| 
 |   
| version 1.1, 2011/05/18 21:30:40 | version 1.2, 2011/06/01 01:20:54 | 
|---|---|
| Line 60 in Sections \ref{sub:datasample} and \re | Line 60 in Sections \ref{sub:datasample} and \re | 
| \clearpage | \clearpage | 
| \subsection{\label{app:alljets_trig_eff}Trigger Efficiencies for $alljets$} | %\subsection{\label{app:alljets_trig_eff}Trigger Efficiencies for $alljets$} | 
| \begin{figure}[h] | %\begin{figure}[h] | 
| \includegraphics[scale=0.28]{trigger_eff/alljets0eff} | %\includegraphics[scale=0.28]{trigger_eff/alljets0eff} | 
| \includegraphics[scale=0.28]{trigger_eff/alljets1eff} | %\includegraphics[scale=0.28]{trigger_eff/alljets1eff} | 
| \includegraphics[scale=0.28]{trigger_eff/alljets2eff} | %\includegraphics[scale=0.28]{trigger_eff/alljets2eff} | 
| \includegraphics[scale=0.28]{trigger_eff/alljets3eff} | %\includegraphics[scale=0.28]{trigger_eff/alljets3eff} | 
| \caption{Trigger Efficiencies for $alljets$.} | %\caption{Trigger Efficiencies for $alljets$.} | 
| %\label{fig:variables_type2_bveto} | %\label{fig:variables_type2_bveto} | 
| \end{figure} | %\end{figure} | 
| \subsection{\label{app:Wjjjets_trig_eff}Trigger Efficiencies for $Wjj + jets$} | \subsection{\label{app:Wjjjets_trig_eff}Trigger Efficiencies for $Wjj + jets$} | 
| Line 83 in Sections \ref{sub:datasample} and \re | Line 83 in Sections \ref{sub:datasample} and \re | 
| %\label{fig:variables_type2_bveto} | %\label{fig:variables_type2_bveto} | 
| \end{figure} | \end{figure} | 
| \clearpage | %\clearpage | 
| \subsection{\label{app:Wbbjets_trig_eff}Trigger Efficiencies for $Wbb + jets$} | \subsection{\label{app:Wbbjets_trig_eff}Trigger Efficiencies for $Wbb + jets$} | 
| \begin{figure}[h] | \begin{figure}[h] | 
| Line 96 in Sections \ref{sub:datasample} and \re | Line 96 in Sections \ref{sub:datasample} and \re | 
| %\label{fig:variables_type2_bveto} | %\label{fig:variables_type2_bveto} | 
| \end{figure} | \end{figure} | 
| \clearpage | |
| \subsection{\label{app:Wccjets_trig_eff}Trigger Efficiencies for $Wcc + jets$} | \subsection{\label{app:Wccjets_trig_eff}Trigger Efficiencies for $Wcc + jets$} | 
| \begin{figure}[h] | \begin{figure}[h] | 
| Line 109 in Sections \ref{sub:datasample} and \re | Line 110 in Sections \ref{sub:datasample} and \re | 
| \end{figure} | \end{figure} | 
| \clearpage | %\clearpage | 
| \subsection{\label{app:Zlpeejets_trig_eff}Trigger Efficiencies for $Zjj + jets \rightarrow ee + jj + jets$} | \subsection{\label{app:Zlpeejets_trig_eff}Trigger Efficiencies for $Zjj + jets \rightarrow ee + jj + jets$} | 
| Line 124 in Sections \ref{sub:datasample} and \re | Line 125 in Sections \ref{sub:datasample} and \re | 
| \end{figure} | \end{figure} | 
| \clearpage | |
| \subsection{\label{app:Zbbeejets_trig_eff}Trigger Efficiencies for $Zbb + jets \rightarrow ee + bb + jets$} | \subsection{\label{app:Zbbeejets_trig_eff}Trigger Efficiencies for $Zbb + jets \rightarrow ee + bb + jets$} | 
| \begin{figure}[h] | \begin{figure}[h] | 
| Line 136 in Sections \ref{sub:datasample} and \re | Line 138 in Sections \ref{sub:datasample} and \re | 
| %\label{fig:variables_type2_bveto} | %\label{fig:variables_type2_bveto} | 
| \end{figure} | \end{figure} | 
| \clearpage | %\clearpage | 
| \subsection{\label{app:Zcceejets_trig_eff}Trigger Efficiencies for $Zcc + jets \rightarrow ee + cc + jets$} | \subsection{\label{app:Zcceejets_trig_eff}Trigger Efficiencies for $Zcc + jets \rightarrow ee + cc + jets$} | 
| \begin{figure}[h] | \begin{figure}[h] | 
| Line 149 in Sections \ref{sub:datasample} and \re | Line 151 in Sections \ref{sub:datasample} and \re | 
| %\label{fig:variables_type2_bveto} | %\label{fig:variables_type2_bveto} | 
| \end{figure} | \end{figure} | 
| \clearpage | |
| \subsection{\label{app:Zlpmumujets_trig_eff}Trigger Efficiencies for $Zjj + jets \rightarrow \mu\mu + jj + jets$} | \subsection{\label{app:Zlpmumujets_trig_eff}Trigger Efficiencies for $Zjj + jets \rightarrow \mu\mu + jj + jets$} | 
| \begin{figure}[h] | \begin{figure}[h] | 
| Line 162 in Sections \ref{sub:datasample} and \re | Line 165 in Sections \ref{sub:datasample} and \re | 
| \end{figure} | \end{figure} | 
| \clearpage | %\clearpage | 
| Line 177 in Sections \ref{sub:datasample} and \re | Line 180 in Sections \ref{sub:datasample} and \re | 
| %\label{fig:variables_type2_bveto} | %\label{fig:variables_type2_bveto} | 
| \end{figure} | \end{figure} | 
| \clearpage | |
| \subsection{\label{app:Zccmumujets_trig_eff}Trigger Efficiencies for $Zcc + jets \rightarrow \mu\mu + cc + jets$} | \subsection{\label{app:Zccmumujets_trig_eff}Trigger Efficiencies for $Zcc + jets \rightarrow \mu\mu + cc + jets$} | 
| \begin{figure}[h] | \begin{figure}[h] | 
| Line 189 in Sections \ref{sub:datasample} and \re | Line 193 in Sections \ref{sub:datasample} and \re | 
| %\label{fig:variables_type2_bveto} | %\label{fig:variables_type2_bveto} | 
| \end{figure} | \end{figure} | 
| \clearpage | %\clearpage | 
| \subsection{\label{app:Zlptautaujets_trig_eff}Trigger Efficiencies for $Zjj + jets \rightarrow \tau\tau + jj + jets$} | \subsection{\label{app:Zlptautaujets_trig_eff}Trigger Efficiencies for $Zjj + jets \rightarrow \tau\tau + jj + jets$} | 
| Line 204 in Sections \ref{sub:datasample} and \re | Line 208 in Sections \ref{sub:datasample} and \re | 
| \end{figure} | \end{figure} | 
| \clearpage | |
| \subsection{\label{app:Zbbtautaujets_trig_eff}Trigger Efficiencies for $Zbb + jets \rightarrow \tau\tau + bb + jets$} | \subsection{\label{app:Zbbtautaujets_trig_eff}Trigger Efficiencies for $Zbb + jets \rightarrow \tau\tau + bb + jets$} | 
| \begin{figure}[h] | \begin{figure}[h] | 
| Line 217 in Sections \ref{sub:datasample} and \re | Line 222 in Sections \ref{sub:datasample} and \re | 
| \end{figure} | \end{figure} | 
| \clearpage | |
| \subsection{\label{app:Zcctautaujets_trig_eff}Trigger Efficiencies for $Zcc + jets \rightarrow \tau\tau + cc + jets$} | \subsection{\label{app:Zcctautaujets_trig_eff}Trigger Efficiencies for $Zcc + jets \rightarrow \tau\tau + cc + jets$} | 
| Line 232 in Sections \ref{sub:datasample} and \re | Line 236 in Sections \ref{sub:datasample} and \re | 
| \end{figure} | \end{figure} | 
| \clearpage | |
| \subsection{\label{app:Zlpnunuets_trig_eff}Trigger Efficiencies for $Zjj + jets \rightarrow \nu\nu + jj + jets$} | \subsection{\label{app:Zlpnunuets_trig_eff}Trigger Efficiencies for $Zjj + jets \rightarrow \nu\nu + jj + jets$} | 
| \begin{figure}[h] | \begin{figure}[h] | 
| \includegraphics[scale=0.28]{trigger_eff/Zlpnunu0eff} | \includegraphics[scale=0.28]{trigger_eff/Zlpnunu0eff} | 
| Line 244 in Sections \ref{sub:datasample} and \re | Line 251 in Sections \ref{sub:datasample} and \re | 
| \end{figure} | \end{figure} | 
| \clearpage | |
| \subsection{\label{app:Zbbnunujets_trig_eff}Trigger Efficiencies for $Zbb + jets \rightarrow \nu\nu + bb + jets$} | \subsection{\label{app:Zbbnunujets_trig_eff}Trigger Efficiencies for $Zbb + jets \rightarrow \nu\nu + bb + jets$} | 
| Line 259 in Sections \ref{sub:datasample} and \re | Line 265 in Sections \ref{sub:datasample} and \re | 
| \end{figure} | \end{figure} | 
| \clearpage | |
| \subsection{\label{app:Zccnunujets_trig_eff}Trigger Efficiencies for $Zcc + jets \rightarrow \nu\nu + cc + jets$} | \subsection{\label{app:Zccnunujets_trig_eff}Trigger Efficiencies for $Zcc + jets \rightarrow \nu\nu + cc + jets$} | 
| \begin{figure}[h] | \begin{figure}[h] | 
| \includegraphics[scale=0.28]{trigger_eff/Zccnunu0eff} | \includegraphics[scale=0.28]{trigger_eff/Zccnunu0eff} | 
| Line 271 in Sections \ref{sub:datasample} and \re | Line 280 in Sections \ref{sub:datasample} and \re | 
| \end{figure} | \end{figure} | 
| %\clearpage | \clearpage | 
| %\newpage | |
| \section{\label{app:turnon} Turn on curves for trigger JT2$\_$3JT15L$\_$IP$\_$VX} | \section{\label{app:turnon} Turn-on curves for trigger JT2$\_$3JT15L$\_$IP$\_$VX} | 
| \noindent Here it is shown all turn-on curves for all three levels of the trigger JT2$\_$3JT15L$\_$IP$\_$VX | \noindent Here are shown all turn-on curves for all three levels of the trigger JT2$\_$3JT15L$\_$IP$\_$VX | 
| as described in Section \ref{sec:trig_param}. | as described in Section \ref{sec:trig_param}. | 
| \subsection{\label{app:jetturnon_L1} Level 1 jet turn on curves for trigger JT2$\_$3JT15L$\_$IP$\_$VX} | \subsection{\label{app:jetturnon_L1} Level 1 jet turn-on curves for trigger JT2$\_$3JT15L$\_$IP$\_$VX} | 
| \begin{figure}[h] | \begin{figure}[h] | 
| \centering | \centering | 
| Line 292 as described in Section \ref{sec:trig_pa | Line 301 as described in Section \ref{sec:trig_pa | 
| \label{fig:l1jetslo} | \label{fig:l1jetslo} | 
| \end{figure} | \end{figure} | 
| \newpage | %\newpage | 
| \begin{figure}[h] | \begin{figure}[h] | 
| \centering | \centering | 
| Line 316 as described in Section \ref{sec:trig_pa | Line 325 as described in Section \ref{sec:trig_pa | 
| \newpage | \newpage | 
| \subsection{\label{app:jetturnon_L2} Level 2 jet turn on curves for trigger JT2$\_$3JT15L$\_$IP$\_$VX} | \subsection{\label{app:jetturnon_L2} Level 2 jet turn-on curves for trigger JT2$\_$3JT15L$\_$IP$\_$VX} | 
| \begin{figure}[h] | \begin{figure}[h] | 
| \centering | \centering | 
| Line 328 as described in Section \ref{sec:trig_pa | Line 337 as described in Section \ref{sec:trig_pa | 
| \end{figure} | \end{figure} | 
| \subsection{\label{app:htturnon_L2} Level 2 $H_{T}$ turn on curves for trigger JT2$\_$3JT15L$\_$IP$\_$VX} | \subsection{\label{app:htturnon_L2} Level 2 $H_{T}$ turn-on curves for trigger JT2$\_$3JT15L$\_$IP$\_$VX} | 
| \begin{figure}[h] | \begin{figure}[h] | 
| \centering | \centering | 
| Line 357 as described in Section \ref{sec:trig_pa | Line 366 as described in Section \ref{sec:trig_pa | 
| \newpage | \newpage | 
| \subsection{\label{app:mhtturnon_L2} Level 2 $\not\!\!E_{T}$ turn on curves for trigger JT2$\_$3JT15L$\_$IP$\_$VX} | \subsection{\label{app:mhtturnon_L2} Level 2 $\not\!\!E_{T}$ turn-on curves for trigger JT2$\_$3JT15L$\_$IP$\_$VX} | 
| \begin{figure}[h] | \begin{figure}[h] | 
| \centering | \centering | 
| Line 388 as described in Section \ref{sec:trig_pa | Line 397 as described in Section \ref{sec:trig_pa | 
| \newpage | \newpage | 
| \subsection{\label{app:spherturnon_L2} Level 2 Sphericity turn on curves for trigger JT2$\_$3JT15L$\_$IP$\_$VX} | \subsection{\label{app:spherturnon_L2} Level 2 Sphericity turn-on curves for trigger JT2$\_$3JT15L$\_$IP$\_$VX} | 
| \begin{figure}[h] | \begin{figure}[h] | 
| \centering | \centering | 
| Line 400 as described in Section \ref{sec:trig_pa | Line 409 as described in Section \ref{sec:trig_pa | 
| \end{figure} | \end{figure} | 
| \subsection{\label{app:sttip_L2} Level 2 STTIP turn on curves for trigger JT2$\_$3JT15L$\_$IP$\_$VX} | \subsection{\label{app:sttip_L2} Level 2 STTIP turn-on curves for trigger JT2$\_$3JT15L$\_$IP$\_$VX} | 
| \begin{figure}[h] | \begin{figure}[h] | 
| \centering | \centering | 
| Line 428 as described in Section \ref{sec:trig_pa | Line 437 as described in Section \ref{sec:trig_pa | 
| \newpage | \newpage | 
| \subsection{\label{app:jetturnon_L3} Level 3 jet turn on curves for trigger JT2$\_$3JT15L$\_$IP$\_$VX} | \subsection{\label{app:jetturnon_L3} Level 3 jet turn-on curves for trigger JT2$\_$3JT15L$\_$IP$\_$VX} | 
| \begin{figure}[h] | \begin{figure}[h] | 
| \centering | \centering | 
| Line 542 zero (red) or one (black) offline NN (TI | Line 551 zero (red) or one (black) offline NN (TI | 
| \section{\label{app:discri_var}Discriminant variables} | \section{\label{app:discri_var}Discriminant variables} | 
| \noindent This appendix shows normalized plots of signal and background samples | \noindent This appendix shows normalized plots of signal and background samples | 
| for all discriminant variables tested for this analysis. | for all discriminant variables tested AND/OR used in this analysis. | 
| \begin{figure}[h] | \begin{figure}[h] | 
| \includegraphics[scale=0.30]{plots/metl_allEW.eps} | \includegraphics[scale=0.30]{plots/metl_allEW.eps} | 
| Line 564 for all discriminant variables tested fo | Line 573 for all discriminant variables tested fo | 
| \section{\label{app:set_opt}Set optimization} | \section{\label{app:set_opt}Set optimization} | 
| \noindent In this appendix it is shown plots of the figure of merit (Equation \ref{merit}) used to | \noindent This appendix shows plots of the figure of merit (Eq. \ref{merit}) used to | 
| perform the NN variables set optimization as described in Section \ref{sub:NN-optimization}. | perform the NN variables set optimization as described in Section \ref{sub:NN-optimization}. | 
| \begin{figure}[b] | \begin{figure}[b] | 
| Line 583 perform the NN variables set optimizatio | Line 592 perform the NN variables set optimizatio | 
| \includegraphics[scale=0.27]{SetOpt/ensemble13A-40} | \includegraphics[scale=0.27]{SetOpt/ensemble13A-40} | 
| \includegraphics[scale=0.27]{SetOpt/ensemble14A-40} | \includegraphics[scale=0.27]{SetOpt/ensemble14A-40} | 
| \includegraphics[scale=0.27]{SetOpt/ensemble15A-40} | \includegraphics[scale=0.27]{SetOpt/ensemble15A-40} | 
| \includegraphics[scale=0.27]{SetOpt/ensemble16A-40} | |
| \includegraphics[scale=0.27]{SetOpt/ensemble17A-40} | |
| \includegraphics[scale=0.27]{SetOpt/ensemble18A-40} | |
| \caption{Sets of NN inputs variables with $\not\!\! E_{T}$ significance $>$ 4.0 for set optimization.} | \caption{Sets of NN inputs variables with $\not\!\! E_{T}$ significance $>$ 4.0 for set optimization.} | 
| %\label{fig:variables_type2_bveto} | |
| \end{figure} | \end{figure} | 
| \clearpage | \clearpage | 
| \section{\label{app:set_opt}Set optimization continued} | |
| \noindent In this appendix it is shown plots of the figure of merit (Equation \ref{merit}) used to | |
| perform the NN variables set optimization as described in Section \ref{sub:NN-optimization}. | |
| \begin{figure}[b] | \begin{figure}[b] | 
| \includegraphics[scale=0.27]{SetOpt/ensemble16A-40} | |
| \includegraphics[scale=0.27]{SetOpt/ensemble17A-40} | |
| \includegraphics[scale=0.27]{SetOpt/ensemble18A-40} | |
| \includegraphics[scale=0.27]{SetOpt/ensemble19A-40} | \includegraphics[scale=0.27]{SetOpt/ensemble19A-40} | 
| \includegraphics[scale=0.27]{SetOpt/ensemble20-40} | \includegraphics[scale=0.27]{SetOpt/ensemble20-40} | 
| \includegraphics[scale=0.27]{SetOpt/ensemble21-40} | \includegraphics[scale=0.27]{SetOpt/ensemble21-40} | 
| Line 615 perform the NN variables set optimizatio | Line 616 perform the NN variables set optimizatio | 
| \includegraphics[scale=0.27]{SetOpt/ensemble31-40} | \includegraphics[scale=0.27]{SetOpt/ensemble31-40} | 
| \includegraphics[scale=0.27]{SetOpt/ensembleMS-40} | \includegraphics[scale=0.27]{SetOpt/ensembleMS-40} | 
| \includegraphics[scale=0.27]{SetOpt/ensemble33-40} | \includegraphics[scale=0.27]{SetOpt/ensemble33-40} | 
| \caption{Sets of NN inputs variables with $\not\!\! E_{T}$ significance $>$ 4.0 for set optimization.} | \caption{Sets of NN inputs variables with $\not\!\! E_{T}$ significance $>$ 4.0 for set optimization.} | 
| %\label{fig:variables_type2_bveto} | |
| \end{figure} | \end{figure} | 
| \clearpage | |
| \clearpage | |
| \section{\label{app:metl_opt}$\not\!\! E_{T}$ significance optimization} | \section{\label{app:metl_opt}$\not\!\! E_{T}$ significance optimization} | 
| Line 638 perform the NN variables set optimizatio | Line 636 perform the NN variables set optimizatio | 
| %\includegraphics[scale=0.27]{SetOpt/pull9-50} | %\includegraphics[scale=0.27]{SetOpt/pull9-50} | 
| %\includegraphics[scale=0.27]{SetOpt/pull9-55} | %\includegraphics[scale=0.27]{SetOpt/pull9-55} | 
| \caption{Variation of $\not\!\! E_{T}$ significance cut for Set XXXII = metl, {$H_{T}$}, topmassl, aplan, sqrts.} | \caption{Variation of $\not\!\! E_{T}$ significance cut for Set 32 = METsig, {$H_{T}$}, topmassl, aplan, Mjjtau.} | 
| %\label{fig:variables_type2_bveto} | %\label{fig:variables_type2_bveto} | 
| \end{figure} | \end{figure} | 
| \clearpage | \clearpage | 
| \section{\label{app:xsec_nocont}Cross section measurements when signal contamination is ignored} | |
| \noindent In this appendix it is shown plots of the figure of merit (Equation \ref{merit}) used to | \section{\label{app:Topo}Topological variables} | 
| perform the NN variables set optimization as described in Section \ref{sub:NN-optimization}. | |
| In this section we show distributions of the topological variables used in this analysis in order to | |
| check the agreement between data and Monte Carlo in all cases. Plots are separated into two sets: | |
| signal sample and b-veto control plots. | |
| \subsection{\label{sub:signalplots}Signal sample plots} | |
| As stated in Section \ref{sub:Results-of-the} the signal sample is the one we used to perform | |
| the measurement. The cuts here consist of $NN(\tau)>0.90$ for taus types 1 and 2, | |
| $NN(\tau)>0.95$ for taus type 3, and at least one NN b-tag. This sample contains | |
| a good amount of $t\bar{t}$ (19.7\% for types 1 and 2 and 8.6\% for type 3) as shown in Tables | |
| \ref{b_and_tau_type1_2} and \ref{b_and_tau_type_3}. Next we show the plots of | |
| the topological variables for this sample. The error bars represent the statistical uncertainties only. | |
| \begin{figure}[h] | |
| \includegraphics[scale=0.34]{CONTROLPLOTS/Std_TypeI_II/aplan} | |
| \includegraphics[scale=0.34]{CONTROLPLOTS/Std_TypeI_II/ht} | |
| \includegraphics[scale=0.34]{CONTROLPLOTS/Std_TypeIII/aplan} | |
| \includegraphics[scale=0.34]{CONTROLPLOTS/Std_TypeIII/ht} | |
| \caption{Distributions for aplanarity and $H_T$ in the signal sample for | |
| tau of Types 1 and 2 (top) and taus of Type 3 (botton). The Kolmogorov-Smirnov (KS) probabilities are shown, | |
| indicating the level of agreement.} | |
| %\label{fig:variables_type2_Std} | |
| \end{figure} | |
| \newpage | |
| \begin{figure}[t] | |
| \includegraphics[scale=0.34]{CONTROLPLOTS/Std_TypeI_II/cent} | |
| \includegraphics[scale=0.34]{CONTROLPLOTS/Std_TypeI_II/spher} | |
| \includegraphics[scale=0.34]{CONTROLPLOTS/Std_TypeIII/cent} | |
| \includegraphics[scale=0.34]{CONTROLPLOTS/Std_TypeIII/spher} | |
| \caption{Distributions for centrality and sphericity in the signal sample for | |
| tau of Types 1 and 2 (top) and taus of Type 3 (botton). The Kolmogorov-Smirnov (KS) probabilities are shown, | |
| indicating the level of agreement.} | |
| %\label{fig:variables_type2_Std} | |
| \end{figure} | |
| \begin{figure}[b] | |
| \includegraphics[scale=0.34]{CONTROLPLOTS/Std_TypeI_II/sqrts} | |
| \includegraphics[scale=0.34]{CONTROLPLOTS/Std_TypeI_II/costhetastar} | |
| \includegraphics[scale=0.34]{CONTROLPLOTS/Std_TypeIII/sqrts} | |
| \includegraphics[scale=0.34]{CONTROLPLOTS/Std_TypeIII/costhetastar} | |
| \caption{Distributions for $M_{jj\tau}$ and $cos(\theta^{*})$ in the signal sample for | |
| tau of Types 1 and 2 (top) and taus of Type 3 (botton). The Kolmogorov-Smirnov (KS) probabilities are shown, | |
| indicating the level of agreement.} | |
| %\label{fig:variables_type2_Std} | |
| \end{figure} | |
| \begin{figure}[t] | |
| \includegraphics[scale=0.34]{CONTROLPLOTS/Std_TypeI_II/metl} | |
| \includegraphics[scale=0.34]{CONTROLPLOTS/Std_TypeI_II/met} | |
| \includegraphics[scale=0.34]{CONTROLPLOTS/Std_TypeIII/metl} | |
| \includegraphics[scale=0.34]{CONTROLPLOTS/Std_TypeIII/met} | |
| \caption{Distributions for \met and $\not\!\! E_{T}$ significance significance in the signal sample for | |
| tau of Types 1 and 2 (top) and taus of Type 3 (botton). The Kolmogorov-Smirnov (KS) probabilities are shown, | |
| indicating the level of agreement.} | |
| %\label{fig:variables_type2_Std} | |
| \end{figure} | |
| \clearpage | |
| \subsection{\label{app:signalplots}b-veto control sample plots} | |
| The b-veto sample is the one used to test our QCD modelling \ref{sub:Results-of-the}. As it requires no | |
| NN b-tags it is QCD-dominated and has a tiny amount of $t\bar{t}$ (1.9\% for types 1 and 2 and 0.7\% for type 3) | |
| as shown in Tables \ref{bveto_type1_2} and \ref{b_veto_type_3}. It consists of an ideal sample to make sure | |
| that the QCD modelling works and can be used in the measurement. Next we show the plots of | |
| the topological variables for this sample. The error bars represent the statistical uncertainties only. | |
| \begin{figure}[h] | |
| \includegraphics[scale=0.34]{CONTROLPLOTS/bveto_TypeI_II/aplan} | |
| \includegraphics[scale=0.34]{CONTROLPLOTS/bveto_TypeI_II/ht} | |
| \includegraphics[scale=0.34]{CONTROLPLOTS/bveto_TypeIII/aplan} | |
| \includegraphics[scale=0.34]{CONTROLPLOTS/bveto_TypeIII/ht} | |
| \caption{Distributions for aplanarity and $H_T$ in the $b$-veto sample for | |
| tau of Types 1 and 2 (top) and taus of Type 3 (botton). The Kolmogorov-Smirnov (KS) probabilities are shown, | |
| indicating the level of agreement.} | |
| %\label{fig:variables_type2_bveto} | |
| \end{figure} | |
| \newpage | |
| \begin{figure}[t] | |
| \includegraphics[scale=0.34]{CONTROLPLOTS/bveto_TypeI_II/cent} | |
| \includegraphics[scale=0.34]{CONTROLPLOTS/bveto_TypeI_II/spher} | |
| \includegraphics[scale=0.34]{CONTROLPLOTS/bveto_TypeIII/cent} | |
| \includegraphics[scale=0.34]{CONTROLPLOTS/bveto_TypeIII/spher} | |
| \caption{Distributions for centrality and sphericity in the $b$-veto sample for | |
| tau of Types 1 and 2 (top) and taus of Type 3 (botton). The Kolmogorov-Smirnov (KS) probabilities are shown, | |
| indicating the level of agreement.} | |
| %\label{fig:variables_type2_bveto} | |
| \end{figure} | |
| \begin{figure}[b] | |
| \includegraphics[scale=0.34]{CONTROLPLOTS/bveto_TypeI_II/sqrts} | |
| \includegraphics[scale=0.34]{CONTROLPLOTS/bveto_TypeI_II/costhetastar} | |
| \includegraphics[scale=0.34]{CONTROLPLOTS/bveto_TypeIII/sqrts} | |
| \includegraphics[scale=0.34]{CONTROLPLOTS/bveto_TypeIII/costhetastar} | |
| \caption{Distributions for $M_{jj\tau}$ and $cos(\theta^{*})$ in the $b$-veto sample for | |
| tau of Types 1 and 2 (top) and taus of Type 3 (botton). The Kolmogorov-Smirnov (KS) probabilities are shown, | |
| indicating the level of agreement.} | |
| %\label{fig:variables_type2_bveto} | |
| \end{figure} | |
| \begin{figure}[t] | |
| \includegraphics[scale=0.34]{CONTROLPLOTS/bveto_TypeI_II/metl} | |
| \includegraphics[scale=0.34]{CONTROLPLOTS/bveto_TypeI_II/met} | |
| \includegraphics[scale=0.34]{CONTROLPLOTS/bveto_TypeIII/metl} | |
| \includegraphics[scale=0.34]{CONTROLPLOTS/bveto_TypeIII/met} | |
| \caption{Distributions for \met and $\not\!\! E_{T}$ significance significance in the $b$-veto sample for | |
| tau of Types 1 and 2 (top) and taus of Type 3 (botton). The Kolmogorov-Smirnov (KS) probabilities are shown, | |
| indicating the level of agreement.} | |
| %\label{fig:variables_type2_bveto} | |
| \end{figure} | |
| \clearpage | |
| \section{\label{app:xsec_nocont}Cross measurement without accounting for signal contamination in the background sample.} | |
| \noindent In this appendix we show results of cross section measurements for both NNelec $>$ 0.9 and no NNelec cut | |
| applied when the signal contamination in the loose-tight tau region is not taken into account. They serve as a | |
| complement to the discussion presented in Section \ref{sub:xsect}. | |
| \subsection{\label{sub:xsectA}Results for Set = metl, {$H_{T}$}, topmassl, aplan, sqrts, metl $>$ 4.0, lumi = 4951.86/pb, VC jets and | \subsection{\label{sub:xsectA}Results for Set = METsig, {$H_{T}$}, topmassl, aplan, Mjjtau, METsig $>$ 4.0, lumi = 4951.86/pb, VC jets and | 
| NNelec $>$ 0.9} | NNelec $>$ 0.9} | 
| Table below summarizes the number of events in each channel after final selection. | Table below summarizes the number of events in each channel after final selection. | 
| Line 752 Without taking into account the signal c | Line 887 Without taking into account the signal c | 
| \clearpage | \clearpage | 
| \subsection{\label{sub:xsectA}Results for Set = metl, {$H_{T}$}, topmassl, aplan, sqrts, metl $>$ 4.0, lumi = 4951.86/pb, VC jets and no NNelec cut} | \subsection{\label{sub:xsectA}Results for Set = Set = METsig, {$H_{T}$}, topmassl, aplan, Mjjtau, METsig $>$ 4.0, lumi = 4951.86/pb, VC jets and no NNelec cut} | 
| Table below summarizes the number of events in each channel after final selection. | Table below summarizes the number of events in each channel after final selection. |