X-Git-Url: https://hackdaworld.org/gitweb/?p=physik%2Fmorpheus.git;a=blobdiff_plain;f=main.c;h=6916f226ecaad42df4cbba74ebf897a0c9a6a75d;hp=4ff223bd5604d58ba0ca675db981ea2623b87039;hb=6ee2d4c247b82dc4aea6e9e5e6aecd7d857aaafd;hpb=016196a3e69f62989ba22ae8b30365d754bd9212 diff --git a/main.c b/main.c index 4ff223b..6916f22 100644 --- a/main.c +++ b/main.c @@ -26,7 +26,8 @@ #include "display.h" /* global variables */ -u32 sum_z_cells,sum_c_dist; +u32 *rand_buf,*rand_current; +u32 gr; int random_fd; /* /dev/urandom file descriptor */ int usage() @@ -46,8 +47,8 @@ int usage() printf("-r \t pressure range from amorphous SiCx (default %d)\n",DEFAULT_A_P_RANGE); printf("-f \t faktor for pressure from amorphous SiCx (default %f)\n",DEFAULT_A_P_FAKTOR); printf("-p \t p0 for probability of cell getting amorph (default %f)\n",DEFAULT_A_P_P0); - printf("-C \t C start concentration (default %d)\n",DEFAULT_C_START_CONC); - printf("-S \t slope of linear C distribution (default %d)\n",DEFAULT_C_SLOPE); + printf("-C \t C start concentration (default %d)\n",DEFAULT_C_DIST_START_CONC); + printf("-S \t slope of linear C distribution (default %d)\n",DEFAULT_C_DIST_SLOPE); return -23; } @@ -63,30 +64,70 @@ int make_cryst(cell *cell) return 23; } -int distrib_c_conc(cell *cell_p,u32 c_c0,u32 c_slope,int add_c,u32 x_max,u32 y_max,u32 z_max) +int distrib_c_conc(cell *cell_p,int c_c0,int c_slope,u32 c_conc,u32 x_max,u32 y_max,u32 z_max) { - /* cryst. c to distribute */ - int i,j,k; - double cryst_c; - cryst_c=0; - for(i=0;istatus&AMORPH) cryst_c+=(cell_p+i)->conc; + int i,j; + u32 area,c_area,total,count; + u32 x,y,z,sum_c_z; + + total=0; + area=x_max*y_max; + sum_c_z=c_c0*z_max+c_slope*gr; + for(i=0;istatus&AMORPH) - + if(!(cell_p+j+i*area)->status&AMORPH) count++; + } + for(j=0;jstatus&AMORPH) + { + (cell_p+j+i*area)->conc=c_area/count; + total+=c_area/count; + } + } + j=0; + while(jstatus&AMORPH) + { + (cell_p+x+y*x_max+i*area)->conc+=1; + total++; + j++; + } + } + } + i=0; + while(istatus&AMORPH) + { + (cell_p+x+y*x_max+z*area)->conc+=1; + i++; + } + } return 23; } /* look at cell ... */ -int process_cell(cell *cell_p,u32 x,u32 y,u32 z,u32 x_max,u32 y_max,u32 z_max,int range,double faktor,double p0) +int process_cell(cell *cell_p,u32 x,u32 y,u32 z,u32 x_max,u32 y_max,u32 z_max,int range,double faktor,double p0,u32 *c_conc) { cell *this_cell; int i,j,k; double pressure; + this_cell=cell_p+x+y*x_max+z*x_max*y_max; pressure=p0*URAND_2BYTE_MAX; + for(i=-range;i<=range;i++) { for(j=-range;j<=range;j++) @@ -95,18 +136,28 @@ int process_cell(cell *cell_p,u32 x,u32 y,u32 z,u32 x_max,u32 y_max,u32 z_max,in { if(!(i==0 && j==0 && k==0)) { + // if((cell_p+((x+x_max+i)%x_max)+((y+j+y_max)%y_max)*x_max+((z+k+z_max)%z_max)*x_max*y_max)->status&AMORPH) pressure+=(cell_p+((x+x_max+i)%x_max)+((y+j+y_max)%y_max)*x_max+((z+k+z_max)%z_max)*x_max*y_max)->conc*faktor*URAND_2BYTE_MAX/(i*i+j*j+k*k); if((cell_p+((x+x_max+i)%x_max)+((y+j+y_max)%y_max)*x_max+((z+k+z_max)%z_max)*x_max*y_max)->status&AMORPH) pressure+=faktor*URAND_2BYTE_MAX/(i*i+j*j+k*k); } } } } + pressure*=this_cell->conc; if(this_cell->status&AMORPH) { /* wrong probability! just test by now ...*/ - if(rand_get(URAND_2BYTE_MAX)>pressure) make_cryst(this_cell); + if(rand_get(URAND_2BYTE_MAX)>pressure) + { + make_cryst(this_cell); + *c_conc=*c_conc+1+this_cell->conc; + } else *c_conc+=1; } else { - if(rand_get(URAND_2BYTE_MAX)<=pressure) make_amorph(this_cell); + if(rand_get(URAND_2BYTE_MAX)<=pressure) + { + make_amorph(this_cell); + *c_conc=*c_conc+1-this_cell->conc; + } else *c_conc+=1; } return 23; } @@ -115,11 +166,12 @@ int main(int argc,char **argv) { u32 x_cell,y_cell,z_cell; /* amount of segments */ u32 x,y,z; /* cells */ - int i,gr; /* for counting */ + int i; /* for counting */ int slope_nel,start_nel; /* nuclear energy loss: slope, constant */ int a_p_range; /* p. range of amorphous sic */ double a_p_faktor,a_p_p0; /* p0 and faktor of amorphous sic */ - u32 c_c0,c_slope; /* c start concentration and linear slope of c distribution */ + int c_dist_c0,c_dist_slope; /* c start concentration and linear slope of c distribution */ + u32 c_conc; int steps; /* # steps */ cell *cell_p; struct __display display; @@ -139,8 +191,9 @@ int main(int argc,char **argv) a_p_range=DEFAULT_A_P_RANGE; a_p_faktor=DEFAULT_A_P_FAKTOR; a_p_p0=DEFAULT_A_P_P0; - c_c0=DEFAULT_C_START_CONC; - c_slope=DEFAULT_C_SLOPE; + c_dist_c0=DEFAULT_C_DIST_START_CONC; + c_dist_slope=DEFAULT_C_DIST_SLOPE; + c_conc=DEFAULT_C_C0; steps=DEFAULT_STEPS; display_x=x_cell/2; display_y=y_cell/2; @@ -197,11 +250,14 @@ int main(int argc,char **argv) case 'p': a_p_p0=atof(argv[++i]); break; + case 'b': + c_conc=atoi(argv[++i]); + break; case 'C': - c_c0=atoi(argv[++i]); + c_dist_c0=atoi(argv[++i]); break; case 'S': - c_slope=atoi(argv[++i]); + c_dist_slope=atoi(argv[++i]); break; default: usage(); @@ -217,44 +273,53 @@ int main(int argc,char **argv) return -23; } - /* calculate sum_z_cells one time! */ + /* calculate gr one time! */ gr=0; for(i=1;i<=z_cell;i++) gr+=i; - sum_z_cells=z_cell*start_nel+slope_nel*gr; - sum_c_dist=z_cell*c_c0+c_slope*gr; - printfd("debug: sum_z_cells -> %u\ndebug: sum_c_dist -> %u\n",sum_z_cells,sum_c_dist); + printfd("debug: gr = %d\n",gr); - /* testing ... */ + /* allocate random number buffer */ + printf("malloc will free %d bytes now ...\n",RAND_BUF_SIZE); + if((rand_buf=(u32 *)malloc(RAND_BUF_SIZE))==NULL) + { + puts("failed allocating memory for random numbers"); + return -23; + } + rand_current=rand_buf+RAND_BUF_SIZE; /* allocate cells */ printf("malloc will free %d bytes now ...\n",x_cell*y_cell*z_cell*sizeof(cell)); if((cell_p=(cell *)malloc(x_cell*y_cell*z_cell*sizeof(cell)))==NULL) { - puts("failed allocating memory for cells\n"); + puts("failed allocating memory for cells"); return -23; } memset(cell_p,0,x_cell*y_cell*z_cell*sizeof(cell)); /* init display */ + printfd("debug: init display now ...\n"); display_init(x_cell,y_cell,z_cell,&display,cell_p,&argc,argv); /* main routine */ + printfd("debug: starting main routine ...\n"); for(i=0;i