int monte_carlo_menu(void) { static int r=0; int mode=1; void * pscr=NULL; void (*quit)(int)=f3_key[7]; char menutxt[]="\030" " Subprocess " " IN state " " Model parameters " " Constraints " " QCD alpha & scales " " Breit-Wigner " " Aliases " " Cuts " " Phase space mapping " " Monte Carlo simulation " " Easy "; if(nout_int!=2 ) menutxt[menutxt[0]*10+1]=0; if(nin_int==1) improveStr(menutxt,"Easy", "Total width"); else improveStr(menutxt,"Easy", "1D integration"); wrtprc_(); for(;;) { infor(); f3_key[7]=quit; menu1(54,4,"",menutxt,"n_mc_*",&pscr, &mode); if(mode==1||mode==2||mode==3||mode==5||mode==7)f3_key[7]=NULL; switch (mode) { case 0: return 0; case 1: r=r|3*sub_men__(); break; case 2: r=r|in_setting(); break; case 3: r=r|change_parameter(54,7,0); break; case 4: { int modeC=1; for(;;) { char menuC[]="\030" " All Constraints " " Masses,Widths,Branching"; void * pscrC=NULL; menu1(54,6,"",menuC,"n_constr_*",&pscrC, &modeC); switch(modeC) { case 0: break; case 1: show_depend(54,7); break; case 2: show_spectrum(54,9); break; } if(!modeC) break; } break; } case 5: r=r|qcdmen_(); break; case 6: r=r|w_men__(); break; case 7: do r=r|(3*edittable(1,4,&compTab,1,"n_comp",0)); while (fillCompositeArray()); break; case 8: do r=r|(3*edittable(1,4,&cutTab,1,"n_cut",0)); while (fillCutArray()); break; case 9: r=r|mappingMenu(); break; case 10: if(nout_int==1 && !sf_num[0] && !sf_num[1] ) { if(blind) return 1; messanykey(15,15,"Phase space integration for 2->1 processes\n needs distribution functions."); break; } if(checkEnergy()) { if(blind==1) { char fname[50]; int i,j; sprintf(fname,"events_%d.txt", nSess); FILE * f=fopen(fname,"w"); fprintf(f,"#%s\n", VERSION_); fprintf(f,"#Type %d -> %d\n", nin_int,nout_int); fprintf(f,"#Initial_state "); if(nin_int==1) fprintf(f," P1=0\n"); else { fprintf(f," P1_3=0 P2_3=0\n"); wrt_sf__(f); } fprintf(f,"#PROCESS "); for(i=1;i<=nin_int+nout_int; i++) { int pcode; char * pname=pinf_int(Nsub,i,NULL,&pcode); fprintf(f," %d(%s)", pcode, pname); if(i==nin_int) fprintf(f," ->"); } fprintf(f,"\n"); fprintf(f,"#MASSES "); for(i=0;i<nin_int+nout_int;i++) { REAL m; pinf_int(Nsub,i+1,&m,NULL); fprintf(f," %.10E", (double)m); } fprintf(f,"\n"); fprintf(f,"#Cross_section(Width) %E\n",0.); fprintf(f,"#Number_of_events %10d\n",0); fprintf(f,"#Sum_of_weights %12.4E %12.4E \n",0.,0.); fprintf(f,"#Events "); if(nin_int==2) fprintf(f," P1_3 [Gev] P2_3 [Gev] "); for(i=1;i<=nout_int; i++) for(j=1;j<=3;j++) fprintf(f," P%d_%d [Gev] ",i+nin_int,j); integral.old=1; fclose(f); return 1; } messanykey(15,15,"Energy is too small!"); break; } if(fillCutArray()) { if(blind) return 2; messanykey(15,15,"Can not evaluate cut limits"); break; } case 11: if(mode==11) { void (*f10_tmp)(int); w_sess__(NULL); f10_tmp=f3_key[7]; f3_key[7]=f10_key_prog_for22; if(nin_int==1) decay12(); else { REAL m1,m2, Pcm; pinf_int(Nsub,1,&m1,NULL); pinf_int(Nsub,2,&m2,NULL); if(sf_num[0] && sf_mass[0]>m1) m1= sf_mass[0]; if(sf_num[1] && sf_mass[1]>m2) m2= sf_mass[1]; incomkin(m1,m2,inP1,inP2,NULL,&Pcm,NULL); if(sf_num[0]||sf_num[1]||nCuts) messanykey(10,10,"Structure functions and cuts are ignored\n"); cs_numcalc(Pcm); } f3_key[7]= f10_tmp; r_sess__(NULL); break; } else if(fillRegArray()) { if(blind) return 3; messanykey(15,15, "Can not evaluate regularization paremeters"); break; } if(mode==10) runVegas(); r=0; break; } //printf("r=%d\n",r); if(r) clearEventMax(); if(r&2) clearGrid(); if(r&1)newSession(); } }
int monte_carlo_menu(void) { static int r=0; int mode=1; void * pscr=NULL; void * pscr_mem=NULL; void (*quit)(int)=f3_key[7]; char menutxt[]="\030" " Subprocess " " IN state " " Model parameters " " Constraints " " QCD coupling " " Breit-Wigner " " Aliases " " Cuts " " Phase space mapping " " Monte Carlo simulation " " Easy "; if(nout_int!=2 ) menutxt[menutxt[0]*10+1]=0; if(nin_int==1) improveStr(menutxt,"Easy", "Total width"); else improveStr(menutxt,"Easy", "1D intergration"); get_text(1,10,80,24,&pscr_mem); wrtprc_(); for(;;) { infor(); f3_key[7]=quit; menu1(54,4,"",menutxt,"n_mc_*",&pscr, &mode); if(mode==1||mode==2||mode==3||mode==5||mode==7)f3_key[7]=NULL; switch (mode) { case 0: put_text(&pscr_mem); return 0; case 1: r=r|3*sub_men__(); break; case 2: r=r|in_setting(); break; case 3: r=r|change_parameter(54,7,0); break; case 4: { int modeC=1; for(;;) { char menuC[]="\030" " All Constraints " " Masses,Widths,Branching"; void * pscrC=NULL; menu1(54,6,"",menuC,"n_constr_*",&pscrC, &modeC); switch(modeC) { case 0: put_text(&pscr_mem); break; case 1: show_depend(54,7); break; case 2: show_spectrum(54,9); break; } if(!modeC) break; } break; } case 5: r=r|qcdmen_(); break; case 6: r=r|w_men__(); break; case 7: do r=r|(3*edittable(1,4,&compTab,1,"n_comp",0)); while (fillCompositeArray()); break; case 8: do r=r|(3*edittable(1,4,&cutTab,1,"n_cut",0)); while (fillCutArray()); break; case 9: r=r|mappingMenu(); break; case 10: if(nout_int==1 && !sf_num[0] && !sf_num[1] ) { if(blind) return 1; messanykey(15,15,"Phase space integration for 2->1 processes\n needs distribution functions."); break; } if(checkEnergy()) { if(blind) return 1; messanykey(15,15,"Energy is too small!"); break; } if(fillCutArray()) { if(blind) return 2; messanykey(15,15,"Can not evaluate cuts limlts"); break; } case 11: if(mode==11) { void (*f10_tmp)(int); w_sess__(NULL); f10_tmp=f3_key[7]; f3_key[7]=f10_key_prog_for22; if(nin_int==1) decay12(); else { REAL m1,m2, Pcm; pinf_int(Nsub,1,&m1,NULL); pinf_int(Nsub,2,&m2,NULL); incomkin(m1,m2,inP1,inP2,NULL,&Pcm,NULL); if(sf_num[0]||sf_num[1]||nCuts) messanykey(10,10,"Structure functions and cuts are ignored\n"); cs_numcalc(Pcm); } f3_key[7]= f10_tmp; r_sess__(NULL); break; } else if(fillRegArray()) { if(blind) return 3; messanykey(15,15, "Can not evaluate regularization paremeters"); break; } if(mode==10) runVegas(); r=0; break; } if(r) clearEventMax(); if(r&2) clearGrid(); if(r&1)newSession(); } }