Uncertainty principle for proper time and mass II
Shoju Kudaka, Shuichi Matsumoto
Abstract
When we quantize a system consisting of a single particle, the proper time τ and the rest mass m are usually dealt with as parameters. In the present article, however, we introduce a new quantization rule by which these quantities are regarded as operators in addition to the position and the momentum. Applying this new rule to a scalar particle and to a particle with spin 1/2 , we analyze the time evolution of the operator τ. In the former case, the evolution of the proper time perfectly matches several well-established classical formulae. In the case of the particle with spin 1/2, our new rule implies that an oscillation appears in the time evolution of the operator τ. This oscillation is similar to Zitterbewegung which is well-known in the ordinary Dirac theory. We formulate one physical effect of this oscillation by considering the interaction with a gravitational field, and estimate how small it is.
Create a lesson
Related papers
Logical CCZ state cultivation
Yuta Hirasaki, Jong Yeon Lee
Quantum-Aware Key Rank for Side-Channel Attacks evaluation
Yevgen Kotukh
Intermediate memory costs of quantum channel synthesis with a protected subsystem
Kai Liu, Deguang Han
Quantum Work Statistics from Entanglement-Assisted Invariance
Akira Sone, Akram Touil, Emery Doucet et al.
Petz Recovery through a Single Polar Transformation for Approximate Quantum Error Correction
Hanzhang Zhao, Shenglong Xu
Demonstration of a mobile ion-trap quantum device
Sara Alfaro, Dipesh Bhanushali, Sankarshan Choudapurkar et al.