Massive spinning particles and the geometry of null curves
Armen Nersessian, Eduardo Ramos
Abstract
We study the simplest geometrical particle model associated with null paths in four-dimensional Minkowski space-time. The action is given by the pseudo-arclength of the particle worldline. We show that the reduced classical phase space of this system coincides with that of a massive spinning particle of spin s=α2/M, where M is the particle mass, and α is the coupling constant in front of the action. Consistency of the associated quantum theory requires the spin s to be an integer or half integer number, thus implying a quantization condition on the physical mass M of the particle. Then, standard quantization techniques show that the corresponding Hilbert spaces are solution spaces of the standard relativistic massive wave equations. Therefore this geometrical particle model provides us with an unified description of Dirac fermions (s=1/2) and massive higher spin fields.
Create a lesson
Related papers
Regular-Zero Drinfeld-Sokolov Charges in Doubled Four-Dimensional Chern-Simons Theory
Wentao Zeng, Yifan He, Xian Wu
A first order nonabelian antisymmetric tensor model with hidden higher symmetry
Peter D. Jarvis, Jean Thierry-Mieg
Retarded Green Function For Bopp--Podolsky Electrodynamics in Four-Dimensional De Sitter Spacetime
Wei Fan, Xiao Yan Chew
Relativistic Covariance from Hamiltonian Hydrodynamics in the Chiral Limit
ZiHao Liu, Mei Huang
Symmetric Dual Breather Modes as a Dynamic Origin of Tiny Particle Masses
Yoritaka Iwata, Yasuhiro Takei
Random wave chaos on momentum-fractionated microstate geometries
Vladan Djukić, Mihailo Čubrović