static int enter_h(int * y,char* name,int num,int scat)
{ int i,m,j=0;
int redres;
shortstr hadrch;
char ** items;
char * errpos=NULL;
locateinbase(name,&j);
if(j)
{
if(pseudop(j)) return -1;
strcpy(hadrons[num].name,name);
strcpy(hadrons[num].contents,name);
hadrons[num].parton[0] = j;
hadrons[num].pow = 1;
if(!scat && num==0 && strcmp(prtclbase1[j].massidnt,"0")==0)
{ errTxt="Decay of massless particle.";
return -1;
}
if(name[strlen(name)-1]=='%')
{
if( !scat || nout||strcmp(prtclbase1[j].massidnt,"0") ||
(prtclbase1[j].spin!=1 && prtclbase1[j].spin!=2) ||
strchr("LR",prtclbase1[j].hlp)
)
{ errTxt="This particle can not be polarized";
return -1;
} else hadrons[num].polarized[0]=1;
} else hadrons[num].polarized[0]=0;
return 0;
}
for(i=0;i<num;i++)
if(!strcmp(hadrons[i].name,name))
{ strcpy(hadrons[num].name,name);
strcpy(hadrons[num].contents,hadrons[i].contents);
hadrons[num].pow=hadrons[i].pow;
for(j=0;j<hadrons[num].pow;j++)
{ hadrons[num].parton[j]=hadrons[i].parton[j];
if(nout) hadrons[num].polarized[j]=0;
else hadrons[num].polarized[j]=hadrons[i].polarized[j];
}
return 0;
}
hadrch[0]=0;
for(i=num;i<MAXINOUT;i++) if(!strcmp(hadrons[i].name,name))
{
strcpy(hadrch,hadrons[i].contents);
break;
}
if(*y>=maxRow()-1) { goto_xy(1,*y); clr_eol();} else (*y)++;
do
{
m=errpos? errpos-hadrch+1: 0;
do
{ char direction[100];
sprintf(direction,"composit '%s' consists of: ",name);
redres=input(*y, "s_ent_2", direction, hadrch, m , SSTRLEN);
if(redres==KB_ESC) return 1;
} while (redres!=KB_ENTER && redres!=KB_ESC);
if (redres == KB_ESC || strcmp(hadrch,"") == 0) return 1;
items=stritems(" ,",hadrch);
for(m=0,hadrons[num].pow=0; items[m]; m++)
{ char name[100];
if(hadrons[num].pow>=100) {errTxt="too many partons";break;}
sscanf(items[m],"%[^ ,]",name);
locateinbase(name,&j);
if (j==0 || pseudop(j))
{ errTxt= "This particle is absent in the model"; break;}
if(!scat && num==0 && strcmp(prtclbase1[j].massidnt,"0")==0)
{ errTxt="Decay of massless particle.";
break;
}
if(name[strlen(name)-1]=='%')
{
if( !scat || nout||strcmp(prtclbase1[j].massidnt,"0") ||
(prtclbase1[j].spin!=1 && prtclbase1[j].spin!=2) ||
strchr("LR",prtclbase1[j].hlp)
)
{ errTxt="This particle can not be polarized";
break;
} else hadrons[num].polarized[hadrons[num].pow]=1;
} else hadrons[num].polarized[hadrons[num].pow]=0;
hadrons[num].parton[hadrons[num].pow++]=j;
}
errpos=items[m];
if(!errpos)
{ for(i=0;i<hadrons[num].pow;i++)
for(j=i+1;j<hadrons[num].pow;j++)
if(hadrons[num].parton[i]==hadrons[num].parton[j])
{ errpos=items[j];
errTxt="duplicate parton";
}
}
strcpy(hadrons[num].name,name);
strcpy(hadrons[num].contents,hadrch);
free(items);
}
while(errpos);
return 0;
}
int viewresults(void)
{
int k,kmenu;
void * pscr = NULL;
shortstr newname;
int dirStat=checkDir("results");
if(dirStat==0){messanykey(10,15,"directory RESULTS is empty"); return 1;}
kmenu = 1;
label_1:
menu1(10,10,"","\010"
" View "
" Delete "
" Rename ","s_res",&pscr,&kmenu);
switch (kmenu)
{
case 0:
return 0;
case 1:
viewDir("results");
break;
case 2:
if(dirStat==2)
{ char mess[]="Can not clean dir 'results' because it contains the LOCK file";
if(blind) { printf("%s\n",mess); sortie(102);}
else { messanykey(3,13,mess); break;}
}
if ( mess_y_n( 6,13," Delete files ") ) system("rm -r results; mkdir results");
put_text(&pscr);
return 1;
case 3:
strcpy(newname," ");
while(1)
{ void * pscr3;
get_text(1,maxRow(),maxCol(),maxRow(),&pscr3);
goto_xy(1,maxRow());
print("Enter new name: ");
k = str_redact(newname,1,30);
if (k == KB_ESC)
{ goto_xy(1,24);
clr_eol();
goto label_1;
}
if (k == KB_ENTER)
{
trim(newname);
if(rename("results",newname)==0)
{
mkdir("results",-1);
put_text(&pscr);
put_text(&pscr3);
return 1;
}
else messanykey(10,15," Can't rename the directory");
}
put_text(&pscr3);
}
}
goto label_1;
}
static void show_spectrum(int X, int Y)
{ int i;
char *menuP=malloc(2+22*(nModelParticles+2));
int mode=1;
menuP[0]=22;
menuP[1]=0;
strcpy(menuP+1, " All Particles -> SLHA");
// sprintf(menuP++strlen(menuP)," Select.Particl-> SLHA");
for(i=0;i<nModelParticles;i++)
{ char *mass=ModelPrtcls[i].mass;
char *name=ModelPrtcls[i].name;
if(!strcmp(mass,"0")) sprintf(menuP+strlen(menuP)," %-6.6s Zero ",name);
else sprintf(menuP+strlen(menuP)," %-6.6s %12.4E ",name,pMass(name));
}
while(mode)
{ menu1(X,Y,"",menuP,"n_qnumbers",NULL, &mode);
if(mode==1) writeSLHA();
else if(mode>1)
{ FILE*f=fopen("width.tmp","w");
int pos=mode-2;
txtList LL=NULL;
char *mass=ModelPrtcls[pos].mass;
fprintf(f, "Patricle %s(%s), PDG = %d, Mass= ",
ModelPrtcls[pos].name, ModelPrtcls[pos].aname,
ModelPrtcls[pos].NPDG);
if(strcmp(mass,"0")==0) fprintf(f, "Zero\n"); else
{
double width;
fprintf(f,"%.3E ", pMass(ModelPrtcls[pos].name));
width=pWidth(ModelPrtcls[pos].name,&LL);
fprintf(f," Width=%.2E\n",width);
}
fprintf(f,"Quantum numbers: ");
{ int spin=ModelPrtcls[pos].spin2;
int q3=ModelPrtcls[pos].q3;
fprintf(f," spin=");
if(spin&1) fprintf(f,"%d/2, ",spin); else fprintf(f,"%d, ",spin/2);
fprintf(f," charge(el.)=");
if(q3!=3*(q3/3)) fprintf(f,"%d/3, ",q3);else fprintf(f,"%d ",q3/3);
fprintf(f," color=%d\n",ModelPrtcls[pos].cdim);
}
if(LL)
{ txtList ll=LL;
fprintf(f," Branchings & Decay channels:\n");
for(;ll;ll=ll->next)
{ char buff[100];
double br;
sscanf(ll->txt,"%lf %[^\n]",&br,buff);
fprintf(f," %.2E %s\n",br,buff);
}
}
fclose(f);
f=fopen("width.tmp","r");
showtext(2,Y,78, maxRow()-1,"Particle information",f);
fclose(f);
unlink("width.tmp");
}
}
free(menuP);
return;
}
static void f7_prog(int mode)
{ int pos=1;
void *pscr=NULL;
if(mode>2)
{ messanykey(10,15," Highlight the corresponding\n"
"structure function");
return;
}
if(!sf_num[mode-1]) return;
f3_key[4]=NULL;
for(;;)
{ static double xMin=0.0, xMax=1.0, scale = 91.187;
static int nPoints=100;
double f[150];
char strmen[]="\030 "
" x-Min = XXX "
" x-Max = YYY "
" Npoints = NNN "
" QCD-scale= QQQ "
" Display plot x*F(x) "
" Display plot F(x) ";
improveStr(strmen,"XXX","%.3f",xMin);
improveStr(strmen,"YYY","%.3f",xMax);
improveStr(strmen,"NNN","%d",nPoints);
improveStr(strmen,"QQQ","%.1fGeV",scale);
menu1(54,14,"",strmen,"n_alpha_view",&pscr,&pos);
switch(pos)
{ case 0: f3_key[4]=f7_prog;
return;
case 1:
correctDouble(55,18,"xMin = ",&xMin,1);
break;
case 2:
correctDouble(55,18,"xMax = ",&xMax,1);
break;
case 3:
correctInt(50,18,"nPoints = ",&nPoints,1);
break;
case 4:
correctDouble(50,18,"QCD-scale = ",&scale,1);
break;
case 5: case 6:
if(xMin>=0 && xMax>xMin && xMax<=1
&& nPoints>=3 && nPoints<=150 && scale>0.5)
{
void * screen;
double dx=(xMax-xMin)/(2*nPoints);
double be=sf_be[mode-1];
int i;
get_text(1,1,maxCol(),maxRow(),&screen);
for(i=0;i<nPoints;i++)
{ double x=xMin+(i+0.5)*(xMax-xMin)/nPoints;
f[i]=strfun_(mode,x,scale);
if(pos==5) f[i]*=x;
if(be!=1.) f[i]*=be*pow(1.-x,be-1.);
}
{
char p_name[20], mess[STRSIZ];
strcpy(p_name,pinf_int(Nsub,mode,NULL,NULL));
if(pos==5) strcat(p_name,"(x)*x"); else strcat(p_name,"(x)");
strFunName(mode,mess);
trim(mess);
sprintf(mess+strlen(mess)," [QCD-scale = %.1f GeV]",scale);
plot_1(xMin+dx,xMax-dx,nPoints,f,NULL,mess,"x",p_name);
}
put_text(&screen);
} else messanykey(16,5," Correct input is \n"
" 0<=xMin<xMax<=1,\n"
" QCD-scale > 0.5 GeV\n"
" 3<=nPoints<=150");
break;
}
}
}
int qcdmen_(void)
{
void * pscr=NULL;
int mode;
int returnCode=0;
initStrFun(0);
L10:{ char strmen[]="\030"
" parton dist. alpha OFF "
" alpha(MZ)= ZZZZ "
" nf = NF "
" order= NNLO "
" mb(mb)= MbMb "
" Mtop(pole)= Mtp "
" Alpha(Q) plot "
" Qren = RRR "
" Qpdf1= FF1 "
" Qpdf2= FF2 "
" Qshow= FFS ";
if(alphaPDF)
{ int k=0;
//printf("alphaPDF=%d sf_alpha[0]=%p sf_alpha[1]=%p\n", alphaPDF,sf_alpha[0],sf_alpha[1]);
switch(alphaPDF)
{ case 1: if(sf_alpha[0]) k=1; else if(sf_alpha[1]) k=2; break;
case 2: if(sf_alpha[1]) k=2; else if(sf_alpha[0]) k=1; break;
}
if(k) improveStr(strmen,"OFF","pdf%d",k);
}
improveStr(strmen,"ZZZZ","%.4f", alphaMZ);
improveStr(strmen,"NF","%d",alphaNF);
if(alphaOrder==1) improveStr(strmen,"NNLO","%-.4s","LO");
else if(alphaOrder==2) improveStr(strmen,"NNLO","%-.4s","NLO");
else alphaOrder=3;
improveStr(strmen,"MbMb","%.3f", MbMb);
improveStr(strmen,"Mtp","%.2f", Mtp);
improveStr(strmen,"RRR","%-.16s", Rscale_str);
improveStr(strmen,"FF1","%-.16s", F1scale_str);
improveStr(strmen,"FF2","%-.16s", F2scale_str);
improveStr(strmen,"FFS","%-.16s", Sscale_str);
menu1(54,8,"QCD alpha",strmen,"n_alpha",&pscr,&mode);
}
switch (mode)
{ case 0: if(returnCode) init_alpha(); return returnCode;
case 1:
{ char alphaMen[100]="\006"
" OFF "
" pdf1 "
" pdf2 ";
int k=0;
menu1(54,12,"alpha",alphaMen,"",NULL,&k);
if(k)alphaPDF=k-1;
if(alphaPDF && !sf_alpha[alphaPDF-1]) messanykey(20,20,"WARNING! This pdf does not define alphaQCD ");
}
break;
case 2:
{ double alphaMZ_old=alphaMZ;
if(correctDouble(3,15,"Enter new value ",&alphaMZ,1)) returnCode=1;
if(alphaMZ>0 && alphaMZ<0.3) returnCode=1; else
{ alphaMZ=alphaMZ_old;
messanykey(5,15,"Your input is out of alphaMZ range");
}
}
break;
case 3:
{ int NF_old=alphaNF;
if(correctInt(3,15,"Enter new value ",&alphaNF,1))
{
if(alphaNF<=6 && alphaNF>=3) returnCode=1;
else { messanykey(5,15,"NF out of range"); alphaNF=NF_old;}
}
}
break;
case 4:
{ char lomen[]="\010"
" LO "
" NLO "
" NNLO ";
void *pscrlo=NULL;
int k=0;
menu1(52,12,"",lomen,"",&pscrlo,&k);
if(k) { alphaOrder=k; returnCode=1; put_text(&pscrlo);}
}
break;
case 5: correctDouble(3,15,"Enter new value ",&MbMb,1); break;
case 6: correctDouble(3,15,"Enter new value ",&Mtp,1); break;
case 7:
{ void * screen;
int i;
static double qMin=1, qMax=1000;
static int nPoints=100;
if(returnCode) init_alpha();
get_text(1,1,maxCol(),maxRow(),&screen);
if(correctDouble(40 ,15 ,"Q_min=",&qMin,0)&& qMin>=0.5
&& correctDouble(40 ,16 ,"Q_max=",&qMax,0)&& qMax>qMin
&& correctInt(33,17,"number of points=" ,&nPoints,0)
&& nPoints>3&& nPoints<=150)
{ double *f[3]={NULL,NULL,NULL};
double *ff[3]={NULL,NULL,NULL};
char buff[3][100];
char* Y[3]={buff[0],buff[1],buff[2]};
switch(alphaOrder)
{ case 1: sprintf(Y[0],"MSbar LO"); break;
case 2: sprintf(Y[0],"MSbar NLO"); break;
case 3: sprintf(Y[0],"MSbar NNLO"); break;
default:sprintf(Y[0],"MSbar");
}
int N,k;
f[0]=(double*) malloc(nPoints*sizeof(double));
int xLog= (qMin>0 && qMax/qMin >10)? 1 : 0;
for(i=0;i<nPoints;i++)
{ double z=(i+0.5)/(double)(nPoints),q;
if(xLog) q=pow(qMin,1-z)*pow(qMax,z); else q=qMin*(1-z)+qMax*z;
f[0][i]=alpha_0(q);
// printf("i=%d %E\n",i,f[0][i]);
}
N=1;
for(k=0;k<2;k++) if(sf_alpha[k])
{
char buff[300];
strFunName(k+1,Y[N]);
char *p=strstr(Y[N],"(proton");
if(p) p[0]=0; else
{ p=strstr(Y[N],"(anti-proton");
if(p) p[0]=0;
}
f[N]=(double*) malloc(nPoints*sizeof(double));
for(i=0;i<nPoints;i++)
{ double z=(i+0.5)/(double)(nPoints),q;
if(xLog) q=pow(qMin,1-z)*pow(qMax,z);
else q=qMin*(1-z)+qMax*z;
f[N][i]=(*sf_alpha[k])(q);
}
N++;
}
int dim[3];
for(i=0;i<N;i++) dim[i]=nPoints;
// printf("N=%d Y[0]=%s\n Y[1]=%s\n Y[2]=%s\n", N,Y[0],Y[1],Y[2]);
// plot_Nar(NULL, "Alpha(Q)", log10(qMin), log10(qMax),"log10(Q/GeV)", nPoints, N, f,ff,Y);
plot_Nar(NULL, "Alpha(Q)", qMin,qMax,"Q/GeV", xLog, N, dim,f,ff,Y);
for(k=0;k<N;k++) free(f[k]);
} else messanykey(40,18,
" Correct input is \n"
" 0.5<= Q_min <Q_max\n"
" number of points <=150 and >=4");
put_text(&screen);
} break;
case 8:
{ int npos=1,rc;
do
{
char mess[200];
goto_xy(2,12); print("Renorm. scale: ");
if(str_redact(Rscale_str,npos,60)==KB_ENTER) returnCode=1;
goto_xy(2,12); clr_eol();
rc=initScales(Rscale_str,F1scale_str,F2scale_str,Sscale_str, mess);
if(rc) messanykey(10,10,mess);
} while(rc);
}
break;
case 9:
{ int npos=1,rc;
do
{
char mess[200];
goto_xy(2,12); print("Fct1.scale: ");
if(str_redact(F1scale_str,npos,60)==KB_ENTER) returnCode=1;
goto_xy(2,12); clr_eol();
rc=initScales(Rscale_str,F1scale_str,F2scale_str,Sscale_str, mess);
if(rc) messanykey(10,10,mess);
} while(rc);
}
break;
case 10:
{ int npos=1,rc;
do
{
char mess[200];
goto_xy(2,12); print("Fct1.scale: ");
if(str_redact(F2scale_str,npos,60)==KB_ENTER) returnCode=1;
goto_xy(2,12); clr_eol();
rc=initScales(Rscale_str,F1scale_str,F2scale_str,Sscale_str, mess);
if(rc) messanykey(10,10,mess);
} while(rc);
}
break;
case 11:
{ int npos=1,rc;
do
{
char mess[200];
goto_xy(2,12); print("Shworing scale: ");
if(str_redact(Sscale_str,npos,60)==KB_ENTER) returnCode=1;
goto_xy(2,12); clr_eol();
rc=initScales(Rscale_str,F1scale_str,F2scale_str,Sscale_str,mess);
if(rc) messanykey(10,10,mess);
} while(rc);
}
break;
}
goto L10;
}
void decay12(void)
{
int i, k,L;
void * pscr=NULL;
char * mlist;
static int Branch=1;
double Qstat;
widths=(double*)malloc(sizeof(double)*nprc_int);
if(Q==NULL) for(i=0;i<nModelVars;i++) if(strcmp(varNames[i],"Q")==0){ Q= varValues+i; break;}
if(Q) Qstat=*Q;
inmenutxt(&mlist);
L=mlist[0];
sscanf(mlist+1,"%s",inParticle);
for(k=1;k;)
{
char strmen[]="\030"
" Incoming particle "
" Show Branchings "
" QCD Scale Q= Free "
" Model parameters "
" Constraints "
" Parameter dependence "
;
clrbox(1,13, maxCol(), maxRow());
nsubSel=0;
decay12information(calcwidth12(),Branch);
if(EffQmass) improveStr(strmen,"Free ","M1");
if(!Branch) improveStr(strmen,"Branchings","Partial widths");
menu1(54,4,"",strmen,"n_12_*",&pscr,&k);
switch (k)
{
case 1:
{
if(strlen(mlist)>L+2)
{ void * pscr2=NULL;
int k=1;
menu1(56,5,"",mlist,"",&pscr2,&k);
if(k) sscanf(mlist+(k-1)*L+1,"%s",inParticle);
put_text(&pscr2);
}
}
break;
case 2: Branch=!Branch; break;
case 3: EffQmass=!EffQmass; break;
case 4: change_parameter(54,8,0); break;
case 5: show_depend(54,8); break;
case 6:
{ char proc[20];
char dimInfo[20]="Width [GeV]";
void * pscr=selectChan();
if(!pscr) break;
if(nsubSel==0) sprintf(proc,"%s -> 2*x",inParticle); else
{ sprintf(proc," BR(%s -> %s %s)",inParticle,
pinf_int(nsubSel,2,NULL,NULL), pinf_int(nsubSel,3,NULL,NULL));
dimInfo[0]=0;
}
paramdependence( calcwidth12,proc,dimInfo);
put_text(&pscr);
} break;
}
}
free(widths);
free(mlist);
clrbox(1,1,53,16);
clrbox(1,16,maxCol(),maxRow());
if(Q) *Q=Qstat;
}
