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T-odd Parton Distribution Functions and Azimuthal Anisotropy at High Transverse Momentum in $p$-$p$ and $p$-$A$ Collisions
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abstract
Various azimuthal anisotropies ($v_1, v_2, v_3, v_4$), at high transverse momentum (high-$p_T$), are shown to arise from the asymmetric scattering of transverse polarized quarks and gluons, arising from unpolarized nucleons (the Boer-Mulders' effect) and resulting in unpolarized hadrons (the Collins effect). Combined with the asymmetric scattering of partons from polarization independent but transverse momentum dependent (TMD) distributions, we obtain a possible mechanism to understand the azimuthal anisotropy of hadrons at large transverse momentum observed in $p$-$p$ collisions. Constraining the ratio of polarization dependent TMD distributions to polarization independent distributions by comparing with the data from $p$-$p$ collisions, we find that scaling the acquired transverse momentum of the initial state partons from the proton, due to prescattering before the hard interaction, with the length of the nucleus ($k_\perp^2 \propto A^{1/3}$), straightforwardly yields the azimuthal anisotropy at high $p_T$ in $p$-$A$ collisions.
Forward citations
Cited by 2 Pith papers
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Directed flow from parton spin-orbit coupling in $pp$ and $pA$ collisions
Gluon spin-orbit coupling in a fast proton generates a cos(phi) two-particle azimuthal correlation, offering a direct experimental probe of the proton's double helicity parton distributions.
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Jets: Hard-soft correlation -- Theory overview
A review of recent theoretical progress on hard-soft correlations in jets, covering kinetic theory, x-scape-gim, TMD-based anisotropies, and color fluctuations.
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