How Sunlight Drives Metabolism & Delays Ageing
near-infrared light penetrates deep into living tissue where it allows the body’s metabolic systems to work at the level they have evolved to achieve. Nanostructures in our cells are key to near-infrared radiation activation for metabolism. Forest Bathing is all based on seeds and nuts and mushrooms as infrared light scattering! Plants HAVE to emit the infrared light otherwise the plants would overheat...
Infrared Radiation Starvation is 21st century Scurvy!!
Dr Robert (Bob) Fosbury is currently an emeritus astronomer at the European Southern Observatory and an honorary professor at the Institute of Ophthalmology at UCL. He determined the peak frequency as energy of light - with the highest intensity at frequency is the same photoelectric intensity needed (frequency plus intensity) to activate the mitochondria Electron Transport Chain - so as soon as we walk outside out mitochondria get activated. Infrared light is the activation frequency range for the ETC in mitochondria and it peaks at .75 electronvolt intensity. The first coincidence of photon-mitochondria adaptation. https://pmc.ncbi.nlm.nih.gov/articles/PMC7927033/
Heisenberg uncertainty principle, the locations and momenta of electrons and protons cannot be precisely known at the same time, at least when moving through empty space. Yet contemporary descriptions of mitochondrial function appear to violate this principle,...Tunneling is considered to be a quantum phenomenon; thus, if decoherence is dominant in mitochondrial ETC function, then tunneling is less probable....oxygen is utilized by mitochondria for ETC activity (and is reduced to water),.... Adult human brain has a ~10-fold disproportionate (relative to mass) ATP production rate and depends on the stereotyped movement of reducing electrons down an energy gradient in the ETC and conservation of this ETC energy decrease by proton displacement across the mitochondrial inner membrane. This electron movement and proton displacement, however they occur, must respect quantum mechanical constraints....Mitochondria must likely segregate electrons from electrophilic molecular oxygen and protons from solvation by water. How these feats are accomplished remains unclear, but our daily ATP requirements likely require these biochemical gymnastics.
There is an intimate coupling of the Photon Rate of Sun entering our body and the energy needed to activate the ETC. 10 to the 21 is the photon intensity (number of photons per second per square meter per electron volt) of light hitting our bodies but 10 to the 21 is also the number of ETCs in our bodies. In the forest we maximize our infrared light absorption!! The 2nd coincidence!! A beautiful match of energy entering and energy needed.
Mitochondrion are the organelle of life which speak quantum physics.
Yes he uses mitochondria in plants and animals in general as well. Infrared light is scattered typically 100 times by cells and so goes deep inside the body. the above red is NOT blood - it is scattering of light. Infrared light shined into the skull is very effective for Parkinson's Disease - due to the increased mitochondria activation!
The brain is the most important organ of the human body, accounting for only 2–3% of the body’s mass but consuming 20% of the oxygen and 25% of the glucose [35,36].... the electric field may augment the probability of quantum tunneling and conserve the energy required for metabolic and cellular functions.
the maximum energy of the sun is from infrared radiation that drives mitochondria energy....
the infrared light provides the energy to drive the mitochondria energy transport chain
You actually generate water in your body through this electron transport chain!! fascinating.
The only reason we can survive in darkness is due to quantum nonlocality of the electron-proton turbine gradient of the mitochondria!! Fascinating.
When in darkness - if you MEDITATE you can increase the energy as quantum tunneling. It works at 1 nanometer electron wavelength via infrared light conversion. The Third fascinating synchronization of photon intensity of 1 electronvolt intensity of Infrared Light frequency = NIR (near-infrared) range typically from 700 to 1200 nm = 1 ev of electron energy as the 1 nanometer de Broglie wavelength of the electron as mitochondrial barrier.
If the wavelength of the electron is 1 nanometer is can tunnel through the mitochondria much more easier.
So he says the quantum tunneling is "improbable" but that's not the truth of noncommutativity!! The noncommutative nonlocality as the quantum potential is not based on probability of statistics at all. Below is the nanostructure of the cell that forces in the absorption of infrared light.
He's saying the quantum tunneling happens often enough to survive in darkness - but if we can naturally increase the quantum tunneling through meditation then we can thrive in darkness...
So when we are outside the blue sky (-40 C. atmosphere) temperature difference with the infrared metabolism of our bodies creates a natural heat pump due to the temperature radiation difference (in contrast to a kinetic difference). This increased flow of energy, in contrast to being indoors, then naturally increases our metabolism aka our mitochondrial energy production.
So you have more energy in a cold environment ironically meanwhile metabolic diseases are spiking due to being indoors too much and eating ultra-processed foods.
However, S-cones are enigmatic. They comprise <10% of the total cone population, their responses saturate early, and they are susceptible in aging and disease. Here, we show that primate S-cones actually have few mitochondria and are fueled by glycolysis, not by mitochondrial respiration. Glycolysis has a limited ability to sustain activity, potentially explaining early S-cone saturation. Mitochondria act as optical filters showing reduced light transmission at 400–450 nm where S-cones are most sensitive (420 nm). This absorbance is likely to arise in a mitochondrial porphyrin that absorbs strongly in the Soret band. Hence, reducing mitochondria will improve S-cone sensitivity but result in increased glycolysis as an alternative energy source, potentially increasing diabetic vulnerability due to restricted glucose access.
long periods of pupil dilation might trigger a change in the fibril spacing of the collagen nanostructure forming the photonic crystal tapetum fibrosum in these animals. ... the volume of the inter-fibril fluid that determines the collagen rod spacing. This produces a change in the reflectance spectrum that transforms the approximately achromatic summer mirror to a more highly tuned blue peak in the winter.
the magnitude of this disorder is high in the summer tapetum as a consequence of the freedom of the fibrils to occupy random displacements within a large volume of inter-fibril fluid (figure 4). By placing the first-order reflectance peak at the red end of the spectrum, at or beyond the range of the animal's vision, the first- and second-order broadened reflectance peaks merge to form a saddle that extends over the entire range of the retinal sensitivity to form an almost achromatic mirror. This is especially clearly illustrated in the modelling shown in fig. 18a of [21].
A reduction in the volume of the inter-fibril fluid in the winter tapetum results in both a shift towards the blue of the reflectance peaks and an increasing degree of order in the fibril spacing. The latter is due to tighter positional constraints imposed by the approach to the closest possible packing where the fibrils are essentially in contact in a hexagonal pattern. The increase in regularity of fibril spacing narrows the bandwidth in wavelength but retains a saddle that bridges the first and second orders [21]. While the first-order peak in winter matches the spectral distribution of twilight, the extension of the saddle towards the second-order peak in the UV maintains the efficacy of the tapetum down to a wavelength of around 350 nm where collagen begins to absorb but where the reindeer retina retains good sensitivity [16]. This broad spectral range of blue-UV vision potentially increases the contrast advantage.
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