(Short Paper20) Physical Transmission Pathways of QPC (Quan tum Pulse Communication) in the In Vivo BioQPU Paradigm: A Decoherence Model of Paraplegia and the Quantum Wave guide Function of Microtubule Networks

In the in vivo Quantum Processing Unit (Bio-QPU) paradigm, Quantum Pulse Communication (QPC) has been proposed as the foundation for extreme motor control, invalidating the millisecond delays inherent in classical transmission. However, the nature of “zero-delay direct synchronization” harbors the danger of inviting a physical misconception (the interpretation of non-physical action at a distance) that it is wireless, non-local communication ignoring space. In this paper, we re-evaluate the classical physical disconnection phenomenon of paraplegia (spinal cord injury) within the framework of QPU theory, proving that QPC does not leap through space but is completely dependent on a highly physical quantum waveguide (infrastructure) known as the “microtubule network” within neurons. Through this formulation, ultra-high-speed synchronization phenomena, typified by hitting a 160 km/h fastball, are consistently explained as spin-pulse communication phenomena that repurpose existing neural cables.