5 |
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$t\bar{t}$ analysis. We select events with two opposite sign isolated |
6 |
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leptons ($ee$, $e\mu$, or $\mu\mu$); one of the leptons must |
7 |
|
have $P_T > 20$ GeV, |
8 |
< |
the other one must have $P_T > 10$ GeV\footnote{In case of events with |
8 |
> |
the other one must have $P_T > 10$ GeV. In case of events with |
9 |
|
more than two such leptons, we select the pair that maximizes the scalar |
10 |
< |
sum of lepton $P_T$'s.}; |
11 |
< |
there must be two JPT |
10 |
> |
sum of lepton $P_T$'s. |
11 |
> |
There must be two JPT |
12 |
|
jets of $P_T > 30$ GeV and $|\eta| < 2.5$; the scalar sum of the |
13 |
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$P_T$ of all such jets must exceed 100 GeV; jets must pass |
14 |
|
{\tt caloJetId} and be separated by $\Delta R >$ 0.4 from the |
15 |
< |
any lepton passing the selection described below. |
16 |
< |
{\color{red}The 11 pb iteration only does this for the two selected |
17 |
< |
leptons.} |
18 |
< |
Finally $\met > 50$ GeV |
19 |
< |
(we use tcMet). More details are given in the subsections below. |
15 |
> |
two selected leptons. |
16 |
> |
%%%TO BE REPLACED |
17 |
> |
%{\color{red}The 11 pb iteration only does this for the two selected |
18 |
> |
%leptons.} |
19 |
> |
% |
20 |
> |
Finally $\met > 50$ GeV (we use tcMet). More details are given in the subsections below. |
21 |
|
|
22 |
|
\subsection{Event Cleanup} |
23 |
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\label{sec:cleanup} |