switch(type) {
case CUBIC:
- ret=cubic_init(a,b,c,lc,atom,NULL);
+ origin.x=0.5*lc;
+ origin.y=0.5*lc;
+ origin.z=0.5*lc;
+ ret=cubic_init(a,b,c,lc,atom,&origin);
break;
case FCC:
ret=fcc_init(a,b,c,lc,atom,NULL);
for(i=0;i<a;i++) {
r.y=o.y;
for(j=0;j<b;j++) {
+ r.z=o.z;
for(k=0;k<c;k++) {
- r.z=o.z;
v3_copy(&(atom[count].r),&r);
count+=1;
r.z+=lc;
/* energy scaling factor */
energy_scale=moldyn->count*EV;
+printf("debug: %f\n",moldyn->atom[0].f.x);
/* calculate initial forces */
potential_force_calc(moldyn);
+printf("debug: %f\n",moldyn->atom[0].f.x);
/* some stupid checks before we actually start calculating bullshit */
if(moldyn->cutoff>0.5*moldyn->dim.x)
if(!(i%v)) {
visual_atoms(&(moldyn->vis),moldyn->time,
moldyn->atom,moldyn->count);
- printf("\rsched: %d, steps: %d, debug: %f | %f",
- sched->count,i,moldyn->p/ATM,moldyn->p/ATM);
+ printf("\rsched: %d, steps: %d, debug: %f",
+ sched->count,i,moldyn->p/ATM);
fflush(stdout);
}
}
t_random random; /* random interface */
- int debug; /* debugging stuff, ignore */
+ double debug; /* debugging stuff, ignore */
} t_moldyn;
#define MOLDYN_STAT_PBX 0x01 /* periodic boudaries in x */
t_3dvec dzeta_ji;
} t_tersoff_exchange;
-/* tersoff multi (2!) potential parameters */
+/* tersoff mult (2!) potential parameters */
typedef struct s_tersoff_mult_params {
double S[2]; /* tersoff cutoff radii */
double S2[2]; /* tersoff cutoff radii squared */
#define KILOGRAM (1.0/AMU) /* amu */
#define NEWTON (METER*KILOGRAM/(SECOND*SECOND)) /* A amu / fs^2 */
#define PASCAL (NEWTON/(METER*METER)) /* N / A^2 */
-#define ATM (1.0133e5*PASCAL) /* N / A^2 */
+#define ATM ((1.0133e5*PASCAL)) /* N / A^2 */
#define MOLDYN_TEMP 273.0
#define MOLDYN_TAU 1.0
#define LC_SI (0.543105e-9*METER) /* A */
#define M_SI 28.08553 /* amu */
-#define LJ_SIGMA_SI ((0.25*sqrt(3.0)*LC_SI)/1.122462) /* A */
+//#define LJ_SIGMA_SI ((0.25*sqrt(3.0)*LC_SI)/1.122462) /* A */
+#define LJ_SIGMA_SI (LC_SI/1.122462) /* A */
#define LJ_EPSILON_SI (2.1678*EV) /* NA */
#define TM_R_SI (2.7e-10*METER) /* A */
//set_potential2b(&md,tersoff_mult_2bp,&tp);
//set_potential2b_post(&md,tersoff_mult_post_2bp,&tp);
//set_potential3b(&md,tersoff_mult_3bp,&tp);
- //set_potential2b(&md,lennard_jones,&lj);
- set_potential2b(&md,harmonic_oscillator,&ho);
+ set_potential2b(&md,lennard_jones,&lj);
+ //set_potential2b(&md,harmonic_oscillator,&ho);
/* cutoff radius */
//set_cutoff(&md,TM_S_SI);
//set_cutoff(&md,2*LC_SI*0.5*sqrt(1.5));
- set_cutoff(&md,1.1*LC_SI);
+ set_cutoff(&md,2.0*LC_SI);
/*
* potential parameters
/* harmonic oscillator */
//ho.equilibrium_distance=0.25*sqrt(3.0)*LC_SI;
ho.equilibrium_distance=LC_SI;
- ho.spring_constant=.1;
+ ho.spring_constant=LJ_EPSILON_SI;
/*
* tersoff mult potential parameters for SiC
tersoff_mult_complete_params(&tp);
/* set (initial) dimensions of simulation volume */
- //set_dim(&md,8*LC_SI*0.5*sqrt(1.5),8*LC_SI*0.5*sqrt(1.5),8*LC_SI*0.5*sqrt(1.5),TRUE);
- set_dim(&md,8*LC_SI,8*LC_SI,8*LC_SI,TRUE);
+ set_dim(&md,6*LC_SI,6*LC_SI,6*LC_SI,TRUE);
/* set periodic boundary conditions in all directions */
set_pbc(&md,TRUE,TRUE,TRUE);
/* create the lattice / place atoms */
create_lattice(&md,CUBIC,LC_SI,SI,M_SI,
+ //create_lattice(&md,FCC,LC_SI,SI,M_SI,
//create_lattice(&md,DIAMOND,LC_SI,SI,M_SI,
// ATOM_ATTR_1BP|ATOM_ATTR_2BP|ATOM_ATTR_3BP|ATOM_ATTR_HB,
ATOM_ATTR_2BP|ATOM_ATTR_HB,
- 0,8,8,8);
+ 0,6,6,6);
moldyn_bc_check(&md);
/* testing configuration */
thermal_init(&md,TRUE);
/* create the simulation schedule */
- moldyn_add_schedule(&md,1001,1.0);
+ moldyn_add_schedule(&md,100001,1.0);
//moldyn_add_schedule(&md,501,1.0);
//moldyn_add_schedule(&md,501,1.0);
moldyn_set_log_dir(&md,argv[1]);
moldyn_set_report(&md,"Frank Zirkelbach","Test 1");
moldyn_set_log(&md,LOG_TOTAL_ENERGY,1);
- moldyn_set_log(&md,VISUAL_STEP,10);
+ moldyn_set_log(&md,VISUAL_STEP,1000);
moldyn_set_log(&md,CREATE_REPORT,0);
/*