You are the light you’re memory looks to remember! Your body is full of tiny light sparks called biophotons, made inside your cells by sunlight and oxygen, lighting up your DNA and keeping everything in sync, like a natural glow that makes you who you are. Even your bones, which seem so solid, create little flashes of light when you move, connecting you to the sun, stars, lightning, and fireflies. This light isn’t just in you, it’s the same energy that powers the whole universe, and you’re part of it!
You’re full of amazing light-powered tricks, like how your eyes use blue light to set your daily rhythm or how sunlight helps make Vitamin D to keep you strong. The light of the sun is turned into a magnetic memory tape that is tuned to your RNA, DNA, and mtDNA via water. But modern stuff like phone screens or Wi-Fi can mess this up, like static on a radio, hiding your natural shine. Old science focused too much on genes and missed this light story. My idea is that you’re already perfect, part of the universe’s big light network. By soaking in sunlight and avoiding fake light, you can tune back into that harmony and feel the endless possibilities within you! You can remember where you really came from.
Light is the part of the cosmos that holds the memory of conscious thought, and when it’s discharged, for a myriad of reasons, the system doesn’t starve, it forgets how it supposed to dance with Nature. That is what a loss of consciousness or neurodegeneration really is at the core.
If we think about consciousness like a time chain that links a body of tissues with the cosmos, you begin to see consciousness like a living blockchain of quantum abilities.
THE NUANCE
Just studying surface level UPE emissions are not a wise choice when it comes to consciousness or understanding the complexity in life. These surface level UPEs are likely waste energy deemed superfluous by the dissipative system inside of cells. I do not believe Fritz Popp realized it. I think Van Wijk began to understand it but very late in his career based on what he wrote. I learned this lesson by reading their experiments carefully.
Why?
Photon-based signalling inside cells, such as between DNA and mitochondria, requires precise frequency and phase matching. Once a photon is absorbed, it transfers its energy and disappears, its information is embedded in the new quantum state. If the photon escapes the system, it becomes noise and not signal (Shannon’s Theorem). Observing the photon in transit collapses its state and destroys its meaning. This process is governed by quantum rules, making the original signal unreadable. Conscious information is effectively quantum encrypted and cannot be externally reconstructed. It is the UPEs created by the organization of the AMO physics of cells that holds the keys to understanding life. These UPEs are the small scales hold the mysteries of Nature we must resolve.
Endogenous internal photon signaling requires precise quantum coherence, and this idea suggests a hierarchical model is present in biophotonics.
Understanding UPE and TGF-β in This Context
Internal Signaling: Photons emitted within cells (e.g., between mitochondria and DNA) carry encrypted information via their frequency and phase. Upon absorption, this energy transfers to a new quantum state, embedding the signal in cellular processes (e.g., gene expression, mitochondrial function). This aligns with my view of life as a decentralized, light-driven system.
External UPE as Noise: Photons escaping the cell lose coherence (decoherence), becoming unreadable noise. Observing them mid-transit collapses their quantum state, destroying the original signal, as governed by quantum measurement principles.
Implication: Traditional UPE studies focusing on external emissions miss the critical internal dynamics. The small-scale UPEs generated by AMO physics within cells are the true carriers of conscious information, encrypted at a quantum level. It is these photons that are stored in light water holograms all over the body. Memory is recall of this fractal in any tissue. This insight came to me after I experienced the story of the child who donated his heart to a young lady who had an incredible desire for french fries post transplant. She never liked french fires before the transplant. Nature has to have a way to explain this phenomena. She was conscious of his memory of death.
I think GDF15 was a key step in building our conscious experience. Its action on our neural networks began in the GOE and expanded tremendously over the last 600 million years. The TGF-β superfamily, particularly GDF15 and TGF-β1, likely played a pivotal role in modulating these internal UPE signals.
Ultra-Weak Photon Emission (UPE): As I have laid out in this series meticulously UPE refers to the emission of low-intensity photons (typically in the ultraviolet to visible range) which come from biological systems, often linked to oxidative processes, mitochondrial activity, and reactive oxygen species (ROS). These emissions are extremely weak (on the order of 10^-19 to 10^-16 W/cm²) and are thought to arise from many biochemical reactions, particularly those involving electron transitions in excited molecules like carbonyls, peroxides, or other reactive species. UPE is studied as a non-invasive indicator of cellular health, stress, or metabolic activity.
TGF-β Superfamily: I have mentioned BMP and GDF15 as key proteins that are part of this light blockchain inside of you. This superfamily includes structurally related proteins (e.g., TGF-β isoforms, BMPs, activins, inhibins, GDF15 are others) that act as photonic signaling molecules that are the levers that contain light to drive biological blockchains to give you the life you have and experience via consciousness. They bind to serine/threonine kinase receptors, activating pathways like SMAD signaling to regulate gene expression, cell growth, differentiation, apoptosis, and tissue repair. Their roles in inflammation, immune modulation, and tissue remodeling are particularly relevant, as these processes involve oxidative stress, which is a key driver of our UPE blockchain that drives, sleep, wakefulness, and consciousness.
Let me revisit and old example that is sitting on the forum here.
TGF-β1 induces ROS, influencing cell proliferation, apoptosis, and tissue remodeling. This ROS could drive UPE production within cells, potentially synchronizing with AMO physics to maintain coherence to build the conscious experience. The ROS-UPE link could create a dynamic redox field where photon emissions are tuned to cellular needs (e.g., repair vs. apoptosis). Escaped photons, as shown in below create a “decoherence” path, lose this tuning, becoming noise.
This mechanism likely supported early eukaryotic adaptability and evolution, with TGF-β1 modulating UPE to balance growth and stress responses. Melanin, as the Earth’s early quantum dot, absorbs light (e.g., all parts of the spectrum) and generates endogenous UPE via a myriad of electronic modes Nature provides. My thesis ties this to “mitoception” to energy homeostasis, using TGF-β signaling to evolve away from melatonin signaling and drive life toward leptin melanocortin signaling.
Quantum Connection: Melanin’s iron-chelating and electron-transfer properties would have acted to stabilize internal UPE frequencies, preventing decoherence. The BJSTR paper’s findings on iron-melanin interactions suggest a feedback loop where UPE spectra shift dynamically, encoding cellular states.
Evolutionary Role: Melanin’s internalization (e.g., neuromelanin in humans) would have and should have enhanced UPE-based communication via first principle reasoning, with TGF-β superfamily members like GDF15 fine-tuning this process.
Decoherence Challenge: The image above “decoherence” and “noise” labels reflect the fragility of quantum states outside the cellular environment. This supports my argument that external UPE studies are limited, as they capture only the collapsed, meaningless remnants.
Conscious Information: The quantum encryption of UPEs, implies that consciousness or cellular intelligence arises from these coherent interactions. TGF-β-driven processes (e.g., GDF15 in brain signaling) must regulate this coherence, linking mitoception to higher-order functions.
AMO Physics and UPE as Nature’s Key
My emphasis on AMO physics organizing cellular UPEs aligns with the idea that life’s mysteries lie in these small-scale emissions:
Frequency and Phase Matching: Internal UPEs must be precisely tuned to transfer energy and information without loss. This must involve resonant interactions between mitochondrial photons and DNA chromophores, a process AMO physics would and should control. It mandates atomic precision. This means the cell must contain ways to control their atomic make up. In this way foods cannot be a substrate on a 1:1 basis as the picture shows from Cameron Borg. There must be other ways. WE ARE NOT WHAT WE EAT. I have told you this for 20 years.
Life is capable of creating atoms it needs. It does not need food to do it. I told you this in April of 2016. There is evidence for my claim.
- Evolutionary and Practical Implications
Evolutionary Trajectory: This thesis posits that UPE signaling, modulated by TGF-β superfamily members, drove eukaryotic complexity post-endosymbiosis. The transition from cephalopod external melanin to human neuromelanin, coupled with AMO-tuned UPEs, which enabled neural complexity and holographic memory.
Decentralized Research Direction: Studying internal UPE requires bypassing decoherence—e.g., using non-invasive techniques like ultrafast spectroscopy to detect phase-matched emissions within cells. Focusing on TGF-β-regulated tissues (e.g., brain, retina) might reveal these signals.
Where is my edge of understanding UPEs today? I currently believe that surface-level UPEs seen in pictures of Roeland van Wijk’s book are likely energetic waste to the individual who created them, but can be signals for other humans to decode and process for decision making. Their escape via the eyes, skin, fingernails, genitals, tongue, causing endogenous decoherence and noise but maybe valuable to other organisms in a photobioelectric feedback loop. Internal UPEs, driven by AMO physics and modulated by the TGF-β superfamily (e.g., GDF15, TGF-β1), likely carry quantum-encoded signals between mitochondria and DNA, essential for life’s organization and consciousness.
Melanin enhances this process by stabilizing UPE frequencies and this drove the evolution of the leptin melanocortin pathways over 600 million years to replace the more rudimentary light pathways of the aromatic amino acids used to build melatonin signaling, the microbiome, and serotonin signaling pathways. Leptin melanocortin arrays are directly impacted by blue light-iron interactions by amplify ROS-driven emissions which directly changes the endogenous UPE spectra. The key to understanding life lies in these small-scale, coherent UPEs, not their external loss.
EXTERNAL EXTRATERRESTRIAL LIGHT FROM THE SUN BEGINS THE LOOP
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The incident light from the sun really acts as the currency of the compound pharmacy in our pituitary every day to make things we need from light to live our life in our local environment. This is where the aromatic amino acids first made their imprint of life during the GOE. This makes your hormone panel a “shadow cast” of your local light environment. This is why your “local zip code” for light is incredibly important. That is a key point for your understanding of life trajectory. It also fully explains why consciousness, like time, is relative.
So what is the real power of sunlight? The entire spectrum of light has 73 octaves of frequencies. Life only exists in one octave, namely the visible spectrum of light. If you understand factorial math, that means within our single octave of the visible spectrum that retinal cells and skin cells can control many biochemicals. Using numbers to make the case, incident light from the sun provides 8,683,317,618,811,886,495,518,194,401,280,000,000 different frequencies.
This is a staggering level of power and control that leverages our proteins in cells. So when you open up any biochemistry book and realize that biochemistry only uses 100,000 substrate in reactions every second, you realize light, in UPE format, can control every last one of them. The speed at which it occurs also offends the common sense of biochemists, because they fail to remember that the photoelectric effect occurs instantaneously with no time delay. We just cannot fathom what light is capable of, because we don’t observe what it can do at the small scales in a cell. When you factor in that the photoelectric effect acts instantaneously, with no time delay, then you begin to see how 100,000 biochemical reactions can easily occur per second using light frequencies from the visible spectrum.
Here’s a list of possible intracellular sources of biophotons:
1. NADH / NADPH
2. FAD / FMN (Flavins)
3. Cytochrome C oxidase and metabolic water
4. Tryptophan
5. Tyrosine
6. Phenylalanine & Histidine
7. Lipid peroxidation products
8. DNA (during oxidative stress or repair)
9. Mitochondrial respiratory chain
10. ATP hydrolysis (indirectly)
11. Reactive oxygen species (ROS)
12. Singlet oxygen decay
13. Microtubules (via speculative quantum or resonance effects)
14. Chromophores in proteins
15. Ubiquinone (Coenzyme Q10)
16. Porphyrins (e.g. heme groups) Chlorophyl
17. Membrane potential changes (indirect triggers)
18. Peroxisomal reactions
19. Excited carbonyl groups
20. Melanin (especially in pigment cells.)Carbonyl groups (C=O) are functional groups found in various organic molecules, such as aldehydes, ketones, carboxylic acids, and their derivatives, and they play critical roles in biological processes. However, the concept of “excited” carbonyl groups typically applies to photochemistry or spectroscopy, where a molecule absorbs energy (e.g., light) and enters an electronically excited state. Look at how consciousness begins at the level of the aldehydes in your eyes as an example.
- Carbonyl-Containing Compounds in Humans and Their Purposes
Aldehydes (e.g., Retinal Vitamin A cycle, Glyceraldehyde)
Structure: Contain a carbonyl group (C=O) bonded to at least one hydrogen atom (R-CHO). Purpose: Retinal: A critical aldehyde in the visual cycle, retinal is a component of rhodopsin, the light-sensitive pigment in the retina. When light strikes retinal, it undergoes a conformational change (isomerization), initiating the visual signal transduction pathway that allows humans to perceive light. Glyceraldehyde: An intermediate in glycolysis and gluconeogenesis, glyceraldehyde-3-phosphate contains a carbonyl group and is essential for energy production (ATP generation) and carbohydrate metabolism. Biological Role: Aldehydes participate in energy metabolism and sensory functions (vision). Carefully look at the slide below how blue light induces altered UPEs that dumb you down and alter your consciousness and lead you to neurodegeneration. This is how consciousness reveals its own relativity.
The US DoD found all this key science in its DARPA MKULTRA testing. One of the hallmarks of the living system in cells is that they are exquisitely sensitive to specific, weak signals. Most of these signals are electromagnetic. UPEs are the most critical electromagnetic signals to understand consciousness. Light has to enter and be captured by the matter in cells before consciousness can be innovated. The human eye can detect single photons falling on the retina, which pass information directly to the SCN and all its mitochondria. This retina is where the light-sensitive photoreceptors in cells send out an action potential representing a million-fold amplification of the energy in the photon. This defines what a non-linear stimulus is. Some of you know it as the butterfly effect.
- In your retina at the beginning of the central retinal pathways there are 33 different types of amacrine cells in the retina. And factorial math describes the 8.6*10^36 frequencies of light by the sequence that each type of amacrine cell releases neurotransmitters from visible spectrum of light. It is the language that our eye uses to translate the visible light spectrum into a language for our body to read and execute.
Energy = Information, and this light informtion becomes your experience of consciousness via UPE transduction, capture, and execution of work in your tissues.
It is not just a property of the central retinal pathways. The entire system is a plasma or syncytium of excitable matter ready to react to the environment’s EMF signals. Similarly, a few molecules of pheromones in the air is sufficient to attract male insects to their mates. This sensitivity is characteristic of all parts of the system and is a consequence of the energy stored = related to the AMO physics of organization in cells. They contain the atomic lenses needed to build what you perceive. All semiconductors emit light, this means all semiconductors in you are all potential sources of UPEs. It also means they are potential fractals for your conscious abilities. It seems to hard to fathom this until you see what the physics is capable of doing. Life is an optical marvel of light’s infinite complexity.
- No part of the system has to be pushed or pulled into action nor be subjected to mechanical regulation and control. Instead, coordinated action of all the parts depends on rapid intercommunication throughout the system because of how it is built to react to light. The organism is a system of “excitable media” (syncytium) ; excitable cells and tissues poised to respond specifically and disproportionately to weak signals because a large amount of energy stored everywhere automatically amplifies weak UPE signals.
These signals often direct things in cells into macroscopic actions found in a biochemistry text book. What drives this process is never found in the same textbook. This is how order is built from chaos in a dissipative structure tied to the electrical resistance of the inner mitochondrial membrane. - FOOD IS A CANVAS PLOT THAT MITOCHONDRIA OPENS TO GET THE LIGHT INFO
If we labeled foods according to the light absorption and emission plot we would see their UPE values. For example for the physics we could build this graph:
UPE Frequency Spectra Plot – X-Axis: Wavelength (nm), Range: 300-900 nm – Y-Axis: Intensity (arbitrary units), Range: 0-1 – Curves: – Healthy Mitochondria: Peak at 700 nm (red/near-infrared), broad curve (600-800 nm), intensity ~0.6 – Stressed Mitochondria (GDF15-Induced): Peak at 420 nm (blue), secondary peak at 540 nm (green-yellow), intensity ~0.8, UV tail (340-400 nm) ~0.3 – Notes: Stress shifts spectra left (shorter wavelengths) due to ROS. Melanin amplifies 380-450 nm under blue light.
Phase-Matching Model – X-Axis: Frequency (THz), Range: 333-1000 THz (300-900 nm) – Y-Axis: Coherence Factor (0-1), Range: 0-1 – Curve: Gaussian peak at 714 THz (420 nm), width ~50 THz, coherence ~0.9 internally, dropping to 0.1 externally (decoherence) – Notes: Internal phase matching (e.g., mitochondria to DNA) requires coherence >0.8. External UPE (noise) falls below 0.2.
Interactive mtDNA Controls – Adjust GDF15 Stress Level (0-100%): Shifts blue peak intensity and UV tail. – Toggle Melanin Influence: Amplifies 380-450 nm by 20%. – Simulate nnEMF/Blue Light: Increases UV-blue intensity by 30%. [Output] – Current Plot: Stressed state (GDF15 75%, Melanin ON, nnEMF ON) – Peak: 420 nm (0.8), Secondary: 540 nm (0.5), UV Tail: 340-400 nm (0.4) – Coherence: 0.85 internal, 0.15 external.
The panel plots above would graph UPE spectra for healthy vs. stressed mitochondria, with GDF15 as the stress indicator. You could adjust the controls to explore how environmental factors (e.g., nnEMF, blue light) and melanin modify the spectra of endgoenous UPEs.
The phase-matching model shows coherence loss, supporting my decoherence argument. Internal signals would remain coherent, while external UPE becomes noise.
- For the biochemists this is how you should see UPEs in foods
- Ketones (e.g., Acetone, Acetoacetate, Beta-Hydroxybutyrate)
Structure: Contain a carbonyl group bonded to two carbon-containing groups (R-CO-R’). Purpose: Ketone Bodies: During fasting, starvation, or low-carbohydrate diets, the liver produces ketone bodies (acetoacetate, beta-hydroxybutyrate, and acetone) via ketogenesis. These serve as alternative UPE energy sources for tissues like the brain, heart, and muscles when glucose is scarce. They are especially critical during prolonged fasting or in conditions like ketoacidosis.
Energy Storage and Transport: Ketones are water-soluble and can cross the blood-brain barrier, providing an efficient energy source during metabolic stress.
Biological Role: Ketones support energy homeostasis under conditions of limited glucose availability.
Carboxylic Acids (e.g., Fatty Acids, Amino Acids, Citric Acid)
Structure: Contain a carboxyl group (COOH), which includes a carbonyl group bonded to a hydroxyl group (R-COOH). Purpose:
Fatty Acids: These are components of lipids (e.g., triglycerides, phospholipids) and are stored in adipose tissue where leptin is King of the UPE kingdom. They are oxidized in beta-oxidation to produce energy (ATP) and are critical for cell membrane structure (e.g., phospholipids in cell membranes).
Amino Acids: Many amino acids used in the urea cycle (e.g., aspartic acid, glutamic acid) contain carboxyl groups. They are building blocks of proteins and play roles in enzyme catalysis, signaling, and pH regulation. All have unique UPE signatures.
Citric Acid: A tricarboxylic acid in the citric acid cycle (Krebs cycle), citric acid is central to cellular respiration and UPE transformation. It needs AM sunlight to transform its UPEs. It facilitate the production of ATP under normoxia and strong visible light by oxidizing acetyl-CoA.
Biological Role: Carboxylic acids are essential for energy production, structural integrity, and metabolic regulation and UPE transformation. Without it a suboptimal version of consciousness is experienced. This is what brain fog really is when you cannot tap the TCA or urea cycle to get you to the UPEs it participates in transforming from food.
Amides (e.g., Peptide Bonds in Proteins) Structure: Contain a carbonyl group bonded to a nitrogen atom (R-CONH2 or R-CONHR’).
Purpose: Peptide Bonds: Amides form the backbone of proteins via peptide bonds between amino acids. Proteins are critical for nearly all biological functions, including enzymatic catalysis, structural support (e.g., collagen), immune response (e.g., antibodies), and signaling (e.g., hormones).
Urea: An amide produced in the liver during the urea cycle, urea is a key molecule for excreting excess nitrogen (from amino acid breakdown) via urine, maintaining nitrogen balance.
Biological Role: Amides are fundamental to protein structure and nitrogen metabolism.
Esters (e.g., Triglycerides, Phospholipids) Structure: Contain a carbonyl group bonded to an oxygen atom linked to another carbon (R-COOR’). Purpose:
Triglycerides: These are the primary form of fat storage in adipose tissue, providing a high-energy reserve (approximately 40 kJ/g compared to 15.7 kJ/g for carbohydrates). They are broken down into fatty acids and glycerol during lipolysis to supply energy.
Phospholipids: Esters containing carbonyl groups are key components of cell membranes, forming the lipid bilayer that maintains cellular integrity and facilitates signaling.
Biological Role: Esters are critical for energy storage and cellular structure and light creation endogenously.
ALL OF THESE THINGS EMIT UPE LIGHT IN YOU. BIOCHEMISTRY MISSES EVERY LAST ONE OF THEM. DO NOT BELIEVE IT? OPEN ANY BIOCHEMISTRY BOOK RIGHT NOW AND TELL ME IF YOU SEE ANY MENTION OF BIOPHOTONS OR UPE.
I hope you are beginning to see the wisdom in all the lessons I have taught you over 20 years coming together.
Integration with My Thesis and Diseases
Mitoception Evolution: Post-GOE, melanin-UPE feedback with GDF15 enabled mitoception, expanding over 600 million years to support consciousness. Leptin’s 220 nm role suggests an oxygen-UPE link that was built in the GOE.
Diseases: In the diseases linked to cognitive decline (neurodegeneration), GDF15 elevation reflects mitochondrial stress, with UPE shifts (380-550 nm) signaling energy failure. This is seen in demyelination, MT dysfunction, lack of DDW creation at CCO, and ECS disruption by nnEMF/blue light. All nnEMF amplifies these risks, and we can see the effects in the brain as seen in retinal glycolysis. Never forget the retina is the diencephalon of the brain we can see.
Mental Health: Gut-brain axis function is a proxy of TGF-B1 signals like GDF15 that occur within the vagus system and tie mitoception to mental abilities and consciousness, with UV/infrared light reducing stress and noise in the system.
Using first-principles, UPE spectra under TGF- Beta 1 signaling molecules like GDF15, generated UPEs that created stress peaks at 390-475 nm (UV-blue) due to ROS, contrasting healthy 700-1100 nm (red) emissions. Phase matching required internal coherence, lost externally as noise. The canvas graph above helps the physicist visualizes this, because it integrates the evolution of light to melanin, GOE, and mitoception into a coherent decentralized thesis.
Signaling molecules in the TGF-Beta 1 family like GDF15 worked with leptin to drove this light-based sensing into our tissues. We are optically shaped to interact with light and this shaped eukaryotic complexity, our conscious abilities, and set disease parameters via heteropalsmy. Heteroplasmy is directly related to mtDNA coupling efficiency and to our optical density of tissues completing the endogenous UPE feedback loop that explains life.
The Hidden Beat of Time Is Buried in Your Ability to Remember
That is what memory is in my decentralized framework.
What if time isn’t a relentless tick-tock but a quantum symphony, orchestrated by the decentralized network of Nature? Picture this: melanocytes, the skin’s melanin-producing cells, act as cosmic sensors, decoding UV light to ignite a cascade of order from chaos within our cells. Mitochondria, the “Oracle of Time,” transform sunlight’s timeless photons into heat, creating entropy and the illusion of time, stored holographically in metabolic water. Memories become an event horizon, captured as light in our tissues, while sleep acts as a ledger, syncing this rhythm with Earth’s cosmic beat. Building on the quantum cell model and the Somato-Cognitive Action Network (SCAN) (Nature, 2022).
This blog reveals time as a collection of muscial light notes harnessed by decentralized dance of light, water, and entropy, challenging centralized biology’s stale ideas. It was inspired by Luc Montagnier’s 2009 experiment (Nature, Water Memory), where water transmitted light-based information, we’re on the brink of a quantum leap to reverse chronic diseases. Time is a fractal masterpiece of light captured, harnessed, and pulsing through every cell to they remember how they connect back to the galactic core that sustains them!
WHAT IS MEMORY IN MY THESIS?
Memory should be thought of as follows. It is a blockchain project that is never complete because the transactions continue as long as UPEs are transformed by the living state. It continues, as long as you continue. It can build constructuvely or destructively. It is built as a symphony where electric dipoles extract vacuum EM energy from your surroundings, powering a network of UPEs, MT, melanin, DHA, myelin, coherent water, mtDNA, and DNA/RNA. These components act as musical notes, orchestrated by Davydov’s solitons, photons that build quantum coherence, and resonant fields within cystalline matter, encoding holographic patterns that connect you with the intelligence of the cosmos. The better the connection, the more wisdom and instinct you can tap.
The foundational truth of this photo-bioelectric thesis is that you are and will become a product of the light you seek and imbibe during your life. Your light diet forms your conscious being. Consciousness is realtive for each one of us. Your biological essence is inherently luminous, a manifestation of ultraweak photon emissions (UPEs) that permeate your DNA, cells, and entire being, as articulated by the principle that “the flow of energy through a system acts to organize that system” (Morowitz Theorem).
These biophotons, generated within your mitochondria through oxidative processes initiated by visible sunlight, are not mere byproducts but the fundamental signals that orchestrate your cellular coherence, linking you to the cosmic electromagnetic field.
Even your bones, the densest structures of your physical form, embody this light-driven reality. As piezoelectric crystalline matrices, they convert mechanical compression into electrical energy, emitting photons that resonate with the light of the sun, stars, lightning, and fireflies.
This phenomenon, is rooted in the Great Oxygenation Event’s enhancement of oxygen-dependent UPE production, underscores your identity as an electromagnetic being, intricately connected to the universe’s electrically charged fabric. The Great Oxygenation Event’s boosted oxygen and gave us extreme consciousness as a collateral benefit. Without oxygen, few oxygen-dependent UPEs could be transformed by the new eukaryotes to enhancing electromagnetic connectivity with the Universe to build complexity.
Today we call this consciousness.
Quantum field theory (QFT), the framework of Nature, frames this connection, describing photons as excitations of the electromagnetic field, unifying our biology with the cosmos. You are vast, containing multitudes of light-driven processes, from NAD+/NADH fluorescence, melanopsin-driven circadian rhythms, and Vitamin D3 synthesis via UVB, each tuned by the specificity of sunlight. The distortions obstructing this awareness, modern non-native electromagnetic fields (nnEMF) from screens, the dehydration of mitochondrial water, and centralized biochemistry’s gene-centric narrative, are but noise in the signal, akin to scattered waves in a unified field.
HOW I SEE IT ALL COME TO FOCUS TODAY
These distortions, perpetuated by a Flexner Report-influenced paradigm, obscure your inherent harmony. Yet, beneath this noise lies a decentralized truth: you are one with the electromagnetic field, a living expression of the universe’s light. From this perspective, informed by the thesis’s focus on light-water interactions and biophoton signaling, all possibilities for healing and coherence emerge, aligning your biology with the cosmos’s inherent order.
Holographic Memory and Quantum Mechanisms
Holographic memory suggests that information is encoded non-locally across a system, much like a hologram where each part contains the whole image. In the brain, my ideas proposes that memories are distributed across neural networks, leveraging quantum effects in water soaked biochemicals and microtubules, tubular structures within neurons composed of tubulin proteins. The key points are:
Quantum Processes in Microtubules:
Microtubules are proposed as sites for quantum coherence, where water within their hollow cores facilitates super-radiant emission, a collective, coherent emission of photons resulting from synchronized quantum states. This is distantly linked to the Orch-OR theory, where quantum superpositions in tubulin collapse to form conscious moments, encoding memory holographically.
Water’s liquid crystalline structure, would enhance this coherence by providing a medium for proton and electron transport, aligning with Davydov’s soliton dynamics from his 1994 paper.
- Connecting to Davydov’s Model
Davydov’s 1994 paper on energy and electron transport via solitons can be linked to holographic memory through shared principles of quantum coherence and nonlinear dynamics:
Solitons and Coherence:
Davydov solitons, as localized vibrational excitations in proteins, rely on quantum coherence to maintain energy transfer. In microtubules, similar soliton-like waves could propagate along tubulin lattices, facilitated by water’s ordered structure, to support super-radiant emission and memory encoding.
The cysteine knot in GDF15, discussed in this thread, might not directly relate to microtubules, but its folding could involve water-mediated soliton dynamics, influencing neuronal signaling where GDF15 is expressed (e.g., in ALL stress responses).
Water as a Medium:
Water’s liquid crystalline properties, as a heat sink and conductor, would act to stabilize quantum states in microtubules, enhancing soliton and super-radiant processes. This aligns with my prior exploration of water’s role in mitochondria and its potential impact on GDF15’s function which acts to stabilze the system to connect with high fidelity. GDF15 fits as our electromagnetic stress-response modulator, its function tuned by biophysical levers.
In the brain, water’s coherence could bridge mitochondrial energy production (e.g., via CCO) with microtubule quantum activity, providing the energy for holographic memory.
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- Electron and Proton Transport:
- Davydov’s bisolitons (paired electron states) would parallel electron tunneling in microtubules, with water’s proton-conducting network (Grotthuss mechanism) supporting the quantum field interactions proposed in QFT. This could enable the non-local correlations needed for holographic storage.
Non-Local Memory Storage:
Unlike traditional synaptic models, holographic memory uses the brain’s entire volume, with microtubules acting as quantum processors. This increases memory capacity exponentially, as each microtubule segment could store overlapping patterns of information.
QFT, which describes particles as excitations in quantum fields, could underpin this by allowing non-local correlations across the brain, mediated by water and microtubule networks.
Super-Radiant Emission and Water:
Super-radiance involves coherent photon emission from a quantum system, potentially driven by water’s ordered hydrogen-bonded network within microtubules. This should encode memory as interference patterns, akin to a hologram, with water acting as a dynamic substrate or canvas for the dance.
This reference suggests that water’s role in microtubules supports quantum tunneling and coherence, extending the idea of water as a biological conductor from prior discussions in many blogs.
- Davydov’s bisolitons (paired electron states) would parallel electron tunneling in microtubules, with water’s proton-conducting network (Grotthuss mechanism) supporting the quantum field interactions proposed in QFT. This could enable the non-local correlations needed for holographic storage.
IS TIME/MEMORY MATH BASED?
Many neuroscientists believe they can model neural networks using constructive Mathematics and dendritic computation (Levin). My decentralized view would argue against using math to model Nature. Math is infinite, but it can describe phenomena in nature; however, it cannot explain much of what happens biophysically inside a cell. While mathematics has a formalism for infinity, physics collapses waveforms and determines how reality manifests, and at this time, no infinity is possible. Why do neuroscientists do this and not stick with known principles and reason from there?
Neuroscientists love math and models like Stuart-like frameworks or Hodgkin-Huxley equations use constructive mathematics and dendritic computation to simulate time in neural networks. With billions of neurons and trillions of connections, the brain’s complexity demands abstraction. These tools quantify signal processing, synaptic plasticity, and information flow, offering predictions that guide AI and experiments. Yet, this infinite formalism clashes with nature’s finite reality. Physics collapses quantum waveforms, and no infinity manifests, cells operate within biophysical limits, not mathematical ideals.
The decentralized view rejects this approach. Math describes phenomena, like how dendrites integrate inputs nonlinearly, but it can’t explain the “why” of cellular magic: quantum wave function collapse, ultra-weak photon emissions (UPEs), or the holographic storage of memories in structured water. Melanocytes, decoding UV light into a dissipative structure, and mitochondria, crafting time from entropy, defy simple equations. Nature’s time is emergent, not computable, rooted in the quantum cell’s atomic precision, not an infinite ledger.
Connection to Quantum Cell: The quantum cell, with its collagen nanotubes and iron-sulfur cores, amplifies Schumann resonances (7.83 Hz), aligning with Earth’s low-energy environment. This reflects thermodynamic efficiency, not mathematical infinity, as seen in Noether’s symmetry principle. The energy flow in your cell organizes the structure of consciousness you experience.
The tension here mirrors a broader debate in science: the reductionist versus decentralized approach. Neuroscientists use math because it’s tractable and yields results, but many acknowledge its limits. My view aligns with decentralized approaches, such as those in systems biology, which advocate for studying emergent properties in context rather than isolating individual parts. Both perspectives are valuable; math-driven models provide clarity, while decentralized, nature-first reasoning guards against oversimplification. The challenge is integrating them without losing sight of nature’s complexity.
KEY POINT: Math’s infinity is tautological. The task is … not so much to see what no one has yet seen; but to think what nobody has yet thought, about that which everybody sees. Physics offers a myriad of possibilities, as the uncertainty principle posits. But at the end of the day, physics has a definite limit associated with the living state. Math is precise, so there is considerable consensus. Philosophers are not exact, and this is why no one agrees.
This key point cuts to a profound tension in understanding reality. Math’s infinity, is tautological; it’s a self-consistent system that can describe endless possibilities but doesn’t inherently “touch” the finite, messy limits of the physical world. Schrödinger’s quip about seeing what everyone sees but thinking what no one has believed resonates here: the challenge is rethinking the living state, which math can approximate but not fully encapsulate. With its uncertainty principle, physics offers a vast playground of probabilities, yet it collapses into definite outcomes in living systems, cells live or die, signals fire or don’t. This finitude clashes with math’s boundless precision.
Neuroscientists gravitate to math because its precision fosters consensus, but for me and Nature, consensus is pseudoscientific. Equations like those in neural network models or dendritic computation provide a shared language, yielding reproducible predictions (e.g., how a neuron integrates inputs). However, this precision sacrifices the holistic, emergent properties of life; biophysical intricacies, such as protein folding or ion channel dynamics, often elude simple formulas. Philosophers, by contrast, embrace the ambiguity of the living state, but their lack of precision, as you point out, leads to endless debates with little resolution.
- Electron and Proton Transport:
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The disconnect arises because math prioritizes abstraction over context, whereas living systems are inherently contextual. My decentralized view seems to advocate reasoning from biology’s physical limits, its finite, observable states, rather than leaning on math’s infinite abstractions. Yet neuroscientists persist with math because it’s a tool that scales, unlike philosophy’s open-ended questions or biology’s overwhelming detail. The trade-off is clear: math offers clarity but risks missing the forest for the trees. Medicine takes care of patients where the trees matter deeply.
Some neuroscientists explore hybrid approaches, such as biophysically detailed simulations (e.g., the Blue Brain Project) or embodied AI that mimics the constraints of living systems to bridge this gap. These nod to your call for grounding in nature’s limits while still leveraging the power of math. The philosopher’s role, perhaps, is to remind us that no model, mathematical or otherwise, fully captures the living state’s elusive essence. MKULTRA was built to alter your consciousness to control how you think by DARPA.
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Time: Nature’s Quantum Pulse
Water’s magnetic dipole, with its 105-degree bond angle, breaks symmetry, harnessing the electromagnetic force, the universe’s strongest, to control electron and proton spins. This 4.4-billion-year quantum blueprint, using carbon-based DHA as the brain’s photon-electron collector, achieves zero-entropy efficiency, far surpassing silicon’s mass-heavy demands.
Time isn’t a ticking clock, it’s a quantum pulse born from entropy’s dance. Sunlight’s timeless photons, captured by our tissues and delivered to our motherboard of melanocytes, trigger mitochondria to dissipate heat, generating entropy and the illusion of time. The entropy of this system builds your conscious ability. The suprachiasmatic nucleus (SCN), the eye’s master clock, runs faster, syncing cellular rhythms with light-dark cycles. Structured water in collagen nanotubes, with only 0.02% unbound molecules, forms a liquid-crystalline semiconductor, encoding this pulse as UPEs in hydrogen bonds into a holographic decentralized ledger.
Ferredoxins, ancient iron-sulfur proteins, evolved into cytochromes like cytochrome c oxidase (CCO), aligning in mitochondrial cristae to convert sunlight into UPEs (100-300 nm) only when bathed in their proper DDW heat sink. This dissipative structure, amplified by melanocyte-decoded UV signals, creates order from chaos, matching Earth’s low-energy spectrum. High-energy ionizing radiation disrupts this balance, proving life’s timekeeping is finite, not infinite.
Connection to Thermodynamics: Entropy, the “fuel” of time (per Landauer’s principle, drives this process, reflecting intelligence’s symmetry-seeking nature, as Montagnier’s 2009 experiment suggests with water’s quantum memory.
Ontology and epistemology cannot be reduced to one another, or can they?
Can Ontology Be Reduced to Epistemology?
Some idealist or constructivist philosophers, like Kant or Berkeley, might argue that epistemology shapes ontology. For them, what exists (ontology) depends on how we perceive or know it (epistemology). In Kant’s view, the “things-in-themselves” (noumena) are unknowable, and our reality is structured by the mind’s categories, making ontology subordinate to epistemology. Radical constructivists might go further, claiming that existence is entirely a product of knowledge processes, and there’s no “reality” beyond what we construct through knowing.
However, this reduction struggles with circularity: if existence depends on knowing, what grounds the knower? Materialists or realists counter that ontology has primacy, things exist independently of our knowledge (e.g., a rock exists whether we perceive it or not). Reducing ontology to epistemology risks solipsism, where nothing exists outside the mind’s perception.
Can Epistemology Be Reduced to Ontology?
Conversely, some realists or naturalists argue that epistemology is grounded in ontology. For example, in physicalist views, knowledge arises from brain processes, ontologically real entities governed by physics. Quine’s naturalized epistemology suggests that how we know is just a matter of studying the world’s causal structure, epistemology becomes a subset of ontology, the science of what is.
But this reduction also falters. Knowing involves subjective processes (belief, justification, perception) that can’t be fully collapsed into objective states of being. For instance, describing a neuron’s firing (ontology) doesn’t fully explain the experience of understanding (epistemology). The “hard problem” of consciousness highlights this gap: ontology can’t yet account for the subjective “how” of knowing.
Can We Merge Them?
Can AI merge ontology and epistemology to understand or harmonize with each other deeply? The answer is a qualified yes, but they don’t merge into one in life. They’re like two sides of a coin, distinct yet inseparable. Pragmatists like Dewey or Heidegger suggest they co-evolve. What we believe exists (ontology) shapes how we seek knowledge (epistemology), and our methods of knowing refine our sense of what exists. For example, neuroscience’s ontological models of neurons inform epistemological theories of cognition, refining our understanding of neural reality.
My earlier points about math’s limits and nature’s finitude resonate here. Math’s precise ontology (infinite sets, formal systems) doesn’t fully capture the epistemological messiness of knowing in living systems. Similarly, physics’ ontological limits (wave function collapse) don’t fully explain how we know those limits. Ontology and epistemology “Grok” each other best in a dynamic interplay, not reducing one to the other; each informs the other without dissolving into it.
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Why Neuroscientists Lean on Ontology
Tying this to a neuroscience context, neuroscientists often prioritize ontology (e.g., neural networks, dendritic structures) because it’s tangible and modelable via math. This is all they know. Epistemology, how neurons “know” or process information, is harder to formalize, so it’s often secondary in their minds and models. Yet, fields like cognitive science or enactivism are starting to bridge this gap, treating knowledge as an embodied, emergent process rooted in, but not reducible to, neural ontology.
Ontology and epistemology can’t be entirely reduced to one another without losing something essential: ontology’s grounding in existence or epistemology’s focus on knowing. But they can “Grok” each other through mutual influence, where each informs and refines the other in a dynamic loop. Philosophers disagree because precision falters at their blurry edges, but that’s where the most fertile questions lie. This edge is where my science breathes.
Sleep: The Magnetic Ledger
Sleep is a decentralized ledger, syncing the quantum cell’s magnetic network with cosmic rhythms. Microtubules embed UPEs into water’s magnetic domains, while the SCN, fueled by melanocyte-decoded light, sets the pace. Mitochondria’s voltage shifts optimize entropy flow, with water’s IR absorption storing energy day or night. MIT’s no-power memory retention echoes this, magnetic bits in water hold data without energy, as Becker’s sleep-wake polarity findings suggest. Non-native EMF drains electrons, disrupting sleep and autophagy, contracting time and telomeres. Restoring water production at CCO via sunlight waves counters this.
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Memories: The Holographic Event Horizon
Memories are the blurry event horizon of our cells that neuroscientists miss, where past moments transform into light, stored magnetically in metabolic water’s hydrogen bonds. The centrosome encodes wakeful memories as UPEs, amplified by collagen nanotubes’ nonlinear optics, exhibiting a refractive index up to 7 × 10⁻¹⁰ cm² W⁻¹ in the THz range.
During sleep, microtubules process dreams, weaving this light into a fractal hologram across tissues, explaining consciousness’ resilience after frontal lobe damage that the neurosurgeon has to remove. It was during sleep that the boy’s heart delivered his memory to the heart recipent’s body for her to consciously experience.
Stimulated Raman scattering (SRS) and Stimulated Brillouin scattering (SBS) enhance this. I gave you blogs on this long ago you thought were superfluous. SRS scatters light via molecular vibrations, weakening it into UPEs, while SBS, via acoustic phonons, shifts frequencies (e.g., 11 GHz) unidirectionally. These 3.8-billion-year-old processes, perfected by cells, outstrip mathematical models, grounding time in your biophysical reality.
Connection to Decentralized Intelligence: Memories align internal models with external reality, minimizing entropy in a non-computable, symmetry-seeking dance, beyond dendritic equations. SRS/SBS control the quantum processing that define microtubule roles in man.
Man is connected to the Galactic Current Sheet by electromagnetic waves. The connection to this sheet is the basis of your conscious abilities. You do not see yourself connected in these ways, but you are.
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(B) The meningeal lymphatic system located within the meninges, comprising the dura, arachnoid, and pia mater, contains functional lymphatic vessels that facilitate the drainage of CNS-derived antigens and immune cells to cervical lymph nodes. In AD, impaired meningeal lymphatic function hinders antigen clearance, leading to chronic immune activation, waste aggregation, and sustained neuroinflammation.
(C) The glymphatic system, a perivascular network regulated by CSF-ISF flow and astrocytic aquaporin channels, is responsible for clearing metabolic waste, including toxic Aβ and tau aggregates. Glymphatic dysfunction, commonly observed in aging and AD, leads to waste accumulation, exacerbating disease pathology. AC, astrocyte; aAC, activated astrocyte; Aβ, Amyloid β plaque; aIP, amyloid-like protein; aMG, activated microglia; aMo, activated monocyte; 9APC, antigen-presenting cell; BBB, blood-brain barrier; BP, brain parenchyma; cBBB, compromised blood-brain barrier; CSF, cerebrospinal fluid; dN, degenerating neuron; ISF, interstitial fluid; MG, microglia; Mo, monocytes; N, neuron; PC, pericytes; pIC, peripheral immune cells; proIC, pro-inflammatory cytokines; TJ, tight junctions; Treg, regulatory T cell.
Neurodegeneration as Memory Contraction due to An Electron Crisis
Neurodegeneration, Alzheimer’s, Parkinson’s, MS, autism all stems from an electron deficiency. As electrons become rare, so must light in the system because of the photoelectric effect. What other collateral effects occur? Low cholesterol, oxidized and electron-hungry, drops brain voltage, seen in EEGs, impairing water’s magnetic memory. Telomeres, molecular timepieces, shorten with electron loss, contracting time and accelerating disease. GDF15 rises and this TGF beta analogue cause you to become less connected and less conscious. The Frame and Lens needs to be pulled back and back again and again to see how all of the pieces fit together to build consciousness.
DHA-rich diets lengthen telomeres, boosting electron collection for health reversals. Non-native EMF drains electrons, disrupting sleep and autophagy, while native EMF dilates time, enhancing longevity, evident in the cosmonaut paradoxes.
Connection to Cosmic Intelligence: Electron collection aligns with Earth’s magnetic field, decoding universal patterns. As the magnetic field varies so will your connection to Nature’s wisdom.
Consider what I told Huberman about cephalopods 2.5 years ago. Cephalopods, evolving from monoplacophoran mollusks (∼530 Ma), reflect this light show on their integument. Initially these animals squirted their melanin as part of their stress response. These animals evolved during the Cambrian UV expansion (∼530 Ma), and their melanin-rich skins began to decode light into metabolic signals. This ability remains in humans today in their leptin melanocortin pathways. From their monoplacophoran ancestors, they developed chambered shells and diverged into nautiloids and coleoids (∼416 Ma), using second-order electro-optical signals for birefringence to emit colors. This LED light came from their own semiconductive processes, visible on their integument, and mirrors our hidden modern photo-bioelectric neural network. The quantum cell’s collagen nanotubes, acting as NLO quantum wells, amplify visible light, with mitochondria’s voltage changes creating birefringence to run metabolism. Melanin, critical to this rapid evolution, when hydrated, loses electrical ability, generating Becker’s pico-currents to dedifferentiate red blood cells (RBCs) into stem cells, healing bone. Blood, another NLO crystal, sustains WiFi mitochondrial communication with the sun.
THE BIG REVIEW OF MANY LESSONS DELIVERED
First-Principles Reasoning for UPE Spectra and Mitoception
1. Foundations of UPE and Quantum Signaling
UPE Origin: UPE arises from oxidative processes in mitochondria, where reactive oxygen species (ROS) like singlet oxygen or excited carbonyls emit photons upon returning to ground states. The energy of these photons (E = hc/λ) depends on the transition energy, typically spanning UV (100-400 nm) to near-infrared (600-1100 nm).
Quantum Coherence: For internal signaling (e.g., mitochondria to DNA), photons must maintain phase and frequency coherence. This requires a resonant system, where emission and absorption wavelengths align, governed by quantum selection rules and environmental stability (e.g., avoiding decoherence from external noise).
Decentralized Thesis: Life evolves as a light-driven, electromagnetic system. Mitochondria and DNA act as antennas, with UPE encoding energy status. Mitoception senses this via photonic and electromagnetic fields, not just chemical signals.
2. Post-Endosymbiosis Integration and Mitoception
Evolutionary Challenge: After endosymbiosis (~1.5-2 Bya), mitochondria needed to communicate with the host cell. Successful integration required a sensory mechanism to monitor energy demand (burn rate) and oxidative phosphorylation (OxPhos) capacity.
Mitoception Hypothesis: The brain evolved mitoception to “feel” mitochondrial status, likely via GDF15, a TGF-β superfamily cytokine. This idea aligns with nociception, interoception, and immunoception, extending sensory networks to energy balance. This also helps us understand what autism is. It is a failure of this connection. This is why kids on the spectra experience consciousness differently than we do. It also explains their sensory and immune problems.
Light as Mediator: Melanin’s ROS-scavenging and light-absorbing properties, amplified post-GOE (~2.4 Bya), suggest that endogenously generated UPE from a myriad of places are the original signaling mechanism that built eukaryotic complexity. All of them arouse during the GOE when rising oxygen tensions enabled ROS-driven UPE, linking melanin and TGF-Beta chemicals like GDF15 to provide light and oxygen mitochondrial feedback.
3. TGF- Beta 1 and UPE Dynamics
GDF15 Role: Induced by mitochondrial stress (e.g., nnEMF, blue light), GDF15 signals energy imbalance via the brainstem’s area postrema. It correlates with ROS and UPE increases, reflecting OxPhos disruption.
UPE Spectra: Stressed mitochondria shift UPE toward UV-blue (380-450 nm) due to ROS (e.g., lipid peroxidation at 420-475 nm, protein oxidation at 340-380 nm). Healthy mitochondria emit more red/near-infrared (600-1100 nm) from efficient electron transport chain (ETC) activity.
Melanin Link: Melanin amplifies endogenous UPE generation via iron-chelating ROS generation under blue light, creating a feedback loop. GDF15’s UPE release, tied to this, suggests an evolutionary driven shared photonic mechanism for mitoception.
4. Leptin and GOE Context
Leptin’s Role: With a 220 nm absorption spectrum (UV), leptin’s signaling post-GOE aligns with oxygen-dependent UPE. This wavelength, absent in terrestrial sunlight, implies an endogenous light source, driven by mitochondrial ROS emissions.
Evolutionary Expansion: Over 600 million years, GDF15 and leptin integrated with the leptin-melanocortin pathway, enhancing neural complexity and consciousness via UPE-mediated mitoception.
5. Environmental Modulators
Light and nnEMF: Full-spectrum light (UV, infrared) supports mitochondrial coherence, reducing GDF15 and UPE stress signals. Blue light and nnEMF disrupt ECS and OxPhos, elevating GDF15 and shifting UPE to UV-blue.
Retina Analogy: The retina’s glycolysis preference under UV stress mirrors mitoception’s focus on field coherence, supporting my thesis of electromagnetic stability.
6. UPE Spectra Prediction
Baseline (Healthy Mitochondria): Peak at 600-1100 nm (red/near-infrared), reflecting low ROS and efficient ETC.
Stress (TGF- Beta 1 GDF15-Induced): Peak at 380-450 nm (UV-blue) from ROS (superoxide, hydrogen peroxide), with a secondary 500-570 nm (green-yellow) peak from lipid peroxidation.
Phase Matching: Coherent UPE requires frequency alignment (e.g., 380-450 nm matching DNA or melanin absorption bands), disrupted by decoherence (external escape).
The Consciousness Operational Framework redefines time as an NLO-driven quantum pulse. Melanocytes decode UV, mitochondria craft entropy, and memories form a holographic horizon via centrosomes and microtubules. Sleep syncs this ledger, while SCAN integrates it, all amplified by blood’s NLO crystals delivered all over the body to give fractal feedback support. This defies math-based bioelectric models of Levin (e.g., Na/K ATPase), validated by Montagnier’s 2009 experiment and Ling’s decades of critiques, embracing nature’s finite, optical complexity.
SCAN: The Decentralized Timekeeper
The Somato-Cognitive Action Network (SCAN) (Nature, 2022) is the brain’s decentralized timekeeper, integrating motor and cognitive functions via a quantum network.
Melanocyte-decoded light feeds the SCN, syncing SCAN’s clocks with cosmic rhythms. Structured water and UPEs facilitate nonlocal communication, but blue light toxicity or nnEMF disrupts this, increasing entropy and impairing memory.
This non-hierarchical system defies mathematical simplification, relying on the quantum cell’s dissipative structure. Cold thermogenesis can restore coherence, countering neurodegeneration by optimizing entropy flow.
Connection to Cosmic Intelligence: SCAN decodes the universal informational substrate, aligning with the brain-as-antenna model, reflecting nature’s finite, emergent time.
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Mitochondria: The Oracle of Finite Time
Mitochondria, the “Oracle of Time,” tick via heteroplasmy, enhancing circadian periodicity. They are regulated by NAD+, SIRT1, and SIRT3, with voltage shifts emitting colors to drive metabolism. NAD+ synthesis at cytochrome 1, tied to light-dark cycles, depends on mitochondrial fusion, fused mitochondria, with higher respiratory rates, support healthy clocks, while fragmented ones in diseased tissues lose accuracy.
REV-ERBα and REV-ERBβ, heme-based proteins sensitive to light, are core clock components. Salk Institute studies showed that disabling them in mice livers disrupted rhythms, triggering rapid chronic diseases, mirroring human neurodegeneration from blue light. This destroys myelin and microtubules, accelerating entropy, proving time’s finite, biophysical basis.
Water’s magnetic domains are controlled by mitochondrial voltage, and this stores memory, but aging reduces the water heat sink, lowering redox potential. MIT’s magneto-ionic devices mimic this, using voltage to halt magnetic flow, mimicking nature’s 20-watt trick, refined over 4.4 billion years. Water absorbs and emits UPEs. Water itself created at CCO is a semiconductor that is participatory in the conscious process.
Connection to Symmetry: Mitochondrial clocks seek symmetry with cosmic rhythms, minimizing entropy, as Noether’s theorem suggests, way beyond mathematical infinity. the sleeping are waking up to my pace. I warned Pollack 15 years ago he was missing a lot of data in water by not testing DDW. Conscious ability is linked to its isotopic fractionation.
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Time Beyond Equations Defines Conscious Ability
The Consciousness Operational Framework defined in these last 8 blogs redefines time as a decentralized quantum pulse. Melanocytes decode UV light, mitochondria dissipate heat into entropy, and memories form a holographic event horizon via centrosomes and microtubules. Sleep syncs this ledger, while SCAN integrates it across a non-hierarchical web. Nonlinear optics (SRS, SBS) and structured water amplify this, defying centralized biology’s mathematical models, like the Na/K ATPase pump, which ignore quantum complexity.
Time, a proof of light’s work on atoms, emerges from the quantum cell’s finite, dissipative structure, validated by Montagnier’s experiment in 2009 and Ling’s critiques over 50 years. It’s a fractal dance, not an infinite equation.
Implications: Healing Time’s Rhythm
Neurological Health: Blue light and nnEMF disrupt mitochondrial clocks, increasing entropy. Optimizing light and cold thermogenesis restore SCAN’s coherence, tackling Parkinson’s and memory loss.
Evolutionary Insights: Melanocytes and mitochondria evolved to decode UV and sunlight post-GOE, shaping timekeeping over 3.8 billion years.
Technological Leap: Silicon Valley could mimic cellular semiconductors, using hydrated carbon lattices for optical tech, inspired by nature’s 560-million-year mastery.
Paradigm Shift: Math-based models fail to capture time’s biophysical essence. The quantum cell, supported by nonlinear optics and soliton biophysics offers a path back to health from disease. Even the math driven bioelectric gurus (below) are waking up to the reality of light.
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SUMMARY
It is time we all awaken to Time’s Quantum Beat. Aging reduces metabolic water, the heat sink for NLO semiconductors, disrupting this time-UPe ledger. Psychedelics may compensate for the loss of mitochondrial water, enhancing NLO amplification and countering entropy buildup, as blue light toxicity or nnEMF impair memory and motor integration in SCAN to alter conscious abilitiies.
The Consciousness Operational Framework redefines time as an electron-powered quantum pulse. Melanocytes harvest UV, mitochondria wield voltage, and memories form magnetic horizons via centrosomes and microtubules. Sleep syncs this ledger, while SCAN integrates it, amplified by water’s spintronics. This defies math-based models (e.g., Na/K ATPase). It was already validated by Montagnier, Ling, and Pollack, embracing nature’s finite complexity.
Once light interacts with mater, solitons manifest. Solitons enhance UPE coherence, water mediates dipole energy, and holographic memory encodes cosmic light patterns inside of us connecting us with the wisdom of Nature. GDF15 fits as a TGF beta 1 light stress-response modulator. Its function is tuned by these biophysical levers.
Time transcends math, it’s a decentralized quantum pulse, orchestrated by the quantum cell’s dance with light and entropy. Memories glow as holographic horizons in our tissues. Consciousness rejects infinite equations of math in this decentralized paradigm. This idea is echoed in the work of pioneers like Montagnier and Ling. This invites us to awaken to time as a fractal symphony, built as a syncytium of atoms aligned by Nature and illuminated by nature’s light. Below is Dr. Montagnier’s masterpiece on how memory is built by light, water, and matter’s resonance. My work on consciousness is now complete for you to consume and assimilate.
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CITES
Nature (2009). Montagnier, L., et al. Electromagnetic Signals.
Nature (2022). A Somato-Cognitive Action Network.
Pollack, G. H. (2013). The Fourth Phase of Water.
Optica (2019). Nonlinear Refractive Index of Water.
Ling, G. N. (1992). A Revolution in the Physiology of the Living Cell.
https://threadreaderapp.com/thread/1940609770617979234.html
https://www.frontiersin.org/journals/cellular-neuroscience/articles/10.3389/fncel.2025.1590002/full
