soluble fiber psyllium husk probiotics olive oil phenylalanine tyrosinase tyrosine lignin lignan phenols polyphenol benzene ring coq10 benzoquinone stem cells mylan sheth regeneration melanin melanocyte stem cells (McSCs) WNT catenin pathway palmitoyl copper acetyl tyrosine
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this srem cell regeneration element is in the benzene ring of Tyrosine & CoQ10, its from plant fibers, requiring gut microbes.
by taking Tyrosine or Phenylalanine supliments causes very unusual neurological disturbances.
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Glyphosate Ingredients:
Glycine
Phosphorus
Formaldehyde
Neutralized By Benzene:
Anthranilates
Phosphanilates
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natural Benzene Phenol from fiber fermentation makes CoQ10, Tyrosine & neutralizes Glyphosate.
Synthetic Carbohydrate Receptors (SCRs) similarities with abamectin gamma-aminobutyric acid (GABA) glutamate-gated chloride channels
Synthetic Carbohydrate Receptors (SCRs) and abamectin-targeted channels (such as GABA and GluCl channels) share a fundamental biological similarity: they both utilize multivalent, non-covalent interactions to selectively recognize and bind to conserved glycan (sugar) structures.
How These Systems CompareWhile SCRs act as prophylactic antivirals and abamectin functions as a neurotoxic pesticide, their underlying biomolecular mechanisms are closely linked:
Targeting Conserved Sugars: SCRs are small-molecule tetrapodal structures explicitly designed to bind highly conserved envelope virus N-glycans. Similarly, invertebrate GABA and glutamate-gated chloride channels (GluCls) contain carbohydrate-binding motifs and are regulated by glycan-rich environments at synaptic terminals.
Mechanism of Action:SCRs: Bind to viral N-glycans, physically block the virus's ability to attach to host cell membranes, and stall membrane fusion.
Abamectin: Binds to allosteric sites on GluCls and GABA receptors, locking these chloride channels open. This causes an influx of chloride ions, which hyperpolarizes the nerve cell, resulting in permanent paralysis.
Structural Flexibility: Both systems avoid purely rigid binding. Natural sugar-binding proteins and SCRs both utilize flexibility and cooperative interactions to adjust their shapes to complex sugar topographies. Similarly, invertebrate GABA and GluCl receptors are heteromultimers that rely on structural subunit variations and spatial organization to modulate drug sensitivity.
Magnesium sulfate ((\text{MgSO}{4})) acts as a critical enzymatic cofactor that stabilizes negatively charged phosphate groups, enabling the biochemical breakdown of carbohydrates into usable cellular energy.When dissolved in biological fluids, magnesium sulfate dissociates into magnesium ions ((\text{Mg}^{2+})) and sulfate ions ((\text{SO}{4}^{2-})). The (\text{Mg}^{2+}) ion is indispensable for carbohydrate metabolism, specifically during glycolysis and the citric acid cycle.How Magnesium Drives Carbohydrate MetabolismCarbohydrate metabolism is the process by which cells break down carbon- and hydrogen-rich molecules (like glucose, (\text{C}6\text{H}{12}\text{O}_6)) to generate adenosine triphosphate (ATP).ATP Stabilization: Every biochemical reaction that uses or produces ATP requires (\text{Mg}^{2+}). The ion binds to the negatively charged oxygen atoms on the phosphate chains of ATP, forming a stable (\text{Mg-ATP}^{2-}) complex that enzymes can properly bind and cleave.Glycolysis Activation: Key regulatory enzymes in glycolysis, such as hexokinase and phosphofructokinase, cannot function without (\text{Mg}^{2+}). These enzymes transfer phosphate groups to the carbon skeleton of sugar molecules, trapping and preparing them for further breakdown.Mitochondrial Respiration: Within the mitochondria, (\text{Mg}^{2+}) serves as an activator for the dehydrogenase enzymes that strip hydrogen ions and electrons from carbon molecules to fuel the electron transport chain.
The Roles of Carbon, Hydrogen, and IonsDuring the metabolic processing of carbohydrates, distinct elements and ions interact in a highly coordinated sequence:Carbon Skeletons: Carbohydrates are defined by their carbon backbones. Metabolism sequentially breaks these covalent carbon-carbon bonds, harvesting energy and releasing the carbon as waste carbon dioxide ((\text{CO}{2})).Hydrogen Ions ((\text{H}^{+})): As carbon bonds break, hydrogen atoms are stripped from the carbohydrate substrate. Enzymes transfer these hydrogens to carrier molecules like (\text{NAD}^{+}) to become (\text{NADH}). The release of these hydrogen ions ((\text{H}^{+})) across the inner mitochondrial membrane creates the electrochemical proton gradient that drives mass ATP synthesis via ATP synthase.Sulfate Ions ((\text{SO}{4}^{2-})): While the magnesium ion directly drives carbohydrate breakdown, the sulfate portion of (\text{MgSO}_{4}) contributes to protein synthesis, joint tissue formation, and cellular detoxification pathways.
Sulfur Cycling Balance: The unabsorbed sulfate (SO42) acts as a metabolic substrate for local microbes. While it supports necessary microbial sulfur cycling, the concurrent presence of magnesium keeps toxic hydrogen sulfide (H2S)-producing bacteria from overgrowing.
Nucleic Acid & Methylation Support: Magnesium acts as a core structural stabilizer for DNA and RNA, protecting the rapid nucleic acid synthesis and epigenetic modifications driven by the one-carbon cycle.
Enzymatic Driving Force: Key enzymes that transfer methyl groups throughout the methionine cycle rely completely on magnesium-dependent ATP reactions.
Fueling Transsulfuration: The sulfate portion of MgSO4 directly feeds into the transsulfuration pathway. This preserves the body's internal sulfur pool, freeing up one-carbon resources to synthesize S-adenosylmethionine (SAMe) (the body's master methyl donor) and glutathione (the body's master antioxidant).
The Microbiome Link: A healthy gut microbiome actively synthesizes B-vitamins (folate and B12). By optimizing gut bacteria, magnesium sulfate indirectly increases the primary raw inputs required to keep the folate and methionine cycles turning efficiently.
The ATP Lock: Free Mg²⁺ binds directly to Adenosine Triphosphate (ATP) to form Mg-ATP. ATP cannot be used by the cell unless it is bound to a magnesium ion.
Glycolysis: Glucose and honey (fructose/glucose) enter glycolysis. This pathway requires Mg²⁺ as a mandatory cofactor for rate-limiting enzymes like hexokinase and phosphofructokinase.
Titus Frost talks about
honey vinegar cured his shingles
https://www.youtube.com/live/ImcDCHcBFt0?si=aEEtOiMm1-Ptz7Tv
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Synthetic Carbohydrate Receptors (SCRs) and functionalized chitosan derivatives target viruses by acting as molecular decoys that mimic host-cell heparan sulfate. Driven by electrostatic binding and electronegative charge, they competitively bind viral glycoproteins to inactivate the virus, causing a virucidal effect. Magnesium ions (Mg²⁺) enhance this antiviral binding.
Electrostatic Binding: The heavily sulfated nature of these synthetic carbohydrate molecules provides high electronegative charge, allowing them to bind tightly to electropositive patches on viral spike proteins.
Virucidal Effect: In many cases, these compounds not only block attachment but also cause irreversible structural damage to the viral envelope, rendering the virus harmless.
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synthetic carbohydrate receptors (scrs) heparan sulfate chitosan electrostatic binding electronegative charge virucidal effect
Metal–Organic Frameworks (MOFs) (comprising magnesium and gallic acid) for promoting bone regeneration.
Carboxymethyl Chitosan (CMCS), Dextran (DEX) and 4-formylphenylboronic acid (4-FPBA)