Chonluten

Chonluten is a short tripeptide bioregulator (Glu-Asp-Gly) that modulates gene expression related to inflammation and antioxidant activity, with primary research focus on lung tissue and secondary effects in the gastrointestinal tract.

Chonluten is a synthetic tripeptide bioregulator consisting of the amino acid sequence Glu-Asp-Gly (EDG). Research indicates it regulates genes encoding antioxidant and anti-inflammatory pathways, particularly in the lungs and gastrointestinal tract.

Overview

Chonluten, also called tripeptide T-34, belongs to a class of short peptide bioregulators developed at the St. Petersburg Institute of Bioregulation and Gerontology. Di-, tri-, and tetrapeptides in this class have been shown to increase lifespan by as much as 40% in animal studies, suppressing the development of both spontaneous and induced tumors while slowing age-related biomarker decline (Anisimov & Khavinson, 2010).

Research demonstrates that short peptides can regulate all aspects of gene expression, including epigenetic DNA methylation (Khavinson et al., 2021). Modeling studies show that a single short peptide can regulate dozens of genes by penetrating both cytoplasmic and nuclear membranes to bind directly to DNA at promoter, suppressor, and other control regions (Fedoreyeva et al., 2011).

Mechanism of Action

Chonluten exerts its effects through direct binding to DNA, modulating the expression of several key genes involved in inflammation and oxidative stress. Its effects appear to be mediated through regulation of:

  • c-Fos -- a potent general regulator of cell proliferation, differentiation, and survival that is activated in response to cellular damage and hypoxia. Widespread c-Fos expression can lead to thickened bronchial mucosa and contribute to cancer development.
  • HSP70 -- heat shock protein gene involved in cellular stress responses.
  • SOD -- superoxide dismutase, a critical antioxidant enzyme.
  • COX-2 -- cyclooxygenase-2, a key mediator of inflammatory signaling.
  • TNF-alpha -- tumor necrosis factor alpha, a pro-inflammatory cytokine.

By regulating c-Fos activity in particular, Chonluten may address one of the underlying pathophysiological changes seen in asthma and COPD, where aberrant c-Fos expression drives bronchial mucosal thickening (Khavinson et al., 2012).

Short peptides like Chonluten can regulate gene expression by penetrating cell and nuclear membranes to bind directly to DNA via docking at promoter and suppressor regions (Khavinson et al., 2016).

Reconstitution Calculator

Reconstitution Calculator

Calculate your peptide dosing

Draw Volume
0.100mL
Syringe Units
10units
Concentration
2,500mcg/mL
Doses / Vial
20doses
Vial Total
5mg
Waste / Vial
0mcg
Syringe Cap.
100units · 1mL
How to reconstitute
Gather & prepare
1/6Gather & prepare

Set up a clean workspace with all supplies ready.

1.Wash hands thoroughly, put on disposable gloves
2.Your 5mg peptide vial (lyophilized powder)
3.Bacteriostatic water (you'll need 2mL)
4.A 3–5mL syringe with 21–25 gauge needle for reconstitution
5.Alcohol swabs (70% isopropyl)
Use bacteriostatic water (0.9% benzyl alcohol) for multi-dose vials. Sterile water is only safe for single-use.
Supply Planner

7x / week for weeks

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40%
2vials
28 doses20 days/vial12 leftover
Cost Breakdown
Vial price
$0.00per dose
$0.00 /week$0 /month
Store 2-8°C30 day shelf lifeSwirl gentlyFor research purposes only

Research

Lung Tissue Effects

Chonluten displays tissue-specific activity in the lungs, altering DNA expression in a way that normalizes bronchial mucosa. The bronchial epithelium serves as the barrier between inhaled air and the cardiovascular system, and it can be disrupted by inflammatory conditions such as asthma and COPD, leading to changes in mucus production and extracellular matrix structure. By modulating the expression of anti-inflammatory and antioxidant genes, Chonluten helps restore normal mucosal function in the setting of chronic lung disease (Khavinson et al., 2012).

Gastrointestinal Effects

The effects of Chonluten in the GI tract parallel its pulmonary activity, though at a reduced magnitude. Research suggests it may be useful in reducing inflammation and vascular changes in the GI tract resulting from inflammatory diseases such as Crohn's disease and ulcerative colitis. Investigation of this aspect remains ongoing (Khavinson et al., 2012).

Geroprotective Properties

Studies on bioregulatory peptides demonstrate that Chonluten and related short peptides can suppress spontaneous and induced tumor development while slowing age-related decline in physiological biomarkers. This combination of anti-tumor and anti-aging effects has led researchers to classify Chonluten as a geroprotective agent (Anisimov & Khavinson, 2010). Research in skin cell cultures from both young and old rats showed that bioregulatory tripeptides including Chonluten stimulate cell proliferation and tissue repair, with effects that are more pronounced in older tissue (Voicekhovskaya et al., 2012).

COVID-19 Potential

Chonluten and its related peptide Bronchogen have been evaluated for their potential in treating bronchopulmonary pathology. Chonluten appears to improve the effectiveness of standard therapy in chronic bronchitis with an asthmatic component, exhibits stress-protective effects, and improves physical performance and organism function under hypoxic conditions. These properties make it a candidate adjuvant in multi-component therapeutic approaches for respiratory viral infections (Khavinson et al., 2020).

Safety Profile

Chonluten has been studied primarily in animal models and cell cultures. In the available literature, no significant adverse effects have been reported. As a naturally occurring tripeptide sequence, it is expected to have low immunogenicity and toxicity. However, formal clinical safety trials in humans are limited, and a comprehensive safety profile has not been established.

Pharmacokinetic Profile

Half-life
Minutes (short peptide); effects persist via epigenetic changes

Quick Start

Typical Dose
10-20 mg daily
Frequency
Once daily for 10-20 consecutive days
Route
Oral, Subcutaneous
Cycle Length
10-20 days per cycle
Storage
Capsules: room temperature; Injectable lyophilized: 2-8°C; Reconstituted: 2-8°C refrigerated

Molecular Structure

2D Structure
Chonluten molecular structure
Molecular Properties
Formula
C11H17N3O8
Weight
319 Da
Length
3 amino acids
CAS
75007-24-8
PubChem CID
194641
Exact Mass
319.1016 Da
LogP
-5.3
TPSA
196 Ų
H-Bond Donors
6
H-Bond Acceptors
9
Rotatable Bonds
10
Complexity
464
Identifiers (SMILES, InChI)
InChI
InChI=1S/C11H17N3O8/c12-5(1-2-7(15)16)10(21)14-6(3-8(17)18)11(22)13-4-9(19)20/h5-6H,1-4,12H2,(H,13,22)(H,14,21)(H,15,16)(H,17,18)(H,19,20)/t5-,6-/m0/s1
InChIKeyDSPQRJXOIXHOHK-WDSKDSINSA-N

Research Indications

Respiratory Support

Good Evidence
Bronchial Function

Normalizes respiratory system function through gene expression regulation.

Good Evidence
Lung Tissue Health

Restores and maintains lung alveolar tissues and bronchial mucous membranes.

Moderate Evidence
COPD Support

May modulate mucosal function in chronic obstructive pulmonary disease.

Anti-Inflammatory

Good Evidence
TNF Modulation

Inhibits TNF production in monocytes, reducing inflammatory responses.

Moderate Evidence
Oxidative Stress

Supports SOD and antioxidant gene expression.

Anti-Aging

Moderate Evidence
Geroprotection

Researched as potential agent that may slow cell aging.

Moderate Evidence
Gene Expression Regulation

Modulates c-Fos and proliferative gene activity.

Research Protocols

oral

Available in capsule form for oral administration. As a tripeptide, Chonluten has favorable permeability across cellular compartments. Typical protocol involves 10-20 day cycles.

GoalDoseFrequency
Standard protocol10-20 mgDaily for 10-20 days

sublingual Injection

Sublingual (lingual) form available for enhanced absorption.

GoalDoseFrequency
Enhanced absorption10-20 mgDaily for 10-20 days

subcutaneous Injection

Respiratory bioregulator peptide. Aggressive titration from 250 mcg to 4 mg over 16 weeks.

GoalDoseFrequency
Week 1-2250 mcgOnce daily
Week 3-4500 mcgOnce daily
Week 5-61,000 mcgOnce daily
Week 7-81,500 mcgOnce daily
Week 9-102,000 mcgOnce daily
Week 11-123,000 mcgOnce daily
Full dose4,000 mcgOnce daily
Reconstitution Guide (20mg vial + 3mL BAC water)
  1. Wipe vial tops with alcohol swab
  2. Draw 3.0 mL bacteriostatic water into syringe
  3. Inject slowly down the inside wall of the peptide vial
  4. Gently swirl to dissolve — never shake
  5. Resulting concentration: 6.67 mg/mL
  6. For 250 mcg dose: draw 3.75 units (0.0375 mL)
  7. For 1,000 mcg (1 mg) dose: draw 15 units (0.15 mL)
  8. For 2,000 mcg (2 mg) dose: draw 30 units (0.30 mL)
  9. For 4,000 mcg (4 mg) dose: draw 60 units (0.60 mL)
  10. Store reconstituted vial refrigerated at 2-8°C

Interactions

Peptide Interactions

Bronchogensynergistic

Related respiratory bioregulators; complementary mechanisms.

Epitalonsynergistic

Often combined in comprehensive anti-aging Khavinson protocols.

Crystagencompatible

Both have immune-modulating properties; different tissue targets.

BPC-157compatible

Both support mucosal health through different mechanisms.

What to Expect

What to Expect

During cycle

Gene expression modulation and anti-inflammatory effects begin

Post-cycle

Effects persist due to epigenetic changes

Weeks-Months

Respiratory function improvements

Long-term

Cumulative benefits with periodic cycles

Safety Profile

Common Side Effects

  • Generally well-tolerated
  • Minimal side effects reported

Contraindications

  • Active respiratory emergencies (seek medical care)
  • Known hypersensitivity
  • Pregnancy or breastfeeding

Discontinue If

  • Allergic reactions
  • Unusual respiratory symptoms

Quality Indicators

What to look for

  • White powder or capsules
  • Clear solution if reconstituted
  • Proper packaging and labeling

Caution

  • Unknown source or purity

Red flags

  • Discoloration
  • Unusual odor
  • Damaged packaging

Frequently Asked Questions

References (11)

  1. [2]
    Chonluten and Gene Expression Regulation (2018)
  2. [3]
    Bronchial Bioregulator Peptides (2016)
  3. [4]
    Khavinson Peptide Bioregulators (2020)
  4. [11]
  5. [1]
  6. [5]
  7. [6]
    Anisimov VN, Khavinson VK Peptide bioregulation of aging: results and prospects Biogerontology (2010)
  8. [7]
  9. [9]
    Khavinson VK et al Short Peptides Regulate Gene Expression Bull Exp Biol Med (2016)
  10. [10]
  11. [8]
Updated 2026-03-08Sources: jabronistore-wiki, peptide-wiki-mdx, pubchem, peptide-wiki-mdx-v2

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