(Short Paper19) The Ocular Organ as a Privileged I/O Port in the In Vivo Analog Quantum Synchronizer (Bio-QPU) Paradigm: Verification of Selective Decoherence Based on Phase Noise Rejection and Chemical Triggers, and Fail-Safe Mechanisms

Abstract

In conventional neuroscience, the ocular organ (the eye), a visual organ, has been treated as a “passive sensor that converts external photon information into electrical signals at the retina and transmits them to the visual cortex of the cerebrum.” However, by overcoming the metaphor that regards life as a “computer” computing specific algorithms, and in the paradigm that considers the biological system as an “in vivo analog quantum synchronizer (phase synchronizer: Bio-QPU),” the eye can be interpreted as having extremely privileged status within the whole-body Bio-QPU network. It actively manages phase noise, sublimates decoherence (which is an error in artificial machines) into a function, and acts as the frontline of “selective decoherence”—which selectively granulates specific visual dimensions while maintaining rich background information as waves. In this paper, we redefine the retina as an ultra-long-lived visual edge Bio-QPU that maintains the “life code (drive recorder of life)” and rejects noise, and formulate the extraocular muscles as essential hardware for the analog resonance adjustment of absolute coordinates based on LUCA’s Theorem. Furthermore, we propose that the eye ailments (difficulty opening eyes, photophobia, tearing) occurring during sleep deprivation are verifiable fail-safe and heat dissipation mechanisms, independent of the computer metaphor, triggered by chemical triggers from the autonomous analog tuner (Glial OS) to protect the uncalibrated Bio-QPU from runaway phase noise and the breakdown of selective decoherence.