Maxwell quantum mechanics
arXiv:1902.10537 · doi:10.1103/PhysRevA.100.012122
Abstract
We extend classical Maxwell field theory to a first quantized theory of the photon by deriving a conserved Lorentz four-current whose zero component is a positive definite number density. Fields are real and their positive (negative) frequency parts are interpreted as absorption (emission) of a positive energy photon. With invariant plane wave normalization, the photon position operator is Hermitian with instantaneously localized eigenvectors that transform as Lorentz four-vectors. Reality of the fields and wave function ensure causal propagation and zero net absorption of energy in the absence of charged matter. The photon probability amplitude is the real part of the projection of the photon's state vector onto a basis of position eigenvectors and its square implements the Born rule. Manifest covariance and consistency with quantum field theory is maintained through use of the electromagnetic four-potential and the Lorenz gauge.
Significantly improved version of "Covariant photon quantum mechanics"
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- QED based on eight-dimensional spinorial wave equation of the electromagnetic field and the emergence of quantum gravity
- Validation of classical modeling of single-photon pulse propagation
- Consistent treatment of quantum systems with a time-dependent Hilbert space
- Non-Heisenbergian quantum mechanics
- Position measurement and the Huygens-Fresnel principle: A quantum model of Fraunhofer diffraction for polarized pure states
- Unification of versions of photon quantum mechanics through Clifford spacetime algebra
- On the position representation of mechanical power, force and torque operators