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(Short Paper00) Bio-QPU Theory 2.0 Axiomatic System: Inte grated Formulation of the Autonomous Analog Synchroniza tion System Based on "LUCA's Theorem" and the "Life Code"

The theory proposing biological systems as an “in vivo analog quantum synchronizer (phase synchronizer: Bio-QPU)” rather than a computer has elucidated the massively parallel phase processing mechanisms in vivo using intracellular nuclear spins. This paper proposes fundamental ax...

(Short Paper25) Evolutionary History of Glial Cells in the In Vivo Analog Quantum Synchronizer (Bio-QPU) Paradigm: Op timization Model to an Autonomous Analog Tuner (Glial OS) via Phase Noise Rejection and Chemical Triggers

This paper redefines the evolutionary history of glial cells, which in classical neuroscience have been regarded as secondary support cells acting as “glue filling the gaps between neurons.” We overcome the metaphor that regards life as a “computer” computing specific algorithms,...

(Short Paper24) Quantum Informatic Formulation of Right/Left Brain Asymmetry in the In Vivo Analog Quantum Synchro nizer (BioQPU) Paradigm: Optimization Model of the Glial OS Dual Chamber Environment Based on Phase Noise Rejection and Selective Decoherence

The question of why the human brain is physically divided into a right and left hemisphere, possessing different functional localizations (laterality), has not been fully resolved in classical neuroscience. In this paper, overcoming the metaphor that regards life as a “computer”...

(Short Paper22) Chemical Intervention Mechanism of the Glial OS in the In Vivo Analog Quantum Synchronizer (Bio-QPU) Paradigm: Optimization Model of Emotion and Selective Deco herence Based on Phase Noise Rejection and Chemical Triggers

While theories that overcome the metaphor of viewing the biological system as a “computer” computing specific algorithms and regard it as an “in vivo analog quantum synchronizer (phase synchronizer: Bio-QPU)” have elucidated the ultra-high-speed phase tuning mechanisms by nerve c...

(Short Paper23) Quantum Informational Formulation of Hyper emesis Gravidarum (Morning Sickness) in the In Vivo Analog Quantum Synchronizer (BioQPU) Paradigm: Selective Deco herence by Maternal Glial OS Based on Phase Noise Rejection and Chemical Triggers, and the Dedicated Router (Placenta) Construction Model

The phenomenon of morning sickness (nausea and vomiting of pregnancy) seen in early pregnancy has been treated in classical biochemistry as a passive physiological bug, such as “stimulation of the vomiting center due to a rapid increase in hormones.” In this paper, overcoming the...

(Short Paper17) Quantum Informational Formulation of Sleep in the In Vivo Analog Quantum Synchronizer (Bio-QPU) Par adigm: Selective Recording to the Life Code and Autonomous Calibration Model Accompanied by Phase Noise Rejection and Wave Protection Based on "LUCA's Theorem"

Although sleep is a phenomenon universally observed across all life, relying solely on conventional biochemical interpretations (such as the removal of fatigue substances) presents difficulties in physically explaining the fatal breakdown of spatial cognition (loss of depth perce...

(Short Paper26) Physical Formulation of Qualia in the In Vivo Analog Quantum Synchronizer (Bio-QPU) Paradigm: Selective Decoherence and Environmental Re-Resonance Model by the Glial OS Based on Phase Noise Rejection and Chemical Triggers

“Qualia,” referring to human subjective textures and vivid sensations, have been called the “hard problem” in conventional classical neuroscience and discussed while their physical entity remains unknown. In this paper, overcoming the metaphor that regards life as a “computer” co...

Integrated Formulation of the In Vivo Analog Quantum Syn chronizer (BioQPU) Hypothesis: A Life Support System Based on Phosphate Nuclear Spins in LUCA and "The LUCA Theo rem"

How life managed to maintain self-organization and highly precise metabolic control against increasing entropy in a primordial Earth environment—characterized by ambient temperatures, moisture, and severe thermal noise (phase jitter)—remains one of the greatest challenges in mode...

(Short Paper24) Quantum Information-Theoretic Formulation of Right-Left Brain Asym metry in the In Vivo QPU Paradigm: Dual Environment Construction of "Wave and Particle" by the Glial OS and the Corpus Callosum QPC Gateway

The question of why the human brain is physically divided into right and left hemispheres and possesses different functional localizations (laterality) has not been completely resolved in classical neuroscience. Based on the in vivo quantum computer (QPU) theory, this paper formu...

(Short Paper23) Quantum Information-Theoretic Formulation of Hyperemesis Gravi darum (Morning Sickness) in the In Vivo QPU Paradigm: Fetal QPU Sandbox Protection and Dedicated Router (Placenta) Construction Process by the Maternal Glial OS

Morning sickness, observed during early pregnancy, has been treated in classical biochemistry as a passive physiological bug, such as “stimulation of the vomiting center due to a rapid increase in hormones (e.g., hCG).” Based on the in vivo quantum computer (QPU) theory, this pap...

(Short Paper24) Quantum Information-Theoretic Formulation of Right-Left Brain Asym metry in the In Vivo QPU Paradigm: Dual Environment Construction of "Wave and Particle" by the Glial OS and the Corpus Callosum QPC Gateway

The question of why the human brain is physically divided into right and left hemispheres and possesses different functional localizations (laterality) has not been completely resolved in classical neuroscience. Based on the in vivo quantum computer (QPU) theory, this paper formu...

(Short Paper23) Quantum Information-Theoretic Formulation of Hyperemesis Gravi darum (Morning Sickness) in the In Vivo QPU Paradigm: Fetal QPU Sandbox Protection and Dedicated Router (Placenta) Construction Process by the Maternal Glial OS

Morning sickness, observed during early pregnancy, has been treated in classical biochemistry as a passive physiological bug, such as “stimulation of the vomiting center due to a rapid increase in hormones (e.g., hCG).” Based on the in vivo quantum computer (QPU) theory, this pap...

(Short Paper25) Evolutionary History of Glial Cells in the In Vivo QPU Paradigm: Architectural Separation and Development from Monolithic Environmental Control to an Autonomous Meta-Learning OS

In classical neuroscience, glial cells were named as the “glue that fills the gaps between nerve cells (Glia)” and have been regarded as secondary support cells. This paper redefines the evolutionary history of glial cells within the framework of the in vivo quantum computer (QPU...