Quantising the B=2 and B=3 Skyrmion systems
Niels R. Walet
Abstract
We examine the quantisation of a collective Hamiltonian for the two-baryon system derived by us in a previous paper. We show that by increasing the sophistication of the approximations we can obtain a bound state - or a resonance - not too far removed from the threshold with the quantum numbers of the deuteron. The energy of this state is shown to depend very sensitively on the parameters of the model. Subsequently we construct part of a collective Hamiltonian for the three baryon system. Large-amplitude quantum fluctuations play an important rôle in the intrinsic wave function of the ground-state, changing its symmetry from octahedral to cubic. Apart from the tetrahedron describing the minimum of the potential, we identify a ``doughnut'' and a ``pretzel'' as the most important saddle points in the potential energy surface. We show that it is likely that inclusion of fluctuations through these saddle points lead to an energy close to the triton's value.
Create a lesson
Related papers
From Axion Detection to Dark Matter Astronomy
Jae Hyeok Chang, Stefano Profumo
Spurious Singularities in Dipole Subtraction Cross Sections and their Damping with Convergence Factors
Michael H. Seymour, Andrzej Siódmok, James Whitehead
Radiative transitions of hybrid mesons
Shahriyar Jafarzade, Eric S. Swanson
DUNE Beam-Energy Dependence of Sensitivity to the Violation of the Equivalence Principle
Monjowara Khatun, Debajyoti Dutta
Modified hydrogen recombination rate due to non-Hubble redshift effects
I. V Krasnov, N. S. Nedelko
Probing the Axion--Photon--Dark Photon Interaction with LHC Mono-Photons and Fermi-LAT Gamma-Ray Lines
Chuan-Ren Chen, Takaaki Nomura, Van Que Tran