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Quantum Monte Carlo in Configuration Space with Three-Nucleon Forces

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arxiv 2203.16167 v3 pith:OCFF5MJE submitted 2022-03-30 nucl-th

Quantum Monte Carlo in Configuration Space with Three-Nucleon Forces

classification nucl-th
keywords carlocimcinteractionsmethodmonteneutronsystemsallowing
verification ladder T0 review T1 audit T2 compute T3 formal T4 reserved
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Neutron matter, through its connection to neutron stars as well as systems like cold atom gases, is one of the most interesting yet computationally accessible systems in nuclear physics. The Configuration-Interaction Monte Carlo (CIMC) method is a stochastic many-body technique allowing to tackle strongly coupled systems. In contrast to other Quantum Monte Carlo methods employed in nuclear physics, the CIMC method can be formulated directly in momentum space allowing for an efficient use of non-local interactions. In this work we extend CIMC method to include three-nucleon interactions through the normal-ordered two-body approximation. We present results for the equation of state of neutron matter in line with other many-body calculations that employ low resolution chiral interactions, and provide predictions for the momentum distribution and the static structure factor.

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    nucl-th 2026-07 conditional novelty 6.0

    A parametric-matrix-model emulator reproduces IMSRG nuclear-matter energies with calibrated conformal-prediction error bars, enabling Bayesian fitting of three-nucleon couplings to saturation properties.