Healing & Recovery

Cardiogen

A Russian tetrapeptide bioregulator (Ala-Glu-Asp-Arg) developed for cardiac tissue - supporting cardiomyocyte metabolism, heart muscle protection, and cardiovascular recovery.

C₁₈H₃₀N₆O₉Half-life: ~30 minutesMolar mass: 490.47 g/mol

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Compound Profile

Cardiogen

Key Data

FormulaC₁₈H₃₀N₆O₉
Molar mass490.5 g/mol
Half-life~30 minutes
CategoryHealing & Recovery

Research reference only

Research Focus

Supports cardiomyocyte metabolism and cardiac protein synthesis
May reduce myocardial damage in ischaemia-reperfusion models
Part of the Russian peptide bioregulator system developed by Professor Khavinson - backed by 40+ years of Russian research

Preclinical data

⚠ Research & Educational Use Only. Cardiogen is a research chemical documented here for scientific education. All information references peer-reviewed literature and preclinical/clinical study data. Not for human consumption. Not medical advice. Consult a licensed researcher or healthcare professional before any laboratory use.

Chemistry review: Ashish KumarWritten by the KnowYourPeptide Research TeamLast updated August 2026
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Key Takeaways
  • Supports cardiomyocyte metabolism and cardiac protein synthesis
  • May reduce myocardial damage in ischaemia-reperfusion models
  • Part of the Russian peptide bioregulator system developed by Professor Khavinson - backed by 40+ years of Russian research
  • Cardiogen is not FDA-approved for human use. It is a research chemical for scientific study only.

Research At a Glance

  • Supports cardiomyocyte metabolism and cardiac protein synthesis
  • May reduce myocardial damage in ischaemia-reperfusion models
  • Part of the Russian peptide bioregulator system developed by Professor Khavinson - backed by 40+ years of Russian research
  • Improves cardiac functional parameters in preclinical models of heart disease
Calculate Cardiogen dose
Who researches this:Researchers studying cardiac bioregulator peptides and their proposed cardioprotective mechanismsThose investigating the Khavinson approach applied to cardiac aging and heart failure recoveryPeople comparing Cardiogen to other cardioprotective peptides (SS-31, urocortin, BPC-157)Scientists interested in cardiomyocyte regeneration biology
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In Plain English

Simple summary

Cardiogen is a synthetic tetrapeptide (Ala-Glu-Asp-Arg) from the Khavinson bioregulator series, developed as a cardiac bioregulator. Like other bioregulators in the series, it was derived from analysis of cardiac tissue peptide fractions and is proposed to restore gene expression in cardiomyocytes (heart muscle cells). Research from the Khavinson group suggests it promotes cardiomyocyte differentiation, reduces fibrosis in cardiac tissue, and may help restore cardiac function after myocardial damage. It has been studied in aged rats showing improvements in cardiac cell morphology, and in small Russian clinical studies in patients with heart failure or post-MI recovery.

  • Supports cardiomyocyte metabolism and cardiac protein synthesis
  • May reduce myocardial damage in ischaemia-reperfusion models
  • Part of the Russian peptide bioregulator system developed by Professor Khavinson - backed by 40+ years of Russian research

The full scientific detail, mechanisms, citations, and dosing data, follows below.

What is Cardiogen?

Tap any underlined term for an instant definition.

Cardiogen is a synthetic tetrapeptide (Ala-Glu-Asp-Arg) developed by the St. Petersburg Institute of Biogerontology in Russia as part of Professor Vladimir Khavinson's organ-specific peptide bioregulator programme. Like other bioregulators in this series (Epitalon for the pineal gland, Thymalin for the thymus, Bronchogen for the lungs, Vilon for the immune system), Cardiogen is designed to specifically support the function of cardiac tissue.

The bioregulator concept, developed in the 1970s-90s, proposes that short oligopeptides derived from or mimicking signals produced by specific tissues can act as tissue-specific regulators of protein synthesis and gene expression. According to this model, as tissues age, their production of regulatory peptides declines, contributing to organ dysfunction. Exogenous supplementation with these short peptides can theoretically restore gene expression patterns toward a more youthful, functional state.

Cardiogen's tetrapeptide sequence (Ala-Glu-Asp-Arg) was isolated from cardiac muscle tissue and has been studied in preclinical models for effects on cardiomyocyte metabolism, protein synthesis, and resistance to ischaemic damage. Russian clinical research has reported benefits in patients with coronary artery disease and cardiac insufficiency, though these studies have methodological limitations from a Western evidence-based medicine perspective.

The most compelling data supporting bioregulators generally comes from the St. Petersburg longevity studies, where elderly patients treated with multi-bioregulator protocols (combining heart, immune, and neuroendocrine bioregulators) showed reduced mortality and improved health outcomes over 8-15 year follow-up periods. Cardiogen was a component of these cardiac-focused protocols.

Cardiogen is commonly used alongside Epitalon (which has the most extensive research among the Russian bioregulators) in comprehensive anti-ageing research protocols. The combination of pineal regulation (Epitalon), immune support (Thymalin), and organ-specific peptides (Cardiogen, Bronchogen, Cortagen, etc.) represents the complete Khavinson bioregulator approach to healthy ageing.

By the Numbers

Tetrapeptide (Ala-Glu-Asp-Arg)
Four amino acids derived from cardiac tissue analysis -- the standard Khavinson bioregulator sequence identification approach
Cardiomyocyte differentiation
Proposed to promote differentiation of cardiac progenitor cells into functional cardiomyocytes in aged tissue
Fibrosis reduction
Rat cardiac aging studies from the Khavinson group show reduced collagen deposition in cardiomyocyte preparations after Cardiogen treatment

Key Research Benefits

Documented effects observed in preclinical and clinical studies on Cardiogen. See all Healing & Recovery peptides for comparison.

Supports cardiomyocyte metabolism and cardiac protein synthesis
May reduce myocardial damage in ischaemia-reperfusion models
Part of the Russian peptide bioregulator system developed by Professor Khavinson - backed by 40+ years of Russian research
Improves cardiac functional parameters in preclinical models of heart disease
Anti-arrhythmic properties observed in some preclinical studies
Cardioprotective effects independent of effects on blood pressure
Used in combination with other organ-specific bioregulators (Epithalon, Thymalin) in longevity protocols
Supports recovery of cardiac function after myocardial injury

Common Stacks

Cardiogen is frequently combined with the following peptides for synergistic effects. Click any peptide to compare profiles before deciding.

NAD+ supports sirtuin activation and mitochondrial function while Epitalon addresses telomere length - a comprehensive longevity stack.

Epitalon profile

NAD+ and Humanin are both mitochondrial health molecules: together they support mitochondrial function and longevity pathways.

Humanin profile

Side Effects & Risks

Adverse effects reported in the research literature. All data sourced from preclinical and clinical study reports. View all peptides' side effects →

Dosing Data from the Literature

Doses referenced below are sourced from published preclinical and clinical studies. Use the peptide dose calculator to convert these values to injection volume.

Research Dosing Protocol

Russian clinical protocols use 10 mg/day intramuscularly for 10 consecutive days, repeated 2-3 times per year.

Standard bioregulator protocol: 10 mg IM daily for 10 days Frequency: 2-3 courses per year Often combined with Epitalon (pineal bioregulator) and Thymalin (immune bioregulator) in comprehensive bioregulator protocols

Enter your vial size and target dose to get the exact injection volume.

Administration in Research Settings

Standard reconstitution and administration methodology for laboratory research use.

with physiological saline. Administer intramuscularly once daily for 10 consecutive days.

What the research doesn't show

Cardiogen research is exclusively from the Khavinson group and published in Russian specialty journals. No independent Western laboratory has confirmed its cardioprotective effects. For cardiac research with a meaningful evidence base, SS-31, urocortin, or other mechanistically well-characterized peptides are more appropriate research tools.

Medical Expert Videos

Physicians, researchers, and pharmacologists explain Cardiogen, covering mechanisms of action, clinical context, and study findings.

YouTube, Cardiogen · doctors & researchersOpen in YouTube

Videos sourced from YouTube search. KnowYourPeptide does not endorse any individual creator. For research education only.

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The Bottom Line

Cardiogen has a growing body of preclinical evidence and a well-characterised safety profile in research settings. The most-studied application is: supports cardiomyocyte metabolism and cardiac protein synthesis.

The most commonly reported side effect in research subjects is generally well tolerated - minimal adverse effects reported in russian clinical studies. It is a research chemical, not approved for human use.

Research chemicalNot for human useEducational purposes only

Frequently Asked Questions

Explore Further

Quick Reference

Half-Life
~30 minutes
Molar Mass
490.47 g/mol
Formula
C₁₈H₃₀N₆O₉
Legal Status
Approved pharmaceutical in Russia. Research chemical in Western countries.
Storage
Lyophilised: 2-8 degrees C, protect from light. Reconstituted: use within 24 hours.

How It Compares

SS-31 (elamipretide) has the most clinically advanced cardiac peptide development record, with Phase 2 trial data in heart failure. Urocortin has documented cardioprotective effects in ischemia-reperfusion models. B7-33 targets cardiac fibrosis through relaxin receptor activation. Cardiogen's organ-extract derived approach is conceptually interesting but has a much weaker evidence base than any of these alternatives.

Compare Cardiogen side-by-side

Research Use Only

This information is for educational research purposes only. This is not medical advice. Consult a qualified healthcare professional.

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