Side-by-side · Research reference

CerebrolysinvsVilon

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

APhase 3HUMAN-REVIEWED11/65 cited

BAnimal-StrongHUMAN-REVIEWED13/49 cited

Cerebrolysin

Porcine Brain-Derived Peptide Mix · Phase 3

30 mL/dayStandard doseAfridi 2026 Staszewski 2026

14–21 daysTreatment course

49% vs 35%mRS 0-2 at 12 moStaszewski 2026

IV infusion · 100-250 mL saline · Daily

Vilon

Khavinson Bioregulator · Dipeptide

2 AADipeptide

T-helperStimulatesLinkova 2011

MouseModel basisKhavinson 2002

Literature lacks standardised clinical route

01Mechanism of Action

Parameter

Cerebrolysin

Vilon

Primary target

Multiple neurotrophic pathways — mimics BDNF, NGF, CNTF receptor activation

Immune cell differentiation pathways, chromatin modification

Pathway

Cerebrolysin peptides → BDNF/NGF/CNTF receptor binding → TrkB/TrkA/LIFR signaling → neuroprotection, neuroplasticity, synaptogenesis

Vilon → Thymocyte sphingomyelinase activation → T-helper & cytotoxic T-cell differentiation; epigenetic suppression of aging markers (CCL11, HMGB1)

Downstream effect

Reduced apoptosis (Bax ↓, Bcl-2 ↑), suppressed TNF-α inflammation, elevated endogenous BDNF, enhanced synaptic plasticity and motor recovery

Enhanced T-cell differentiation (CD4+, CD8+, B-cells), thymocyte proliferation, modulated IL-1β comitogenic activity, proposed chromatin decondensation in aged lymphocytesLinkova 2011 Khavinson 2002 Lezhava 2023

Feedback intact?

Yes — exogenous peptides do not suppress endogenous neurotrophic factor synthesis

Unknown — no HPA/HPG axis data

Origin

Enzymatic breakdown of lipid-free porcine brain proteins → standardized low-MW peptide fraction (<10 kDa) + free amino acids

Synthetic dipeptide derived from Khavinson thymic peptide extraction studies (Thymalin fraction)Morozov 1997

Antibody development

Not reported in human trials; porcine origin theoretically immunogenic but no clinically significant allergic reactions documented

—

02Dosage Protocols

Parameter

Cerebrolysin

Vilon

Standard dose (stroke)

30–50 mL / day IVStaszewski 2026 Afridi 2026

Most trials use 30 mL in 100-250 mL saline over 30-60 min.

—

Lower dose (dementia)

10–20 mL / day IV or IMKhatkova 2026

Chronic neurodegenerative conditions; intermittent courses.

—

High dose (TBI)

50 mL / day IVKobayashi 2025

CLINCH trial protocol for intracerebral hemorrhage.

—

Duration

10–21 days (acute); intermittent courses (chronic)

Stroke trials typically 10-14 days; rehabilitation phases may use repeated 10-day courses.

Not characterised in humans

Timing (stroke)

Initiate within 12 hrs of symptom onset; up to 6 hrs optimal

Earlier initiation associated with better outcomes.

—

Adjunct to thrombectomy

30-50 mL daily × 10-14 days, starting day of EVT

Propensity-matched data show 12-mo mRS 0-2 improved from 35% to 49%.

—

Evidence basis

Phase 3 RCT + observational

Mouse / in vitro only

Administration route

IV infusion (preferred) or IM injection

IV allows higher doses; IM used in outpatient/chronic settings.

—

Standard dose

—

No clinical standard — literature lacks human dosing

Russian practice: often combined with other Khavinson peptides; no FDA/EMA trials.

Animal model dose

—

In vitro: 0.01–10 μg/mL culture medium (mouse thymocytes)

Not translatable to human mg/kg without pharmacokinetic data.

Frequency

—

Unknown — literature does not specify chronic administration protocols

Route

—

Likely SQ or oral (Khavinson school uses both); no published ROA validation

Half-life

—

Not published — dipeptides typically <10 min plasma t½

04Side Effects & Safety

Parameter

Cerebrolysin

Vilon

Injection site reaction

Mild pain, erythema (IM route)

—

Infusion reaction

Rare: flushing, transient hypotension during rapid IV

—

Agitation / Restlessness

Reported in <5% of patients; typically mild, self-limited

—

Headache

Mild, transient; incidence not significantly elevated vs placeboPatel 2025

—

Serious adverse events

No significant increase vs placebo (RR 1.02, 95% CI 0.87-1.20)

—

Hemorrhagic transformation

Reduced incidence vs control (52% reduction in high-risk post-thrombolysis cohort)Kalinin 2025

—

Mortality

No increase; meta-analysis RR 0.89 (0.68-1.18)

—

Allergic reaction

Rare; porcine origin theoretically immunogenic but clinically insignificant

—

Seizure risk

Not elevated; safe in epilepsy populations

—

Human safety data

—

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

Cerebrolysin

·Known hypersensitivity to porcine-derived products
·Active seizure disorder (relative — caution advised)

Vilon

·Active autoimmune disease (theoretical — no clinical data)

Relative Contraindications

Cerebrolysin

·Severe renal impairment (amino acid load — monitor)
·Pregnancy / lactation (insufficient safety data)

Vilon

·Pregnancy / lactation (no safety data)
·Acute infection with cytokine storm risk (immune modulation unknown)

05Administration Protocol

Parameter

Cerebrolysin

Vilon

1. Preparation (IV infusion)

Dilute prescribed dose (10-50 mL) in 100-250 mL 0.9% sodium chloride. Use immediately after preparation. Do not mix with other medications in same infusion bag.

No clinical protocols exist in Western peer-reviewed literature. Russian gerontological practice may use 1–10 mg ranges, but dosing is empirical.

2. Infusion rate

Administer over 30-60 minutes. Slower infusion reduces risk of transient hypotension or flushing. Monitor vital signs during first administration.

Subcutaneous injection (common for Khavinson peptides) or oral (some bioregulators reportedly active orally due to small size). No validated ROA.

3. IM injection (alternative)

For 5-10 mL doses: inject deep IM into gluteal or deltoid muscle. Rotate sites if repeated daily. IM preferred for outpatient/chronic use.

Unknown — no circadian or meal-timing data. Khavinson school often recommends morning administration.

4. Timing

Acute stroke: initiate within 6-12 hrs of symptom onset. Daily administration, preferably same time each day. Continue 10-21 days per protocol.

Likely lyophilised powder, refrigerated. Reconstitution protocols not published.

5. Storage

Store unopened ampoules at 15-25°C, protected from light. Do not freeze. Use diluted solution immediately; discard unused portion.

—

6. Co-administration

Compatible with standard stroke care (thrombolysis, thrombectomy, antiplatelet/anticoagulant therapy). Does not interfere with reperfusion therapies.

—

06Stack Synergy

Cerebrolysin

+ Semax

Moderate

View Semax →

Cerebrolysin (multimodal neurotrophic peptide mix) and Semax (ACTH(4-10) analogue) operate through complementary neuroprotective pathways. Cerebrolysin elevates BDNF and suppresses apoptosis/inflammation via TrkB/TrkA signaling, while Semax enhances neuroplasticity through BDNF upregulation and dopaminergic modulation. Combined use in stroke or TBI may amplify anti-apoptotic effects and accelerate cognitive/motor recovery, though no direct RCT data exist for the combination.

Cerebrolysin: 30 mL IV daily × 10-14 days
Semax: 300-600 mcg intranasal BID × 10-14 days
Timing: Concurrent during acute recovery phase
Primary benefit: Enhanced neuroprotection, accelerated motor/cognitive recovery post-stroke or TBI

+ BPC-157

Multi-pathway

View BPC-157 →

Cerebrolysin provides CNS-specific neurotrophic support (BDNF, NGF pathways), while BPC-157 offers systemic tissue repair via angiogenesis (VEGF upregulation) and anti-inflammatory effects. In traumatic brain injury or stroke, Cerebrolysin addresses neuronal survival and synaptic plasticity, whereas BPC-157 may enhance vascular repair and blood-brain barrier integrity. The combination targets both neuronal and vascular compartments of brain injury, though clinical validation is lacking.

Cerebrolysin: 30-50 mL IV daily × 14 days
BPC-157: 250-500 mcg SQ daily × 14-28 days
Timing: Initiate both within 24-48 hrs of injury
Primary benefit: Dual neuronal + vascular repair in TBI or stroke; accelerated functional recovery

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

Morozov 1997 Khavinson 2020