();
}
/* Calculate center of mass velocity if necessary, also parallellized */
if (bStopCM)
{
calc_vcm_grp(0, mdatoms->homenr, mdatoms,
state->x, state->v, vcm);
}
if (bTemp || bStopCM || bPres || bEner || bConstrain)
{
if (!bGStat)
{
/* We will not sum ekinh_old,
* so signal that we still have to do it.
*/
*bSumEkinhOld = TRUE;
}
else
{
if (gs != NULL)
{
for (i = 0; i < eglsNR; i++)
{
gs_buf[i] = gs->sig[i];
}
}
if (PAR(cr))
{
wallcycle_start(wcycle, ewcMoveE);
global_stat(fplog, gstat, cr, enerd, force_vir, shake_vir, mu_tot,
ir, ekind, constr, bStopCM ? vcm : NULL,
gs != NULL ? eglsNR : 0, gs_buf,
top_global, state,
*bSumEkinhOld, flags);
wallcycle_stop(wcycle, ewcMoveE);
}
if (gs != NULL)
{
if (MULTISIM(cr) && bInterSimGS)
{
if (MASTER(cr))
{
/* Communicate the signals between the simulations */
gmx_sum_sim(eglsNR, gs_buf, cr->ms);
}
/* Communicate the signals form the master to the others */
gmx_bcast(eglsNR*sizeof(gs_buf[0]), gs_buf, cr);
}
for (i = 0; i < eglsNR; i++)
{
if (bInterSimGS || gs_simlocal[i])
{
/* Set the communicated signal only when it is non-zero,
* since signals might not be processed at each MD step.
*/
gsi = (gs_buf[i] >= 0 ?
(int)(gs_buf[i] + 0.5) :
(int)(gs_buf[i] - 0.5));
if (gsi != 0)
{
gs->set[i] = gsi;
}
/* Turn off the local signal */
gs->sig[i] = 0;
}
}
}
*bSumEkinhOld = FALSE;
}
}
if (!ekind->bNEMD && debug && bTemp && (vcm->nr > 0))
{
correct_ekin(debug,
0, mdatoms->homenr,
state->v, vcm->group_p[0],
mdatoms->massT, mdatoms->tmass, ekind->ekin);
}
/* Do center of mass motion removal */
if (bStopCM)
{
check_cm_grp(fplog, vcm, ir, 1);
do_stopcm_grp(0, mdatoms->homenr, mdatoms->cVCM,
state->x, state->v, vcm);
inc_nrnb(nrnb, eNR_STOPCM, mdatoms->homenr);
}
if (bEner)
{
/* Calculate the amplitude of the cosine velocity profile */
ekind->cosacc.vcos = ekind->cosacc.mvcos/mdatoms->tmass;
}
if (bTemp)
{
/* Sum the kinetic energies of the groups & calc temp */
/* compute full step kinetic energies if vv, or if vv-avek and we are computing the pressure with IR_NPT_TROTTER */
/* three maincase: VV with AveVel (md-vv), vv with AveEkin (md-vv-avek), leap with AveEkin (md).
Leap with AveVel is not supported; it's not clear that it will actually work.
bEkinAveVel: If TRUE, we simply multiply ekin by ekinscale to get a full step kinetic energy.
If FALSE, we average ekinh_old and ekinh*ekinscale_nhc to get an averaged half step kinetic energy.
*/
enerd->term[F_TEMP] = sum_ekin(&(ir->opts), ekind, &dvdl_ekin,
bEkinAveVel, bScaleEkin);
enerd->dvdl_lin[efptMASS] = (double) dvdl_ekin;
enerd->term[F_EKIN] = trace(ekind->ekin);
}
/* ########## Long range energy information ###### */
if (bEner || bPres || bConstrain)
{
calc_dispcorr(ir, fr, top_global->natoms, box, state->lambda[efptVDW],
corr_pres, corr_vir, &prescorr, &enercorr, &dvdlcorr);
}
if (bEner)
{
enerd->term[F_DISPCORR] = enercorr;
enerd->term[F_EPOT] += enercorr;
enerd->term[F_DVDL_VDW] += dvdlcorr;
}
/* ########## Now pressure ############## */
if (bPres || bConstrain)
{
m_add(force_vir, shake_vir, total_vir);
/* Calculate pressure and apply LR correction if PPPM is used.
* Use the box from last timestep since we already called update().
*/
enerd->term[F_PRES] = calc_pres(fr->ePBC, ir->nwall, box, ekind->ekin, total_vir, pres);
/* Calculate long range corrections to pressure and energy */
/* this adds to enerd->term[F_PRES] and enerd->term[F_ETOT],
and computes enerd->term[F_DISPCORR]. Also modifies the
total_vir and pres tesors */
m_add(total_vir, corr_vir, total_vir);
m_add(pres, corr_pres, pres);
enerd->term[F_PDISPCORR] = prescorr;
enerd->term[F_PRES] += prescorr;
}
}
void
do_md_trajectory_writing(FILE *fplog,
t_commrec *cr,
int nfile,
const t_filenm fnm[],
gmx_int64_t step,
gmx_int64_t step_rel,
double t,
t_inputrec *ir,
t_state *state,
t_state *state_global,
gmx_mtop_t *top_global,
t_forcerec *fr,
gmx_mdoutf_t outf,
t_mdebin *mdebin,
gmx_ekindata_t *ekind,
rvec *f,
rvec *f_global,
int *nchkpt,
gmx_bool bCPT,
gmx_bool bRerunMD,
gmx_bool bLastStep,
gmx_bool bDoConfOut,
gmx_bool bSumEkinhOld
)
{
int mdof_flags;
rvec *x_for_confout = NULL;
mdof_flags = 0;
if (do_per_step(step, ir->nstxout))
{
mdof_flags |= MDOF_X;
}
if (do_per_step(step, ir->nstvout))
{
mdof_flags |= MDOF_V;
}
if (do_per_step(step, ir->nstfout))
{
mdof_flags |= MDOF_F;
}
if (do_per_step(step, ir->nstxout_compressed))
{
mdof_flags |= MDOF_X_COMPRESSED;
}
if (bCPT)
{
mdof_flags |= MDOF_CPT;
}
;
#if defined(GMX_FAHCORE)
if (bLastStep)
{
/* Enforce writing positions and velocities at end of run */
mdof_flags |= (MDOF_X | MDOF_V);
}
if (MASTER(cr))
{
fcReportProgress( ir->nsteps, step );
}
#if defined(__native_client__)
fcCheckin(MASTER(cr));
#endif
/* sync bCPT and fc record-keeping */
if (bCPT && MASTER(cr))
{
fcRequestCheckPoint();
}
#endif
if (mdof_flags != 0)
{
wallcycle_start(mdoutf_get_wcycle(outf), ewcTRAJ);
if (bCPT)
{
if (MASTER(cr))
{
if (bSumEkinhOld)
{
state_global->ekinstate.bUpToDate = FALSE;
}
else
{
update_ekinstate(&state_global->ekinstate, ekind);
state_global->ekinstate.bUpToDate = TRUE;
}
update_energyhistory(state_global->enerhist, mdebin);
}
}
mdoutf_write_to_trajectory_files(fplog, cr, outf, mdof_flags, top_global,
step, t, state, state_global, f, f_global);
if (bCPT)
{
(*nchkpt)++;
}
debug_gmx();
if (bLastStep && step_rel == ir->nsteps &&
bDoConfOut && MASTER(cr) &&
!bRerunMD)
{
if (fr->bMolPBC && state->x == state_global->x)
{
/* This (single-rank) run needs to allocate a
temporary array of size natoms so that any
periodicity removal for mdrun -confout does not
perturb the update and thus the final .edr
output. This makes .cpt restarts look binary
identical, and makes .edr restarts binary
identical. */
snew(x_for_confout, state_global->natoms);
copy_rvecn(state_global->x, x_for_confout, 0, state_global->natoms);
}
else
{
/* With DD, or no bMolPBC, it doesn't matter if
we change state_global->x */
x_for_confout = state_global->x;
}
/* x and v have been collected in mdoutf_write_to_trajectory_files,
* because a checkpoint file will always be written
* at the last step.
*/
fprintf(stderr, "\nWriting final coordinates.\n");
if (fr->bMolPBC)
{
/* Make molecules whole only for confout writing */
do_pbc_mtop(fplog, ir->ePBC, state->box, top_global, x_for_confout);
}
write_sto_conf_mtop(ftp2fn(efSTO, nfile, fnm),
*top_global->name, top_global,
x_for_confout, state_global->v,
ir->ePBC, state->box);
if (fr->bMolPBC && state->x == state_global->x)
{
sfree(x_for_confout);
}
debug_gmx();
}
wallcycle_stop(mdoutf_get_wcycle(outf), ewcTRAJ);
}
}
void force(FILE *fp, int step,
t_forcerec *fr, t_inputrec *ir,
t_idef *idef, t_nsborder *nsb,
t_commrec *cr, t_commrec *mcr,
t_nrnb *nrnb,
t_groups *grps, t_mdatoms *md,
int ngener, t_grpopts *opts,
rvec x[], rvec f[],
real epot[], t_fcdata *fcd,
bool bVerbose, matrix box,
real lambda, t_graph *graph,
t_block *excl, bool bNBFonly,
matrix lr_vir, rvec mu_tot,
real qsum, bool bGatherOnly)
{
int i,nit;
bool bDoEpot;
rvec box_size;
real Vlr,Vcorr=0;
/* Reset box */
for(i=0; (i<DIM); i++)
box_size[i]=box[i][i];
bDoEpot=((fr->nmol > 0) && (fr->nstcalc > 0) && (mod(step,fr->nstcalc)==0));
/* Reset epot... */
if (bDoEpot)
for(i=0; (i<fr->nmol); i++)
fr->mol_epot[i]=0.0;
debug_gmx();
/* Call the short range functions all in one go. */
do_fnbf(fp,cr,fr,x,f,md,
fr->bBHAM ? grps->estat.ee[egBHAM] : grps->estat.ee[egLJ],
grps->estat.ee[egCOUL],box_size,nrnb,
lambda,&epot[F_DVDL],FALSE,-1);
debug_gmx();
if (debug)
pr_rvecs(debug,0,"fshift after SR",fr->fshift,SHIFTS);
/* Shift the coordinates. Must be done before bonded forces and PPPM,
* but is also necessary for SHAKE and update, therefore it can NOT
* go when no bonded forces have to be evaluated.
*/
if (debug && 0)
p_graph(debug,"DeBUGGGG",graph);
/* Check whether we need to do bondeds */
if (!bNBFonly) {
shift_self(graph,box,x);
if (debug && 0) {
fprintf(debug,"BBBBBBBBBBBBBBBB\n");
fprintf(debug,"%5d\n",graph->nnodes);
for(i=graph->start; (i<=graph->end); i++)
fprintf(debug,"%5d%5s%5s%5d%8.3f%8.3f%8.3f\n",
i,"A","B",i,x[i][XX],x[i][YY],x[i][ZZ]);
fprintf(debug,"%10.5f%10.5f%10.5f\n",
box[XX][XX],box[YY][YY],box[ZZ][ZZ]);
}
if (TRICLINIC(box))
inc_nrnb(nrnb,eNR_SHIFTX,2*graph->nnodes);
else
inc_nrnb(nrnb,eNR_SHIFTX,graph->nnodes);
debug_gmx();
}
if (EEL_LR(fr->eeltype)) {
switch (fr->eeltype) {
case eelPPPM:
Vlr = do_pppm(fp,FALSE,x,fr->f_pme,md->chargeT,
box_size,fr->phi,cr,nsb,nrnb);
break;
case eelPOISSON:
Vlr = do_poisson(fp,FALSE,ir,md->nr,x,fr->f_pme,md->chargeT,
box_size,fr->phi,cr,nrnb,&nit,TRUE);
break;
case eelPME:
Vlr = do_pme(fp,FALSE,ir,x,fr->f_pme,md->chargeT,
box,cr,nsb,nrnb,lr_vir,fr->ewaldcoeff,bGatherOnly);
break;
case eelEWALD:
Vlr = do_ewald(fp,FALSE,ir,x,fr->f_pme,md->chargeT,
box_size,cr,nsb,lr_vir,fr->ewaldcoeff);
break;
default:
Vlr = 0;
fatal_error(0,"No such electrostatics method implemented %s",
eel_names[fr->eeltype]);
}
if(fr->bEwald)
Vcorr =
ewald_LRcorrection(fp,nsb,cr,fr,md->chargeT,excl,x,box,mu_tot,qsum,
ir->ewald_geometry,ir->epsilon_surface,lr_vir);
else
Vcorr = shift_LRcorrection(fp,nsb,cr,fr,md->chargeT,excl,x,TRUE,box,lr_vir);
epot[F_LR] = Vlr + Vcorr;
if (debug)
fprintf(debug,"Vlr = %g, Vcorr = %g, Vlr_corr = %g\n",
Vlr,Vcorr,epot[F_LR]);
if (debug) {
pr_rvecs(debug,0,"lr_vir after corr",lr_vir,DIM);
pr_rvecs(debug,0,"fshift after LR Corrections",fr->fshift,SHIFTS);
}
}
debug_gmx();
if (debug)
print_nrnb(debug,nrnb);
debug_gmx();
if (!bNBFonly) {
calc_bonds(fp,cr,mcr,
idef,x,f,fr,graph,epot,nrnb,box,lambda,md,
opts->ngener,grps->estat.ee[egLJ14],grps->estat.ee[egCOUL14],
fcd,step,fr->bSepDVDL && do_per_step(step,ir->nstlog));
debug_gmx();
}
if (debug)
pr_rvecs(debug,0,"fshift after bondeds",fr->fshift,SHIFTS);
for(i=0; (i<F_EPOT); i++)
if (i != F_DISRES)
epot[F_EPOT]+=epot[i];
}
void gmx_log_open(const char *lognm, const t_commrec *cr, gmx_bool bMasterOnly,
gmx_bool bAppendFiles, FILE** fplog)
{
int len, pid;
char buf[256], host[256];
time_t t;
char timebuf[STRLEN];
FILE *fp = *fplog;
char *tmpnm;
debug_gmx();
/* Communicate the filename for logfile */
if (cr->nnodes > 1 && !bMasterOnly
#ifdef GMX_THREAD_MPI
/* With thread MPI the non-master log files are opened later
* when the files names are already known on all nodes.
*/
&& FALSE
#endif
)
{
if (MASTER(cr))
{
len = strlen(lognm) + 1;
}
gmx_bcast(sizeof(len), &len, cr);
if (!MASTER(cr))
{
snew(tmpnm, len+8);
}
else
{
tmpnm = gmx_strdup(lognm);
}
gmx_bcast(len*sizeof(*tmpnm), tmpnm, cr);
}
else
{
tmpnm = gmx_strdup(lognm);
}
debug_gmx();
if (!bMasterOnly && !MASTER(cr))
{
/* Since log always ends with '.log' let's use this info */
par_fn(tmpnm, efLOG, cr, FALSE, !bMasterOnly, buf, 255);
fp = gmx_fio_fopen(buf, bAppendFiles ? "a+" : "w+" );
}
else if (!bAppendFiles)
{
fp = gmx_fio_fopen(tmpnm, bAppendFiles ? "a+" : "w+" );
}
sfree(tmpnm);
gmx_fatal_set_log_file(fp);
/* Get some machine parameters */
gmx_gethostname(host, 256);
time(&t);
#ifndef NO_GETPID
# ifdef GMX_NATIVE_WINDOWS
pid = _getpid();
# else
pid = getpid();
# endif
#else
pid = 0;
#endif
if (bAppendFiles)
{
fprintf(fp,
"\n"
"\n"
"-----------------------------------------------------------\n"
"Restarting from checkpoint, appending to previous log file.\n"
"\n"
);
}
gmx_ctime_r(&t, timebuf, STRLEN);
fprintf(fp,
"Log file opened on %s"
"Host: %s pid: %d rank ID: %d number of ranks: %d\n",
timebuf, host, pid, cr->nodeid, cr->nnodes);
try
{
gmx::BinaryInformationSettings settings;
settings.extendedInfo(true);
settings.copyright(!bAppendFiles);
gmx::printBinaryInformation(fp, gmx::getProgramContext(), settings);
}
GMX_CATCH_ALL_AND_EXIT_WITH_FATAL_ERROR;
fprintf(fp, "\n\n");
fflush(fp);
debug_gmx();
*fplog = fp;
}
void fill_grid(gmx_domdec_zones_t *dd_zones,
t_grid *grid, int ncg_tot,
int cg0, int cg1, rvec cg_cm[])
{
int *cell_index;
int nrx, nry, nrz;
rvec n_box, offset;
int zone, ccg0, ccg1, cg, d, not_used;
ivec shift0, useall, b0, b1, ind;
gmx_bool bUse;
if (cg0 == -1)
{
/* We have already filled the grid up to grid->ncg,
* continue from there.
*/
cg0 = grid->nr;
}
set_grid_ncg(grid, ncg_tot);
cell_index = grid->cell_index;
/* Initiate cell borders */
nrx = grid->n[XX];
nry = grid->n[YY];
nrz = grid->n[ZZ];
for (d = 0; d < DIM; d++)
{
if (grid->cell_size[d] > 0)
{
n_box[d] = 1/grid->cell_size[d];
}
else
{
n_box[d] = 0;
}
}
copy_rvec(grid->cell_offset, offset);
if (debug)
{
fprintf(debug, "Filling grid from %d to %d\n", cg0, cg1);
}
debug_gmx();
if (dd_zones == NULL)
{
for (cg = cg0; cg < cg1; cg++)
{
for (d = 0; d < DIM; d++)
{
ind[d] = (cg_cm[cg][d] - offset[d])*n_box[d];
/* With pbc we should be done here.
* Without pbc cg's outside the grid
* should be assigned to the closest grid cell.
*/
if (ind[d] < 0)
{
ind[d] = 0;
}
else if (ind[d] >= grid->n[d])
{
ind[d] = grid->n[d] - 1;
}
}
cell_index[cg] = xyz2ci(nry, nrz, ind[XX], ind[YY], ind[ZZ]);
}
}
else
{
for (zone = 0; zone < dd_zones->n; zone++)
{
ccg0 = dd_zones->cg_range[zone];
ccg1 = dd_zones->cg_range[zone+1];
if (ccg1 <= cg0 || ccg0 >= cg1)
{
continue;
}
/* Determine the ns grid cell limits for this DD zone */
for (d = 0; d < DIM; d++)
{
shift0[d] = dd_zones->shift[zone][d];
useall[d] = (shift0[d] == 0 || d >= grid->npbcdim);
/* Check if we need to do normal or optimized grid assignments.
* Normal is required for dims without DD or triclinic dims.
* DD edge cell on dims without pbc will be automatically
* be correct, since the shift=0 zones with have b0 and b1
* set to the grid boundaries and there are no shift=1 zones.
*/
if (grid->ncpddc[d] == 0)
{
b0[d] = 0;
b1[d] = grid->n[d];
}
else
{
if (shift0[d] == 0)
{
b0[d] = 0;
b1[d] = grid->ncpddc[d];
}
else
{
/* shift = 1 */
b0[d] = grid->ncpddc[d];
b1[d] = grid->n[d];
}
}
}
not_used = ci_not_used(grid->n);
/* Put all the charge groups of this DD zone on the grid */
for (cg = ccg0; cg < ccg1; cg++)
{
if (cell_index[cg] == -1)
{
/* This cg has moved to another node */
cell_index[cg] = NSGRID_SIGNAL_MOVED_FAC*grid->ncells;
continue;
}
bUse = TRUE;
for (d = 0; d < DIM; d++)
{
ind[d] = (cg_cm[cg][d] - offset[d])*n_box[d];
/* Here we have to correct for rounding problems,
* as this cg_cm to cell index operation is not necessarily
* binary identical to the operation for the DD zone assignment
* and therefore a cg could end up in an unused grid cell.
* For dimensions without pbc we need to check
* for cells on the edge if charge groups are beyond
* the grid and if so, store them in the closest cell.
*/
if (ind[d] < b0[d])
{
ind[d] = b0[d];
}
else if (ind[d] >= b1[d])
{
if (useall[d])
{
ind[d] = b1[d] - 1;
}
else
{
/* Charge groups in this DD zone further away than the cut-off
* in direction do not participate in non-bonded interactions.
*/
bUse = FALSE;
}
}
}
if (cg > grid->nr_alloc)
{
fprintf(stderr, "WARNING: nra_alloc %d cg0 %d cg1 %d cg %d\n",
grid->nr_alloc, cg0, cg1, cg);
}
if (bUse)
{
cell_index[cg] = xyz2ci(nry, nrz, ind[XX], ind[YY], ind[ZZ]);
}
else
{
cell_index[cg] = not_used;
}
}
}
}
debug_gmx();
}
void
do_md_trajectory_writing(FILE *fplog,
t_commrec *cr,
int nfile,
const t_filenm fnm[],
gmx_int64_t step,
gmx_int64_t step_rel,
double t,
t_inputrec *ir,
t_state *state,
t_state *state_global,
gmx_mtop_t *top_global,
t_forcerec *fr,
gmx_mdoutf_t outf,
t_mdebin *mdebin,
gmx_ekindata_t *ekind,
rvec *f,
rvec *f_global,
int *nchkpt,
gmx_bool bCPT,
gmx_bool bRerunMD,
gmx_bool bLastStep,
gmx_bool bDoConfOut,
gmx_bool bSumEkinhOld
)
{
int mdof_flags;
mdof_flags = 0;
if (do_per_step(step, ir->nstxout))
{
mdof_flags |= MDOF_X;
}
if (do_per_step(step, ir->nstvout))
{
mdof_flags |= MDOF_V;
}
if (do_per_step(step, ir->nstfout))
{
mdof_flags |= MDOF_F;
}
if (do_per_step(step, ir->nstxout_compressed))
{
mdof_flags |= MDOF_X_COMPRESSED;
}
if (bCPT)
{
mdof_flags |= MDOF_CPT;
}
;
#if defined(GMX_FAHCORE) || defined(GMX_WRITELASTSTEP)
if (bLastStep)
{
/* Enforce writing positions and velocities at end of run */
mdof_flags |= (MDOF_X | MDOF_V);
}
#endif
#ifdef GMX_FAHCORE
if (MASTER(cr))
{
fcReportProgress( ir->nsteps, step );
}
#if defined(__native_client__)
fcCheckin(MASTER(cr));
#endif
/* sync bCPT and fc record-keeping */
if (bCPT && MASTER(cr))
{
fcRequestCheckPoint();
}
#endif
if (mdof_flags != 0)
{
wallcycle_start(mdoutf_get_wcycle(outf), ewcTRAJ);
if (bCPT)
{
if (MASTER(cr))
{
if (bSumEkinhOld)
{
state_global->ekinstate.bUpToDate = FALSE;
}
else
{
update_ekinstate(&state_global->ekinstate, ekind);
state_global->ekinstate.bUpToDate = TRUE;
}
update_energyhistory(&state_global->enerhist, mdebin);
}
}
mdoutf_write_to_trajectory_files(fplog, cr, outf, mdof_flags, top_global,
step, t, state, state_global, f, f_global);
if (bCPT)
{
(*nchkpt)++;
}
debug_gmx();
if (bLastStep && step_rel == ir->nsteps &&
bDoConfOut && MASTER(cr) &&
!bRerunMD)
{
/* x and v have been collected in mdoutf_write_to_trajectory_files,
* because a checkpoint file will always be written
* at the last step.
*/
fprintf(stderr, "\nWriting final coordinates.\n");
if (fr->bMolPBC)
{
/* Make molecules whole only for confout writing */
do_pbc_mtop(fplog, ir->ePBC, state->box, top_global, state_global->x);
}
write_sto_conf_mtop(ftp2fn(efSTO, nfile, fnm),
*top_global->name, top_global,
state_global->x, state_global->v,
ir->ePBC, state->box);
debug_gmx();
}
wallcycle_stop(mdoutf_get_wcycle(outf), ewcTRAJ);
}
}
void do_force_lowlevel(FILE *fplog, gmx_large_int_t step,
t_forcerec *fr, t_inputrec *ir,
t_idef *idef, t_commrec *cr,
t_nrnb *nrnb, gmx_wallcycle_t wcycle,
t_mdatoms *md,
t_grpopts *opts,
rvec x[], history_t *hist,
rvec f[],
gmx_enerdata_t *enerd,
t_fcdata *fcd,
gmx_mtop_t *mtop,
gmx_localtop_t *top,
gmx_genborn_t *born,
t_atomtypes *atype,
gmx_bool bBornRadii,
matrix box,
real lambda,
t_graph *graph,
t_blocka *excl,
rvec mu_tot[],
int flags,
float *cycles_pme)
{
int i,status;
int donb_flags;
gmx_bool bDoEpot,bSepDVDL,bSB;
int pme_flags;
matrix boxs;
rvec box_size;
real dvdlambda,Vsr,Vlr,Vcorr=0,vdip,vcharge;
t_pbc pbc;
real dvdgb;
char buf[22];
gmx_enerdata_t ed_lam;
double lam_i;
real dvdl_dum;
#ifdef GMX_MPI
double t0=0.0,t1,t2,t3; /* time measurement for coarse load balancing */
#endif
#define PRINT_SEPDVDL(s,v,dvdl) if (bSepDVDL) fprintf(fplog,sepdvdlformat,s,v,dvdl);
GMX_MPE_LOG(ev_force_start);
set_pbc(&pbc,fr->ePBC,box);
/* Reset box */
for(i=0; (i<DIM); i++)
{
box_size[i]=box[i][i];
}
bSepDVDL=(fr->bSepDVDL && do_per_step(step,ir->nstlog));
debug_gmx();
/* do QMMM first if requested */
if(fr->bQMMM)
{
enerd->term[F_EQM] = calculate_QMMM(cr,x,f,fr,md);
}
if (bSepDVDL)
{
fprintf(fplog,"Step %s: non-bonded V and dVdl for node %d:\n",
gmx_step_str(step,buf),cr->nodeid);
}
/* Call the short range functions all in one go. */
GMX_MPE_LOG(ev_do_fnbf_start);
dvdlambda = 0;
#ifdef GMX_MPI
/*#define TAKETIME ((cr->npmenodes) && (fr->timesteps < 12))*/
#define TAKETIME FALSE
if (TAKETIME)
{
MPI_Barrier(cr->mpi_comm_mygroup);
t0=MPI_Wtime();
}
#endif
if (ir->nwall)
{
dvdlambda = do_walls(ir,fr,box,md,x,f,lambda,
enerd->grpp.ener[egLJSR],nrnb);
PRINT_SEPDVDL("Walls",0.0,dvdlambda);
enerd->dvdl_lin += dvdlambda;
}
/* If doing GB, reset dvda and calculate the Born radii */
if (ir->implicit_solvent)
{
/* wallcycle_start(wcycle,ewcGB); */
for(i=0; i<born->nr; i++)
{
fr->dvda[i]=0;
}
if(bBornRadii)
{
calc_gb_rad(cr,fr,ir,top,atype,x,&(fr->gblist),born,md,nrnb);
}
/* wallcycle_stop(wcycle, ewcGB); */
}
where();
donb_flags = 0;
if (flags & GMX_FORCE_FORCES)
{
donb_flags |= GMX_DONB_FORCES;
}
do_nonbonded(cr,fr,x,f,md,excl,
fr->bBHAM ?
enerd->grpp.ener[egBHAMSR] :
enerd->grpp.ener[egLJSR],
enerd->grpp.ener[egCOULSR],
enerd->grpp.ener[egGB],box_size,nrnb,
lambda,&dvdlambda,-1,-1,donb_flags);
/* If we do foreign lambda and we have soft-core interactions
* we have to recalculate the (non-linear) energies contributions.
*/
if (ir->n_flambda > 0 && (flags & GMX_FORCE_DHDL) && ir->sc_alpha != 0)
{
init_enerdata(mtop->groups.grps[egcENER].nr,ir->n_flambda,&ed_lam);
for(i=0; i<enerd->n_lambda; i++)
{
lam_i = (i==0 ? lambda : ir->flambda[i-1]);
dvdl_dum = 0;
reset_enerdata(&ir->opts,fr,TRUE,&ed_lam,FALSE);
do_nonbonded(cr,fr,x,f,md,excl,
fr->bBHAM ?
ed_lam.grpp.ener[egBHAMSR] :
ed_lam.grpp.ener[egLJSR],
ed_lam.grpp.ener[egCOULSR],
enerd->grpp.ener[egGB], box_size,nrnb,
lam_i,&dvdl_dum,-1,-1,
GMX_DONB_FOREIGNLAMBDA);
sum_epot(&ir->opts,&ed_lam);
enerd->enerpart_lambda[i] += ed_lam.term[F_EPOT];
}
destroy_enerdata(&ed_lam);
}
where();
/* If we are doing GB, calculate bonded forces and apply corrections
* to the solvation forces */
if (ir->implicit_solvent) {
calc_gb_forces(cr,md,born,top,atype,x,f,fr,idef,
ir->gb_algorithm,ir->sa_algorithm,nrnb,bBornRadii,&pbc,graph,enerd);
}
#ifdef GMX_MPI
if (TAKETIME)
{
t1=MPI_Wtime();
fr->t_fnbf += t1-t0;
}
#endif
if (ir->sc_alpha != 0)
{
enerd->dvdl_nonlin += dvdlambda;
}
else
{
enerd->dvdl_lin += dvdlambda;
}
Vsr = 0;
if (bSepDVDL)
{
for(i=0; i<enerd->grpp.nener; i++)
{
Vsr +=
(fr->bBHAM ?
enerd->grpp.ener[egBHAMSR][i] :
enerd->grpp.ener[egLJSR][i])
+ enerd->grpp.ener[egCOULSR][i] + enerd->grpp.ener[egGB][i];
}
}
PRINT_SEPDVDL("VdW and Coulomb SR particle-p.",Vsr,dvdlambda);
debug_gmx();
GMX_MPE_LOG(ev_do_fnbf_finish);
if (debug)
{
pr_rvecs(debug,0,"fshift after SR",fr->fshift,SHIFTS);
}
/* Shift the coordinates. Must be done before bonded forces and PPPM,
* but is also necessary for SHAKE and update, therefore it can NOT
* go when no bonded forces have to be evaluated.
*/
/* Here sometimes we would not need to shift with NBFonly,
* but we do so anyhow for consistency of the returned coordinates.
*/
if (graph)
{
shift_self(graph,box,x);
if (TRICLINIC(box))
{
inc_nrnb(nrnb,eNR_SHIFTX,2*graph->nnodes);
}
else
{
inc_nrnb(nrnb,eNR_SHIFTX,graph->nnodes);
}
}
/* Check whether we need to do bondeds or correct for exclusions */
if (fr->bMolPBC &&
((flags & GMX_FORCE_BONDED)
|| EEL_RF(fr->eeltype) || EEL_FULL(fr->eeltype)))
{
/* Since all atoms are in the rectangular or triclinic unit-cell,
* only single box vector shifts (2 in x) are required.
*/
set_pbc_dd(&pbc,fr->ePBC,cr->dd,TRUE,box);
}
debug_gmx();
if (flags & GMX_FORCE_BONDED)
{
GMX_MPE_LOG(ev_calc_bonds_start);
calc_bonds(fplog,cr->ms,
idef,x,hist,f,fr,&pbc,graph,enerd,nrnb,lambda,md,fcd,
DOMAINDECOMP(cr) ? cr->dd->gatindex : NULL, atype, born,
fr->bSepDVDL && do_per_step(step,ir->nstlog),step);
/* Check if we have to determine energy differences
* at foreign lambda's.
*/
if (ir->n_flambda > 0 && (flags & GMX_FORCE_DHDL) &&
idef->ilsort != ilsortNO_FE)
{
if (idef->ilsort != ilsortFE_SORTED)
{
gmx_incons("The bonded interactions are not sorted for free energy");
}
init_enerdata(mtop->groups.grps[egcENER].nr,ir->n_flambda,&ed_lam);
for(i=0; i<enerd->n_lambda; i++)
{
lam_i = (i==0 ? lambda : ir->flambda[i-1]);
dvdl_dum = 0;
reset_enerdata(&ir->opts,fr,TRUE,&ed_lam,FALSE);
calc_bonds_lambda(fplog,
idef,x,fr,&pbc,graph,&ed_lam,nrnb,lam_i,md,
fcd,
DOMAINDECOMP(cr) ? cr->dd->gatindex : NULL);
sum_epot(&ir->opts,&ed_lam);
enerd->enerpart_lambda[i] += ed_lam.term[F_EPOT];
}
destroy_enerdata(&ed_lam);
}
debug_gmx();
GMX_MPE_LOG(ev_calc_bonds_finish);
}
where();
*cycles_pme = 0;
if (EEL_FULL(fr->eeltype))
{
bSB = (ir->nwall == 2);
if (bSB)
{
copy_mat(box,boxs);
svmul(ir->wall_ewald_zfac,boxs[ZZ],boxs[ZZ]);
box_size[ZZ] *= ir->wall_ewald_zfac;
}
clear_mat(fr->vir_el_recip);
if (fr->bEwald)
{
if (fr->n_tpi == 0)
{
dvdlambda = 0;
Vcorr = ewald_LRcorrection(fplog,md->start,md->start+md->homenr,
cr,fr,
md->chargeA,
md->nChargePerturbed ? md->chargeB : NULL,
excl,x,bSB ? boxs : box,mu_tot,
ir->ewald_geometry,
ir->epsilon_surface,
lambda,&dvdlambda,&vdip,&vcharge);
PRINT_SEPDVDL("Ewald excl./charge/dip. corr.",Vcorr,dvdlambda);
enerd->dvdl_lin += dvdlambda;
}
else
{
if (ir->ewald_geometry != eewg3D || ir->epsilon_surface != 0)
{
gmx_fatal(FARGS,"TPI with PME currently only works in a 3D geometry with tin-foil boundary conditions");
}
/* The TPI molecule does not have exclusions with the rest
* of the system and no intra-molecular PME grid contributions
* will be calculated in gmx_pme_calc_energy.
*/
Vcorr = 0;
}
}
else
{
Vcorr = shift_LRcorrection(fplog,md->start,md->homenr,cr,fr,
md->chargeA,excl,x,TRUE,box,
fr->vir_el_recip);
}
dvdlambda = 0;
status = 0;
switch (fr->eeltype)
{
case eelPPPM:
status = gmx_pppm_do(fplog,fr->pmedata,FALSE,x,fr->f_novirsum,
md->chargeA,
box_size,fr->phi,cr,md->start,md->homenr,
nrnb,ir->pme_order,&Vlr);
break;
case eelPME:
case eelPMESWITCH:
case eelPMEUSER:
case eelPMEUSERSWITCH:
if (cr->duty & DUTY_PME)
{
if (fr->n_tpi == 0 || (flags & GMX_FORCE_STATECHANGED))
{
pme_flags = GMX_PME_SPREAD_Q | GMX_PME_SOLVE;
if (flags & GMX_FORCE_FORCES)
{
pme_flags |= GMX_PME_CALC_F;
}
if (flags & GMX_FORCE_VIRIAL)
{
pme_flags |= GMX_PME_CALC_ENER_VIR;
}
if (fr->n_tpi > 0)
{
/* We don't calculate f, but we do want the potential */
pme_flags |= GMX_PME_CALC_POT;
}
wallcycle_start(wcycle,ewcPMEMESH);
status = gmx_pme_do(fr->pmedata,
md->start,md->homenr - fr->n_tpi,
x,fr->f_novirsum,
md->chargeA,md->chargeB,
bSB ? boxs : box,cr,
DOMAINDECOMP(cr) ? dd_pme_maxshift_x(cr->dd) : 0,
DOMAINDECOMP(cr) ? dd_pme_maxshift_y(cr->dd) : 0,
nrnb,wcycle,
fr->vir_el_recip,fr->ewaldcoeff,
&Vlr,lambda,&dvdlambda,
pme_flags);
*cycles_pme = wallcycle_stop(wcycle,ewcPMEMESH);
/* We should try to do as little computation after
* this as possible, because parallel PME synchronizes
* the nodes, so we want all load imbalance of the rest
* of the force calculation to be before the PME call.
* DD load balancing is done on the whole time of
* the force call (without PME).
*/
}
if (fr->n_tpi > 0)
{
/* Determine the PME grid energy of the test molecule
* with the PME grid potential of the other charges.
*/
gmx_pme_calc_energy(fr->pmedata,fr->n_tpi,
x + md->homenr - fr->n_tpi,
md->chargeA + md->homenr - fr->n_tpi,
&Vlr);
}
PRINT_SEPDVDL("PME mesh",Vlr,dvdlambda);
}
else
{
/* Energies and virial are obtained later from the PME nodes */
/* but values have to be zeroed out here */
Vlr=0.0;
}
break;
case eelEWALD:
Vlr = do_ewald(fplog,FALSE,ir,x,fr->f_novirsum,
md->chargeA,md->chargeB,
box_size,cr,md->homenr,
fr->vir_el_recip,fr->ewaldcoeff,
lambda,&dvdlambda,fr->ewald_table);
PRINT_SEPDVDL("Ewald long-range",Vlr,dvdlambda);
break;
default:
Vlr = 0;
gmx_fatal(FARGS,"No such electrostatics method implemented %s",
eel_names[fr->eeltype]);
}
if (status != 0)
{
gmx_fatal(FARGS,"Error %d in long range electrostatics routine %s",
status,EELTYPE(fr->eeltype));
}
enerd->dvdl_lin += dvdlambda;
enerd->term[F_COUL_RECIP] = Vlr + Vcorr;
if (debug)
{
fprintf(debug,"Vlr = %g, Vcorr = %g, Vlr_corr = %g\n",
Vlr,Vcorr,enerd->term[F_COUL_RECIP]);
pr_rvecs(debug,0,"vir_el_recip after corr",fr->vir_el_recip,DIM);
pr_rvecs(debug,0,"fshift after LR Corrections",fr->fshift,SHIFTS);
}
}
else
{
if (EEL_RF(fr->eeltype))
{
dvdlambda = 0;
if (fr->eeltype != eelRF_NEC)
{
enerd->term[F_RF_EXCL] =
RF_excl_correction(fplog,fr,graph,md,excl,x,f,
fr->fshift,&pbc,lambda,&dvdlambda);
}
enerd->dvdl_lin += dvdlambda;
PRINT_SEPDVDL("RF exclusion correction",
enerd->term[F_RF_EXCL],dvdlambda);
}
}
where();
debug_gmx();
if (debug)
{
print_nrnb(debug,nrnb);
}
debug_gmx();
#ifdef GMX_MPI
if (TAKETIME)
{
t2=MPI_Wtime();
MPI_Barrier(cr->mpi_comm_mygroup);
t3=MPI_Wtime();
fr->t_wait += t3-t2;
if (fr->timesteps == 11)
{
fprintf(stderr,"* PP load balancing info: node %d, step %s, rel wait time=%3.0f%% , load string value: %7.2f\n",
cr->nodeid, gmx_step_str(fr->timesteps,buf),
100*fr->t_wait/(fr->t_wait+fr->t_fnbf),
(fr->t_fnbf+fr->t_wait)/fr->t_fnbf);
}
fr->timesteps++;
}
#endif
if (debug)
{
pr_rvecs(debug,0,"fshift after bondeds",fr->fshift,SHIFTS);
}
GMX_MPE_LOG(ev_force_finish);
}