Pinealon (Bioregulator)

Pinealon is described as a bioregulator peptide discussed for interacting with DNA / gene expression in the pineal gland. It’s also discussed for helping protect certain cell types (notably neurons) under low-oxygen (hypoxia) stress and for potential relevance to sleep–wake and cognitive domains. (Educational context only.)

Deeper Research Notes (Summary):
• Described as supporting irisin signaling (a protein discussed in exercise adaptation and metabolism), with downstream discussion around cellular resilience.
• Described as helping reduce hypoxia-related cellular damage in the brain by supporting the body’s antioxidant defenses.
• Described as influencing mood-related signaling via increased 5-tryptophan hydroxylase activity, which is involved in serotonin production.
• Because it’s discussed in the context of the pineal gland, it’s also described as potentially supporting circadian rhythm alignment and sleep.

Dosing & Cycling (As Listed):The source frames Pinealon like other bioregulators—typically used in periodic cycles rather than continuous daily use year-round.

Caution & Contraindications:
Caution:
• Described as generally well tolerated based on the referenced research summary
Contraindications:
• Also described as generally well tolerated based on the referenced research summary

Reconstitution Options (Vial Format):
• 20 mg

Reconstitution (General Handling):
• Use sterile technique and sanitize the vial stopper before access.
• Add diluent slowly along the vial wall to minimize foaming.
• Gently swirl/roll until fully dissolved (avoid vigorous shaking).
• Store according to the product label/spec sheet and protect from light as applicable.

Sequence: Glu-Asp-Arg

Molecular Formula: C₁₅H₂₆N₆O₈

Molecular Weight: 418.407 g/mol

PubChem CID: 18220191

CAS Number: 3031-94-5

Synonyms: Glutamylaspartylarginine, T-33 peptide

Unlike most peptides, pinealon does not appear to bind to cell surface or cytoplasmic receptors. This has led scientists to wonder how the short peptide can have any effect. In the past, it was suggested that pinealon may be small enough to cross lipid bilayers (e.g. the cell membrane, nuclear membrane) and may therefore be able to interact directly with DNA. Testing in cell cultures (HeLa cells) indicates that pinealon directly penetrates the cell membrane as well as the nuclear membrane to interact with DNA. This makes pinealon a regulator of gene expression and explains the peptide's myriad effects that cannot be explained by receptor interactions.

Research conducted in Russia suggests that Pinealon and a similar peptide called Vesugen may possess anti-aging properties, particularly in the central nervous system. These peptides have been found to have anabolic effects in the brain, potentially slowing the aging process when assessed using biological age indicators.

Pinealon's influence extends beyond the central nervous system, as it also affects muscle cells by modulating the expression of irisin. Irisin plays a crucial role in safeguarding muscle cells during exercise, promoting fat burning, and is believed to induce telomere elongation. By increasing the lifespan of irisin, Pinealon enhances telomere protection, combating the effects of aging and oxidative stress. Notably, plasma irisin levels are directly linked to telomere length in healthy adults. Furthermore, irisin levels have been associated with calorie restriction, a well-established method to prolong life and improve overall fitness. These observations suggest that irisin, which Pinealon affects, may have systemic anti-aging effects throughout the body, including the brain.

Pinealon Research and Neuron Protection Studies in prenatal rats indicate that Pinealon can protect neurons from oxidative stress, thereby preserving cognitive function and motor coordination. These studies have demonstrated significant reductions in reactive oxygen species accumulation and the number of necrotic cells in the brains of prenatal rats treated with Pinealon. In essence, Pinealon helps safeguard neurons from cell death caused by oxidative stress. The findings from the prenatal rat study have been substantiated and expanded upon in subsequent research. It has been confirmed that Pinealon offers protection against reactive oxygen species and reduces necrotic cell death. Additionally, it has been revealed that Pinealon modulates the cell cycle, primarily by activating proliferation pathways. In typical circumstances, this activation would lead to an increase in cell numbers. However, under conditions of oxidative stress, this effect counteracts some of the detrimental effects caused by reactive oxygen species. This modulation at the DNA level suggests that Pinealon interacts with DNA, highlighting its potential therapeutic significance. Please note that Pinealon's application is primarily intended for educational and scientific research purposes and is restricted for sale to licensed researchers. It is not intended for human consumption.

PubMed

Article Author:

The above literature was researched, edited and organized by Dr. Logan, M.D. Dr. Logan holds a doctorate degree from https://case.edu/medicine/Case Western Reserve University School of Medicine and a B.S. in molecular biology.

Case Western Reserve University School of Medicine

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