| Away-side yield comparison between measured Ds-h and PYTHIA8 predictions ($p_{T}^{assoc}$ > 0.3 GeV/c)
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| Away-side width comparison between measured Ds-h and PYTHIA8 predictions ($p_{T}^{assoc}$ > 0.3 GeV/c)
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| Near-side width comparison between measured Ds-h and PYTHIA8 predictions ($p_{T}^{assoc}$ > 0.3 GeV/c)
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| Comparison between measured Ds-h and D+-h azimuthal correlation distributions (5 < $p_{T}$ < 8 GeV/c)
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| Comparison between measured Ds-h and D+-h azimuthal correlation distributions (3 < $p_{T}$ < 5 GeV/c)
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| Comparison between measured Ds-h azimuthal correlation distribution and PYTHIA8 predictions (1 < $p_{T}$ < 3 GeV/c)
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| Comparison between measured Ds-h azimuthal correlation distribution and PYTHIA8 predictions (3 < $p_{T}$ < 5 GeV/c)
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| Comparison between measured Ds-h azimuthal correlation distribution and PYTHIA8 predictions (5 < $p_{T}$ < 8 GeV/c)
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| Comparison between measured Ds-h azimuthal correlation distribution and PYTHIA8 predictions (8 < $p_{T}$ < 16 GeV/c)
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| Comparison between measured Ds-h azimuthal correlation distribution and PYTHIA8 predictions (16 < $p_{T}$ < 36 GeV/c)
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| Cut variation of $\Lambda_c$ in pt 2 to 3 geV/c in pp collisions at 13.6 TeV
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| p-$\Lambda_c$ inv.mass in mixed-event in pp collisions at 13.6 TeV
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| p-$\Lambda_c$ inv.mass in same-event in pp collisions at 13.6 TeV
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| p-$\Lambda_c$ raw correlation function compare with models included strong interaction in pp collisions at 13.6 TeV
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| p-$\Lambda_c$ raw correlation function fit decomposition in pp collisions at 13.6 TeV
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| p-$\Lambda_c$ raw correlation function fit with coulomb only and background in pp collisions at 13.6 TeV
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| Ds1+/Ds ratio, (BR factorized)
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| Ds2*/Ds ratio, (BR factorized)
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| Ds2*/Ds ratio
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| Ds1+/Ds ratio
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| Ds, Ds1+ and Ds2* cross section
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| Ds1+ Invariant Mass 2<pT<3 GeV/c
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| Ds1+ Invariant Mass 6<pT<8 GeV/c
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| Ds1+ Invariant Mass 12<pT<24 GeV/c
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| Ds2* Invariant Mass 12<pT<24 GeV/c
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| Ds2* Invariant Mass 6<pT<8 GeV/c
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| Ds2* Invariant Mass 2<pT<4 GeV/c
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| Ratio of EECs in p-Pb and pp in different jet pT bins (20-27, 27-40, 40-80 GeV)
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| Longitudinal polarization ($P_{\rm z}$) of prompt and non-prompt $\Lambda_{\rm c}^+$ and $\bar{\Lambda}_{\rm c}^-$ in pp collisions at $\sqrt{s} = 13.6$ TeV (production frame)
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| Longitudinal polarization as a function of non-prompt fraction for $\Lambda_{\rm c}^+$ and $\bar{\Lambda}_{\rm c}^-$ in pp collisions at $\sqrt{s} = 13.6$ TeV (production frame)
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| Simultaneous fit of $\Lambda_{\rm c}^+$ and $\bar{\Lambda}_{\rm c}^-$ corrected yield as a function of $\cos(\theta^*)$ in pp collisions at $\sqrt{s} = 13.6$ TeV (production frame)
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| Invariant mass distribution of ${\rm pK}\pi$ triplets in pp collisions at $\sqrt{s} = 13.6$ TeV in two intervals of $\cos(\theta^*)$ (production frame)
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| Ratio of the $R_{\rm T}$-dependent per-event D$^0$ meson yields to the $R_{\rm T}$-integrated yield in the toward region
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| Acceptance-times-efficiency correction of D$^0$ mesons as a function of the $R_{\rm T}$
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| Invariant mass distribution of D$^0$ candidates with 12 < $p_{\rm T}^{\rm D^0}$ < 18 GeV/$c$ in $R_{\rm T}$ > 1 events
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| Invariant mass distribution of D$^0$ candidates with 5 < $p_{\rm T}^{\rm D^0}$ < 8 GeV/$c$ in $R_{\rm T}$ < 1 events
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| Inclusive charged-particle jet invariant yield in pp collisions at \sqrt{s} = 13.6 TeV
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| Inclusive charged-particle jet cross section in pp collisions at \sqrt{s} = 13.6 TeV
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| Ratio of EEC distributions for charged jets in pp and p-Pb collisions -- 20-40 GeV/c with fit
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| p/pi in jets 3 curves
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| K/pi in jets 3 curves
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| pi spectra inclusive, jet+UE, UE
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| pi spectra inclusive and jet+UE
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| pi spectra inclusive only
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| p/pi in jets all 5 curves
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| K/pi in jets all 5 curves
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| p in jets spectra
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| K in jets spectra
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| pi in jets spectra - all four curves
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| nSD of D0-tagged jets in pp at 13.6 TeV for jet pT 15-30 GeV/c compared with Run 2 results
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| Rg of D0-tagged jets in pp at 13.6 TeV for jet pT 15-30 GeV/c compared with Run 2 results
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| nSD of D0-tagged jets in pp at 13.6 TeV for jet pT 30-50 GeV/c
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| nSD of D0-tagged jets in pp at 13.6 TeV for jet pT 15-30 GeV/c
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| Rg of D0-tagged jets in pp at 13.6 TeV for jet pT 30-50 GeV/c
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| Rg of D0-tagged jets in pp at 13.6 TeV for jet pT 15-30 GeV/c
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| nSD of D0-tagged jets in pp at 13.6 TeV compared with Run 2 results
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| nSD of D0-tagged jets in pp at 13.6 TeV
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| Rg of D0-tagged jets in pp at 13.6 TeV compared with Run 2 results
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| Rg of D0-tagged jets in pp at 13.6 TeV
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| Ratio of EEC distributions for charged jets in pp and p-Pb collisions -- 20-40 GeV/c with HT calculation
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| Ratio of EEC distributions for charged jets in pp and p-Pb collisions -- 20-40 GeV/c with model+nPDF bands
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| zg of D0-tagged jets in pp at 13.6 TeV for jet pT 15-30 GeV/c compared with Run 2 results
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| $\Lambda_{\text{c}}^{+}$ fragmentation function in pp at 13.6 TeV compared with Run 2 results
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| zg of D0-tagged jets in pp at 13.6 TeV for jet pT 30-50 GeV/c
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| zg of D0-tagged jets in pp at 13.6 TeV for jet pT 15-30 GeV/c
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| zg of D0-tagged jets in pp at 13.6 TeV compared with Run 2 results
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| zg of D0-tagged jets in pp at 13.6 TeV
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| $\Lambda_{\text{c}}^{+}$ fragmentation function in pp at 13.6 TeV vs $\text{D}^{0}$
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| $\Lambda_{\text{c}}^{+}$ fragmentation function in pp at 13.6 TeV
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| Ratio of EECs in p-Pb/pp for 60-80 GeV/c jets
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| Ratio of EECs in p-Pb/pp for 40-60 GeV/c jets
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| Ratio of EECs in p-Pb/pp for 20-40 GeV/c jets
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| Fitted EEC peak heights in p-Pb
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| Fitted EEC peak positions in p-Pb
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| Fit of EECs for 60-80 GeV/c jets in p-Pb -- x (R_{L}) axis scaled by average jet pt
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| Fit of EECs for 40-60 GeV/c jets in p-Pb -- x (R_{L}) axis scaled by average jet pt
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| Fit of EECs for 20-40 GeV/c jets in p-Pb -- x (R_{L}) axis scaled by average jet pt
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| Ratio of EECs in p-Pb/pp for 60-80 GeV/c jets with varying track pT cut (150 MeV, 1 GeV, 2 GeV)
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| Ratio of EECs in p-Pb/pp for 40-60 GeV/c jets with varying track pT cut (150 MeV, 1 GeV, 2 GeV)
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| EEC distributions in p-Pb with varying track pT cut (150 MeV, 1 GeV, 2 GeV) for 60-80 GeV/c jets
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| EEC distributions in p-Pb with varying track pT cut (150 MeV, 1 GeV, 2 GeV) for 40-60 GeV/c jets
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| EEC distributions in p-Pb with varying track pT cut (150 MeV, 1 GeV, 2 GeV) for 20-40 GeV/c jets
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| Comparison of EEC distributions for charged jets in pp and p-Pb collisions -- 60-80 GeV/c
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| Comparison of EEC distributions for charged jets in pp and p-Pb collisions -- 40-60 GeV/c
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| Comparison of EEC distributions for charged jets in pp and p-Pb collisions -- 20-40 GeV/c
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| R-ratio of R=0.2/R=0.4 recoil jets as a function of pT in 13.6 TeV with PYTHIA comparison
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| R-ratio of R=0.2/R=0.4 recoil jets as a function of pT in 13.6 TeV
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| R-ratio of R=0.2/R=0.4 recoil jets as a function of pT in 13.6 TeV, just Run 3 data
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| Raw spectra of signal, reference and delta recoil vs pT for R=0.4 jets
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| Delta recoil vs pT with PYTHIA comparison for R=0.4 jets in 13.6 TeV pp collisions
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| Delta recoil vs pT with PYTHIA comparison for R=0.2 jets in 13.6 TeV pp collisions
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| Delta recoil vs pT for R=0.4 jets in 13.6 TeV pp collisions
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| Delta recoil vs pT for R=0.2 jets in 13.6 TeV pp collisions
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| Evolution of power index as a function of $\it{p}_{\rm{T}}$
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| Normalized $\it{p}_{\rm{T}}$ correlator as a function of mean $\it{p}_{\rm{T}}$ for fixed $\it{p}_{\rm{T}}$ window sliding from lower to higher $\it{p}_{\rm{T}}$
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| Normalized $\it{p}_{\rm{T}}$ correlator as a function of mean $\it{p}_{\rm{T}}$ with increasing upper limit of $\it{p}_{\rm{T}}$ windows
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| Relative uncertainties of inclusive charged-particle jet cross section in pp collisions at \sqrt{s} = 13.6 TeV
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| Comparison of Pythia8 (Monash) and EPOS models to normalized mean $\it{p}_{\rm{T}}$ correlator as charged particle multiplicity at fixed $\it{p}_{\rm{T}}$ window sliding from lower to higher $\it{p}_{\rm{T}}$
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| Comparison of Pythia8 (Monash) and EPOS models to normalized mean $\it{p}_{\rm{T}}$ correlator as charged particle multiplicity for increasing upper limit of $\it{p}_{\rm{T}}$ windows
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| Empirical power law fit to normalized $\it{p}_{\rm{T}}$ correlator as a function of charged particle multiplicity
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