DOI: 10.17182/hepdata.153521.v1/t1
title: "Table of contents" of "Measurement of $t\bar{t}$ production in association with additional $b$-jets in the $e\mu$ final state in proton-proton collisions at $\sqrt{s}$=13 TeV with the ATLAS detector"

description: - - - - - - - - Overview of HEPData Record - - - - - - - - <br><br> ATLAS public webpage of paper: link<br><br> <b>Fiducial phase space definitions:</b><br> <i>Particle level:</i> Common: N E = N MU = 1, CHARGE E != CHARGE MU NJETS &gt;= 2, NBJETS &gt;= 2 NJETS &gt;= 3, NBJETS &gt;= 3 NJETS &gt;= 4, NBJETS &gt;= 3 NJETS &gt;= 4, NBJETS &gt;= 4 NJETS &gt;= 5, NBJETS &gt;= 4 <br> <b>Objects definitions:</b> LEP PT &gt; 28 GeV, ABS ETARAP LEP &lt; 2.5 JET PT &gt; 25 GeV, ABS ETARAP JET &lt; 2.5, R JET = 0.4 BJET: &gt;=1 b-hadron with PT &gt; 5 GeV is associated to the jet via ghost matching <br> <b>Particle level:</b><br> <br>Data from Table 06: Fiducial xsec results <br><br> 1D:<br> Data bootstraps: Data from Figure 09: Bootstrap $N_{b-jets}$ in $≥2b$ Data from Figure 10a: Bootstrap $N_{b-jets}$ in $≥3b$ Data from Figure 10b: Bootstrap $N_{c/l-jets}$ in $≥3b$ Data from Figure 10c: Bootstrap $H_{T}^{had}$ in $≥3b$ Data from Figure 10d: Bootstrap $\Delta R_{avg}^{bb}$ in $≥3b$ Data from Figure 11a: Bootstrap $p_{T}(b_{1})$ in $≥3b$ Data from Figure 11b: Bootstrap $p_{T}(b_{2})$ in $≥3b$ Data from Figure 11c: Bootstrap $p_{T}(b_{1}^{top})$ in $≥3b$ Data from Figure 11d: Bootstrap $p_{T}(b_{2}^{top})$ in $≥3b$ Data from Figure 12a: Bootstrap $p_{T}(b_{3})$ in $≥3b$ Data from Figure 12b: Bootstrap $p_{T}(b_{1}^{add})$ in $≥3b$ Data from Figure 13a: Bootstrap $m(b_{1}b_{2})$ in $≥3b$ Data from Figure 13b: Bootstrap $p_{T}(b_{1}b_{2})$ in $≥3b$ Data from Figure 13c: Bootstrap $m(bb^{top})$ in $≥3b$ Data from Figure 13d: Bootstrap $p_{T}(bb^{top})$ in $≥3b$ Data from Figure 14a: Bootstrap $\Delta R(e\mu bb^{top}, b_{1}^{add})$ in $≥3b$ Data from Figure 14b: Bootstrap $\Delta R(e\mu bb^{top}, l/c-jet_{1})$ in $≥3b≥1l/c$ Data from Figure 14c: Bootstrap $p_{T}(l/c-jet_{1})$ in $≥3b≥1l/c$ Data from Figure 14d: Bootstrap $p_{T}(l/c-jet_{1})-p_{T}(b_{1}^{add})$ in $≥3b≥1l/c$ Data from Figure 15a: Bootstrap $m(bb^{min\Delta R})$ in $≥4b$ Data from Figure 15b: Bootstrap $p_{T}(bb^{min\Delta R})$ in $≥4b$ Data from Figure 15c: Bootstrap $m(bb^{add})$ in $≥4b$ Data from Figure 15d: Bootstrap $p_{T}(bb^{add})$ in $≥4b$ Data from Figure 01a (aux): Bootstrap $|\eta(b_{3})|$ in $≥3b$ Data from Figure 01b (aux): Bootstrap $|\eta(b_{1}^{add})|$ in $≥3b$ Data from Figure 02a (aux): Bootstrap $\Delta R(b_{1}b_{2})$ in $≥3b$ Data from Figure 02b (aux): Bootstrap $m(e\mu bb^{top})$ in $≥3b$ Data from Figure 03a (aux): Bootstrap $|\eta(l/c-jet_{1})|$ in $≥3b≥1l/c$ Data from Figure 03b (aux): Bootstrap $\Delta\eta_{max}^{jj}$ in $≥3b$ Data from Figure 04a (aux): Bootstrap...
description: This paper presents measurements of top-antitop quark pair $t\bar{t}$ production in association with additional $b$-jets. The analysis utilises 140fb$^{-1}$ of proton--proton collision data collected with the ATLAS detector at the Large Hadron Collider at a centre-of-mass energy of 13TeV. Fiducial cross-sections are extracted in a final state featuring one electron and one muon, with at least three or four $b$-jets. Results are presented at the particle level for both integrated cross-sections and normalised differential cross-sections, as functions of global event properties, jet kinematics, and $b$-jet pair properties. Observable quantities characterising $b$-jets originating from the top quark decay and additional $b$-jets are also measured at the particle level, after correcting for detector effects. The measured integrated fiducial cross-sections are consistent with $t\bar{t}b\bar{b}$ predictions from various next-to-leading-order matrix element calculations matched to a parton shower within the uncertainties of the predictions. State-of-the-art theoretical predictions are compared with the differential measurements; none of them simultaneously describes all observables. Differences between any two predictions are smaller than the measurement uncertainties for most observables.