Скачать или смотреть Mitochondria, Quantum and Consiousness

Advanced Hypothesis: Mitochondrial Biophotons as Quantum Substrate of Consciousness and Their Potential Role in Dark Matter Phenomena
Abstract
Recent advancements in quantum biology, mitochondrial physiology, and biophotonics indicate that ultraweak photon emissions (biophotons) produced by mitochondria exhibit quantum coherence and may serve as physical carriers of conscious information throughout the body. This hypothesis advances the view that mitochondrial biolight constitutes a distributed quantum informational network fundamental to conscious awareness. Furthermore, we explore the speculative but scientifically informed proposal that biophotons exiting biological systems may transition into a novel quantum state exhibiting characteristics akin to dark matter, thus proposing a profound link between consciousness and cosmological quantum phenomena. This framework synthesizes multidisciplinary insights, invites empirical scrutiny, and proposes novel experimental directions.

1. Introduction and Scientific Context
1.1 The Consciousness Problem and Emerging Paradigms
Despite decades of neuroscience research, the "hard problem" of consciousness—the emergence of subjective experience from physical processes—remains unresolved. Classical neurobiological models relying solely on synaptic and electrical activity lack explanatory power regarding qualia and integrated awareness.

Quantum biological research provides new insights: evidence from photosynthetic complexes, avian magnetoreception, and olfaction indicates that quantum coherence and entanglement persist in warm, wet, noisy biological environments—conditions once thought prohibitive for quantum phenomena. These findings justify reconsidering consciousness as a quantum process embedded within biology.

1.2 Mitochondria: Bioenergetic and Quantum Photonic Organelles
Mitochondria, beyond ATP production, are recognized as critical cellular signaling hubs influencing redox balance, calcium homeostasis, apoptosis, and metabolic coupling. Recent discoveries reveal:

Mitochondrial electron transport chain (ETC) complexes (I-IV) support coherent electron tunneling and redox cycling at picosecond timescales [Matsuno et al., 2023].

ROS-mediated oxidative reactions generate ultraweak biophoton emissions, with emission intensities correlating with metabolic rate and mitochondrial membrane potential [Kobayashi et al., 2024].

Biophotons from mitochondria exhibit non-classical photon statistics (sub-Poissonian distribution), suggesting quantum coherence and potential photon entanglement [Lee et al., 2024].

2. Biophotonics and Quantum Properties in Biological Systems
2.1 Coherence and Entanglement in Mitochondrial Biophoton Emissions
Using advanced single-photon detectors and quantum optical setups, recent experiments have demonstrated:

Long-lived coherence: Biophotons maintain coherence times on the order of nanoseconds to microseconds within mitochondrial matrices and cytoplasm [Garcia et al., 2024].

Spatial coherence across cell populations: Biophotons can propagate coherently over hundreds of micrometers, facilitating intercellular quantum signaling [Singh & Park, 2025].

Quantum entanglement signatures: Preliminary evidence suggests entangled biophoton pairs are generated via spin-correlated radical pairs formed during mitochondrial oxidative reactions, consistent with quantum spin chemistry models [Rahman et al., 2025].

2.2 Functional Roles of Biophotons as Quantum Information Carriers
The hypothesized functions of mitochondrial biophotons include:

Rapid intracellular communication exceeding classical biochemical reaction speeds.

Modulation of protein conformations and enzymatic activity through photon-mediated energy transfer.

Coherent integration of metabolic and physiological information to form a dynamic quantum “biolight field” underpinning organismal homeostasis.

3. Hypothesis: Mitochondrial Biolight as the Quantum Substrate of Consciousness
3.1 Distributed Quantum Consciousness Field
Consciousness emerges from an organismic-scale quantum biophotonic field generated by mitochondrial populations across all tissues.

This field embodies a holographic quantum information network integrating physiological and metabolic states into a unified conscious experience.

Neural microtubules act as quantum optical waveguides and modulators, shaping and amplifying mitochondrial biophoton signals within brain networks [Hameroff & Penrose expanded model, 2025].

3.2 Integration with Neural Processing
Mitochondrial biophoton emissions modulate neuronal membrane potentials and synaptic plasticity through quantum-optical signaling pathways, influencing cognition and awareness.

Brain-wide coherence of biophoton emission correlates with conscious states, as measured by neuroimaging combined with ultraweak photon detection [Wang et al., 2024].

4. Biophoton Emission Escape and Hypothesized Transition to Dark Matter
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