This report addresses topics and questions of common interest in the fields of ultra-cold
gases and nuclear physics in the context of the BCS–BEC crossover. By this crossover, the …

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 …

The present understanding of the structure of the Hoyle state in C 12 is reviewed. Most of the
theoretical approaches to the Hoyle state are shortly summarized. The corresponding results …

An analysis of six different sets of experimental data indicates that infinite, neutron-proton
symmetric, neutral nuclear matter has a critical temperature of T c= 17.9±0.4 MeV, a critical …

In this review are summarized about 20 years of theoretical research with applications in the
field of many-body physics for strongly correlated fermions with Rowe's equation of motion …

We study the superfluid critical temperature in a two-band attractive Fermi system with strong
pairing fluctuations associated with both interband and intraband couplings. We focus …

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 onset of the superfluid phase in high-density neutron matter is studied within the BCS
framework with two-and three-body forces. When including the strong correlation effects in …

A comparative study is made of the momentum-space structure of dineutrons in the
Borromean nuclei Li 11, He 6, C 22, and B 19. The ground-state properties of these nuclei …

We discuss the hadron–quark crossover accompanied by the formation of Cooper triples
(three-body counterpart of Cooper pairs) by analogy with the Bose–Einstein condensate to …