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.
Neutron stars as probes of dark matter
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abstract
Neutron Stars (NSs) are compact stellar objects that are stable solutions in General Relativity. Their internal structure is usually described using an equation of state that involves the presence of ordinary matter and its interactions. However there is now a large consensus that an elusive sector of matter in the Universe, described as dark matter, remains as yet undiscovered. In such a case, NSs should contain both, baryonic and dark matter. We argue that depending on the nature of the dark matter and in certain circumstances, the two matter components would form a mixture inside NSs that could trigger further changes, some of them observable. The very existence of NSs constrains the nature and interactions of dark matter in the Universe
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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.