Avoiding Negative Probabilities in Quantum Mechanics
Golden Gadzirayi Nyambuya

TL;DR
This paper proposes a new quantum probability current in Klein-Gordon theory that eliminates negative probabilities, suggesting negative energy particles could exist without problematic implications, unlike in traditional interpretations.
Contribution
It introduces a novel quantum probability current that ensures positive definite probabilities in Klein-Gordon theory, addressing the issue of negative probabilities and negative energy particles.
Findings
Negative probabilities depend on the choice of quantum probability current.
A new probability current yields positive definite probabilities.
Negative energy particles are not inherently problematic in the revised framework.
Abstract
As currently understood since its discovery, the bare Klein-Gordon theory consists of negative quantum probabilities which are considered to be physically meaningless if not outright obsolete. Despite this annoying setback, these negative probabilities are what led the great Paul Dirac in 1928 to the esoteric discovery of the Dirac Equation. The Dirac Equation led to one of the greatest advances in our understanding of the physical world. In this reading, we ask the seemingly senseless question, "Do negative probabilities exist in quantum mechanics?" In an effort to answer this question, we arrive at the conclusion that depending on the choice one makes of the quantum probability current, one will obtain negative probabilities. We thus propose a new quantum probability current of the Klein-Gordon theory. This quantum probability current leads directly to positive definite quantum…
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