Pinealon
Pinealon (Glu-Asp-Arg)
A three-amino-acid “bioregulator” from the Russian Khavinson school — proposed to shield neurons from oxidative stress and hypoxia and to support cognition. The community runs it for brain protection, usually alongside the other bioregulators. Be clear-eyed: the evidence is cell-culture and rodent work, much of it Russian-language, with no Western human trials.
What it is
People run it for neuroprotection and cognition — the idea is a peptide that helps neurons survive oxidative stress and low oxygen, and over time supports memory and mental clarity. It’s usually framed as a long-game “protect the brain” compound rather than something with a felt, same-day effect, and it’s frequently grouped with other bioregulators in a longevity-style stack.
It’s a “peptide bioregulator” — part of a family of very short peptides developed by the Khavinson group in St. Petersburg, the same lineage as Epitalon. The shorthand is EDR, the single-letter codes for its three amino acids (glutamate, aspartate, arginine). The eye-catching claim is the proposed mechanism: that a peptide this tiny slips into the cell nucleus and interacts directly with DNA to switch on protective genes. That’s a real published hypothesis — but it’s a hypothesis built on cell and rodent work, not a settled fact, and nothing here has been tested in a Western human trial.
Mechanism
Proposed, not proven. The Khavinson-group model is that EDR enters the cell, reaches the nucleus, and binds DNA (or histone proteins) at the promoter regions of specific genes — turning up antioxidant enzymes like SOD2 and GPX1 and tuning the MAPK/ERK signaling pathway, which shifts cells toward survival-and-adaptation rather than apoptosis. Downstream, lab studies report less reactive-oxygen-species buildup and reduced caspase-3-driven cell death under oxidative or hypoxic stress. Treat the gene-targeting story as an interesting lead, not an established mechanism — the “binds DNA directly” claim rests on in-vitro experiments.
Standard dose
| Standard dose | ~100–300 mcg / day (proposed — pending dosing review)animal-only |
|---|---|
| Route | SubQ is the common community route; some run intranasalanimal-only |
| Cycle | Typically run in short blocks (a couple of weeks), often a few times a year — mirrors how bioregulators are cycled, not a clinical protocolanimal-only |
| Reality check | There’s no human dosing literature — these numbers are community convention extrapolated from rodent studies and other bioregulators, not trial-derivedanimal-only |
Reconstitution calculator
U-100 · 100u = 1 mL= 200 units
Set the vial size and water to match your product — amounts vary by supplier. This is unit-conversion math, not medical advice or a dosing recommendation.
Pushing higher— going beyond the standard doseanimal-only
Side effects & cautions
Community reports describe it as mild and well-tolerated, with the usual injection-site reactions and the occasional headache — but read that with heavy skepticism. “Well-tolerated” here reflects light, casual use and a near-total absence of formal safety study, not a clean bill of health. There is no modern human safety dataset, no long-term follow-up, and the proposed mechanism is literally about altering gene expression — a class of effect that nobody has characterized in humans. Absence of reported harm is not evidence of safety. Sourcing is unregulated like everything in this space; insist on a certificate of analysis.
Stacking
In community use it’s rarely run alone — it’s slotted into a bioregulator stack, most often alongside Epitalon (longevity/sleep) and sometimes the other short Khavinson peptides, with the broad goal of “neuroprotection plus anti-aging.” None of these combinations rests on trial evidence; they’re routines built around a shared longevity narrative, not data showing the pairings do anything together.
Evidence & sources
No human trials of any kind — not in the West, and no robust modern human efficacy work elsewhere. The base is in-vitro (cerebellar granule cells, HeLa) and rodent studies, much of it from a single research lineage and originally published in Russian. The antioxidant and anti-apoptotic effects are real findings in those models; the leap to human cognition and neuroprotection is unproven.
- Khavinson V et al. (2011)Animal / in-vitroPinealon increases cell viability by suppression of free-radical levels and activating proliferative processesRejuvenation Research — in-vitro (cerebellar granule cells, PC12)PMID 21978084 ↗
- Fedoreyeva LI et al. (2011)Animal / in-vitroPenetration of short fluorescence-labeled peptides into the nucleus and in-vitro interaction with DNABiochemistry (Moscow) — in-vitro mechanism (the “binds DNA” basis)PMID 22117547 ↗
- Khavinson V et al. (2021)Animal / in-vitroNeuroprotective effects of tripeptides — epigenetic regulators in a mouse model of Alzheimer’s diseasePharmaceuticals — 5xFAD mouse (EDR/KED, dendritic spines)PMID 34071923 ↗
- Khavinson V et al. (2021)ReviewEDR peptide: possible mechanism of gene expression and protein synthesis regulation in Alzheimer’s diseaseMolecules — mechanistic review (in-vitro / in-vivo)PMC7795577 ↗