Perturbative Expansion in the Galilean Invariant Spin One-Half Chern-Simons Field Theory
C. R. Hagen
Abstract
A Galilean Chern-Simons field theory is formulated for the case of two interacting spin-1/2 fields of distinct masses M and M'. A method for the construction of states containing N particles of mass M and N' particles of mass M' is given which is subsequently used to display equivalence to the spin-1/2 Aharonov-Bohm effect in the N = N' =1 sector of the model. The latter is then studied in perturbation theory to determine whether there are divergences in the fourth order (one loop) diagram. It is found that the contribution of that order is finite (and vanishing) for the case of parallel spin projections while the antiparallel case displays divergences which are known to characterize the spin zero case in field theory as well as in quantum mechanics.
Create a lesson
Related papers
Random wave chaos on momentum-fractionated microstate geometries
Vladan Djukić, Mihailo Čubrović
Microscopic entropy of regular BTZ black holes in 3d Lovelock gravity at all orders
Hikmet Özşahin
From Lyapunov Growth to Weak Quantum Chaos
Sašo Grozdanov, Tomaž Prosen
Area metric gravity à la Plebanski: connection, curvature and dynamics
Bianca Dittrich
Higher Dressing and Shift-Invariance in 4D Topological BF Theory
J. François, L. Ravera
New topological phase transitions in κ-deformed ϕ4 lattice models
Adith A, A. Bhagwat