(Short Paper28) Macroscopic Information Processing and Dy namic Intervention of the Glial OS in the In Vivo Analog Quantum Synchronizer (BioQPU) Paradigm: PhaseLocking Model of Everyday Driving Tasks Based on Phase Noise Rejec tion and Chemical Triggers

Abstract

In conventional classical neuroscience, there are aspects that cannot fully physically explain how multiple modalities such as vision, hearing, language, and emotion—while being processed in separate brain regions—are integrated and remembered as a “single subjective experience” (Binding Problem). In this paper, using the macroscopic everyday task of “driving a car accompanied by conversation with others (Driving Task)” as a case study, we overcome the metaphor of viewing life as a “computer” computing specific algorithms. Based on the theoretical paradigm of the biological system as an “in vivo analog quantum synchronizer (phase synchronizer: Bio-QPU),” we propose as a verifiable hypothesis an active phase noise rejection model through the coordination of the “life code (drive recorder of life)” and the “autonomous analog tuner (Glial OS).” We formulate mechanisms for the formation of a Fourier-synthesized wave of multidimensional information during cruising; physical intervention accompanied by chemical triggers from the Glial OS during sudden events (hard braking); the steepening of the energy landscape (analog dynamic tagging) and “selective decoherence”—which sublimates decoherence (an error in artificial machines) into a function to selectively granulate only specific dimensions; and the simultaneous recall (phase locking) triggered by listening to music in later years. We discuss that the recording and playback of everyday experiences are not digital classical data transfers, but wave resonance phenomena that reject phase noise, independent of the computer metaphor.