Velocity-Enhanced Decoherence in High-Energy Particle Systems: A Computational Framework for Particle Velocity Measurement in Quantum Classical Transition

This thesis presents a comprehensive study of velocity-enhanced quantum decoherence in high-energy particle systems, with applications to quantum-classical transitions. It proposes that particle velocity plays a crucial role in accelerating quantum decoherence, which has traditionally been studied as a consequence of environmental interactions. By introducing the concept of Arrabal's Critical Velocity, the thesis offers a new theoretical framework and computational model for calculating the velocity at which quantum coherence collapses into classical behavior. Using data from experiments at the Large Hadron Collider (LHC) at CERN, this research validates the velocity-decoherence relationship through both theoretical predictions and practical implementations. The study has significant implications for fields such as quantum computing and cosmology, where controlling or predicting decoherence is essential for technological advancements and a deeper understanding of the universe.