The Magnetic Nature of the Autonomic Nervous System

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The Magnetic Nature of the Autonomic Nervous System,

Please note this is a “rehash” of a response from Alex C.  BSc, MA, osteopathy. It is not my original work, I have plagiarised it with massive gratitude to Alex so apologies for any mistakes. The Magnetic Nature of Respiration and Blood Flow Exploring the Diamagnetic and Paramagnetic Interplay of Gases, Blood, and Tissue in the Human Body Abstract This paper explores the magnetic dynamics underlying respiration, circulation, and tissue function within the human body. By considering the diamagnetic and paramagnetic properties of key biological substances—such as oxygen, carbon dioxide, and haemoglobin—it proposes that physiological processes may be governed not only by biochemical and neurological pathways but also by electromagnetic interactions. The rhythmic alternation between paramagnetic contraction and diamagnetic expansion, particularly evident in respiration and blood oxygenation, appears to drive both autonomic balance and tissue coherence. Water, the primary diamagnetic medium of the body, may provide the substrate through which these magnetic and dielectric effects manifest, offering a fresh perspective on the body’s self-regulating mechanisms. Magnetic Properties of Respiratory Gases Carbon dioxide (CO₂) is a diamagnetic gas, repelled by magnetic fields. Oxygen (O₂), in contrast, is paramagnetic—it is attracted to magnetic fields due to unpaired electrons. Haemoglobin and Magnetic Transition in the Blood Within the blood, haemoglobin shifts magnetically according to oxygenation:

• Deoxyhaemoglobin (unoxygenated haemoglobin) is paramagnetic, weakly attracted to magnetic fields because of unpaired Fe²⁺ electrons.
• Oxyhaemoglobin (oxygenated haemoglobin) is diamagnetic, repelled by magnetic fields since oxygen binding pairs all electrons.

During inhalation, both paramagnetic oxygen and paramagnetic deoxyhaemoglobin are drawn together, their attraction facilitating oxygen uptake beyond diffusion. The product, diamagnetic oxyhaemoglobin, marks a local magnetic transformation. As carbon dioxide accumulates, oxyhaemoglobin releases oxygen. Traditionally attributed to pH (Bohr effect), this may also reflect CO₂’s strong diamagnetic modulation of blood plasma. Nitric Oxide and Its Magnetic Duality Nitric oxide (NO) is paramagnetic in its gaseous state (one unpaired electron) but becomes diamagnetic in its dimeric liquid or solid state. Biologically, NO functions as a vasodilator, neurotransmitter, and microRNA signal modulator. In its vascular role, NO likely operates as a diamagnetic liquid dimer, sustaining vessel relaxation. The Magnetic Dynamics of Blood and the Heart Nearly all human tissues are diamagnetic. However, blood exhibits complex magnetism due to haemoglobin’s dual states. The heart, functioning as a magnetohydrodynamic vortex, generates a powerful electromagnetic field that coordinates rhythmic flow.

• Oxygenated haemoglobin (diamagnetic) → vasodilation and parasympathetic tone
• Deoxygenated haemoglobin (paramagnetic) → vasoconstriction and sympathetic tone

Thus, the heart acts as the magnetic epicentre of the body, while the brain serves as the dielectric epicentre, translating magnetic flux into electric current through synchronised neuronal oscillations. Electrical and Magnetic Fields in the Body Biological currents generate perpendicular magnetic fields. Neural activity, fascial conduction, and meridian flow therefore all contribute to a coherent electromagnetic environment.

• Parasympathetic tone increases diamagnetic oxygenation and lowers pressure.
• Sympathetic tone increases paramagnetic deoxygenation and vascular contraction.

This rhythmic interaction links magnetism directly to respiration and circulation. Breath, Tissue Magnetism, and Hydrostatic Pressure Exhalation releases diamagnetic gases (CO₂ and water vapour). Inhalation draws in paramagnetic oxygen, shifting the internal field balance. At the mitochondrial level, paramagnetic oxygen reacts with diamagnetic glucose to form diamagnetic CO₂ and H₂O, sustaining the body’s fundamental diamagnetic equilibrium. Thus, water—as the principal diamagnetic component—maintains the stability of the living electromagnetic field. The Human Body as an Electromagnetic System The central nervous system functions as a direct current (DC) network, with neurons generating positive and negative electric and magnetic fields. Each cell’s internal water acts as a dielectric capacitor, maintaining polarity between −40 mV and −90 mV. Mitochondria use magnetic flux to maintain membrane potential and cellular polarity. This coupling of magnetic and electric activity links molecular energy metabolism to neural signalling. Meridian Systems and Magnetic Balance Meridian channels, composed of ion-rich interstitial fluid, exhibit voltages between +2V and +2.6V. Their directional flows—yang (hands to head/feet) and yin (feet to torso/hands)—generate counter-magnetic fluxes to those within fascia and nerve pathways.

• Inhalation draws tissue magnetically towards the lungs.
• Exhalation restores fluid balance toward the periphery, returning the body to its resting diamagnetic (parasympathetic) state.

Thus, meridian systems may serve as field regulators, harmonising the oscillation between magnetic influx and efflux with each breath. Respiration, Nerve Pathways, and Magnetic Flux The phrenic (C3–C5), vagus, and sympathetic nerves integrate diaphragm movement with cardiovascular control. The mechanical expansion of the lungs produces hydrostatic pressure waves, moving bulk water and generating magnetic flux that dynamically shifts autonomic tone:

• Inhalation → Sympathetic activation (paramagnetic contraction)
• Exhalation → Parasympathetic activation (diamagnetic release)

Magnetic Perception and Neural Communication Cryptochrome, found in the retina and brain, detects magnetic fields—even in darkness—and translates them into electrical impulses. Magnetite (Fe₃O₄) particles in the brain may function as biological magnetic sensors, potentially enabling subtle magnetic communication between individuals. Neurons generate overlapping electromagnetic fields; these can influence neighbouring cells via ephaptic coupling, representing a non-chemical pathway for neural synchronisation. Magnetic Sensitivity and Ion Dynamics Ion channels—particularly voltage-gated calcium channels—are directly responsive to magnetic fields. Electromagnetic exposure modifies channel activity, enhancing neurotransmitter release and synaptic efficiency. This process likely underpins the BOLD MRI signal, which detects local magnetic differences between oxy- and deoxyhaemoglobin to map brain function. Transition Metals and Magnetic Behaviour in Biology Transition metals illustrate the biological balance between magnetic states:

Element	Magnetic Character	Biological Association
Copper (Cu)	Diamagnetic	Enzymatic electron transfer
Zinc (Zn)	Diamagnetic	Structural cofactor
Iron (Fe²⁺) in Oxyhaemoglobin	Diamagnetic	Oxygen transport
Iron (Fe²⁺) in Deoxyhaemoglobin	Paramagnetic	Venous return regulation
Manganese (Mn)	Paramagnetic	Enzymatic oxidation
Cobalt (Co)	Paramagnetic	Vitamin B₁₂ catalysis

These elements illustrate that life depends upon a continual oscillation between diamagnetic and paramagnetic states. Summary and Conclusion The human body can be understood as a magnetohydrodynamic system in which magnetic and dielectric properties of water underpin physiological balance.

• Inhalation amplifies paramagnetic forces, stimulating sympathetic tone.
• Exhalation restores diamagnetic stability, promoting parasympathetic rest.

This interplay synchronises respiration, circulation, and neural regulation. The body’s water—through its diamagnetic and dielectric nature—forms the physical substrate for these field interactions, bridging the electromagnetic with the physiological. By recognising magnetism as a core organising principle, we can reinterpret biological function not only as biochemical or neurological but as biophysical resonance, unified through the magnetic coherence of living water. Selected References

1. Pauling, L. (1936). The Oxygen Equilibrium of Hemoglobin and Its Structural Interpretation. Proceedings of the National Academy of Sciences, 22(4), 210–216.
2. Ueno, S., & Iwasaka, M. (1994). Biological effects of magnetic fields on the human body. Journal of Applied Physics, 75(10), 5977–5983.
3. Wikswo, J. P. (1983). The magnetic field of the heart. Scientific American, 249(6), 86–93.
4. Schmitz, B. (2022). Magnetite in the human brain: Biogenic or environmental? Nature Scientific Reports, 12, 7643.
5. Nordenström, B. E. W. (1983). Biologically Closed Electric Circuits: Clinical, Experimental and Theoretical Evidence for an Additional Circulatory System. Nordic Medical Publications.
6. Kobayashi, M. et al. (2019). Electromagnetic field interactions with living systems: Non-thermal mechanisms.Biophysical Reviews, 11(6), 945–960.
7. Popp, F. A. (1999). Coherent photon storage of biological systems. Electromagnetic Biology and Medicine, 18(1), 23–29.