A quantum circuit simulation of the next-to-leading-order Lindblad equation for bottomonium in the quark-gluon plasma matches QuTiP and finds a small color-octet contribution to the Upsilon(1S) survival probability.
First steps towards the quantum simulation of jet quenching
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abstract
The leading order $\alpha_s$ effect in jet quenching corresponds to the broadening of the jet's transverse momentum, due to the multiple interactions with the underlying medium. A complete understanding of momentum broadening is critical for the success of jet quenching phenomenology. In this talk, we introduce a strategy to quantum simulate single particle momentum broadening in a QCD background medium. We argue that it is, in principle, possible to extract the jet quenching parameter $\hat{q}$ from such an algorithm. More importantly, this corresponds to the first step towards simulating full medium induced parton showers, which is far beyond the capabilities of classical computers.
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Quantum simulation of bottomonium dynamics in the quark-gluon plasma via the Lindblad equation
A quantum circuit simulation of the next-to-leading-order Lindblad equation for bottomonium in the quark-gluon plasma matches QuTiP and finds a small color-octet contribution to the Upsilon(1S) survival probability.