fproc_runaway_scan

PURPOSE ^

SYNOPSIS ^

function fproc_runaway_scan(scanvar,scanval,scanstr,scanlab,RR,mksa,Ec,f,tn,tRR,tnorm,fgrid,alpha,betath2,wpr,Zi,opt,grid,id_equil,rho_S,graph,p_opt,id_simul_scan)

DESCRIPTION ^


 disp(['coll_mode = ',num2str(opt.coll_mode),' ; bounce_mode = ',num2str(opt.bounce_mode),' ; equil = ',id_equil])
 disp(['Te/mc2 = ',num2str(betath2),' ; E/Ec = ',num2str(alpha),' ; E/ED = ',num2str(alpha*betath2),' ; Zi = ',num2str(Zi)])
 if opt.synchro_mode == 0,
     disp(['No synchrotron force'])
 elseif imag(wpr) == 0,
     disp(['Synchrotron force on : wc2/wp2 = ',num2str(wpr)]);
 elseif imag(wpr) > 0,
     disp(['Synchrotron force on : Bhat = ',num2str(imag(wpr))]);
 else
     disp(['Synchrotron force on : 1/taur = ',num2str(-imag(wpr))]);
 end    
 disp(['NR limit : pc/pT = ',num2str(1/sqrt(alpha*betath2)),' ; pmax/pc = ',num2str(pnmax_S*sqrt(alpha*betath2))])%NR
 disp(['Relativ. : pc/pT = ',num2str(1/sqrt((alpha - 1)*betath2)),' ; pmax/pc = ',num2str(pnmax_S*sqrt((alpha - 1)*betath2))])%rel
 disp(' ')
     disp(['--> r/a = ',num2str(rho_S)])
     disp(['--> LUKE RR from bound calc. (normalized to ne and tauc) : ',num2str(RR)])
     disp(['--> LUKE RR from exact calc. (normalized to ne and tauc) : ',num2str(tRR.re(end) + tRR.ri(end))])
     disp(['--> LUKE ext. RE fraction : ',num2str(tnorm.re(end))])
     disp(['--> LUKE int. RE fraction : ',num2str(tnorm.ri(end))])
     disp(['--> LUKE tot. RE fraction : ',num2str(tnorm.re(end) + tnorm.ri(end))])
     %
     if opt.synchro_mode,
         fpar = f{end}(:,end).';
         ipparnan = find(fpar < 0,1);
         if ~isempty(ipparnan),
             fpar(ipparnan:end) = NaN;
         end
         ipparmin = find(diff(fpar) > 0,1);
         if ~isempty(ipparmin),
             disp(['--> minimum found in f(xi=1) : p/pT = ',num2str(fgrid.pn(ipparmin)),' ; Ec = ',num2str(Ec(ipparmin)),' MeV']);
             %
             ipparmax = find(diff(fpar) < 0 & 1:np-1 > ipparmin,1);
             %
             if ~isempty(ipparmax),
                 disp(['--> maximum found in f(xi=1) : p/pT = ',num2str(fgrid.pn(ipparmax)),' ; Ec = ',num2str(Ec(ipparmax)),' MeV']);
             end
         end
     end

CROSS-REFERENCE INFORMATION ^

This function calls: This function is called by:

SOURCE CODE ^

0001 function fproc_runaway_scan(scanvar,scanval,scanstr,scanlab,RR,mksa,Ec,f,tn,tRR,tnorm,fgrid,alpha,betath2,wpr,Zi,opt,grid,id_equil,rho_S,graph,p_opt,id_simul_scan)
0002 %
0003 %
0004 % disp(['coll_mode = ',num2str(opt.coll_mode),' ; bounce_mode = ',num2str(opt.bounce_mode),' ; equil = ',id_equil])
0005 % disp(['Te/mc2 = ',num2str(betath2),' ; E/Ec = ',num2str(alpha),' ; E/ED = ',num2str(alpha*betath2),' ; Zi = ',num2str(Zi)])
0006 % if opt.synchro_mode == 0,
0007 %     disp(['No synchrotron force'])
0008 % elseif imag(wpr) == 0,
0009 %     disp(['Synchrotron force on : wc2/wp2 = ',num2str(wpr)]);
0010 % elseif imag(wpr) > 0,
0011 %     disp(['Synchrotron force on : Bhat = ',num2str(imag(wpr))]);
0012 % else
0013 %     disp(['Synchrotron force on : 1/taur = ',num2str(-imag(wpr))]);
0014 % end
0015 % disp(['NR limit : pc/pT = ',num2str(1/sqrt(alpha*betath2)),' ; pmax/pc = ',num2str(pnmax_S*sqrt(alpha*betath2))])%NR
0016 % disp(['Relativ. : pc/pT = ',num2str(1/sqrt((alpha - 1)*betath2)),' ; pmax/pc = ',num2str(pnmax_S*sqrt((alpha - 1)*betath2))])%rel
0017 % disp(' ')
0018 %     disp(['--> r/a = ',num2str(rho_S)])
0019 %     disp(['--> LUKE RR from bound calc. (normalized to ne and tauc) : ',num2str(RR)])
0020 %     disp(['--> LUKE RR from exact calc. (normalized to ne and tauc) : ',num2str(tRR.re(end) + tRR.ri(end))])
0021 %     disp(['--> LUKE ext. RE fraction : ',num2str(tnorm.re(end))])
0022 %     disp(['--> LUKE int. RE fraction : ',num2str(tnorm.ri(end))])
0023 %     disp(['--> LUKE tot. RE fraction : ',num2str(tnorm.re(end) + tnorm.ri(end))])
0024 %     %
0025 %     if opt.synchro_mode,
0026 %         fpar = f{end}(:,end).';
0027 %         ipparnan = find(fpar < 0,1);
0028 %         if ~isempty(ipparnan),
0029 %             fpar(ipparnan:end) = NaN;
0030 %         end
0031 %         ipparmin = find(diff(fpar) > 0,1);
0032 %         if ~isempty(ipparmin),
0033 %             disp(['--> minimum found in f(xi=1) : p/pT = ',num2str(fgrid.pn(ipparmin)),' ; Ec = ',num2str(Ec(ipparmin)),' MeV']);
0034 %             %
0035 %             ipparmax = find(diff(fpar) < 0 & 1:np-1 > ipparmin,1);
0036 %             %
0037 %             if ~isempty(ipparmax),
0038 %                 disp(['--> maximum found in f(xi=1) : p/pT = ',num2str(fgrid.pn(ipparmax)),' ; Ec = ',num2str(Ec(ipparmax)),' MeV']);
0039 %             end
0040 %         end
0041 %     end
0042 
0043 
0044 
0045 %
0046 nscan = length(scanval);
0047 %
0048 snorm.re = NaN(1,nscan);
0049 snorm.ri = NaN(1,nscan);
0050 snorm.rtot = NaN(1,nscan);
0051 snorm.b = NaN(1,nscan);
0052 snorm.tot = NaN(1,nscan);
0053 %
0054 sRR.re = NaN(1,nscan);
0055 sRR.ri = NaN(1,nscan);
0056 sRR.rtot = NaN(1,nscan);
0057 %
0058 spnmin = NaN(1,nscan);
0059 spnmax = NaN(1,nscan);
0060 sEcmin = NaN(1,nscan);
0061 sEcmax = NaN(1,nscan);
0062 %
0063 salpha = NaN(1,nscan);
0064 sbetath2 = NaN(1,nscan);
0065 %
0066 spnmax_S = NaN(1,nscan);
0067 spnmax_S_tail = NaN(1,nscan);
0068 %
0069 spnmax_f = NaN(1,nscan);
0070 spnmin_f = NaN(1,nscan);
0071 %
0072 sfpar = cell(1,nscan);
0073 %
0074 for iscan = 1:nscan,
0075     %
0076     snorm.re(iscan) = tnorm{iscan}.re(end);
0077     snorm.ri(iscan) = tnorm{iscan}.ri(end);
0078     snorm.rtot(iscan) = tnorm{iscan}.re(end) + tnorm{iscan}.ri(end);
0079     snorm.b(iscan) = tnorm{iscan}.b(end);
0080     snorm.tot(iscan) = tnorm{iscan}.tot(end);
0081     %
0082     sRR.re(iscan) = tRR{iscan}.re(end);
0083     sRR.ri(iscan) = tRR{iscan}.ri(end);
0084     sRR.rtot(iscan) = tRR{iscan}.re(end) + tRR{iscan}.ri(end);
0085     %
0086     sfpar{iscan} = f{iscan}{end}(:,end).';
0087     np = length(sfpar{iscan});
0088     ipparnan = find(sfpar{iscan} < 0,1);
0089     if ~isempty(ipparnan),
0090         sfpar{iscan}(ipparnan:end) = NaN;
0091     end
0092     ipparmin = find(diff(sfpar{iscan}) > 0,1);
0093     if ~isempty(ipparmin),
0094         spnmin(iscan) = fgrid{iscan}.pn(ipparmin);
0095         sEcmin(iscan) = Ec{iscan}(ipparmin);
0096         %
0097         ipparmax = find(diff(sfpar{iscan}) < 0 & 1:np-1 > ipparmin,1);
0098         if ~isempty(ipparmax),
0099             spnmax(iscan) = fgrid{iscan}.pn(ipparmax);
0100             sEcmax(iscan) = Ec{iscan}(ipparmax);
0101         end
0102     end
0103     if strcmp(scanvar,'alpha'),
0104         salpha(iscan) = scanval(iscan);
0105     else
0106         salpha(iscan) = alpha;
0107     end
0108     if strcmp(scanvar,'betath2'),
0109         sbetath2(iscan) = scanval(iscan);
0110     else
0111         sbetath2(iscan) = betath2;
0112     end
0113     %
0114     if strcmp(scanvar,'grid.pnmax_S'),
0115         spnmax_S(iscan) = scanval(iscan);
0116     else
0117         spnmax_S(iscan) = grid.pnmax_S;
0118     end
0119     if strcmp(scanvar,'grid.pnmax_S_tail'),
0120         spnmax_S_tail(iscan) = scanval(iscan);
0121     else
0122         spnmax_S_tail(iscan) = grid.pnmax_S_tail;
0123     end
0124     spnmax_f(iscan) = max(fgrid{iscan}.pn);
0125     spnmin_f(iscan) = min(fgrid{iscan}.pn);
0126 end
0127 %
0128 spc = 1./sqrt((salpha - 1).*sbetath2);
0129 sgammac = sqrt(salpha./(salpha - 1));
0130 %
0131 [~,~,~,~,~,~,~,mc2] = pc_dke_yp;%Universal physics constants
0132 sEcc = 1e-3*mc2*(sgammac - 1);
0133 %
0134 if grid.np_tail > 0,
0135     if imag(grid.pnmax_S_tail) == 0,
0136         spnmax_S = spnmax_S_tail;
0137     else
0138         spnmax_S = spnmax_S.*imag(spnmax_S_tail);
0139     end
0140 end
0141 %
0142 sgammamax_S = sqrt(1 + spnmax_S.^2.*sbetath2);
0143 sEcmax_S = 1e-3*mc2*(sgammamax_S - 1);
0144 %
0145 sgammamax_f = sqrt(1 + spnmax_f.^2.*sbetath2);
0146 sEcmax_f = 1e-3*mc2*(sgammamax_f - 1);
0147 %
0148 sgammamin_f = sqrt(1 + spnmin_f.^2.*sbetath2);
0149 sEcmin_f = 1e-3*mc2*(sgammamin_f - 1);
0150 %
0151 siz = 20+14i;
0152 tit = '';
0153 if ~isfield(opt,'color') || opt.color,
0154     colors = {'b','r',[0,0.75,0],[0.75,0,0.75],[0,0.75,0.75],[0.75,0.75,0],'k'};
0155     %colors = {'k','b','r','g','m','c','y'};
0156     styles = {'-','-','-','-','-','-','-'};
0157     sizes = [2,2,2,2,2,2,2];
0158     colstr = '_col';
0159 else
0160     colors = {'k','k','k','k','k','k','k','k','k'};
0161     styles = {'-','--','-.','-','--','-.'};
0162     colstr = '';
0163     sizes = [2,0.5,0.5,0.5,2];%,0.5
0164 end
0165 %
0166 if ~isfield(graph,'x'),
0167     graph.x = scanval;
0168 end
0169 if isfield(graph,'xlim'),
0170     xlim = graph.xlim;
0171 else
0172     xlim = NaN;
0173 end
0174 if isfield(graph,'xlog'),
0175     xlog = graph.xlog;
0176 else
0177     xlog = 0;
0178 end
0179 if isfield(graph,'xtick'),
0180     xtick = graph.xtick;
0181 else
0182     xtick = graph.x;
0183 end
0184 if ~isfield(graph,'xmask'),
0185     graph.xmask = 1:nscan;
0186 end
0187 %
0188 if ~isfield(graph,'re'),
0189     graph.re = true;
0190 end
0191 %
0192 if isfield(graph,'scanunits') && ~isempty(graph.scanunits),
0193     unitstr1 = [' (',graph.scanunits,')'];
0194     unitstr2 = [' ',graph.scanunits];
0195 else
0196     unitstr1 = '';
0197     unitstr2 = '';
0198 end
0199 %
0200 figure(1),clf
0201 %
0202 xlab = [scanlab,unitstr1];
0203 ylab = 'n/n_e';
0204 if isfield(graph,'ylim_norm'),
0205     ylim = graph.ylim_norm;
0206 else
0207     ylim = 10.^[-9,1];
0208     graph.ytick_norm = 10.^(-8:2:0);
0209 end
0210 if graph.re,
0211     leg = {'ext. RE','int. RE','tot. RE'};
0212     %
0213     graph1D_jd(graph.x(graph.xmask),snorm.re(graph.xmask),xlog,1,'','','',NaN,xlim,ylim,styles{1},'d',colors{2},sizes(1),siz,gca);
0214     graph1D_jd(graph.x(graph.xmask),snorm.ri(graph.xmask),xlog,1,'','','',NaN,xlim,ylim,styles{2},'*',colors{3},sizes(1),siz,gca);
0215     graph1D_jd(graph.x(graph.xmask),snorm.rtot(graph.xmask),xlog,1,'','','',NaN,xlim,ylim,styles{4},'o',colors{5},sizes(2),siz,gca);%+12i
0216 else
0217     leg = {'runaways'};
0218     %
0219     graph1D_jd(graph.x(graph.xmask),snorm.rtot(graph.xmask),xlog,1,'','','',NaN,xlim,ylim,styles{4},'o',colors{5},sizes(2),siz,gca);%+12i
0220 end
0221 leg = [leg,'bulk','total'];
0222 graph1D_jd(graph.x(graph.xmask),snorm.b(graph.xmask),xlog,1,'','','',NaN,xlim,ylim,styles{4},'s',colors{4},sizes(2),siz,gca);
0223 graph1D_jd(graph.x(graph.xmask),snorm.tot(graph.xmask),xlog,1,xlab,ylab,tit,leg,xlim,ylim,styles{5},'x',colors{1},sizes(1),siz,gca,0.9,0.7,0.7);
0224 %
0225 if ~isnan(xtick),
0226     set(gca,'xtick',xtick)
0227 end
0228 %
0229 if isfield(graph,'ytick_norm'),
0230     set(gca,'ytick',graph.ytick_norm)
0231 end
0232 if xlog,
0233     set(gca,'XMinorGrid','off')
0234     set(gca,'XMinorTick','off')
0235 end    
0236 set(gca,'YMinorGrid','off')
0237 set(gca,'YMinorTick','on')
0238 %
0239 figure(2),clf
0240 %
0241 ylab = '\Gamma_R\tau_c';
0242 if isfield(graph,'ylim_gamma'),
0243     ylim = graph.ylim_gamma;
0244 else
0245     ylim = 10.^[-12,-2];
0246     graph.ytick_gamma = 10.^(-12:2:-2);
0247 end    
0248 %
0249 leg = {'ext. RR','int. RR','total RR'};
0250 %
0251 graph1D_jd(graph.x,sRR.re,xlog,1,'','','',NaN,xlim,ylim,'none','s','r',2,siz,gca);
0252 graph1D_jd(graph.x,sRR.ri,xlog,1,'','','',NaN,xlim,ylim,'none','s','b',2,siz,gca);
0253 graph1D_jd(graph.x,sRR.rtot,xlog,1,xlab,ylab,tit,leg,xlim,ylim,'none','s','k',2,siz,gca,0.9,0.7,0.7);
0254 graph1D_jd(graph.x,-sRR.re,xlog,1,'','','',NaN,xlim,ylim,'none','o','r',2,siz,gca);
0255 graph1D_jd(graph.x,-sRR.ri,xlog,1,'','','',NaN,xlim,ylim,'none','o','b',2,siz,gca);
0256 graph1D_jd(graph.x,-sRR.rtot,xlog,1,'','','',NaN,xlim,ylim,'none','o','k',2,siz,gca);    
0257  %
0258 if ~isnan(xtick),
0259     set(gca,'xtick',xtick)
0260 end
0261 %
0262 if isfield(graph,'ytick_gamma'),
0263     set(gca,'ytick',graph.ytick_gamma)
0264 end
0265 if xlog,
0266     set(gca,'XMinorGrid','off')
0267     set(gca,'XMinorTick','off')
0268 end    
0269 set(gca,'YMinorGrid','off')
0270 set(gca,'YMinorTick','on')
0271 %
0272 figure(3),clf
0273 %
0274 ylab = 'p/p_T';
0275 if isfield(graph,'ylim_p'),
0276     ylim = graph.ylim_p;
0277 else
0278     ylim = [0,max(spnmax_S)*1.1];
0279 end    
0280 %
0281 leg = {'critical','grid','minimum','maximum'};
0282 %
0283 graph1D_jd(graph.x,spc,xlog,0,'','','',NaN,xlim,ylim,'-','s','r',2,siz,gca);
0284 graph1D_jd(graph.x,spnmax_S,xlog,0,'','','',NaN,xlim,ylim,'-','o','k',2,siz,gca);
0285 graph1D_jd(graph.x,spnmin,xlog,0,'','','',NaN,xlim,ylim,'-','d','b',2,siz,gca);
0286 graph1D_jd(graph.x,spnmax,xlog,0,xlab,ylab,tit,leg,xlim,ylim,'-','x','m',2,siz,gca,0.9,0.7,0.7);
0287  %
0288 if ~isnan(xtick),
0289     set(gca,'xtick',xtick)
0290 end
0291 %
0292 if isfield(graph,'ytick_p'),
0293     set(gca,'ytick',graph.ytick_p)
0294 end
0295 if xlog,
0296     set(gca,'XMinorGrid','off')
0297     set(gca,'XMinorTick','off')
0298 end    
0299 %
0300 figure(4),clf
0301 %
0302 ylab = 'p/(mc)';
0303 if isfield(graph,'ylim_pc'),
0304     ylim = graph.ylim_pc;
0305 else
0306     ylim = NaN;%[0,max(spnmax_S)*1.1];
0307 end    
0308 %
0309 leg = NaN;%{'critical','grid','minimum','maximum'};
0310 %
0311 graph1D_jd(graph.x,spnmax.*sqrt(sbetath2),xlog,0,xlab,ylab,tit,leg,xlim,ylim,'-','s','b',2,siz,gca,0.9,0.7,0.7);
0312  %
0313 if ~isnan(xtick),
0314     set(gca,'xtick',xtick)
0315 end
0316 %
0317 if isfield(graph,'ytick_pc'),
0318     set(gca,'ytick',graph.ytick_pc)
0319 end
0320 if xlog,
0321     set(gca,'XMinorGrid','off')
0322     set(gca,'XMinorTick','off')
0323 end    
0324 %
0325 figure(5),clf
0326 %
0327 ylab = 'E_c (keV)';
0328 if isfield(graph,'ylim_ec'),
0329     ylim = graph.ylim_ec;
0330 else
0331     ylim = [0,max(sEcmax_S)*1.1];
0332 end    
0333 %
0334 leg = {'critical','grid','minimum','maximum'};
0335 %
0336 graph1D_jd(graph.x,sEcc,xlog,0,'','','',NaN,xlim,ylim,'-','s','r',2,siz,gca);
0337 graph1D_jd(graph.x,sEcmax_S,xlog,0,'','','',NaN,xlim,ylim,'-','o','k',2,siz,gca);
0338 graph1D_jd(graph.x,sEcmin,xlog,0,'','','',NaN,xlim,ylim,'-','d','b',2,siz,gca);
0339 graph1D_jd(graph.x,sEcmax,xlog,0,xlab,ylab,tit,leg,xlim,ylim,'-','x','m',2,siz,gca,0.9,0.7,0.7);
0340  %
0341 if ~isnan(xtick),
0342     set(gca,'xtick',xtick)
0343 end
0344 %
0345 if isfield(graph,'ytick_ec'),
0346     set(gca,'ytick',graph.ytick_ec)
0347 end
0348 if xlog,
0349     set(gca,'XMinorGrid','off')
0350     set(gca,'XMinorTick','off')
0351 end    
0352 %
0353 print_jd(p_opt,['fig_',id_simul_scan,'_nr',colstr],['./figures',filesep,scanstr],1)
0354 print_jd(p_opt,['fig_',id_simul_scan,'_rr',colstr],['./figures',filesep,scanstr],2)
0355 print_jd(p_opt,['fig_',id_simul_scan,'_p',colstr],['./figures',filesep,scanstr],3)
0356 print_jd(p_opt,['fig_',id_simul_scan,'_pmax',colstr],['./figures',filesep,scanstr],4)
0357 print_jd(p_opt,['fig_',id_simul_scan,'_Ec',colstr],['./figures',filesep,scanstr],5)
0358 %
0359 if isfield(graph,'iscandisp'),
0360     %
0361     figure(6),clf
0362     %
0363     xlab = '$\mathcal{E}_k$ (MeV)';
0364     ylab = '$f(\mathcal{E}_k,\xi = 1)$';
0365     %
0366     if ~isfield(graph,'xlog_f'),
0367         graph.xlog_f = false;
0368     end
0369     %
0370     if ~isfield(graph,'xlim_f'),
0371         if graph.xlog_f,
0372             graph.xlim_f = [min(sEcmin_f),max(sEcmax_f)];                
0373         else
0374             graph.xlim_f = [0,max(sEcmax_f)];                
0375         end
0376     end
0377     %
0378     if isfield(graph,'ylim_f'),
0379         ylim = graph.ylim_f;
0380     else
0381         ylim = [eps,2];
0382         graph.ytick_f = 10.^(-18:2:2);
0383     end    
0384     %
0385     nscandisp = length(graph.iscandisp);
0386     %
0387     leg = cell(1,nscandisp);
0388     %
0389     for iiscan = 1:nscandisp-1,
0390         if isfield(graph,'scanformat'),
0391             legstr = num2str(graph.x(graph.iscandisp(iiscan)),graph.scanformat);
0392         else
0393             legstr = num2str(graph.x(graph.iscandisp(iiscan)));
0394         end
0395         leg{iiscan} = [scanlab,' = ',legstr,unitstr2];
0396         graph1D_jd(Ec{graph.iscandisp(iiscan)},sfpar{graph.iscandisp(iiscan)},graph.xlog_f,1,'','','',NaN,graph.xlim_f,ylim,styles{iiscan},'none',colors{iiscan},sizes(iiscan),siz);
0397     end
0398     if isfield(graph,'scanformat'),
0399         legstr = num2str(graph.x(graph.iscandisp(nscandisp)),graph.scanformat);
0400     else
0401         legstr = num2str(graph.x(graph.iscandisp(nscandisp)));
0402     end
0403     leg{nscandisp} = [scanlab,' = ',legstr,unitstr2];
0404     graph1D_jd(Ec{graph.iscandisp(nscandisp)},sfpar{graph.iscandisp(nscandisp)},graph.xlog_f,1,xlab,ylab,tit,leg,graph.xlim_f,ylim,styles{nscandisp},'none',colors{nscandisp},sizes(nscandisp),siz,gca,0.9,0.7,0.7);
0405     %
0406     if isfield(graph,'xtick_f'),
0407         set(gca,'xtick',graph.xtick_f)
0408     end
0409     if isfield(graph,'ytick_f'),
0410         set(gca,'ytick',graph.ytick_f)
0411     end
0412     set(gca,'XMinorGrid','off')
0413     set(gca,'XMinorTick','on')
0414     set(gca,'YMinorGrid','off')
0415     set(gca,'YMinorTick','on')
0416     set(get(gca,'xlabel'),'interpreter','latex')
0417     set(get(gca,'ylabel'),'interpreter','latex')
0418     %
0419     print_jd(p_opt,['fig_',id_simul_scan,'_f',colstr],['./figures',filesep,scanstr],6)
0420     %
0421     figure(7),clf
0422     %
0423     xlab = 't/\tau_c';
0424     ylab = 'n/n_e';
0425     if isfield(graph,'xlim_tn'),
0426         xlim = graph.xlim_tn;
0427     else
0428         xlim = NaN;
0429     end
0430     if isfield(graph,'ylim_norm'),
0431         ylim = graph.ylim_norm;
0432     else
0433         ylim = 10.^[-9,1];
0434         graph.ytick_norm = 10.^(-8:2:0);
0435     end
0436     %
0437     nscandisp = length(graph.iscandisp);
0438     %
0439     leg = cell(1,nscandisp);
0440     %
0441     for iiscan = 1:nscandisp-1,
0442         if isfield(graph,'scanformat'),
0443             legstr = num2str(graph.x(graph.iscandisp(iiscan)),graph.scanformat);
0444         else
0445             legstr = num2str(graph.x(graph.iscandisp(iiscan)));
0446         end
0447         leg{iiscan} = [scanlab,' = ',legstr,unitstr2];
0448         graph1D_jd(tn{graph.iscandisp(iiscan)},tnorm{graph.iscandisp(iiscan)}.ri + tnorm{graph.iscandisp(iiscan)}.re,1,1,'','','',NaN,xlim,ylim,styles{iiscan},'none',colors{iiscan},sizes(iiscan),siz);
0449     end
0450     if isfield(graph,'scanformat'),
0451         legstr = num2str(graph.x(graph.iscandisp(nscandisp)),graph.scanformat);
0452     else
0453         legstr = num2str(graph.x(graph.iscandisp(nscandisp)));
0454     end
0455     leg{nscandisp} = [scanlab,' = ',legstr,unitstr2];
0456     graph1D_jd(tn{graph.iscandisp(nscandisp)},tnorm{graph.iscandisp(nscandisp)}.ri + tnorm{graph.iscandisp(nscandisp)}.re,1,1,xlab,ylab,tit,leg,xlim,ylim,styles{nscandisp},'none',colors{nscandisp},sizes(nscandisp),siz,gca,0.9,0.7,0.7);
0457     %
0458     if isfield(graph,'xtick_tn'),
0459         set(gca,'xtick',graph.xtick_tn)
0460     end
0461     if isfield(graph,'ytick_norm'),
0462         set(gca,'ytick',graph.ytick_norm)
0463     end
0464     set(gca,'XMinorGrid','off')
0465     set(gca,'XMinorTick','on')
0466     set(gca,'YMinorGrid','off')
0467     set(gca,'YMinorTick','on')
0468 %    set(get(gca,'xlabel'),'interpreter','latex')
0469 %    set(get(gca,'ylabel'),'interpreter','latex')
0470     %
0471     print_jd(p_opt,['fig_',id_simul_scan,'_tn',colstr],['./figures',filesep,scanstr],7)
0472     %
0473 end
0474 %

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