This page describes pharmacological agents that may have legal restrictions, side effects, and drug interactions in your jurisdiction. Information is for educational research only — consult a clinician before considering any compound.
Cardiogen
Khavinson tetrapeptide AEDR (Ala-Glu-Asp-Arg, 489.47 Da) marketed as a "cardiac bioregulator." Claimed indications: post-MI recovery adjunct, age-related cardiomyopathy, chronic heart failure suppo…
Aliases (8)
Overview
What is Cardiogen?
Cardiogen (Ala-Glu-Asp-Arg) is a synthetic tetrapeptide bioregulator developed by the St. Petersburg Institute of Bioregulation and Gerontology. It is part of the Khavinson peptide family, designed for cardiovascular tissue support and used in Russia/Eastern Europe as an OTC longevity peptide.
Key Benefits
Reported support of cardiac myocyte function, improvement in cardiovascular markers in aged populations (Russian clinical literature), and putative anti-aging effect on cardiac and vascular tissue.
Mechanism of Action
Short peptide bioregulator hypothesized to penetrate cells and bind histone-DNA complexes, modulating gene expression in cardiac and vascular tissue. Mechanistic detail is preliminary; bulk of evidence is from Khavinson-school clinical observation.
Pharmacokinetics
Research Indications
Cardiac Tissue Support
Preclinical models suggest cardiomyocyte proliferation stimulation and apoptosis suppression through p53 downregulation
Post-Injury Remodeling
Coronary artery ligation mouse models suggest reduced necrotic zones and improved survival outcomes
Chronic Heart Conditions
Russian clinical practice uses Cardiogen in treatment protocols for coronary heart disease, hypertension, and heart failure
Cytoskeletal Protein Upregulation
Enhances expression of actin, vimentin, and tubulin 2-5x in fibroblasts, supporting cellular structural integrity
Nuclear Matrix Support
Increases lamin A and lamin C expression 2-3x, supporting nuclear architecture and gene regulation
Anti-Apoptotic Effects
Suppresses p53 protein expression in cardiomyocytes, reducing programmed cell death in cardiac tissue
Peptide Interactions
Cardiogen + Pinealon + Epithalon + Vesugen is the textbook Khavinson "comprehensive longevity protocol" framing. Theoretical only; no head-to-head data showi…
pep-pedia lists "theoretical synergy" via complementary tissue-repair mechanisms. Pure narrative; no published combination studies. BPC-157 has its own evide…
listed as "monitor combination" by pep-pedia. For a 20yo with no cardiac disease, this is irrelevant.
(AEDR/Cardiogen, AEDG/Epithalon, EDR/Pinealon, KE/Thymogen, KED/Vesugen, etc.) — running multiple at once makes attribution impossible and stacks the single-…
Pro-survival, p53-suppressive in cardiomyocyte context. Default to caution.
Pep-pedia flags this as "monitor for excessive fibroblast activation." Theoretical; no characterized interaction.
Theoretical synergy based on complementary mechanisms - Cardiogen supports cardiac tissue while BPC-157 promotes healing in gut and soft tissues. No published combination studies exist.
Theoretical synergy based on complementary mechanisms - TB-500 promotes blood vessel formation and broad tissue repair while Cardiogen provides heart-specific support. No published combination studies exist.
Complementary Khavinson bioregulators targeting different organ systems. Pinealon supports neuroprotection while Cardiogen targets cardiac tissue. Routinely combined in Russian longevity protocols.
Fellow Khavinson bioregulator targeting cartilage and connective tissue. Different tissue specificity allows combination without overlap. Used together in comprehensive anti-aging protocols.
Thymosin Alpha-1 supports immune modulation while Cardiogen targets cardiac tissue. Different mechanisms with no known interactions. May complement each other in recovery protocols.
Theoretical synergy through complementary pathways. Epitalon activates telomerase and regulates pineal function while Cardiogen supports cardiac tissue maintenance. Combined in Russian geroprotective protocols but no published combination studies exist.
Russian clinical practice uses Cardiogen alongside conventional treatments for heart conditions. Monitor cardiovascular parameters when combining with existing cardiac medications.
Both affect tissue proliferation pathways. Monitor for excessive fibroblast activation or unexpected tissue changes when combining growth-promoting compounds.
What to Expect
- Week 1Tolerability and dose-response.
- Week 2-4Early effect window.
- Week 4-8Peak benefit assessment.
- Week 8+Cycle decision point.
Side Effects & Safety
- Common (>10%): None reliably above placebo background per Russian clinical experience reports. (Caveat: small sample, no controlled safety data.)
- Less common (1-10%): Mild GI discomfort (oral), injection-site reaction (injectable), rare reports of fatigue (1 of 2 reported in pep-pedia poll data — n is too small to be meaningful). No headache pattern reported, in contrast to pinealon.
- Rare-serious (<1%): Allergic reaction to peptide / excipients. No documented organ toxicity in available preclinical literature; no documented dependence; no withdrawal syndrome. "No known signal" rather than "definitively safe."
- Specific watch periods: None established. Treat first 1-2 weeks of any cycle as initiation-monitoring window.
- Theoretical concerns:
- Active malignancy contraindication. Cardiogen suppresses p53 in the cardiac context (anti-apoptotic / pro-survival). Generic concern: pro-survival peptides during active or prior malignancy. The 2009 M-1 sarcoma paper showing tumor inhibition in senescent rats argues the other direction — and that internal contradiction is itself a flag. Net: avoid during active cancer, default to caution.
- Pregnancy / lactation: contraindicated (no safety data).
- Co-administration with conventional cardiac medications. Russian protocols use Cardiogen alongside standard cardiac therapy without reported issues. No characterized interactions; no PK data to ground predictions. If anyone with actual cardiac disease pursued this, it should be with cardiology input, not as DIY adjunct.
References
Khavinson V.Kh., Lin'kova N.S., et al. (2012). Tetrapeptide H-Ala-Glu-Asp-Arg-OH stimulates expression of cytoskeletal and nuclear matrix proteins. Bull Exp Biol Med 153(4):559-562. PMID 22977870
Chalisova N.I., Lesniak V.V., et al. (2009). The effect of the amino acids and cardiogen on the development of myocard tissue culture from young and old rats. Adv Gerontol 22(3):409-413. PMID 20210190
Levdik N.V., Knyazkin I.V. (2009). Tumor-modifying effect of cardiogen peptide on M-1 sarcoma in senescent rats. Bull Exp Biol Med 148(3):433-436. PMID 20396706
Zakutskii A.N., Chalisova N.I., et al. (2006). The tissue-specific effect of synthetic peptides-biologic regulators in organotypic tissues culture in young and old rats. Adv Gerontol 19:93-96. PMID 17152728
Kheifets O.V., Polyakova V.O., Kvetnoy I.M. (2010). Peptidergic regulation of the expression of signal factors of fibroblast differentiation. Adv Gerontol 23(1):68-70. PMID 20586252
Khavinson V.Kh. (2002). Peptides and aging. Neuroendocrinol Lett 23(Suppl 3):11-144. PMID 12163170
Atlas of Science (2023). Cardiomyocyte metabolism research and Cardiogen peptide.
Khavinson-network review citing the coronary ligation mouse model.
View StudyCosmicNootropic Cardiogen® product page
Russian oral capsule, NPCRIZ manufacturer.
View StudyPep-pedia Cardiogen entry
locally mirrored at `pep-pedia-mirror/site/peptides/cardiogen.html`.
View StudyHow was your experience with this compound?
Anonymous · one vote per session · results below at 5+ votes.
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