An approach to classical quantum field theory based on the geometry of locally conformally flat space-time
arXiv:1709.00067 · doi:10.1155/2017/8070462
Abstract
This paper gives an introduction to certain classical physical theories described in the context of locally Minkowskian causal structures (LMCSs). For simplicity of exposition we consider LMCSs which have locally Euclidean topology (i.e. are manifolds) and hence are Möbius structures. We describe natural principal bundle structures associated with Möbius structures. Fermion fields are associated with sections of vector bundles associated with the principal bundles while interaction fields (bosons) are associated with endomorphisms of the space of fermion fields. Classical quantum field theory (the Dirac equation and Maxwell's equations) is obtained by considering representations of the structure group of a principal bundle associated with a given Möbius structure where , while being a subset of , is also isomorphic to . The analysis requires the use of an intertwining operator between the action of on and the adjoint action action of on and it is shown that the Feynman slash operator, in the chiral representation for the Dirac gamma matrices, has this intertwining property.
arXiv commentPublished version with minor correction (SU(2,2)->U(2,2))
References in corpus (10)
- Quantum Gravity: a Progress Report
- Making the Case for Conformal Gravity
- A class of elementary particle models without any adjustable real parameters
- On the Advancements of Conformal Transformations and their Associated Symmetries in Geometry and Theoretical Physics
- Cannon-Thurston Maps for Pared Manifolds of Bounded Geometry
- Electrodynamics and spacetime geometry I: Foundations
- Background Free Quantum Gravity based on Conformal Gravity and Conformal Field Theory on M^4
- Axiomatic conformal theory in dimensions >2 and AdS/CT correspondence
- Conformal geometry of the supercotangent and spinor bundles
- Schwarzschild Solution on the Brane
Cited by in corpus (4)
- Second quantized quantum field theory based on invariance properties of locally conformally flat space-times
- Computation of the masses of the elementary particles
- Computation of the one-loop spectral QCD running coupling using covariant spectral regularization
- Computation of the leading order contributions to the Lamb shift for the H atom using spectral regularization