Today I started my 2nd week of infusions of SGF (Stem Cell Growth Factors) at Edogawa Hospital in Tokyo, Japan for my vax injury.
What is SGF?
SGF is derived from the dental pulp of children's naturally shed baby teeth. 🦷
No stem cells are injected.
Instead, the infusion contains the signaling molecules, growth factors, cytokines, and regenerative proteins that stem cells naturally produce. These biological messengers help coordinate communication between cells and are believed to support tissue repair, immune regulation, blood vessel health, and nerve regeneration.
These growth factors are small enough to cross the blood brain barrier and reach the brain and nervous system directly. For someone like me with confirmed neuroinflammation, white matter atrophy, and small fiber neuropathy destroying my nerves from the inside out, the goal is remyelination. Rebuilding the insulation around my damaged nerve fibers.💯
Researchers have studied SHED (Stem Cells from Human Exfoliated Deciduous Teeth) for their regenerative potential in areas such as nerve repair, neuroinflammation, tissue healing, and age-related degeneration.
Some people have nicknamed therapies like this the "Fountain of Youth" because the goal is not to replace damaged tissue, but to activate the body's own repair and regeneration pathways. Whether that nickname is deserved remains to be seen, but the science behind cellular signaling and regeneration is fascinating.
Japan has become a global leader in regenerative medicine and allows access to therapies that are not currently available in the United States under its regenerative medicine framework.
As Patient #25 in the McCairn–Edogawa Protocol, I am grateful to have the opportunity to experience this emerging science firsthand.
🧬🦷🇯🇵
@SenRonJohnson@SenTimKaine@HHSGov@DrJBhattacharya
#SGF #SHED #RegenerativeMedicine #StemCellScience #SmallFiberNeuropathy #EdogawaHospital #Tokyo #MedicalInnovation
Choline/lecithin supplements are commonly recommended in breastfeeding for the same reason that it works well in fatty liver disease
Both choline and inositol form phosphatidyls which solubilize fatty acids
In breastfeeding this prevents fat content from creating a clogged duct
In liver disease this improves bile flow
Oxidative stress is increased in hypothyroidism. Vitamine E, C, and other antioxidant substances like taurine can be protective.
Taurine also protects the thyroid against fluoride-induced oxidative damage.
Lowering oxidative stress matters because when reactive oxygen species outpace your antioxidant defenses, the excess starts damaging the molecules your cells depend on, oxidizing fats in cell membranes, breaking down proteins, and altering DNA. Over time this accumulated damage contributes to aging and to conditions like heart disease, neurodegeneration, and diabetes.
In rodents made hypothyroid, taurine reduced MDA levels which were increased by hypothyroidism. MDA is a lipid peroxidation byproduct, a marker of oxidative stress, and a predicitor of diabetes, diabetes complications, cancer, dementea, liver, and lung disease.
“In the current study we have confirmed that oxidative stress increases in hypothyroidism... In this condition in the present study, we observed decreases in plasma, RBC, liver and kidney tissue MDA levels in PTU-treated (anti-thyroid drug) rats after taurine supplementation. Taurine has been reported to protect heart, liver and lung tissues against various toxic agents in vivo as well as protecting lymphoblast and hepatocytes in vitro.”
Ref:
The effect of taurine supplementation on oxidative stress in experimental hypothyroidism
Taurine Ameliorates Renal Oxidative Damage and Thyroid Dysfunction in Rats Chronically Exposed to Fluoride
3 of 3 REDOX = DETOX
The part most people — and nearly all modern detox protocols — completely miss? Melanin itself is a primary excretory pathway.
Patrick A. Riley’s 2023 paper (Functions of Epidermal Melanin: Possible Evolutionary Significance of Heavy Metal Chelation, https://t.co/v6ogjHFMw5) makes this explicit: constant transcutaneous desquamation of melanin-bound metals provides a major route for excreting heavy metals for which there are no other well-established mechanisms. Melanin chelates them powerfully, packages them into keratinocytes, and sheds them through normal skin turnover.
Thanks to my Bro @prospertarian sending me this free electrons boost
The Melanin-Parasite-Metal Triad: What a 1999 Parasitology Paper Teaches About Circadian Sovereignty
“We’re talking 2700-fold for lead and 400-fold for cadmium in species like Pomphorhynchus laevis.
A 1999 bombshell in Parasitology Today (Sures et al.) revealed something extraordinary: certain fish parasites — especially acanthocephalans (spiny-headed worms) and cestodes — accumulate heavy metals like lead and cadmium at orders of magnitude higher concentrations than the host’s tissues or the surrounding water.
We’re talking 2700-fold for lead and 400-fold for cadmium in species like Pomphorhynchus laevis. These parasites don’t just tolerate pollution — they become hyper-efficient bio-sinks, making them far superior environmental indicators than the fish themselves.
Now view this through the quantum biology of melanin.
Melanin is not “just pigment.” It is one of the most ancient, conserved semiconductors on Earth — a redox-active polymer with extraordinary affinity for transition and heavy metals (iron, copper, lead, cadmium, etc.). Its catechol, quinone, and carboxyl groups act as high-capacity chelation sites, binding metals up to 1.6 mmol per gram of dry weight while preventing destructive Fenton chemistry that would shred mitochondrial membranes and coherent water domains.
In polluted aquatic systems, the fish’s own melanin-based defense architecture gets overwhelmed. Enter the parasites: they function as externalized melanin equivalents — high-affinity overflow sinks that sequester metals out of circulation, protecting the host’s mitochondria, neuromelanin circuits, and redox coherence.
Nature’s backup plan when the primary quantum system is stressed.
But the connection runs deeper.
Fish possess specialized melano-macrophages — pigmented immune cells packed with melanin — that form melanomacrophage centers in spleen, kidney, and liver. These centers expand dramatically under heavy metal exposure and parasitic invasion. When digenean trematode larvae (causing “black spot disease”) encyst in skin or muscle, the host rapidly deposits eumelanin around the parasite, creating visible black capsules. This is not cosmetic — it is precise redox warfare: melanin walls off the invader, sequesters reactive oxygen species, binds metals, and limits oxidative chaos.
Darker, melanin-rich fish often show greater resistance to parasites and better tolerance to metal pollution precisely because melanin acts as the master metal buffer and antimicrobial shield. Melanomacrophage centers also accumulate heavy metals directly, mirroring what the intestinal parasites do at scale.
This is the melanin-metal-parasite triad in action.
When circadian quantum input collapses — no dawn IR-A/UVA photons hitting the eyes and skin — POMC expression drops, melanin maturation falters (mitochondria-melanosome contacts starve for ATP), structured water domains dehydrate, and iron/melanin partitioning goes haywire. The internal semiconductor network can no longer keep up with the metal load. Parasites and melanomacrophage overload become inevitable.
The 1999 paper wasn’t just about pollution monitoring. It was a mirror held up to desynchronized biology.
This is why we obsess over light architecture instead of chasing endless “detox” protocols.
Restore morning sunlight (naked-eye viewing of the rising sun, full-spectrum daylight) → SCN and peripheral clock entrainment → optimized POMC → α-MSH-driven melanin upregulation → mitochondrial-melanosome crosstalk → expanded coherent water exclusion zones → proper dopamine/iron partitioning and daily mitohormesis.
Under this solar regime, your endogenous melanin network regains primacy as the quantum chelator: binding, redox-cycling, and safely partitioning metals without needing parasitic overflow or chronic melanomacrophage hyperplasia.
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