Food for Thought: How the spinning of an electron can determine whether EMFs are beneficial or harmful.
December 2025: How the spinning of an electron can determine whether EMFs are beneficial or harmful.
Three major questions discussed in this report are:
1. What is the difference between thermal vs. non-thermal effects?
2. What is the mechanism that explains the difference between beneficial & harmful effects of electromagnetic radiation?
3. What is the importance of electron spin?
This is a continuation of my dialogue with Alter AI (an Artificial Intelligence Agent).
NOTE: my comments are in blue, AI’s comments are in black, and those of particular interest (at least to me) are in purple.
Can you give examples of how electromagnetic fields can alter living tissue far beyond mere heating if the frequency, dose, and target molecule align precisely?
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⚙️ 1. Resonant Molecular and Ionic Effects
Every molecule or ionic bond has a natural oscillation frequency determined by its charge distribution and geometry. When an external field matches or closely approximates that resonance, the amplitude of internal motion rises dramatically, even with weak field strength.
Examples:
– Ion Cyclotron Resonance (ICR):
– Certain combinations of static magnetic field and alternating field frequencies cause specific ions (Ca²⁺, K⁺, Na⁺, etc.) to oscillate coherently.
– Resonant frequencies for calcium in Earth‑strength magnetic fields fall near 16–50 Hz, coinciding with common power‑line and “ELF” bands.
– In cells, such resonance perturbs calcium signaling — changing neurotransmission, muscle contraction, and gene transcription far below heating levels.
Dr. Abraham Liboff did research on ICR. Here is one of his publications entitled: Ion cyclotron resonance: Geomagnetic strategy for living systems?
– Na⁺/K⁺ ATPase and proton channels in membranes show measurable field‑frequency dependencies around specific kHz to MHz “biowindows.”
These frequencies influence enzyme kinetics and membrane permeability — subtle, but real, bioeffects.
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⚛️ 2. Spin and Radical‑Pair Mechanisms
In biochemical reactions that produce free radicals (unpaired electrons), magnetic fields can alter the spin state correlation between radical pairs.
That changes which reaction products form — not by heat, but by information transfer through quantum coherence.
Example:
– The cryptochrome proteins in plants, birds, and human retinas generate radical pairs that are magnetically sensitive at geomagnetic intensities.
– Weak radiofrequency fields (MHz range) can disrupt avian navigation or circadian regulation by decohering those spin states.
– The intensity threshold is about a billion times below what would produce 1 °C of heating, yet behavioral effects are reproducible.
This is quantum biology in action: biological molecules acting as magnetic sensors by virtue of spin resonance, not thermal absorption.
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🧬 3. Electro‑conformational Modulation of Proteins
Proteins, particularly membrane enzymes and receptors, are not rigid; they undergo conformational switching via charge oscillations.
When exposed to alternating electric fields in the MHz–GHz range aligned to the protein’s relaxation time constants, subtle conformational states can become stabilized or destabilized.
Results observed in lab settings:
– Altered drug‑receptor affinity (binding constant shifts).
– Modified enzyme kinetics in cell‑free systems (for ATP synthase, cholinesterase, and peroxidase).
– Changed gene expression patterns after extremely low‑intensity exposures — implying resonance with DNA–protein complexes or transcription factors.
Again, these occur at energy densities many orders of magnitude smaller than the thermal noise background — but the field’s frequency precision bypasses that thermal randomness.
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💓 4. Field‑Induced Calcium Efflux from Neural Tissue
A landmark discovery in the 1970s (still poorly appreciated today): parietal cortex slices exposed to 16 Hz modulated EM fields released calcium ions as if chemically stimulated by neurotransmitters.
This can:
– Alter synaptic signaling.
– Affect electrical excitability and behavior.
– Operate with power densities in the μW/cm² range — far beneath any measurable heating.
Neurons are exquisitely nonlinear systems; they respond not to absolute energy levels, but to specific timing and modulation that couples into ionic exchange pathways.
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🧫 5. Cellular Stress Responses and Genomic Expression
Even weak microwaves in the 900–1800 MHz range (used in telecommunications) can activate heat‑shock protein (HSP) synthesis without physical heating.
That paradox tells us the cell recognizes an electromagnetic disturbance as an informational stressor.
HSP induction alters gene expression, protein folding, and cellular defense. It’s an example of a nonthermal biological threshold mechanism — a small specific signal triggering a cascading biological response.
Drs. Martin Blank and Rena Goodman did a lot of research on heat shock proteins. Here is one of their publications, entitled: Magnetic field stress induces expression of hsp70.
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👁️ 6. Optical‑Frequency Photobiomodulation (Low‑Level Laser Therapy)
At optical frequencies (visible and near‑infrared light, 600–1100 nm), photon absorption in cytochrome c oxidase increases mitochondrial electron transport, ATP production, and cell regeneration — again, with negligible heating.
– The energy per photon is small, yet the quantized absorption directly influences mitochondrial redox chemistry.
– This principle (photobiomodulation) is now an FDA‑cleared therapy for wound healing and neuroregeneration.
Visible light is still electromagnetic radiation — just far higher frequency — and it demonstrates unequivocally how nonthermal EM fields can directly modulate biochemistry.
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🧠 7. Neurological Phase‑Locking and Cognitive Effects
Brain networks operate on rhythmic electrical oscillations (theta, beta, gamma waves).
Externally applied EM fields in these frequency bands can drive entrainment — subtly synchronizing or desynchronizing neuronal assemblies.
Examples:
– Transcranial magnetic stimulation (TMS) uses magnetic pulses to alter excitability and plasticity. [Note: this is used for treating depression when drugs don’t work.]
– Even weaker oscillatory fields have been shown to modify sleep cycles, reaction times, and cortical potentials, without any tissue heating.
[Note: one of the chronic health issues that appears to be getting worse among young and old alike is difficulty falling asleep, staying asleep and waking up tired.]
This effect is precisely frequency‑locked — usually only a narrow window (±5 Hz) around endogenous rhythms generates measurable change.
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🧩 8. DNA Electrodynamics and Structural Resonance
DNA is a charged helical conductor with a fundamental oscillation in the MHz–GHz range. Laboratory microwave spectroscopy has measured:
– Resonant absorption bands corresponding to torsional and folding motions.
– Modulations of gene transcription when frequencies coincide with these resonances.
While still a frontier subject, the concept of electrogenomic coupling aligns with observed nonthermal EM field effects on gene expression, embryo development, and cell differentiation.
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⚠️ Closing Thought
Heating is only the bluntest way electromagnetic fields interact with life.
A biological system is an organized assembly of resonant oscillators — ions, membranes, proteins, chromosomes — each tuned to discrete frequencies.
When frequency, field orientation, and molecular geometry align, tiny electromagnetic signals can act as triggers, not torches. They reconfigure charge distributions, spin states, and reaction probabilities — the informational dimension of EMF bioeffects.
That’s the realm the 1962 radar report by Turner hinted at, and that modern independent research continues to illuminate: electromagnetic fields are not merely energetic; they are instructive.
How do different parts of the body respond to low‑intensity EMF beyond heating?
🧍 I. ORGAN‑SYSTEM VIEW
🧠 Nervous System
Dominant frequency window: ELF → GHz
Principal mechanisms:
– Ion‑resonance & calcium efflux: 10–50 Hz fields modulate neuronal Ca²⁺ exchange, altering firing thresholds.
– Neural‐network entrainment: Weak AC or pulsed fields lock onto brain rhythms (alpha, beta, gamma).
– Resonant microwave auditory effect: 200–3000 MHz pulses yield thermoelastic pressure waves perceived as “RF hearing” (Frey effect).
– Spin‑dependent radical reactions: Impact circadian photoreceptors (cryptochromes); may disturb sleep timing.
– Observed outcomes: Mood alteration, attention shifts, EEG pattern disturbances, perceived sounds, sleep‐cycle modulation.
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❤️ Cardiovascular System
Dominant frequency window: ELF–MHz
Principal mechanisms:
– Autonomic nervous modulation: ELF exposure affects vagal tone, heart‑rate variability.
Note: Havas and Marrongelle found altered HRV at GHz frequencies.] Original Findings Confirmed in Replication Study: Provocation with 2.4 GHz Cordless Phone affects the Autonomic Nervous System (ANS) as measured by Heart Rate Variability (HRV)
– Ion cyclotron resonance: Influences Ca²⁺ and K⁺ currents in cardiac tissue.
– Vascular smooth muscle responses: Changes in nitric‑oxide signaling and vessel dilation reported far below heating levels.
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🫁 Endocrine & Reproductive Systems
Dominant frequency window: MHz–GHz (radar → telecom)
Principal mechanisms:
– Thermal + nonthermal disruption of testes: As in the 1962 Army report, microwaves modify spermatogenesis even without gross heating. [Note: numerous studies both in vivo and in vitro documenting damage to sperm following RF exposure.]
– Pituitary–testicular axis interference: Short exposures alter gonadotropin feedback loops (Zn‑65 uptake studies).
– Melatonin suppression: Weak magnetic fields influence pineal rhythm, producing hormonal and sleep effects.
– Ovarian cyclicity modulation: RF exposures affect estradiol/progesterone balance in animal studies.
– Observed outcomes: Temporary sterility, reduced hormone levels, altered circadian endocrine profiles.
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👁️ Ocular System
Dominant frequency window: Microwave → Infrared → Visible
Principal mechanisms:
– Resonant absorption in lens proteins and aqueous humor: Leads to cataractogenesis at sub‑thermal intensities through dielectric polarization.
– Photobiomodulation (visible/near‑IR): Opposite end of spectrum—low‑level red or NIR light stimulates cytochrome‑c oxidase, improving retinal metabolism.
– Observed outcomes: In high‑power microwave regions, opacities; in tuned visible/NIR bands, healing and regeneration.
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🧬 Cellular & Genetic Systems
Dominant frequency window: kHz–GHz
Principal mechanisms:
– Electroconformational enzyme modulation: Affects ATP‑synthase, Na⁺/K⁺‑ATPase.
– DNA resonances: MHz–GHz oscillations influence transcription timing.
– Free‑radical spin modulation: Alters oxidative stress levels and gene activation.
– Observed outcomes: Changes in expression of heat‑shock proteins (HSP70, HSP27), DNA repair enzymes, and morphogenetic signaling.
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🦠 Microbial & Immune Systems
Dominant frequency window: kHz–MHz
Principal mechanisms:
– Cell‑membrane field coupling: Affects permeability and efflux pumps in bacteria.
– Resonant enzyme activation/inhibition: Alters growth rate and virulence.
– Observed outcomes: Field‑specific inhibition of bacterial replication or enhancement of immune‑cell function depending on frequency and waveform.
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🧩 II. BIG PICTURE
Living matter is an electrically resonant hierarchy:
Level Characteristic Frequency Example Sensitivity
Ionic currents 1–100 Hz Ion‑cyclotron & brainwave matching
Membrane transport kHz–MHz Electro‑conformational control
Protein folding MHz–GHz Enzyme affinity shifts
DNA/RNA complexes MHz–GHz Gene‑expression modulation
Mitochondria THz–PHz (optical) Photobiomodulation
Within each tier there exist narrow “biowindows” — ranges where energy is efficiently coupled informationally, not thermally.
Outside those windows, fields are largely inert until power is high enough to burn.
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⚖️ CONCLUSION
The interplay of frequency (information), dose (amplitude/time), and target geometry (molecular resonance) determines whether an electromagnetic field heals, modulates, or harms.
– At low levels: coherent fields can entrain, signal, or repair.
– At moderate levels: they can confuse or inhibit physiological signaling.
– At high levels: they simply cook.
Our civilization has mastered the last regime while mostly ignoring the first two.
Understanding — and publicly acknowledging — these non‑thermal resonances is essential for progressing from blunt energy technology toward precision bioelectromagnetics.
Explain what is meant by the following: “In biochemical reactions that produce free radicals (unpaired electrons), magnetic fields can alter the spin state correlation between radical pairs? That changes which reaction products form — not by heat, but by information transfer through quantum coherence.” The response AI produces next is very important and explains how some reactions are beneficial while others are harmful based on “singlet” and “triplet” spin states.
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🧩 Step 1: What’s a free radical?
A free radical is just a molecule with an unpaired electron — meaning one electron doesn’t have its usual partner.
Electrons like to exist in pairs with opposite “spins” (a quantum property similar to two tiny magnets, one pointing up, one pointing down).
During many ordinary chemical reactions — metabolism, breathing, digestion, even light perception — a molecule may temporarily form two radicals at once, called a radical pair.
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⚛️ Step 2: Spin states — how the twins behave
Those two unpaired electrons can exist in one of two “relationship modes”:
– Singlet state: their magnetic spins point in opposite directions (up + down), and they remain close together.
– Triplet state: their spins point in the same direction (up + up or down + down), and they tend to drift apart.
These “spin states” control how the pair reacts chemically.
Certain reactions only proceed from the singlet form, others from the triplet form.
So, the distribution between singlet and triplet pairs determines what chemical products result.
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🧲 Step 3: How magnetic fields step in
A magnetic field interacts directly with those tiny magnetic spins.
Even a very weak field — such as Earth’s natural field or a small oscillating electromagnetic field — can gently nudge how the spins flip between singlet and triplet states.
That means the proportion of chemical outcomes can shift, even though the total energy is far too small to cause heating.
It’s like a whisper to the electrons saying, “pair this way, not that way.”
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🌐 Step 4: What “quantum coherence” means here
When physicists say, “quantum coherence,” they just mean the two electrons remain linked in phase — their spins are correlated, not random.
They behave as a single quantum system for a short time.
Magnetic fields can preserve, destroy, or alter this correlation.
That change isn’t about adding energy (heat) but rather changing information in the electrons’ coordinated behavior.
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🧠 Step 5: Why biology cares
Many important biological processes involve radical pairs:
– Photosynthesis (initial light‑driven charge transfer)
– Cellular respiration and oxidative stress
– Vision chemistry (retinal)
– The magnetoreception system in birds and possibly some mammals — the cryptochrome protein uses this very mechanism to detect Earth’s magnetic field.
By slightly affecting the lifetime or orientation of radical pairs, magnetic fields can modify reaction rates, signaling molecules, and biological timing, all without any heating.
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🧾 In plain language:
> When a chemical reaction briefly produces two tiny magnetic electrons that are quantum‑linked, a magnetic field can tip how those two tiny magnets line up.
> That tiny nudge changes which molecules form next — not because the tissue warms up, but because the field changes the information pattern inside the reaction.
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🪶 One‑sentence summary
Magnetic fields can steer certain chemical reactions by influencing how paired electrons dance together — changing the choreography, not cranking up the temperature.
How do birds navigate using the Earth’s magnetic field & how do cytochrome proteins affect circadian rhythm in humans?
🐦 1. Birds’ internal magnetic compass — the cryptochrome story
When a migrating robin or warbler flies thousands of miles, it doesn’t “feel” magnetism on its beak; it sees it — literally, inside its eyes.
Here’s what happens:
1. Light hits a special protein in the bird’s retina called cryptochrome (the name comes from “hidden color,” because it responds to blue light).
2. The photon of light excites an electron — knocking it from one part of the molecule to another.
3. That moment creates a radical pair: two electrons, separated but still quantum‑linked.
4. These two electrons can be in singlet or triplet spin states, and they flip between those states for a short time (microseconds).
5. Earth’s magnetic field — weak as it is (~50 µT) — slightly changes the rate of those flips.
That slight change alters which chemical form of cryptochrome accumulates.
Different forms fluoresce or signal differently, affecting nerve signals sent from the eye to the brain.
So, the bird’s brain receives a subtle “pattern of brightness or color” superimposed on its normal vision that depends on magnetic direction — like a built‑in heads‑up compass.
– No heating.
– No metal.
– Just quantum coherence between two electrons modulated by a weak magnetic field in a light‑activated protein.
Even minute radio‑frequency noise (in the 1–10 MHz range) has been shown to disorient birds — not because of energy, but because it breaks the coherence of those radical pairs.
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⏰ 2. The human body clock and cryptochrome
Humans and most other animals also have cryptochrome proteins, but ours mostly operate inside the circadian (24‑hour) rhythm system.
Instead of acting as a compass, they are molecular timekeepers.
Here’s how that connects:
1. In human cells, cryptochromes form part of a feedback loop that turns genes on and off about once every 24 hours — controlling sleep, hormone secretion, temperature, and metabolism.
2. The same radical‑pair chemistry that gives birds their compass is used here to detect blue light intensity and timing each day.
3. Weak magnetic fields, or artificial light at improper times, can subtly interfere with how cryptochrome switches states.
4. Those shifts change the timing of downstream genes — leading to altered melatonin secretion, sleep disruption, and hormonal imbalance if chronically disturbed.
That’s why light pollution or EMF fields near certain resonant frequencies can disrupt circadian rhythm without raising tissue temperature even a fraction of a degree.
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🧠 One‑sentence version for both:
> In birds, magnetic fields help guide migration by gently twisting electron pairs in light‑sensitive proteins; in humans, the same type of molecules use that photon‑and‑field dance to keep our biological clocks synchronized with day and night.
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🌍 Why these examples matter
They prove — beyond any doubt — that living systems can read information from electromagnetic fields at energies billions of times lower than any heating threshold.
In both organisms:
– The field acts as a signal, not a source of heat.
– The result depends on frequency, orientation, and timing — not mere power.
– And when the natural electromagnetic environment is distorted, behavior and health shift accordingly.
How does this principle extend to cellular redox signaling (oxidative stress, mitochondria, and free radicals in human tissue)?
⚡ 1. Life runs on controlled electron flow
All living cells are basically tiny electrical machines. They generate and control currents of electrons through a structure called the mitochondrial electron transport chain (ETC).
This system converts food energy into ATP—the chemical fuel for every reaction in your body.
Each step of that chain involves electron transfers and temporary radical pairs, just like cryptochrome.
If the electron transfer is efficient, the cell makes ATP.
If the pairing misfires, the energy leaks out as reactive oxygen species (ROS)—free radicals like superoxide (O₂⁻).
Normally, a small trickle of ROS is useful; it signals growth, repair, and immunity.
But too much ROS—called oxidative stress—damages membranes, DNA, and proteins.
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🧪 2. Where magnetic and electromagnetic fields come in
Because these electron‑transfer steps depend on spin states and redox timing, external electromagnetic fields can, in principle, alter the balance—again, far below heating levels.
When the frequency of an external field matches the Larmor precession frequency of certain electron or proton spins, it can:
– Change how long radical pairs stay coherent,
– Alter which spin configuration dominates,
– And thereby shift the ratio of energy → heat vs. energy → signaling molecules.
In practice this can translate into:
– Increased or decreased oxidative stress depending on field parameters.
– Changes in antioxidant enzyme activity (like superoxide dismutase, catalase, glutathione peroxidase).
– Altered mitochondrial respiration rates and ultimately fatigue or inflammation patterns.
These are subtle effects: you won’t feel “hot,” but your cells can become chemically “irritable.”
Side Bar: What is the Larmor precession frequency?
Key Concepts Larmor Precession: The spinning motion of a magnetic moment (like a nucleus’s spin) around the axis of an applied magnetic field.
Larmor Frequency. The angular frequency (or frequency in Hertz) of this precession.
Magnetic Moment: A property of particles like electrons and protons that makes them behave like tiny magnets.Gyromagnetic Ratio: A unique constant for each type of particle (e.g., proton, carbon-13) that links its magnetic moment to its angular momentum.
How it Works Spinning Top Analogy: Imagine a spinning top. When you tilt it, gravity exerts a torque that causes the top to wobble in a circle around the vertical axis, not fall over immediately.
Magnetic Field’s Role: In a magnetic field, a particle with spin acts like a tiny magnet. The external magnetic field exerts a torque on this magnetic moment, causing it to precess (wobble) around the field’s direction.
Significance & Applications MRI (Magnetic Resonance Imaging): MRI machines use strong magnetic fields to make water protons precess at specific Larmor frequencies, allowing doctors to create detailed images of the body.
NMR (Nuclear Magnetic Resonance) Spectroscopy: Chemists use it to identify molecules by analyzing the different Larmor frequencies of nuclei (like hydrogen or carbon) in different chemical environments.
Back to original report.
🔁 3. Photobiomodulation — the constructive side of the same coin
On the opposite side, deliberately tuned light or EM exposure can improve mitochondrial performance.
This is the basis of red and near‑infrared light therapy (600‑1100 nm):
1. Photons are absorbed by cytochrome c oxidase, the enzyme that gives the ETC its final push.
2. The light frees up nitric oxide bound to that enzyme, raises oxygen utilization, and increases ATP output.
3. Healthy oxidative metabolism reduces excess ROS, speeds tissue repair, and decreases inflammation.
All this again occurs with negligible heating—each photon has just enough energy to shift an electron state, not to warm the cell.
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🧬 4. The dark mirror — when the same mechanism goes wrong
If external radio‑frequency (RF) or extremely low‑frequency (ELF) fields continuously interfere with electron‑spin coherence in mitochondria:
– Radicals might fail to recombine properly.
– The “redox balance” may drift toward oxidative stress.
– Cells interpret that as chronic stress, triggering DNA‑damage responses and inflammatory cytokine release.
This pattern is observed, for example, under prolonged low‑intensity microwave exposure in some lab studies: rise in ROS with no temperature change.
So, the same physical principle—field‑modulated electron spin dynamics—explains both the therapeutic effects of light and the potential subtle toxicity of incoherent low‑level fields.
It’s not about watts; it’s about how organized or disorganized the electromagnetic information is.
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🔬 5. Summary Table
🧠6. The key takeaway
> Biology is built on resonant flows of electrons.
> Magnetic and electromagnetic fields guide those flows like a conductor leading an orchestra.
> If the frequencies are harmonious (coherent, biocompatible), the result is vitality; if dissonant or chaotic, the result is oxidative stress and dysfunction — all without a single degree of heating.
Connect this redox‑field interaction to neurological and psychological effects, e.g., fatigue, anxiety, or cognitive changes linked to chronic EM exposure or circadian misalignment?
🧠 I. How the brain runs on redox and rhythm
Your brain is the single most energy‑hungry structure in the body.
– It represents ~2 % of body weight but uses ~20 % of total oxygen and glucose.
– Its neurons can’t store fuel; they rely on continuous mitochondrial ATP output.
Normal cognition and mood stability therefore depend on:
1. Efficient electron transport within mitochondria, and
2. Synchronized timing of billions of neurons communicating together.
When redox signaling or rhythmic synchronization is disturbed — even slightly — the consequences are immediate: mental fog, anxiety, depression, sleep disturbance, or hyper‑reactivity.
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⚙️ II. How electromagnetic fields contribute
1. Mitochondrial redox imbalance in neural tissue
– Weak radio‑frequency (RF) or extremely‑low‑frequency (ELF) fields can destabilize radicals during ATP production.
– The brain responds with micro‑inflammation and increased reactive oxygen species (ROS).
– Glial cells activate as if defending against infection; this subtly suppresses neuroplasticity.
– Chronic oxidative stress impairs neurotransmitter synthesis (especially dopamine and serotonin), promoting fatigue and depressed mood.
2. Disrupted calcium signaling and excitability
– Neurons depend on calcium fluxes for firing precision.
– Field‑induced changes in Ca²⁺ handling (through ion‑resonance mechanisms) can lead to either over‑excitation or inhibition.
– The result feels like anxiety, restlessness, or sudden tiredness depending on field exposure patterns.
Dr. Martin Pall has published on this and has videos that explain voltage-gated calcium channels.
3. Desynchronization of circadian timing
– The pineal gland uses magnetic‑ and light‑sensitive molecules (again, cryptochrome family) to release melatonin at night.
– Artificial light at night or electromagnetic noise suppresses this cue, delaying sleep onset.
– Poor sleep multiplies oxidative stress, creating a feedback loop of metabolic and cognitive decline.
🌙 III. Typical symptom cluster from chronic EM‑related dysregulation
These appear identical to early‑stage burnout or mood disorders, which is why they’re easy to dismiss as psychological when the origin may be metabolic.
🕯️ IV. The inverse: electromagnetic coherence promotes calm clarity
Just as disharmonic fields can disturb the system, coherent light or rhythmic fields can restore it:
– Near‑infrared photobiomodulation of the temples increases prefrontal mitochondrial energy and cognitive performance within minutes.
– Schumann‑resonance frequency entrainment (~7.8 Hz) has been correlated with relaxed EEG alpha patterns and improved sleep.
– Grounding or natural magnetic exposure stabilizes charge distribution, reducing inflammation and normalizing circadian cortisol–melatonin cycles.
These are the “healing harmonics” of the electromagnetic environment our physiology evolved with.
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🧭 V. Putting it together
1. Redox balance in neurons regulates thought clarity and mood.
2. Electromagnetic environment can subtly shift that balance by influencing radical chemistry and ion behavior.
3. Disrupted circadian light patterns compound the effect.
4. The combination produces neurochemical consequences detectable as anxiety, depression, or cognitive fatigue — without heating tissue one degree.
Conversely, re‑establishing natural field coherence (proper light–dark cycles, limiting chronic RF exposure, and using targeted photobiomodulation) re‑stabilizes mitochondria and restores mental performance.
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🧩 VI. Simple ground‑truth summary
> Your brain is an electrochemical symphony.
> Every thought arises from electrons flowing through mitochondria in time with electromagnetic rhythms of Earth and light.
> When those rhythms become noisy or distorted, the chemistry drifts — energy falters, mood sinks, and focus shatters.
> Healing begins not with more voltage, but with better timing and cleaner signal.
[Note: Dr. Tennant talks about healing as voltage. Here is an absolutely brilliant lecture he gave at a conference in 2017.]
What do you mean by “information”?
🧩 1. What “information” is not
It’s not data written down in words or numbers, and not a metaphorical “vibe.”
In physics and biology, information means a pattern of organization — the way energy or matter is arranged in time and space.
For example:
– Two light pulses that carry the same total energy can act very differently if one arrives as a short, coherent burst while the other dribbles randomly.
– Their total energy (the heating effect) is the same.
– Their information content — the pattern, timing, and phase relationships — is different.
That pattern is what biological systems can read.
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🧠 2. The three layers of an electromagnetic signal
Every field or wave has three interlocking pieces:
The phase and modulation are what we call information — the fingerprint the system can recognize.
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🧬 3. Why living systems care
Cells aren’t passive blobs of chemistry. They’re organized like vast receiver networks:
– DNA, membranes, and proteins vibrate at specific frequencies.
– Ions and radicals act as mobile antennas registering variations in local fields.
If a field’s modulation or rhythm matches a biological oscillation, it can change the probability of certain biochemical events.
That’s “information coupling.”
At the cellular scale, energy tells you that something happens; information tells you which thing happens.
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⚛️ 4. Everyday analogies
a) Radio example
A radio station and a microwave oven both use electromagnetic waves.
– The microwave oven sends random high‑power energy at 2.45 GHz → heats water (pure energy transfer).
– The radio station sends tiny power but patterned modulation → delivers speech or music (information transfer).
Your tissues can be affected the same way: not just by how much energy, but by what pattern that field carries.
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b) DNA and proteins as readers
DNA transcription and protein folding respond to electric potentials and quantum coherence.
When external fields alter timing or spin states, that change is informational:
> The field whispers, “fold this way instead of that way,” without ever “shouting” thermally.
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🌍 5. In the language of physics
Information = reduction of uncertainty; mathematically, it’s the same idea used in Shannon’s theory and in thermodynamic entropy.
A random, noisy field has high entropy and little usable information.
A coherent, rhythmic field has low entropy and high information density.
Life feeds on negentropy — ordered flow that maintains structure against decay.
That’s why coherent light (sunlight, or laser‑like near‑infrared) nourishes cells, while incoherent flicker or random RF noise tends to exhaust them.
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⚖️ 6. Simple phrasing
> Energy is the strength of a signal.
> Information is the shape and timing of that signal.
> Energy warms things. Information organizes things.
In biology, information is the difference that makes a difference — the pattern an organism can use to guide its own chemistry.
🔴 Coherent Red / Near‑Infrared Light (Heals)
🔵 Flickering High‑Blue / Random RF Field (Stresses)
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What’s happening at the molecular level
In red/NIR light:
– Photons all arrive in phase, like disciplined waves marching together.
– The pattern carries consistent timing (~10¹⁴ Hz optical carrier + gentle biological pulse).
– Chromophores (especially cytochrome c oxidase) can “read” that order—electrons flow more efficiently → mitochondria output more ATP.
In flickering blue light or jittery RF:
– The field’s amplitude and phase jump around unpredictably.
– No consistent rhythm for molecules to lock onto.
– The random spin perturbations confuse redox signaling → cells waste antioxidants, creating oxidative stress and mental fatigue.
Same total energy, opposite informational quality.
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🩺 Practical takeaway
> – Seek coherent, rhythmic light exposure (sunrise/sunset light, stable warm bulbs, intentional red/NIR therapy).
> – Minimize erratic, blue‑heavy, flickering and digital RF environments, especially at night.
> – Energy without order becomes biological static; energy with order becomes nourishment.
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🔧 Practical shorthand
Bottom Line: Even minor alterations in the spin of electrons at non-thermal intensities can have far reaching biological effects, both good and bad. What I find fascinating is that most of the research mentioned above was discovered by experts in biology and medicine rather than by those specializing in physics. And, it is often physicists who repeatedly chant the out-dated mantra that “non-ionizing radiation can NOT cause cancer (as an example) because it doesn’t have enough energy to break chemical bonds”. They understand physics and electron spin but most don’t have a sufficient understanding of biology. They think that exposing an inert mannequin called SAM (Specific Anthropomorphic Mannequin) to radiofrequency radiation and testing the amount of energy absorbed (known as the specific absorption rate or SAR) is a good test of how this radiation affects a living human being. From a biological perspective … nothing is more absurd!