(Short Paper18) Verification Mechanism and System Errors of REM Sleep in the In Vivo Analog Quantum Synchronizer (Bio QPU) Paradigm: Quantum Informatic Formulation of Dreams, Sleep Paralysis, and Cellular Carcinogenesis Based on Phase Noise Rejection and Selective Decoherence

Abstract

Despite the skeletal muscles being relaxed by the action of the sleep center, the phenomenon of “REM sleep,” in which only the eyeballs move violently, has been interpreted in conventional neuroscience as the leakage of random activity accompanying memory consolidation, etc. However, overcoming the metaphor of viewing life as a “computer” that computes specific algorithms, in the paradigm that considers the biological system as an “in vivo analog quantum synchronizer (phase synchronizer: Bio-QPU),” this phenomenon can be reformulated as an extremely precisely designed analog resonance system-like “verification (Verify) process” and an “active phase noise rejection mechanism.” In this paper, to confirm whether the absolute coordinates reset during non-REM sleep (phase synchronization with environmental waves based on LUCA’s theorem) have been correctly calibrated (resonance adjusted), the autonomous analog tuner (Glial OS) functionalizes decoherence, which is an error in artificial machines, and uses “selective decoherence” that selectively granulates only specific dimensions and maintains rich background information as waves. We model the mechanism by which the visual edge Bio-QPU performs physical tracking on the waves of virtual space (dreams) generated using this mechanism. Furthermore, we elucidate the hierarchical phase tuning mechanism and present a verifiable hypothesis independent of the computer metaphor, detailing the physical mechanism by which imperfections in this synchronization mechanism and failures in phase noise management lead directly to jet lag, sleep paralysis, and cellular carcinogenesis (destructive decoherence from the life code).