(Short Paper20) Physical Transmission Line of QPC (Quantum Pulse Communication) in the In Vivo Analog Quantum Syn chronizer (BioQPU) Paradigm: Breakdown of Selective Deco herence in Paraplegia and the Phase Noise Rejection Model Ensuring "LUCA's Theorem"

Overcoming the metaphor of viewing life as a “digital computer” that computes specific algorithms, and in the paradigm that considers the biological system as an “in vivo analog quantum synchronizer (phase synchronizer: Bio-QPU),” Quantum Pulse Communication (QPC) has been proposed as the foundation for extreme motor control that nullifies the classical millisecond transmission delay. However, the property of “zero-delay direct synchronization” inherently carries the risk of inviting the misunderstanding that it is wireless non-local communication ignoring space (non-physical action at a distance). In this paper, we re-evaluate the classical physical disconnection phenomenon of paraplegia (spinal cord injury) within the framework of the Bio-QPU theory, proposing as a verifiable model that QPC is completely dependent on a highly physical quantum waveguide (analog resonance infrastructure) called the “microtubule network” within neurons, and actively rejects phase noise. Through this formulation, paraplegia can be comprehensively interpreted not merely as a disconnection of a digital cable, but as a phenomenon in which the Bio-QPU array in the lower body is severed from phase synchronization based on “LUCA’s Theorem,” and the regulation of “selective decoherence”—which sublimates artificial machine errors into a function by granulating only necessary dimensions—breaks down, causing chaotic macro-decoherence due to runaway phase noise.