The fifth paper in the Samsel and Seneff series proposed that glyphosate can substitute for the amino acid glycine during protein synthesis because it is structurally similar to glycine. This molecular mimicry would produce proteins with altered structure and function, affecting virtually every biological process in the body.
The authors presented evidence that glyphosate substitution for glycine could disrupt collagen formation (glycine comprises one-third of collagen's amino acids), enzyme function, and cell signaling pathways. This mechanism would mean glyphosate damage accumulates progressively over a lifetime.
If confirmed, this represents one of the most insidious modes of toxicity for an environmental chemical, as glyphosate damage would be built directly into the body's structural and functional proteins.
Key Findings
- •Glyphosate is a structural analog of the amino acid glycine and may be incorporated into proteins during synthesis.
- •Glycine substitution by glyphosate could disrupt collagen integrity, since glycine represents every third amino acid in collagen.
- •Enzyme active sites containing glycine residues could be rendered non-functional by glyphosate substitution.
- •This mechanism would explain how low-dose chronic exposure produces cumulative, progressive health deterioration.
- •The proposed mechanism is consistent with the wide range of diseases correlated with glyphosate exposure.
Methodology
Theoretical and mechanistic review combining structural biochemistry, protein chemistry, and molecular biology evidence. The authors analyzed the structural similarity between glyphosate and glycine, reviewed evidence for amino acid misincorporation in protein synthesis, and examined the role of glycine residues in critical proteins.
Why This Matters for Families
If glyphosate truly substitutes for glycine in our proteins, then every exposure — no matter how small — could contribute to long-term structural damage. This reinforces the importance of eliminating glyphosate from the diet as completely as possible, especially for growing children whose bodies are building new proteins rapidly.
Original Source
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