Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Log inSign up
Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Blog
Job Board
Q3AS

© 2026 Aqora Quantum S.A.S.

TermsPrivacyLegal Notice

arXiv:1206.1207 · The European Physical Journal A

Causality bounds for neutron-proton scattering

Serdar Elhatisari, Dean Lee

Published Aug 1, 2012• 5 citations
arXivHTMLPDF
DOI
10.1140/epja/i2012-12110-x

Related papers

Specific quantum effects in low energy neutron scattering from protons

E. Karlsson

Advances in quantum chemistry•Jan 1, 2024•2 citations

An Upper Bound on the Neutron-Deuteron S2 Scattering Length

L. M. Delves, James N. Lyness, John M. Blatt

Physical Review Letters•May 11, 1964•13 citations

Upper bound on the neutron-deuteron doublet scattering length

Larry Spruch, Leonard Rosenberg

Nuclear Physics•Jun 1, 1960•31 citations

Entanglement in few-nucleon scattering events

Tanja Kirchner, Wael Elkamhawy, H.‐W. Hammer

We investigate the spin entanglement in few-nucleon scattering processes involving nucleons and deuterons. For this purpose, we consider the entanglement power introduced by Beane et al. We analyze different entanglement entropies as a basis to define the entanglement power of the strong interaction and calculate the corresponding entanglement powers for proton-neutron, neutron-deuteron, proton-deuteron, and deuteron-deuteron scattering. For the latter two processes, we also take into account the modification from the Coulomb interaction. In contrast to proton-neutron scattering, no universal low-energy features are evident in the spin entanglement in neutron-deuteron, proton-deuteron, and deuteron-deuteron scattering.

arXiv:2312.14484•Dec 22, 2023•0 citations

A causal theory for neutron diffraction

Harold Aspden

Physics Letters A•Dec 1, 1986•0 citations

Entanglement in Few-Nucleon Scattering Events

Tanja Kirchner, Wael Elkamhawy, H.‐W. Hammer

Abstract We investigate the spin entanglement in few-nucleon scattering processes involving nucleons and deuterons. For this purpose, we consider the entanglement power introduced by Beane et al. We analyze different entanglement entropies as a basis to define the entanglement power of the strong interaction and calculate the corresponding entanglement powers for proton–neutron, neutron–deuteron, proton–deuteron, and deuteron–deuteron scattering. For the latter two processes, we also take into account the modification from the Coulomb interaction. In contrast to proton–neutron scattering, no universal low-energy features are evident in the spin entanglement in neutron–deuteron, proton–deuteron, and deuteron–deuteron scattering.

Few-Body Systems•Mar 22, 2024•13 citations
We investigate the spin entanglement in few-nucleon scattering processes involving nucleons and deuterons. For this purpose, we consider the entanglement power introduced by Beane et al. We analyze different entanglement entropies as a basis to define the entanglement power of the strong interaction and calculate the corresponding entanglement powers for proton-neutron, neutron-deuteron, proton-deuteron, and deuteron-deuteron scattering. For the latter two processes, we also take into account the modification from the Coulomb interaction. In contrast to proton-neutron scattering, no universal low-energy features are evident in the spin entanglement in neutron-deuteron, proton-deuteron, and deuteron-deuteron scattering.
Abstract We investigate the spin entanglement in few-nucleon scattering processes involving nucleons and deuterons. For this purpose, we consider the entanglement power introduced by Beane et al. We analyze different entanglement entropies as a basis to define the entanglement power of the strong interaction and calculate the corresponding entanglement powers for proton–neutron, neutron–deuteron, proton–deuteron, and deuteron–deuteron scattering. For the latter two processes, we also take into account the modification from the Coulomb interaction. In contrast to proton–neutron scattering, no universal low-energy features are evident in the spin entanglement in neutron–deuteron, proton–deuteron, and deuteron–deuteron scattering.