Zero time tunneling macroscopic experime

Feynman introduced virtual particles in his diagrams as intermediate states of an interaction process, representing necessary steps between observable real states. This study investigates the quantum mechanical behavior of evanescent modes, which are contenders for virtual particles and exist in forbidden frequency bands, leading to faster than light (FTL) signal velocities. The research presents macroscopic experiments demonstrating the interaction of evanescent photons and phonons, particularly focusing on phenomena such as frustrated total internal reflection (FTIR) in double prisms, where wave packets can penetrate barriers—a process known as tunneling. The research further elucidates the analogies between evanescent modes and tunneling solutions of the Schrödinger equation as predicted by quantum electrodynamics (QED). The outcomes highlight the non-classical properties of tunneling and the theoretical underpinnings that suggest the practicality of these concepts at macroscopic scales, including implications for communication and information transfer faster than the speed of light. The findings substantiate earlier theoretical calculations on barrier transmission times and contribute to the ongoing discourse in quantum mechanics and photonics.