Relativistic state reduction dynamics

TL;DR

This paper proposes a Lorentz covariant, relativistic quantum field theory model with nonlinear stochastic modifications to describe state reduction, aiming to reconcile quantum collapse with relativistic principles.

Contribution

It introduces a novel relativistic field-based mechanism for state reduction, ensuring Lorentz covariance and avoiding divergences, advancing the integration of quantum mechanics and relativity.

Findings

The model is Lorentz covariant and frame independent.

Collapse process demonstrated in an idealized example.

Framework allows for unambiguous local property specification.

Abstract

A mechanism describing state reduction dynamics in relativistic quantum field theory is outlined. The mechanism involves nonlinear stochastic modifications to the standard description of unitary state evolution and the introduction of a relativistic field in which a quantized degree of freedom is associated to each point in spacetime. The purpose of this field is to mediate in the interaction between classical stochastic influences and conventional quantum fields. The equations of motion are Lorentz covariant, frame independent, and do not result in divergent behavior. It is shown that the mathematical framework permits the specification of unambiguous local properties providing a connection between the model and evidence of real world phenomena. The collapse process is demonstrated for an idealized example.