Fasting and calorie restriction happens naturally via leptin melanocortin signaling and the effect of VDR on the IMM ECT. First principle thinking alone tells you that sunlight does this and lowers GDF15 mimicking calorie restriction. Avoiding Stress-Inducing Activities is also modulated by leptin melanocortin signaling by raising Parasympathetic signaling and controlling SNS. Sleep and recovery are increased by AM solar exposure. The sun is the best way to lower GDF15 and nothing approaches its success.
2. Leptin-melanocortin signaling can modulate autonomic nervous system activity, increasing parasympathetic tone and dampening SNS activity, which reduces stress responses like adrenaline release. GDF15 is upregulated by SNS activation (e.g., adrenaline-induced lipolysis in mice), so enhancing parasympathetic signaling could theoretically prevent GDF15 spikes.
3. Stress reduction via parasympathetic dominance (e.g., through relaxation or leptin-mediated hypothalamic effects) lowers GDF15 by avoiding stress-induced triggers. Reducing SNS activity aligns with reactions of GDF15 lowering to a decreased metabolic stress, decreasing GDF15, The SNS and the leptin-melanocortin pathway act in unison to lower chaos to improve signal fidelity.
4. Morning sunlight exposure (rich in blue light) entrains circadian rhythms via the suprachiasmatic nucleus, boosting melatonin production at night and improving sleep quality. Better sleep reduces cortisol and systemic stress, which could indirectly prevent GDF15 elevation, as GDF15 is stress-responsive.
5. Improved sleep and recovery lower inflammatory markers, which stabilize GDF15 levels over time.
First Principles: Sunlight’s role in circadian alignment and stress reduction supports a plausible mechanism for lowering GDF15
6. Sunlight lowers GDF15 by mimicking calorie restriction because of the simultaneous actions of VDR on the IMM with NO slowing ATP production and continues IRA light powering up water's magnetic flux to change its physical structure to perform physiologic work. It is biologically plausible but lacks direct evidence because no biochemist or biophysicist has thought to test it.
Here’s why it works: Mechanistic Support: Sunlight activates VDR, reduces inflammation, and aligns circadian rhythms, all of which would reduce metabolic stress and mimic calorie restriction’s effects. GDF15 decreases during fasting, and sunlight’s anti-inflammatory effects (via vitamin D) or stress reduction (via circadian/sleep benefits) would replicate this.
7. The strongest evidence for acutely lowering GDF15 is short-term fasting (24–48 hours), which reduces metabolic demand and GDF15 levels in humans. This aligns with my point about leptin-melanocortin signaling’s role in energy balance.
Sunlight Exposure: Morning sunlight (15–30 minutes daily) could support chronic GDF15 reduction by reducing inflammation and stress, To test this, we could measure GDF15 levels (via blood tests I have) before and after a week of consistent morning sunlight exposure, ideally with medical oversight.
Stress Reduction: Enhancing parasympathetic tone (e.g., through meditation or vagal nerve stimulation) may prevent GDF15 spikes, supporting my point about autonomic balance. I use several vagal maneuvers to lower SNS signaling. tongue to the roof of the mouth, rubbing ones eyes, or cooling the carotid system all lower GDF15. I know because I have already measured the effects.
8. Since GDF15 is part of the TGF-B superfamily how would theoretical biophysicist Davydov view it? GDF15, or Growth Differentiation Factor 15, is a protein belonging to the TGF-β superfamily. It is synthesized as a larger precursor protein called pre-pro-GDF15, which is then processed into a mature, active form. The mature GDF15 is a homodimer, meaning it consists of two identical protein chains linked together by disulfide bonds. A key feature of GDF15's structure is the presence of a cysteine knot motif and a fourth intrachain disulfide bond not typically found in other TGF-β superfamily members.
9. A.S. Davydov’s paper, “Energy and Electron Transport in Biological Systems” (1994), focuses on the biophysics of energy and electron transport in biological molecules, particularly through the lens of soliton dynamics in protein structures like alpha-helices. To evaluate how Davydov’s framework applies to GDF15 (Growth Differentiation Factor 15), a member of the TGF-β superfamily, we need to consider GDF15’s structural and functional properties in the context of Davydov’s soliton-based model for energy and electron transport.
10. What we do know about the protein even though no lab has gotten off their asses to ask the right questions.
GDF15 Structural FeaturesHomodimer Structure:
GDF15 is a homodimer, with two identical polypeptide chains linked by disulfide bonds. This dimeric arrangement is common in the TGF-β superfamily and provides a stable, folded structure critical for receptor binding and signaling.
Cysteine Knot Motif: The cysteine knot, formed by multiple disulfide bonds, creates a rigid, compact core that stabilizes the protein’s tertiary structure. This motif is characteristic of TGF-β superfamily members and contributes to their structural integrity.
Unique Fourth Intrachain Disulfide Bond: Unlike most TGF-β superfamily members, GDF15 has an additional intrachain disulfide bond, which confers distinct conformational properties or stability based on the laws of physics and chemistry.
Pre-pro-GDF15 Processing: GDF15 is synthesized as a larger precursor (pre-pro-GDF15) that is cleaved to produce the mature homodimer. This processing involves conformational changes and disulfide bond formation, which are energetically significant.
11. Davydov’s paper emphasizes the role of nonlinear dynamics, particularly solitons, in facilitating efficient energy and electron transport in biological systems. While his work primarily focuses on alpha-helical proteins (e.g., in muscle or membrane proteins), the principles can be extended to other protein structures, including GDF15, with some caveats.
Here’s how Davydov’s ideas might relate to GDF15:
Soliton-Mediated Energy Transport:
Relevance to GDF15: Davydov’s soliton model describes how vibrational energy (e.g., from ATP hydrolysis or other exothermic reactions) is transported along protein chains as localized, self-reinforcing wave packets. In GDF15, energy transfer should be relevant during the folding and maturation of the pre-pro-GDF15 precursor or during its interactions with receptors (e.g., GFRAL, the GDF15-specific receptor).
The cysteine knot and disulfide bonds create a highly ordered, stable structure, which would theoretically support coherent energy propagation, similar to the lattice-like structures Davydov describes in alpha-helices.
12. Structural Considerations:
The cysteine knot motif and additional disulfide bond in GDF15 form a rigid scaffold, potentially acting as a “lattice” for vibrational energy transfer. The homodimeric structure might allow for symmetric energy propagation across the dimer interface, enhancing stability of soliton-like excitations. However, GDF15’s compact, globular structure (unlike the extended alpha-helical chains Davydov studied) may limit the formation of long-range solitons, as the spatial extent of vibrational modes could be constrained.
Application: Energy transfer via solitons could be relevant during GDF15’s folding process, where the formation of disulfide bonds requires precise energy delivery to achieve the correct conformation. This process might involve localized vibrational excitations that couple with the protein’s structural dynamics, as Davydov 1994 paper suggests.
13. Electron Transport and Bisolitons、
Bisolitons: Relevance to GDF15: Davydov’s concept of bisolitons, which are paired electron states stabilized by lattice interactions, would apply to electron transport in GDF15 during redox-related processes or receptor interactions.
The cysteine residues in GDF15’s knot motif and additional disulfide bond are electron-rich sites, potentially facilitating electron transfer or stabilization of electronic states during signaling.
Structural Considerations: The disulfide bonds, particularly the unique fourth intrachain bond, could serve as electron conduits or influence the electronic properties of the protein. The cysteine knot’s rigidity might support coherent electron transport by minimizing energy dissipation, aligning with Davydov’s emphasis on nonlinear, low-loss mechanisms.
However, GDF15’s primary role as a signaling molecule (rather than an electron transport protein like those in mitochondria) suggests that electron transport might be less central than energy transfer.
Application: If GDF15’s signaling involves redox changes or electron-mediated interactions with its receptor (GFRAL), Davydov’s bisoliton model should theoretically describe how electrons are stabilized and transported within the protein’s structure during these events.
14. Quantum Coherence and Nonlinear Dynamics:
Relevance to GDF15: Davydov’s model relies on quantum coherence to explain how solitons maintain their integrity in biological systems. For GDF15, quantum effects should play a role in the precise folding of its cysteine knot or in stabilizing its dimeric structure during receptor binding. The ordered arrangement of disulfide bonds might support vibronic coupling (interactions between electronic and vibrational states), a key feature of Davydov’s theory.
Structural Considerations: The cysteine knot and disulfide bonds create a highly constrained, low-entropy structure, which could enhance quantum coherence by reducing thermal disruptions. However, GDF15 operates in aqueous, physiological environments where solvent interactions and thermal fluctuations might challenge the stability of coherent excitations, as noted in critiques of Davydov’s model.
Application: Quantum coherence might be relevant during GDF15’s interaction with GFRAL, where precise conformational changes are required for signaling. The energy landscapes of the cysteine knot and disulfide bonds could support transient coherent states, facilitating efficient signal transduction.
15. Role of Protein Structure: Relevance to GDF15: Davydov emphasizes the importance of ordered protein structures (e.g., alpha-helices) for soliton propagation. While GDF15 lacks alpha-helical dominance, its cysteine knot and homodimeric organization provide a highly ordered framework that should theoretically support similar nonlinear dynamics. This shows you why centralized scientists are frustrating to guys like me. They do not change their opinions without a paper. None of them use first pprinciple thinking to apply lesson learned from 1994 to think about why Nature built GDF15 as it did.
The additional disulfide bond may further stabilize this structure, potentially enhancing the efficiency of energy or electron transfer.
Structural Considerations: The cysteine knot’s rigidity and the symmetry of the homodimer could mimic the lattice-like properties Davydov describes, allowing for localized vibrational or electronic modes. However, the compact nature of GDF15’s structure might limit the spatial range of soliton propagation compared to extended protein chains.
Application: The ordered structure of GDF15 could enable efficient energy transfer during its biosynthesis or receptor binding, ensuring that conformational changes are rapid and precise, as required for its role in stress response and metabolic regulation. GDF was built for the leptin melanocortin pathway as a signaling beacon to maintain accuracy, in my opinion. Water directly effects its quantum abilities via the heat sink ideas I shared in my decentralize thesis.
16. Water is beyond queer for the normie biochemist. They have no idea how it changes their models when light is added to it.
Hydrogen in water is not homogeneous on Earth. Dipoles can stack together in dipole interactions with alternating positive and negative poles next to one another. They also can interact electrostatically with other charged ions and other dipoles that are dissolved in water. Not all forms of hydrogen do this. Deuterium does not.
Chemistry Geeks: Water is most famous for forming hydrogen bonds with other water molecules and with other ions dissolved in it. A hydrogen bond consists of a hydrogen shared between two electronegative atoms like oxygen or sulfur. The compound that donates the hydrogen to the chemical reaction is the hydrogen donor, and the acceptor atoms are the hydrogen acceptor. Water is unique because it can be both an acceptor and a donor of hydrogen provided that hydrogen can move easily. Not all hydrogen can act this way in a cell. In fact, it can donate two hydrogens to reactions.
When hydrogen has an alternative spin it makes the water molecule take on the tetrahedral structure in its frozen form linked in a crystalline hexagonal array in crystal ice. Normally different isotopic forms of compounds behave very similarly to each other. However, nuclear quantum effects in the water molecule are significant and differ between the isotopic forms.
The heavier forms of water (D2O where D = deuterium (D), 2.0141 g ˣ mol-1; and T 2O where T = tritium, 3.0160 g ˣ mol-1) form stronger hydrogen bonds than light water (H2O where H = protium, 1.0078 g mol-1).
As bond strength varies this means the heavier versions of hydrogen vibrate less than expected. This is true in the matrix mitochondria or in the reactions that control the circadian mechanisms.
Hence hydrogen isotopes, D and T are more ordered than normal water, as shown by their greater molar volumes, are more tetrahedral and have more hydrogen bonds. This causes many of their properties (such as the viscosity, self-diffusion coefficient, protein solubility, toxicity a and biological activity including the effect on the frequency of circadian oscillations. This means deuterium can affect circadian mechanisms directly. It also means it affects GDF15 signaling. GDF15 is linked to the paramagnetic toggle effect in water.
17. The dipole nature and propensity for hydrogen bonding are why water has an unusually high dielectric constant of -78 at room temperature. This makes it the most polar solvent in all of chemistry and biology! This fact alone should have gotten biochemists attention that intracellular water is really critical but it has not. (@MitoPsychoBio or @msahsorin )
Physics Geeks: Why is this a big deal? In QED and semiconduction, anything with this high a dielectric constant becomes easily polarized by an electric field. This is why the quantum magic can happen with water. The dielectric constant is also known as a relative static permittivity ability. This is a measure of the extent of which it concentrates electrostatic lines of flux relative to a vacuum. This is very important in semiconduction science for a coherent flow of current. The hydrogen bonds serve to align the dipoles, and at the same time, pulling away positive and negative charges within the molecule, and this acts to enhance the molecular polarization in liquid water.
Non Geeks: Because of these abilities collectively it makes water extremely versatile in creating supramolecular structures in water. This is why water can be thought of as structured and unstructured.
We call unstructured water bulk water. This has been extensively studied by Dr. Phillipa Wiggins way before Pollack got in the water game.
To give you an analogy of the variety of the supra structures in water let us consider ice. In nature, we see snowflakes, icicles, and packed ice in snow caps, in glaciers, and in icebergs. Snowflakes are so structured that each one is unique in its own right. When water is studied in the lab there are 15 known crystalline forms of ice that can appear under different temperatures and pressures. Some are amorphous noncrystalline forms of ices and there is glass like ices that are transparent but non-crystalline too. Biochemists never control for how light controls these biophysical dynamics.
18. Back to why I wrote this thread......Dr. Picard asked a simple question. What lowers GDF15 signaling. The simpla answer is sunlight. How it does this is complex biophysics that has not been done yet. The theoritical framework however has been done to create the experiment. I have test blood and saliva od GDF 15 so I know the answer in people. the PEER literature has a big open whole in it because no one has done the experiment or written the paper. Absense of evidence does not mean absense of effect. First principle thinking told me long ago that the sun would drop GDF15 like a rock. Its cycteine knot was my clue. See glutathione for a hint.
19. From Davydov’s viewpoint, GDF15 should be seen as a system where its ordered structure (cysteine knot, disulfide bonds, homodimeric arrangement) supports efficient energy and electron transfer during key processes:
Folding and Maturation: The formation of GDF15’s disulfide bonds and cysteine knot during maturation likely involves significant energy redistribution. Soliton-like mechanisms should ensure that this energy is delivered precisely to facilitate correct folding to control entropy.
Receptor Binding and Signaling: GDF15’s interaction with GFRAL requires conformational changes that should involve localized energy transfer via calcium flows. The soliton model might describe how these changes are energetically optimized, potentially involving quantum coherence.
Redox-Related Functions: If GDF15’s signaling involves redox changes (e.g., via its cysteine residues), the bisoliton concept would perfectlyexplain how electrons are stabilized and transported within the protein.
20. While Davydov’s paper does not directly address GDF15 or TGF-β superfamily proteins, its soliton-based framework for energy and electron transport can be conceptually applied to GDF15 by focusing on its ordered structure and dynamic processes. The cysteine knot motif and additional disulfide bond provide a stable, lattice-like scaffold that could theoretically support soliton or bisoliton dynamics, particularly during folding, maturation, or receptor interactions. However, GDF15’s compact, globular structure and signaling-focused function present challenges to the direct application of Davydov’s model, which is better suited to elongated, bioenergetic proteins. Experimental studies would be needed to validate whether soliton-like mechanisms occur in GDF15, particularly given the environmental and structural constraints. Nonetheless, Davydov’s ideas offer a provocative lens for exploring the biophysics of GDF15’s structural and functional dynamics, highlighting the potential role of nonlinear and quantum effects in its biological activity.
21. END OF LESSON.
22. @threadreader make me a roll.
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1. Why would anyone listen to MDs who think blocking the sun is wise?
2. The study I am referencing, published in 2016 in Arteriosclerosis, Thrombosis, and Vascular Biology, suggests that UVB exposure may prevent atherosclerosis by regulating immuno-inflammatory responses. This aligns with my point that UV light could influence nitric oxide (NO) production and oxygenation, which are linked to mitochondrial function and NK cell activity.
The idea that a lack of UV light might contribute to conditions like Peripheral Arterial Disease (PAD) and atherosclerosis, and that breathwork and NO support health, is an unknown fact in centralized medicine. Millions of people have died from blocking the sun.
Additionally, UVB's potential to modulate the adaptive immune system has massive implications for autoimmune and chronic inflammatory diseases.
Although the data is nearly a decade old, it highlights a potential gap in current centralized medical paradigms, particularly in specialized fields such as dermatology, lipidology, and cardiology. However, the widespread adoption of such findings requires further research and clinical validation in decentralized medicine, as the laws of physics are clear in their operation.
3. UV light changes the structure of water in your cells to do things you cannot fathom. It builds structures from water to trap energies.
The meeting was en fuego but something is cooking that may fry the technocracy's plans.
The Mediterranean Sea is experiencing a thermal anomaly so extreme it’s being called a 1-in-216-billion-year event.
To understand how rare that is:
Earth is only 4.5 billion years old.
This heat spike is 48x older than the planet itself.
It’s 15x rarer than the entire age of the universe.
And statistically, it’s as likely as winning the lottery 1,500 times in a row.
So no — this isn’t “just a bad summer.”
This is geophysical madness.
And mainstream science has no explanation.
They’ll blame CO₂.
They’ll say “heat dome,” or “blocking pattern,” or “unusual atmospheric currents.”
But ask them this:
Why is the epicenter of ocean heating located in a tectonically active, magnetically unstable, semi-enclosed basin with active subduction zones and mantle volatility?
They won’t answer — because they can’t.
But CDIGR can.
CDIGR (Core Displacement & Geodynamic Rebalancing) explains this perfectly:
The Mediterranean Sea lies directly above the:
– Hellenic Arc subduction zone
– Calabrian Arc volcanic system
– African-Eurasian compression boundary
– Gibraltar Fault pressure node
All of these are torque points in the planet’s crust — where energy from the inner Earth escapes.
As Earth’s core slowly displaces, angular momentum and internal pressure rise, forcing heat upward through thin crustal zones. This upwelling mantle heat doesn’t just warm the sea — it’s altering ocean density, magnetism, and biological life.
This isn’t from the sky.
This is from deep within the planet.
GRACE satellite data already shows mass redistribution under Europe and North Africa.
Earth Orientation Parameters confirm polar wobble is increasing.
The magnetic field is weakening over these same zones at a tremendous rate.
SST anomalies are appearing exactly where CDIGR said they would: at trench systems, volcanic arcs, and mantle gateways.
This is the Earth screaming through its crust.
Mainstream science offers no mechanism , only centralized pseudoscience explanations tied to the observations.
CDIGR offers a full model, with predictive accuracy and physical logic.
This Mediterranean anomaly is not random. It’s not atmospheric.
It’s the pressure valve of a rebalancing planet.
You can believe in coincidence, or you can believe in pattern.
I warned my Savages that the technocracy has some risks to its power and that Nature would respond.
I told the EU the Mediterranean basis would become a flashpoint.
And now it has.
This isn’t climate change.
This is a core event.
Be ready Savages, Nature's answer to the digital euro, IoT, IoB, and all their nnEMF is incoming.
2. Mainstream media has an agenda to gaslight Earth’s Magnetic Shield collapse and sell you the drama of climate change when it is not. This is how they are managing resources post event for their benefit.
The weaker the magnetosphere, the more solar forcing pushes deeper into the mantle and core via the Global Electric Circuit. As a result, we get an acceleration in Earth’s energy imbalance and it leads to the pictures above.
We’re now getting closer to the water boiling over on the stovetop = more lava and earthquakes where the mantle is rising. But what’s going on between the core and the mantle is more alarming if it reaches a threshold.
What’s the most likely driver of how this is playing out? The poles are moving and weakening the magnetic shield due to a cyclical electromagnetic wave within this region of the galaxy called the Galactic Current Sheet.
This is a more probable case because of the vast electromagnetic changes happening in our solar system and ALL of the planets now, not just Earth. People think the evidence is not in every other planet but it is. The Earth is not doing its own thing like it’s somehow its own closed off vacuum ignoring the solar system altogether. Earth, the sun and the planets are interconnected by this plasma sheet, just as our sun is and this is the stage that this play is being built upon. Many will be part of this coming experience, the next extraterrestrial Event won't be a 6 mile wide asteroid.
3. When the magnetic field weakens on Earth we become a bigger target. If you are jabbed and we get hit with a small solar CME your chances of dying from a heart attack is higher than 3 X. FYI.
2. I just read what you wrote here Jack. Blew my mind and explains so much. To say it's on the next level of understanding is like saying Nobel Prize work is like college chemistry. I will have to reread to really digest it. Just amazing.
"Food is essentially a conduit for carry information and energy to the gut microbiome to the brain by way of the vagus nerve. Think of your nerves as rivers, and your brain as a lake, into which all those rivers empty. These rivers are filled with water and with light. When “the rivers” arrive at the brain, it decipher’s the quantum light message from the gut, at the leptin receptor. This energy and information then crafts or sculpts the type of gut microbiome diversity based upon the quantum light signal by using quorum frequency sensing. Electrons are how light hitches a ride free of an energy toll in eukaryotes. DHA makes this possible. This is why the photoelectric effect is a key part of healthy eukaryotic life."
What do you really think fen/ben and IVM are doing? They are light sabers. Look at their absorption and emission spectra........I DARE YOU.
3. No one seems to know what makes chemicals carcinogenic and others benign, even when they are chemically similar. In 1970, Fritz-Albert Popp, a German theoretical biophysicist, discovered that benzo(a)pyrene, (a potent carcinogen) , absorbs ultraviolet light at one specific wavelength and emits it at another. Yet, benzo[e]pyrene, a benign polycyclic hydrocarbon known to be one of the most lethal carcinogens to humans, and its twin (save for one small alteration in its atomic molecular makeup). Benzo[e]pyrene is nearly identical twin to benzo[a]pyrene, absorbs and reemits the same light at its original wavelength.
They key to Popp’s research was in the atomic lattice and how light was altered by the atoms. "Small changes in the action of light lead to massive changes in observed reality. Again, we see thermodynamics entering the picture via E=mc2. Popp tested 37 different chemicals in total. The carcinogens “scrambled” light with a wavelength of 380 nanometers. The benign chemicals did not." "Popp later learned that 380 nanometers, the wavelength altered by carcinogens, is also the wavelength that cells prefer to use to photorepair themselves (mTOR).
The Malate-Aspartate shuttle and its role in connecting cytoplasmic and mitochondrial NAD+/NADH pools are linked to sunrise effects on TCA cycle stoichiometry. This connection arises because circadian cues from sunlight can modulate TCA cycle intermediates (like malate), which the shuttle relies on to maintain NAD+/NADH balance across cellular compartments. NAD+ has a 258 nm absorption spectra and NADH is 340nm. LIGHT is a huge part missing in this story.
2. Ionized Hydrogen (H+) in Mitochondria
Proton Jump Conduction (Grotthuss Mechanism): Within mitochondria, H+ ions (protons) are abundant in the matrix. These protons can move rapidly through water via the Grotthuss mechanism, which involves quantum tunneling. This mechanism allows protons to hop through the hydrogen bonding network, effectively creating superconducting proton cables that facilitate rapid communication.
Ionic Plasma Formation: When hydrogen is ionized, it forms an ionic plasma that behaves like a liquid metal. This plasma, enhanced by iodine, enables efficient charge transport within mitochondria and other cellular fluids like cerebrospinal fluid (CSF). The presence of iodine in CSF, for instance, helps form these superconducting proton cables, linking mitochondrial function to environmental signals.
3. Light Excitation of Electrons:
Mitochondria release infrared light, which interacts with the surrounding water to charge separate it into H+ and OH⁻ ions. This light also excites electrons within the electron transport chain (ETC), influencing the redox state and energy transfer efficiency. The interaction of light with water and mitochondria is crucial for sensing environmental changes.
Magnetic and Electric Fields:
Mitochondria, due to their high density of H+ ions and the presence of transition metals in the ETC, generate strong electric and magnetic fields. These fields can interact with environmental electromagnetic forces, such as those from the ionosphere or solar radiation, to modulate mitochondrial function. The paramagnetic nature of oxygen further enhances this interaction, drawing it towards mitochondria.
DNA's use of helical geometery seems to have a lot on common with the Cosmosi use of electric and mangetic flux in a Birkeland current's organization.
I'm drawing an intriguing parallel between DNA’s supercoiled, torsion-driven structure and the organization of a Birkeland current. Birkeland currents, observed in plasma physics (e.g., in space plasmas or auroras), are helical, twisted flows of charged particles guided by magnetic fields, carrying electric currents along twisted magnetic flux tubes. The sun does the same.
This similarity in helical geometry and energy storage is a fractal I have explored in many blogs. this is why polarization is a big deal. It is why sunglasses are a problem and this showed up in Becker's experiments on sleep.
The Sun and mitochondrial colony is connected in this way wirelessly.
Both systems rely on twist as a stabilizing and functional feature. DNA’s supercoiling stores mechanical torque (10-20 pN·nm) to regulate access and compact genetic material, while Birkeland currents use magnetic torsion to channel plasma and sustain current flow over vast distances.
In DNA, enzymes manage this torsion to control gene expression, akin to how magnetic fields guide and modulate the current in Birkeland structures. The idea of tension gradients in DNA mirrors the dynamic equilibrium of magnetic tension in Birkeland currents, where twist maintains coherence against chaotic dispersion.
Additionally, the role of structured water in DNA stabilization could parallel the plasma environment in Birkeland currents, where charged particles and fields interact to maintain structure.
Both systems suggest a self-organizing principle: DNA’s coil as a biological “engine” and Birkeland currents as a cosmic one, both leveraging geometry and torsion for energy management. While direct evidence linking the two is speculative, the shared physics of helical organization and torque-driven stability offers a fascinating conceptual overlap to explain how life connects to the fabric of the cosmos.
2. Everything in cells have a torsion. It is part of the AMO design inside of a cell which is another key to the mystery of the recipe of Nature. Torsion is the key regulator of energy tunneling: correct twist narrows the energy barrier, boosting tunnelling probability, while loose or damaged coils disrupt conduction. This is quantum control mediated by mechanical tension, measurable in experimental setups.
3. DNA’s selectivity is discriminating by wavelength, polarization, and direction which means it absorbs specific fields. When the right frequency hits, charge conduction increases, water layers shift, and genes unlock, pointing to field-gated biology.
This is why I have a problem with guys like Micheal Levin who say EMF is not a story in biology. This is pur bullshit.
Low-frequency EMFs can unwind or block access, while infrared from mitochondria restores torsional symmetry. Natural rhythms (Schumann, solar, circadian) serve as environmental tuning forks, influencing expression.
Chromatin loops and field-sensitive telomeres organize exposure, and gene expression becomes resonance matching, not just transcription.
Resonant coils store energy, transmit information, and respond to field alignment, mirroring DNA, which stores mechanical stress, converts torsion into access, and tunes to environmental signals. When aligned, this field-aware coil enables life to “speak fluently,” blending quantum biology with measurable physics at the edge of science.
2. Circadian biology uses what three metrics to control it, Jack? Light, dark, and temperature.
Potential Problems of living with Air conditioning?
Here’s a comprehensive list of potential issues, grounded in circadian biology and general health impacts:
Circadian Rhythm Disruption
Mechanism: Circadian biology relies on temperature as a zeitgeber (time cue). The body expects a gradual drop in core body temperature at night to promote sleep onset and maintenance. AC can create an unnaturally cold environment, potentially desynchronizing this process.
Effects: Difficulty falling asleep or staying asleep.
Reduced sleep quality (less restorative deep and REM sleep).
Altered melatonin production, as temperature dysregulation, can interfere with the pineal gland’s response to darkness.
Severity: Moderate, especially with chronic exposure, as it can lead to long-term sleep debt and hormonal imbalances.
3. Respiratory Issues: Mechanism: AC units can dry out the air, reducing humidity to levels that irritate the respiratory tract. They may also circulate dust, mold, or allergens if not properly maintained.
Effects: Dry throat, nasal passages, or sinuses, leading to discomfort or infections like sinusitis.
Exacerbation of asthma or allergies due to cold, dry air, or poor air quality. Increased risk of respiratory infections, as cold air may weaken mucosal defenses.
Severity: Mild to severe, depending on pre-existing conditions (e.g., asthma) and AC maintenance.