Pinealon

Mechanism: Nuclear Penetration and Gene Activation

Pinealon’s proposed mechanism involves:

1. Cellular uptake via endocytosis or direct membrane penetration (small peptides can enter cells through transporter proteins)
2. Nuclear localisation - EDR interacts with histone-associated chromatin
3. Binding to promoter regions of pineal-specific genes
4. Transcriptional activation of:
   • AANAT (arylalkylamine N-acetyltransferase, rate-limiting for melatonin synthesis)
   • Nrf2-regulated antioxidant genes (HO-1, SOD, catalase)
   • Survival genes in neurons (Bcl-2 family)

Evidence for this mechanism comes from both cell culture studies and animal models showing Pinealon-induced increases in antioxidant enzyme expression and reductions in lipofuscin accumulation.

Lipofuscin and Neuronal Aging

Lipofuscin is a fluorescent waste material that accumulates in post-mitotic cells (neurons, cardiomyocytes) as a result of incomplete lysosomal degradation of oxidised proteins. Its accumulation is a hallmark of cellular aging and is associated with reduced neuronal function. Pinealon has been shown in multiple studies to reduce lipofuscin content in brain tissue of aged animals - suggesting it either reduces oxidative damage that generates lipofuscin or enhances lysosomal/proteasomal clearance.

Combination with Epithalon

The Khavinson group has studied combinations of their peptide bioregulators extensively:

• Epithalon (AEDG): thymus-derived, systemic telomerase activation and immune modulation
• Pinealon (EDR): pineal-derived, brain and melatonin axis support

Together they are reported to produce additive anti-aging effects in both animal models and long-term human observational studies.

Reconstitution and Storage

Reconstitution: reconstitute the vial with bacteriostatic water; swirl gently until dissolved, do not shake. After reconstitution: keep refrigerated, protect from direct light, and use within 28 days.

For research purposes only. Not for human consumption.