Nonrelativistic Fermions in Magnetic Fields: a Quantum Field Theory Approach
O. Espinosa, J. Gamboa, S. Lepe, F. Mendez
Abstract
The statistical mechanics of nonrelativistic fermions in a constant magnetic field is considered from the quantum field theory point of view. The fermionic determinant is computed using a general procedure that contains all possible regularizations. The nonrelativistic grand-potential can be expressed in terms polylogarithm functions, whereas the partition function in 2+1 dimensions and vanishing chemical potential can be compactly written in terms of the Dedekind eta function. The strong and weak magnetic fields limits are easily studied in the latter case by using the duality properties of the Dedekind function.
Create a lesson
Related papers
Charged Deformation of a Hairy Black Brane: Perturbative Solution and Thermodynamics
Sangheon Yun
A critical coupling for the magnetic instability of holographic SU(2) plasmas
Migael Strydom
Bondi Four-Momentum Balance in Quantum NSF Classical matching, DKL supermomentum, and quantum energy redistribution
Carlos Kozameh, Gerardo DEpaola
PINNs for N=2* holography
Alex Buchel
Haagerup conformal field theory at central charge eight
Tzu-Chen Huang
Characteristic Modes of Non-minimally Coupled Thick Branes
Jing-Xin Gong, Heng Guo, Yong-Tao Lu et al.