A proof-of-concept framework encodes QCD in time-axial gauge into a particle-register quantum algorithm, runs tiny variational simulations on a classical cluster, and forecasts the impact of one improved EoS point on neutron star observables.
Renormalized Effective QCD Hamiltonian: Gluonic Sector
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abstract
Extending previous QCD Hamiltonian studies, we present a new renormalization procedure which generates an effective Hamiltonian for the gluon sector. The formulation is in the Coulomb gauge where the QCD Hamiltonian is renormalizable and the Gribov problem can be resolved. We utilize elements of the Glazek and Wilson regularization method but now introduce a continuous cut-off procedure which eliminates non-local counterterms. The effective Hamiltonian is then derived to second order in the strong coupling constant. The resulting renormalized Hamiltonian provides a realistic starting point for approximate many-body calculations of hadronic properties for systems with explicit gluon degrees of freedom.
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Quantum Computers will constrain the Equation of State of Neutron Stars
A proof-of-concept framework encodes QCD in time-axial gauge into a particle-register quantum algorithm, runs tiny variational simulations on a classical cluster, and forecasts the impact of one improved EoS point on neutron star observables.