Nuclear matter and finite nuclei exhibit the property of superfluidity by forming Cooper pairs.
We review the microscopic theories and methods that are being employed to understand the …

Abstract The\varLambda N Λ N and\varSigma N Σ N interactions are considered at next-to-
leading order in SU (3) chiral effective field theory. Different options for the low-energy …

Neutron matter is an ideal laboratory for nuclear interactions derived from chiral effective
field theory since all contributions are predicted up to next-to-next-to-next-to-leading order …

In recent years, new astrophysical observations have provided a wealth of exciting input for
nuclear physics. For example, the observations of two-solar-mass neutron stars put strong …

The in-medium properties of a ΞN Ξ N potential derived within chiral effective field theory up
to next-to-leading order are investigated. The considered ΞN Ξ N interaction includes the …

Brueckner theory is used to investigate the in-medium properties of a Λ Λ-hyperon in nuclear
and neutron matter, based on hyperon-nucleon interactions derived within SU (3) chiral …

After nearly sixty years since its introduction, the phenomenological bell-shape Perey–Buck
spatial nonlocality in the optical model potential for nucleon–nucleus scattering has …

We carry out nonperturbative calculations of the single-particle excitation spectrum in
strongly interacting neutron matter. These are microscopic quantum Monte Carlo …

We show that the strong spin-triplet neutron-proton interaction causes polaronic protons to
occur in neutron matter at subnuclear densities and nonzero temperatures. As the neutron …

The static-response function of strongly interacting neutron matter contains crucial
information on this interacting many-particle system, going beyond ground-state properties …