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Specimen Atlas of Research Peptides81 plates · MIT
Side-by-side · Research reference

CartalaxvsVilon

Side-by-side comparison across mechanism, dosage, evidence, side effects, administration, and stack synergies. Citations on every claim where available.

AAnimal-MechanisticHUMAN-REVIEWED10/32 cited
BAnimal-StrongHUMAN-REVIEWED13/49 cited
Cartalax
Bioregulator Peptide · Khavinson School
CartilagePrimary tissuePovorozniuk 2007
MSC → ChondrocyteDifferentiation axisLinkova 2023
BMD ↑Bone density effectPovorozniuk 2007
SQ · Protocol Unspecified
Vilon
Khavinson Bioregulator · Dipeptide
2 AADipeptide
T-helperStimulatesLinkova 2011
MouseModel basisKhavinson 2002
Literature lacks standardised clinical route

01Mechanism of Action

Parameter
Cartalax
Vilon
Primary target
Mesenchymal stem cells (MSCs) undergoing chondrogenic differentiationLinkova 2023
Immune cell differentiation pathways, chromatin modification
Pathway
Modulation of WNT, ERK-p38, and Smad 1/5/8 signaling pathwaysLinkova 2023
Vilon → Thymocyte sphingomyelinase activation → T-helper & cytotoxic T-cell differentiation; epigenetic suppression of aging markers (CCL11, HMGB1)
Downstream effect
Upregulation of chondrogenic genes (COL2, SOX9, ACAN); increased bone mineral density; osteoprotective effects in ovariectomy-induced osteoporosisLinkova 2023Povorozniuk 2007
Enhanced T-cell differentiation (CD4+, CD8+, B-cells), thymocyte proliferation, modulated IL-1β comitogenic activity, proposed chromatin decondensation in aged lymphocytesLinkova 2011Khavinson 2002Lezhava 2023
Feedback intact?
Unknown — no HPA/HPG axis data
Origin
Derived from cartilaginous tissue extracts (Khavinson bioregulator methodology)Povorozniuk 2007
Synthetic dipeptide derived from Khavinson thymic peptide extraction studies (Thymalin fraction)Morozov 1997
Antibody development

02Dosage Protocols

Parameter
Cartalax
Vilon
Animal model dose
Unspecified (cartilaginous tissue extract protocol)
Rat study; extract preparation details not indexed in available abstracts.
In vitro: 0.01–10 μg/mL culture medium (mouse thymocytes)
Not translatable to human mg/kg without pharmacokinetic data.
Human dosing
Not established in PubMed-indexed literature
Russian-tradition protocols exist but lack peer-reviewed Western validation.
Evidence basis
Animal mechanistic studies only
Mouse / in vitro only
Standard dose
No clinical standard — literature lacks human dosing
Russian practice: often combined with other Khavinson peptides; no FDA/EMA trials.
Frequency
Unknown — literature does not specify chronic administration protocols
Duration
Not characterised in humans
Route
Likely SQ or oral (Khavinson school uses both); no published ROA validation
Half-life
Not published — dipeptides typically <10 min plasma t½

03Metabolic / Fat Loss Evidence

Parameter
Cartalax
Vilon
Fat loss evidence
None — primary target is cartilage and bone tissue, not adipose

04Side Effects & Safety

Parameter
Cartalax
Vilon
Documented adverse effects
None reported in indexed animal studies
Human safety data
Not available in PubMed-indexed literature
Absent from PubMed-indexed literature
Theoretical risk
Immune hyperactivation in autoimmune-prone individuals (T-cell differentiation enhancement)
Antibody formation
Not reported; dipeptides generally low immunogenicity
Animal models
No adverse effects noted in mouse thymocyte or pineal lymphoid cultures
Absolute Contraindications
Cartalax
  • ·Unknown due to lack of human clinical trial data
Vilon
  • ·Active autoimmune disease (theoretical — no clinical data)
Relative Contraindications
Cartalax
  • ·Active malignancy (theoretical; peptide bioregulators may influence cell proliferation pathways)
Vilon
  • ·Pregnancy / lactation (no safety data)
  • ·Acute infection with cytokine storm risk (immune modulation unknown)

05Administration Protocol

Parameter
Cartalax
Vilon
1. Route
Subcutaneous injection typical for Khavinson bioregulators; specific protocols not detailed in indexed literature.
No clinical protocols exist in Western peer-reviewed literature. Russian gerontological practice may use 1–10 mg ranges, but dosing is empirical.
2. Frequency
Russian-tradition protocols often employ 10-day cycles; precise frequency unspecified in available abstracts.
Subcutaneous injection (common for Khavinson peptides) or oral (some bioregulators reportedly active orally due to small size). No validated ROA.
3. Storage
Lyophilised peptide bioregulators typically stored at 2–8 °C, light-protected. Reconstitution details not indexed.
Unknown — no circadian or meal-timing data. Khavinson school often recommends morning administration.
4. Storage
Likely lyophilised powder, refrigerated. Reconstitution protocols not published.

06Stack Synergy

Cartalax
— no documented stacks
Vilon
+ Epitalon
Moderate
View Epitalon

Both are Khavinson bioregulators targeting aging pathways. Epitalon (Ala-Glu-Asp-Gly) acts on telomerase and pineal function; Vilon on immune differentiation and chromatin decondensation. Combined in Russian gerontological protocols for multi-system aging intervention. Lezhava et al. (2023) tested both on aged lymphocyte chromatin, showing distinct epigenetic effects. Complementary, not synergistic in strict pharmacological sense.

Vilon
Empirical — no standard
Epitalon
Empirical — often 10 mg cycles
Frequency
Sequential or concurrent (literature ambiguous)
Primary benefit
Multi-system aging modulation (immune + pineal/circadian)
+ Thymalin
Weak
View Thymalin

Thymalin is the parent polypeptide complex from which Vilon was isolated. Both target immune differentiation, but Thymalin is a complex mixture (multiple peptides), whereas Vilon is a purified dipeptide. Morozov & Khavinson (1997) described Vilon as a synthetic successor designed to replicate Thymalin's immunomodulatory effects with greater specificity. Redundant in practice; no published combination studies.

Vilon
No standard
Thymalin
10–100 mg IM (polypeptide complex)
Primary benefit
Redundant — both target T-cell differentiation