int
main (int argc, char *argv[])
{
mpfr_t x, z;
int y;
int i;
tests_start_mpfr ();
mpfr_inits2 (53, x, z, (mpfr_ptr) 0);
for(i = 0 ; i < numberof (tab) ; i++)
{
mpfr_set_str (x, tab[i].op1, 16, MPFR_RNDN);
y = tab[i].op2;
mpfr_add_si (z, x, y, MPFR_RNDZ);
if (mpfr_cmp_str (z, tab[i].res_add, 16, MPFR_RNDN))
ERROR1("add_si", i, z, tab[i].res_add);
mpfr_sub_si (z, x, y, MPFR_RNDZ);
if (mpfr_cmp_str (z, tab[i].res_sub, 16, MPFR_RNDN))
ERROR1("sub_si", i, z, tab[i].res_sub);
mpfr_si_sub (z, y, x, MPFR_RNDZ);
mpfr_neg (z, z, MPFR_RNDZ);
if (mpfr_cmp_str (z, tab[i].res_sub, 16, MPFR_RNDN))
ERROR1("si_sub", i, z, tab[i].res_sub);
mpfr_mul_si (z, x, y, MPFR_RNDZ);
if (mpfr_cmp_str (z, tab[i].res_mul, 16, MPFR_RNDN))
ERROR1("mul_si", i, z, tab[i].res_mul);
mpfr_div_si (z, x, y, MPFR_RNDZ);
if (mpfr_cmp_str (z, tab[i].res_div, 16, MPFR_RNDN))
ERROR1("div_si", i, z, tab[i].res_div);
}
mpfr_set_str1 (x, "1");
mpfr_si_div (z, 1024, x, MPFR_RNDN);
if (mpfr_cmp_str1 (z, "1024"))
ERROR1("si_div", i, z, "1024");
mpfr_si_div (z, -1024, x, MPFR_RNDN);
if (mpfr_cmp_str1 (z, "-1024"))
ERROR1("si_div", i, z, "-1024");
mpfr_clears (x, z, (mpfr_ptr) 0);
check_invert ();
test_generic_add_si (2, 200, 17);
test_generic_sub_si (2, 200, 17);
test_generic_mul_si (2, 200, 17);
test_generic_div_si (2, 200, 17);
tests_end_mpfr ();
return 0;
}
int spectrum_nd( Real mass1, Real mass2, Real tol, ferm_links_t *fn ){
/* arguments are light and heavy quark masses, return C.G. iteration number */
int cgn;
register int i,j,x,y,z,t,t_off;
register site* s;
register complex cc;
register int t_source;
int color; /* color for source */
int src_count; /* number of source time slices used */
complex **props; /* arrays of propagators */
su3_matrix tmat;
Real finalrsq;
cgn=0; /* number of CG iterations */
/* allocate arrays to accumulate propagators */
props = (complex **)malloc(nprops*sizeof(complex *));
props[0] = (complex *)malloc(nprops*nt*sizeof(complex));
for(i=1;i<nprops;i++)props[i]=props[i-1]+nt;
/* set propagators to zero */
for(cc.real=cc.imag=0.0,i=0;i<nprops;i++)for(j=0;j<nt;j++){
props[i][j]=cc;
}
/* allocate light and heavy quark propagators for each color */
for( color=0; color<3; color++){
lightprop[color] = (su3_vector *)malloc( sizeof(su3_vector)*sites_on_node );
heavyprop[color] = (su3_vector *)malloc( sizeof(su3_vector)*sites_on_node );
}
/* loop over "source" time slice */
for(src_count=0,t_source=source_start; t_source<nt && src_count<n_sources;
t_source += source_inc,src_count++){
/* Corner wall source */
/* Use quark_source for quark source */
if(this_node==0)printf("spectrum_nd(): source time = %d\n",t_source);
for(color=0;color<3;color++){
clear_latvec( F_OFFSET(quark_source), EVENANDODD );
for(x=0;x<nx;x+=2)for(y=0;y<ny;y+=2)for(z=0;z<nz;z+=2) {
if( node_number(x,y,z,t_source) != mynode() )continue;
i=node_index(x,y,z,t_source);
lattice[i].quark_source.c[color].real = -1.0;
}
/* do a C.G. (source in quark_source, result in g_rand) */
if(t_source%2 == 0) {
cgn += ks_congrad( F_OFFSET(quark_source), F_OFFSET(g_rand),
mass1, niter, nrestart, rsqprop, PRECISION,
EVEN, &finalrsq, fn);
/* Multiply by -Madjoint */
dslash_site( F_OFFSET(g_rand), F_OFFSET(quark_prop), ODD, fn);
scalar_mult_latvec( F_OFFSET(g_rand), -2.0*mass1, F_OFFSET(quark_prop),EVEN);
}
else {
cgn += ks_congrad( F_OFFSET(quark_source), F_OFFSET(g_rand),
mass1, niter, nrestart, rsqprop, PRECISION,
ODD, &finalrsq, fn);
/* Multiply by -Madjoint */
dslash_site( F_OFFSET(g_rand), F_OFFSET(quark_prop), EVEN, fn);
scalar_mult_latvec( F_OFFSET(g_rand), -2.0*mass1, F_OFFSET(quark_prop),ODD);
}
FORALLSITES(i,s){ lightprop[color][i] = lattice[i].quark_prop; }
scalar_mult_latvec( F_OFFSET(quark_prop), -1.0, F_OFFSET(g_rand), EVENANDODD );
check_invert( F_OFFSET(g_rand), F_OFFSET(quark_source), mass1, tol, fn);
/* repeat for heavy quark */
if(t_source%2 == 0) {
cgn += ks_congrad( F_OFFSET(quark_source), F_OFFSET(g_rand),
mass2, niter, nrestart, rsqprop, PRECISION,
EVEN, &finalrsq, fn);
/* Multiply by -Madjoint */
dslash_site( F_OFFSET(g_rand), F_OFFSET(quark_prop), ODD, fn);
scalar_mult_latvec( F_OFFSET(g_rand), -2.0*mass2, F_OFFSET(quark_prop),EVEN);
}
else {
cgn += ks_congrad( F_OFFSET(quark_source), F_OFFSET(g_rand),
mass2, niter, nrestart, rsqprop, PRECISION,
ODD, &finalrsq, fn);
/* Multiply by -Madjoint */
dslash_site( F_OFFSET(g_rand), F_OFFSET(quark_prop), EVEN, fn);
scalar_mult_latvec( F_OFFSET(g_rand), -2.0*mass2, F_OFFSET(quark_prop),ODD);
}
FORALLSITES(i,s){ heavyprop[color][i] = lattice[i].quark_prop; }
/* TEMP: test inversion, */
scalar_mult_latvec( F_OFFSET(quark_prop), -1.0, F_OFFSET(g_rand), EVENANDODD );
check_invert( F_OFFSET(g_rand), F_OFFSET(quark_source), mass2, tol, fn);
} /* end color loop*/
/* add contributions into propagators */
/* measure the meson propagator */
for(t=0; t<nt; t++){
/* define the time value offset t from t_source */
t_off = (t+t_source)%nt;
for(x=0;x<nx;x++)for(y=0;y<ny;y++)for(z=0;z<nz;z++)
for(color=0;color<3;color++) {
if( node_number(x,y,z,t_off) != mynode() )continue;
i=node_index(x,y,z,t_off);
/* light-light mesons */
cc = su3_dot( &lightprop[color][i],
&lightprop[color][i] );
CSUM( props[prop_pion5_ll][t], cc )
if( (x+y)%2==0)CSUM( props[prop_rhoi0_ll][t], cc )
else CSUB( props[prop_rhoi0_ll][t], cc, props[prop_rhoi0_ll][t] )
if( (y+z)%2==0)CSUM( props[prop_rhoi0_ll][t], cc )
else CSUB( props[prop_rhoi0_ll][t], cc, props[prop_rhoi0_ll][t] )
if( (z+x)%2==0)CSUM( props[prop_rhoi0_ll][t], cc )
else CSUB( props[prop_rhoi0_ll][t], cc, props[prop_rhoi0_ll][t] )
if( x%2==0)CSUM( props[prop_rhoi_ll][t], cc )
else CSUB( props[prop_rhoi_ll][t], cc, props[prop_rhoi_ll][t] )
if( y%2==0)CSUM( props[prop_rhoi_ll][t], cc )
else CSUB( props[prop_rhoi_ll][t], cc, props[prop_rhoi_ll][t] )
if( z%2==0)CSUM( props[prop_rhoi_ll][t], cc )
else CSUB( props[prop_rhoi_ll][t], cc, props[prop_rhoi_ll][t] )
if( (x+y+z)%2==0)CSUM( props[prop_pion05_ll][t], cc )
else CSUB( props[prop_pion05_ll][t], cc, props[prop_pion05_ll][t] )
/* light-heavy mesons */
cc = su3_dot( &lightprop[color][i],
&heavyprop[color][i] );
CSUM( props[prop_pion5_lh][t], cc )
if( (x+y)%2==0)CSUM( props[prop_rhoi0_lh][t], cc )
else CSUB( props[prop_rhoi0_lh][t], cc, props[prop_rhoi0_lh][t] )
if( (y+z)%2==0)CSUM( props[prop_rhoi0_lh][t], cc )
else CSUB( props[prop_rhoi0_lh][t], cc, props[prop_rhoi0_lh][t] )
if( (z+x)%2==0)CSUM( props[prop_rhoi0_lh][t], cc )
else CSUB( props[prop_rhoi0_lh][t], cc, props[prop_rhoi0_lh][t] )
if( x%2==0)CSUM( props[prop_rhoi_lh][t], cc )
else CSUB( props[prop_rhoi_lh][t], cc, props[prop_rhoi_lh][t] )
if( y%2==0)CSUM( props[prop_rhoi_lh][t], cc )
else CSUB( props[prop_rhoi_lh][t], cc, props[prop_rhoi_lh][t] )
if( z%2==0)CSUM( props[prop_rhoi_lh][t], cc )
else CSUB( props[prop_rhoi_lh][t], cc, props[prop_rhoi_lh][t] )
if( (x+y+z)%2==0)CSUM( props[prop_pion05_lh][t], cc )
else CSUB( props[prop_pion05_lh][t], cc, props[prop_pion05_lh][t] )
/* heavy-heavy mesons */
cc = su3_dot( &heavyprop[color][i],
&heavyprop[color][i] );
CSUM( props[prop_pion5_hh][t], cc )
if( (x+y)%2==0)CSUM( props[prop_rhoi0_hh][t], cc )
else CSUB( props[prop_rhoi0_hh][t], cc, props[prop_rhoi0_hh][t] )
if( (y+z)%2==0)CSUM( props[prop_rhoi0_hh][t], cc )
else CSUB( props[prop_rhoi0_hh][t], cc, props[prop_rhoi0_hh][t] )
if( (z+x)%2==0)CSUM( props[prop_rhoi0_hh][t], cc )
else CSUB( props[prop_rhoi0_hh][t], cc, props[prop_rhoi0_hh][t] )
if( x%2==0)CSUM( props[prop_rhoi_hh][t], cc )
else CSUB( props[prop_rhoi_hh][t], cc, props[prop_rhoi_hh][t] )
if( y%2==0)CSUM( props[prop_rhoi_hh][t], cc )
else CSUB( props[prop_rhoi_hh][t], cc, props[prop_rhoi_hh][t] )
if( z%2==0)CSUM( props[prop_rhoi_hh][t], cc )
else CSUB( props[prop_rhoi_hh][t], cc, props[prop_rhoi_hh][t] )
if( (x+y+z)%2==0)CSUM( props[prop_pion05_hh][t], cc )
else CSUB( props[prop_pion05_hh][t], cc, props[prop_pion05_hh][t] )
} /* color */
} /* nt-loop */
/* measure the baryon propagator */
for(t=0; t<nt; t++) {
/* define the time value offset t from t_source */
t_off = (t+t_source)%nt;
for(x=0;x<nx;x+=2)for(y=0;y<ny;y+=2)for(z=0;z<nz;z+=2) {
if( node_number(x,y,z,t_off) != mynode() )continue;
i=node_index(x,y,z,t_off);
/* three light quarks */
for(color=0;color<3;color++){
(tmat.e[0][color]) = lightprop[0][i].c[color];
(tmat.e[1][color]) = lightprop[1][i].c[color];
(tmat.e[2][color]) = lightprop[2][i].c[color];
}
cc = det_su3( &tmat );
/* must get sign right. This looks to see if we have
wrapped around the lattice. "t" is the distance
from the source to the measurement, so we are
trying to find out if t_source+t is greater than
or equal to nt. the "-tsource/nt" is in there
so that it will work correctly with tsource=nt. */
if( (((t+t_source)/nt-t_source/nt)%2) == 0 )
CSUM( props[prop_nuc_lll][t], cc )
else /* change sign because antiperiodic b.c. sink point
should really be in a copy of the lattice */
CSUB( props[prop_nuc_lll][t], cc, props[prop_nuc_lll][t] )
/* two lights and one heavy */
for(color=0;color<3;color++){
(tmat.e[0][color]) = lightprop[0][i].c[color];
(tmat.e[1][color]) = lightprop[1][i].c[color];
(tmat.e[2][color]) = heavyprop[2][i].c[color];
}
cc = det_su3( &tmat );
if( (((t+t_source)/nt-t_source/nt)%2) == 0 )
CSUM( props[prop_nuc_llh][t], cc )
else CSUB( props[prop_nuc_llh][t], cc, props[prop_nuc_llh][t] )
/* now repeat for hhl baryon */
for(color=0;color<3;color++){
(tmat.e[0][color]) = lightprop[0][i].c[color];
(tmat.e[1][color]) = heavyprop[1][i].c[color];
(tmat.e[2][color]) = heavyprop[2][i].c[color];
}
cc = det_su3( &tmat );
if( (((t+t_source)/nt-t_source/nt)%2) == 0 )
CSUM( props[prop_nuc_lhh][t], cc )
else CSUB( props[prop_nuc_lhh][t], cc, props[prop_nuc_lhh][t] )
/* and hhh baryon (nonexistent particle!!) */
for(color=0;color<3;color++){
(tmat.e[0][color]) = heavyprop[0][i].c[color];
(tmat.e[1][color]) = heavyprop[1][i].c[color];
(tmat.e[2][color]) = heavyprop[2][i].c[color];
}
cc = det_su3( &tmat );
if( (((t+t_source)/nt-t_source/nt)%2) == 0 )
CSUM( props[prop_nuc_hhh][t], cc )
else CSUB( props[prop_nuc_hhh][t], cc, props[prop_nuc_hhh][t] )
}
} /* nt-loop */
} /* end loop on t_source */
/* Sum propagator arrays over nodes */
/* print out propagators */
g_veccomplexsum( props[0], nprops*nt );
for(i=0;i<nprops;i++)for(j=0;j<nt;j++){
CDIVREAL(props[i][j],n_sources,props[i][j]);
}
if(this_node==0){
/*meson propagators*/
printf("STARTPROP\n");
printf("MASSES: %e %e\n",mass1,mass1 );
printf("SOURCE: CORNER\n");
printf("SINKS: PION_5 PION_05 RHO_i RHO_i0 \n");
for(j=0;j<nt;j++){
printf("%d %e %e %e %e %e %e %e %e\n",j,
props[prop_pion5_ll][j].real, props[prop_pion5_ll][j].imag,
props[prop_pion05_ll][j].real, props[prop_pion05_ll][j].imag,
props[prop_rhoi_ll][j].real, props[prop_rhoi_ll][j].imag,
props[prop_rhoi0_ll][j].real, props[prop_rhoi0_ll][j].imag);
}
printf("ENDPROP\n");
printf("STARTPROP\n");
printf("MASSES: %e %e\n",mass1,mass2 );
printf("SOURCE: CORNER\n");
printf("SINKS: PION_5 PION_05 RHO_i RHO_i0 \n");
for(j=0;j<nt;j++){
printf("%d %e %e %e %e %e %e %e %e\n",j,
props[prop_pion5_lh][j].real, props[prop_pion5_lh][j].imag,
props[prop_pion05_lh][j].real, props[prop_pion05_lh][j].imag,
props[prop_rhoi_lh][j].real, props[prop_rhoi_lh][j].imag,
props[prop_rhoi0_lh][j].real, props[prop_rhoi0_lh][j].imag);
}
printf("ENDPROP\n");
printf("STARTPROP\n");
printf("MASSES: %e %e\n",mass2,mass2 );
printf("SOURCE: CORNER\n");
printf("SINKS: PION_5 PION_05 RHO_i RHO_i0 \n");
for(j=0;j<nt;j++){
printf("%d %e %e %e %e %e %e %e %e\n",j,
props[prop_pion5_hh][j].real, props[prop_pion5_hh][j].imag,
props[prop_pion05_hh][j].real, props[prop_pion05_hh][j].imag,
props[prop_rhoi_hh][j].real, props[prop_rhoi_hh][j].imag,
props[prop_rhoi0_hh][j].real, props[prop_rhoi0_hh][j].imag);
}
printf("ENDPROP\n");
/* Baryon propagators */
printf("STARTPROP\n");
printf("MASSES: %e %e %e\n",mass1,mass1,mass1);
printf("SOURCE: CORNER\n"); printf("SINKS: NUCLEON \n");
for(j=0;j<nt;j++){
printf("%d %e %e\n",j,
props[prop_nuc_lll][j].real, props[prop_nuc_lll][j].imag);
}
printf("ENDPROP\n");
printf("STARTPROP\n");
printf("MASSES: %e %e %e\n",mass1,mass1,mass2);
printf("SOURCE: CORNER\n"); printf("SINKS: NUCLEON \n");
for(j=0;j<nt;j++){
printf("%d %e %e\n",j,
props[prop_nuc_llh][j].real, props[prop_nuc_llh][j].imag);
}
printf("ENDPROP\n");
printf("STARTPROP\n");
printf("MASSES: %e %e %e\n",mass1,mass2,mass2);
printf("SOURCE: CORNER\n"); printf("SINKS: NUCLEON \n");
for(j=0;j<nt;j++){
printf("%d %e %e\n",j,
props[prop_nuc_lhh][j].real, props[prop_nuc_lhh][j].imag);
}
printf("ENDPROP\n");
printf("STARTPROP\n");
printf("MASSES: %e %e %e\n",mass2,mass2,mass2);
printf("SOURCE: CORNER\n"); printf("SINKS: NUCLEON \n");
for(j=0;j<nt;j++){
printf("%d %e %e\n",j,
props[prop_nuc_hhh][j].real, props[prop_nuc_hhh][j].imag);
}
printf("ENDPROP\n");
fflush(stdout);
} /* end if(this_node==0) */
/* free arrays */
free(props[0]); free(props);
for(color=0;color<3;color++){
free( lightprop[color] );
free( heavyprop[color] );
}
return(cgn);
} /* spectrum_nd */
