No Drama Quantum Theory?
arXiv:1006.2578 · doi:10.1142/S0219749911006909
Abstract
This work builds on the following result of a previous article (quant-ph/0509044): the matter field can be naturally eliminated from the equations of the scalar electrodynamics (the Klein-Gordon-Maxwell electrodynamics) in the unitary gauge. The resulting equations describe independent dynamics of the electromagnetic field (they form a closed system of partial differential equations). An improved derivation of this surprising result is offered in the current work. It is also shown that for this system of equations, a generalized Carleman linearization (Carleman embedding) procedure generates a system of linear equations in the Hilbert space, which looks like a second-quantized theory and is equivalent to the original nonlinear system on the set of solutions of the latter. Thus, the relevant local realistic model can be embedded into a quantum field theory. This model is equivalent to a well-established model - the scalar electrodynamics, so it correctly describes a large body of experimental data. Although it does not describe the electronic spin and possibly some other experimental facts, it may be of great interest as a "no drama quantum theory", as simple (in principle) as classical electrodynamics. Possible issues with the Bell theorem are discussed.
4 pages
References in corpus (4)
- Research on Hidden Variable Theories: a review of recent progresses
- Bell's theorem and the experiments: Increasing empirical support to local realism
- Bohmian particle trajectories in relativistic bosonic quantum field theory
- Time-like flows of energy-momentum and particle trajectories for the Klein-Gordon equation
Cited by in corpus (6)
- Darkness without dark matter and energy -- generalized unimodular gravity
- One real function instead of the Dirac spinor function
- No Drama Quantum Theory? A Review
- No Drama Quantum Electrodynamics?
- Some Classical Models of Particles and Quantum Gauge Theories
- Plasma-like Description for Elementary and Composite Quantum Particles