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    §LongevityResearch protocol

    Vilon.

    Vilon (Lys‑Glu) is a synthetic immunoregulatory dipeptide consisting of lysine and glutamic acid residues[1]. Preclinical research indicates it may enhance immune markers including CD5+ lymphocytes...

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    Research Use Only. PeptiJournal supports private research documentation and calculation support. It does not provide medical advice, human-use directions, or claims of safety or effectiveness.

    Calculated-volume support unavailable

    This selected cited guide does not contain one unambiguous vial, per-event amount, cadence, and diluent set. No value was inferred from general library metadata. Review the cited table below before creating a private Research Use Only record.

    Cited protocol & reconstitution guide

    Source-backed reference fields by phase, including any volume fields authored in the cited guide.

    Cycle 1, Day 1

    67 mcg (0.067 mg)

    Units / volume1 unit (0.01 mL)

    Cycle 1, Day 2

    133 mcg (0.133 mg)

    Units / volume2 units (0.02 mL)

    Cycle 1, Day 3

    200 mcg (0.20 mg)

    Units / volume3 units (0.03 mL)

    Cycle 1, Day 4

    267 mcg (0.267 mg)

    Units / volume4 units (0.04 mL)

    Cycle 1, Day 5

    333 mcg (0.33 mg)

    Units / volume5 units (0.05 mL)

    Cycle 2+ (Days 1–5)

    333–667 mcg (0.33–0.67 mg)

    Units / volume5–10 units (0.05–0.10 mL)

    Overview

    Overview

    Vilon (Lys‑Glu) is a synthetic immunoregulatory dipeptide consisting of lysine and glutamic acid residues[1]. Preclinical research indicates it may enhance immune markers including CD5+ lymphocytes and interleukin‑2 expression in thymic and splenic cell cultures[2][3]. This educational protocol presents a pulsed subcutaneous approach (5 consecutive days per 4‑week cycle) using a practical dilution for clear insulin‑syringe measurements. Reconstitute: Add 3.0 mL bacteriostatic water → ~6.67 mg/m

    Category
    Longevity
    Routes
    subcutaneous

    Mechanism

    Vilon

    Mechanism of action

    Mechanism of action

    Vilon belongs to a class of short bioregulatory peptides developed through Russian gerontology research [4] . In vitro studies demonstrate that the Lys‑Glu dipeptide can modulate lymphocyte populations and cytokine gene expression. Specifically, Vilon has been observed to increase CD5+ cell counts in thymus cell cultures [1] and upregulate interleukin‑2 (IL‑2) mRNA expression in splenocyte preparations [2] . Additional preclinical work suggests effects on TGF‑β1 and vascular permeability in renal models [3] . The pulsed 5‑day monthly regimen is analogized from related short peptide protocols such as Epitalon [5] .

    Key research findings
    • 01

      Synthetic dipeptide (Lys-Glu, KE); one of the most-studied Khavinson short peptides, framed as a synthetic analog in the thymic/immune bioregulator line (related conceptually to thymalin/Thymogen).

    • 02

      In vitro: reported decondensation of heterochromatin and activation of previously silenced genes (including ribosomal genes) in cultured lymphocytes from older human donors - a central cell-culture finding behind the short-peptide epigenetic hypothesis.

    • 03

      Animal models (mouse/rat): studies from the originating group reported effects on immune markers and, in some experiments, on lifespan and spontaneous tumor incidence.

    • 04

      Human and independent data remain limited; most evidence is from a single research lineage.

    Primary source: Vilon has more preclinical literature than most peptides in this series, including in-vitro chromatin studies in elderly-donor lymphocytes and rodent experiments. It nonetheless remains largely single-lineage and preclinical, with limited independent human evidence.

    Researched Effects

    Researched benefits

    Areas of active research and investigation. Results may vary and are based on preclinical or early clinical data.

    ✨

    Supports immune cell marker expression (CD5+ lymphocytes) and IL‑2 gene activity in cell culture models[1][2].

    ✨

    May modulate inflammatory cytokines such as TGF‑β1 under experimental renal stress conditions[3].

    ✨

    Early mouse studies suggest potential effects on tumor growth inhibition and lifespan extension, though human data remain limited[6].

    Protocol Reference

    Protocol reference

    Research Use Only. PeptiJournal supports private research documentation and calculation support. It does not provide medical advice, human-use directions, or claims of safety or effectiveness.
    subcutaneous

    Commonly cited research range: 67–667 mcg, daily_for_cycles.

    Reference figures reported in the research literature — not a dosing recommendation. For interactive vial math and scheduling, see the Calculator and Schedule tabs.

    Cited protocol & reconstitution guide

    Source-backed reference fields by phase, including any volume fields authored in the cited guide.

    Cycle 1, Day 1

    67 mcg (0.067 mg)

    Units / volume1 unit (0.01 mL)

    Cycle 1, Day 2

    133 mcg (0.133 mg)

    Units / volume2 units (0.02 mL)

    Cycle 1, Day 3

    200 mcg (0.20 mg)

    Units / volume3 units (0.03 mL)

    Cycle 1, Day 4

    267 mcg (0.267 mg)

    Units / volume4 units (0.04 mL)

    Cycle 1, Day 5

    333 mcg (0.33 mg)

    Units / volume5 units (0.05 mL)

    Cycle 2+ (Days 1–5)

    333–667 mcg (0.33–0.67 mg)

    Units / volume5–10 units (0.05–0.10 mL)

    Storage & Handling

    Storage requirements(typical for most peptides)

    ❄️
    Lyophilized (powder)
    -20°C (frozen)

    Can be stored for extended periods. Protect from moisture.

    🧊
    Reconstituted
    2-8°C (refrigerated)

    Store in refrigerator door. Never freeze after reconstitution.

    ⏱️
    Stability window
    28-30 days after reconstitution

    Label vials with reconstitution date. Discard if cloudy.

    Reconstitution steps

    1. 01🌡️Draw 3.0 mL bacteriostatic water with a sterile syringe.
    2. 02🧴Inject slowly down the vial wall; avoid foaming.
    3. 03💉Gently swirl/roll until dissolved (do not shake).
    4. 04💧Label and refrigerate at 2–8 °C (35.6–46.4 °F), protected from light; use within ~1 week or aliquot and freeze[10].
    5. 05🔄Important: This guide is for educational purposes only and is not medical advice. For research use only. Not for human consumption.

    Additional storage notes

    Lyophilized

    Store at −20 °C (−4 °F) short‑term or −80 °C (−112 °F) long‑term in dry, dark conditions; minimize moisture exposure [10] .

    Reconstituted

    Refrigerate at 2–8 °C (35.6–46.4 °F); use within ~1 week or prepare aliquots and freeze to extend stability.

    Allow vials to reach room temperature before opening to reduce condensation uptake.

    Clinical Evidence

    Clinical evidence

    Preclinical research reports immunomodulatory and geroprotective activity in animal and cell models.

    Vilon has more preclinical literature than most peptides in this series, including in-vitro chromatin studies in elderly-donor lymphocytes and rodent experiments. It nonetheless remains largely single-lineage and preclinical, with limited independent human evidence.

    1. 01Synthetic dipeptide (Lys-Glu, KE); one of the most-studied Khavinson short peptides, framed as a synthetic analog in the thymic/immune bioregulator line (related conceptually to thymalin/Thymogen).
    2. 02In vitro: reported decondensation of heterochromatin and activation of previously silenced genes (including ribosomal genes) in cultured lymphocytes from older human donors - a central cell-culture finding behind the short-peptide epigenetic hypothesis.
    3. 03Animal models (mouse/rat): studies from the originating group reported effects on immune markers and, in some experiments, on lifespan and spontaneous tumor incidence.
    4. 04Human and independent data remain limited; most evidence is from a single research lineage.

    Evidence maturity varies by compound; much peptide research is preclinical (in vitro or animal-model). Where human data are limited, findings should be read as research observations, not clinical conclusions.

    References

    Literature references

    Published research articles and sources related to Vilon.

    1. 01
      Sevostianova NN et al. (2013) — Immunomodulating effects of Vilon and its analogue in the culture of human and animal thymus cells View Source
      et al. (2013)
    2. 02
      Kazakova TB et al. (2002) — In vitro effect of short peptides on expression of interleukin‑2 gene in splenocytes View Source
      et al. (2002)
    3. 03
      Gavrisheva NA et al. (2005) — Effect of Vilon peptide on TGF‑β1 and vascular permeability in chronic renal failure View Source
      et al. (2005)
    4. 04
      Kniaz’kin IA et al. (2002) — Effect of a peptide Vilon on immune aging (Adv Gerontol) View Source
      et al. (2002)
    5. 05
      Araj SK et al. (2025) — Overview of Epitalon—highly bioactive pineal tetrapeptide with promising properties (Int J Mol Sci) View Source
      et al. (2025)
    6. 06
      Chernyak EY et al. (2000) — Synthetic dipeptide Vilon inhibits tumor growth and prolongs life in mice (Dokl Biol Sci) View Source
      et al. (2000)
    7. 07
      Avolio F et al. (2022) — Peptides regulating proliferative activity and inflammatory pathways in THP‑1 macrophages (Int J Mol Sci) View Source
      et al. (2022)
    8. 08
      Wong AKC et al. (2024) — Injection techniques to reduce subcutaneous heparin complications (J Adv Nurs) View Source
      et al. (2024)
    9. 09
      MedlinePlus (NIH) — Subcutaneous (SQ) injections: patient information View Source
    10. 10
      Merck KGaA (Millipore Sigma) — Handling and storage guidelines for peptides and proteins View Source
    11. 11
      CDC — Vaccine administration: subcutaneous route (angle/site; no aspiration) View Source
    12. 12
      NCBI Bookshelf — Best practices for injection (asepsis, preparation, and administration) View Source
    13. 13
      Pure Lab Peptides — Vilon (20 mg) product page (quality and batch documentation) View Source
    Search PubMed for Vilon

    Observed Effects

    Observed effects in cited research

    Reported
    • Generally well tolerated in preclinical settings; occasional mild injection‑site reactions (redness/itch) may occur with subcutaneous administration.

    Research Considerations

    Research considerations

    Research Use Only - not for human or veterinary therapeutic use. Current evidence is limited to in vitro and/or animal-model research; human data are minimal or absent. Consult a licensed healthcare professional for any clinical decisions.

    Factors noted in the research literature; not patient-specific medical advice.

    Regulatory Status

    Regulatory status

    RUO

    Research Use Only. PeptiJournal supports private research documentation and calculation support. It does not provide medical advice, human-use directions, or claims of safety or effectiveness.

    Comparisons

    Comparisons

    CompoundMechanismRouteStatus
    VilonthisA synthetic immunoregulatory dipeptide (Lys-Glu) studied for gene-regulatory and immunomodulatory activity, including effects on lymphocyte markers and chromatin structure.subcutaneousInvestigational / RUO
    CartalaxA synthetic tripeptide bioregulator (Ala-Glu-Asp) studied for gene-regulatory activity in connective and cartilage tissue, with proposed anti-inflammatory and regenerative effects.subcutaneousInvestigational / RUO
    ChonlutenA short tripeptide bioregulator (Glu-Asp-Gly) studied for effects on bronchopulmonary tissue and modulation of inflammatory signaling in monocyte/macrophage models.subcutaneousInvestigational / RUO
    CortagenA synthetic tetrapeptide (Ala-Glu-Asp-Pro) of the Khavinson bioregulator class studied for neuroprotective and neuroregenerative activity, including peripheral nerve repair.subcutaneousInvestigational / RUO
    Epitalon (Epithalon)A synthetic tetrapeptide (Ala-Glu-Asp-Gly) studied for activation of telomerase and modulation of pineal/melatonin and circadian pathways, of interest in geroprotection research.subcutaneousInvestigational / RUO
    5-Amino-1MQInhibits nicotinamide N-methyltransferase (NNMT), increasing NAD+ availability and enhancing mitochondrial metabolism.oral, subcutaneousInvestigational / RUO
    AdipotideA peptidomimetic that targets prohibitin on the vasculature of white adipose tissue and delivers a pro-apoptotic sequence, studied for selective reduction of fat-tissue blood supply.subcutaneousInvestigational / RUO

    Attributes shown for research comparison only; not a statement of efficacy or therapeutic equivalence.

    FAQ

    Frequently asked questions

    Research-use notice

    Research Use Only. This educational content and calculation support is intended for private research documentation. It does not provide medical advice, human-use directions, or claims of safety or effectiveness.

    Cited guide source: View source

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