Unlimited Bio VEGF

Builds new capillaries.
Nurtures your body.

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Experimental and not approved by the FDA. Unlimited Bio is not a medical provider; treatment is administered by independent clinics.

Capillaries Provide

Nutrients Supply

Every cell needs a steady stream of glucose, amino acids, and lipids — all delivered through capillaries.

Oxygen Delivery

Capillaries handle gas exchange. Fewer capillaries means lower tissue oxygenation, lower VO₂max, slower recovery.

Waste Removal

Metabolic waste — CO₂, lactate, and others — leaves the tissue through the same capillary network.

Elderly patients have reduced capillary density

Older men and women have fewer capillaries in their muscles and they lose the ability to form them as efficiently as young people in response to training. Their capillaries also have less contact with surrounding tissue. Resting muscle VEGF protein is roughly a third lower in older adults, and the rise in VEGF after exercise is about 50% weaker (Croley, 2005; Ryan, 2006; Ross, 2023).

Capillaries per fiber decline with age — driving lower oxygenation and exercise capacity.

What is VEGF Gene Therapy?

VEGF plasmids supplement the DNA of the cell without changing or interacting with it. They cannot be passed to the next generations and persist in the nucleus temporarily.

The plasmid enters the cell, then the nucleus. Once inside, it directs the cell to secrete VEGF protein, which in turn signals the formation of new capillaries in the surrounding tissue.

Angiography Before & After 6 Months

Imaging before and 6 months after VEGF plasmid administration shows new vessel formation in the treated tissue (images courtesy of ArtGen Biotech).

Before After Angiography before (left) and after (right) VEGF treatment
Before After Angiography before (left) and after (right) VEGF treatment
Before After Angiography before (left) and after (right) VEGF treatment

Results

VEGF vs PAD

+27%

Tissue oxygenation (TcPO2)

Sustained increase peaking at 90.7 ± 4.9 mmHg by year 2, holding at 84.1 ± 1.8 mmHg at year 5.

+24%

Blood flow velocity

23.9 ± 2 cm/s → 29.7 ± 1.7 cm/s at 6 months.

+24%

Ankle-Brachial Index

ABI in the treated group at 6 months.

5+ yr

Sustained effects

Positive outcomes still present at the last assessment, 5 years post-treatment.

+177%

Walking distance (avg)

Across treated PAD patients at 6 months (Deev, 2017, n=150).

+683%

Walking distance (Stage III)

Most severe circulation loss, at 6 months (Deev, 2017, n=60).

Show these figures as a table
Pain-free walking distance in metres, over 5 years (Deev, 2018)
Group Before treatment6 months1 year3 years5 years
VEGF plasmid + standard therapy (n=36) 106223306411384
Standard therapy alone (n=12) 999810911087
Improvement in PWD (meters) at different stages of ischemia after treatment with Neovasculgen®.
Show these figures as a table
Pain-free walking distance as a percentage of baseline, over 5 years (Deev, 2018)
Group Before treatment6 months1 year3 years5 years
VEGF plasmid + standard therapy (n=36) 100%211%289%389%363%
Standard therapy alone (n=12) 100%98%110%111%87%
Improvement in PWD (%) at different stages of ischemia after treatment with Neovasculgen®.

See the full PAD case & evidence →

Results

VEGF for Muscle

Muscle performance and fatigue resistance can be restored by increasing microvasculature.

Low muscle oxygenation and low capillary-to-fiber ratio contribute to sarcopenia.

Muscle support in elderly: VEGF therapy can help reverse muscle aging by improving muscle size and blood flow, especially in type II fibers, as older adults naturally lose muscle capillaries and have a reduced ability to boost VEGF levels through exercise compared to younger people.

Sarcopenia prevention: VEGF plays a role in maintaining neuromuscular junctions (NMJs). Evidence suggests that age-related NMJ dysfunction is central to musculoskeletal decline.

Potential VEGF Muscle Effects

  1. Increased capillary-to-fiber ratio
  2. Enhanced oxygen transfer efficiency
  3. Increased endothelial nitric oxide
  4. Improved VO₂max and muscle strength
  5. Reduced muscle fatigue and soreness
  6. Shortened post-exercise or injury recovery
Capillary-to-fibre ratio scales linearly with VO₂max — a key marker of aerobic fitness.

Results

VEGF for Hair

Accelerated hair regrowth and increased follicle size in VEGF transgenic mice.

The hair follicles require a steady supply of oxygen and nutrients delivered by the blood vessels to maintain normal hair growth.

Hair loss in Peripheral Artery Disease (PAD) occurs because narrowed arteries restrict blood flow to the legs, leading to inadequate oxygen and nutrient delivery to the hair follicles.

VEGF expression is significantly reduced in alopecic follicles compared to normal human hair follicles.

Potential VEGF Hair Effects

  1. Improved scalp vascularization
  2. Increased follicular nutrient delivery
  3. Inhibited follicle miniaturization
  4. Accelerated hair growth

Safety

Among the strongest safety records in gene therapy

Plasmid VEGF therapy (Neovasculgen, pl-VEGF165) has an exceptional safety record spanning over a decade of clinical use. Over 20,000 patients with PAD have received VEGF therapy, and 210 patients have been monitored in post-marketing surveillance studies, establishing one of the most comprehensive safety databases for gene therapy products.

Where to get it

Clinics offering VEGF therapy

Dr. Glenn Terry

GARM · Roatán, Honduras

Dr. Glenn Terry

Dr. Douglas Tucker

GARM · Bahamas

Dr. Douglas Tucker

Frequently Asked Questions

Neovasculgen® delivers the VEGF gene to target tissues via a plasmid. This gene encourages cells to produce VEGF protein, promoting angiogenesis and improving local oxygenation.

VEGF gene therapy is used for PAD. However, its physiological effects also support wound healing, muscle oxygenation, neuroprotection, hair follicle blood supply, and tissue regeneration.

Clinical trials of Neovasculgen® reported no systemic side effects. Recorded side effects were limited to temporary pain and itching at the injection sites and potential allergic reactions. It has been in clinical use in Russia and Ukraine since 2012, with more than 20,000 patients treated. VEGF gene therapy remains experimental and is not approved by the FDA; effects are not guaranteed and individual results vary.

PAD patients experience increased pain-free walking distance, improved local blood supply, and a higher Ankle-Brachial Index (ABI), which indicates better blood circulation in the legs. The effects on improving endurance and hair condition in healthy adults are under investigation. Potential effects include increased strength, recovery rate, reduced pain, increased muscle mass, better blood supply, increased local oxygen concentration, increased ABI, and higher VO2max. For scalp treatment, potential effects include: slowing down or reversal of hair loss, increased follicle size, and density.

More than 20,000 patients have successfully received VEGF gene therapy.

The treatment is delivered locally via a set of intramuscular injections, at least ten per session. For hair rejuvenation, the injections resemble a PRP treatment (over 30 and up to 100 injections).

  • PAD patients and patients with diminished blood supply to the legs (e.g., due to type 2 diabetes or sarcopenia);
  • If you experience early symptoms of age-related deterioration of hair quality.
  • If you are looking for ways to enhance the performance of key muscles to gain VO2max improvement, better results at weightlifting, or any physical activity connected to the treated muscle groups.
  • Patients looking for locally improved rates of healing after surgery or an accident.

Most commonly pain at the injection site, caused by the additional components in the drug that help the plasmids enter the cells. Temporary itching and potential allergic reactions have also been recorded. The therapy has been used in more than 20,000 people with no serious side effects reported, though that clinical experience comes from outside FDA jurisdiction.

All gene therapies, including VEGF, are banned by WADA.

Studies in PAD patients showed the effect lasting at least 5 years: it was still present at the last assessment of the 5-year follow-up. That is the length of the study rather than the limit of the effect, and nothing beyond 5 years has been measured. We recommend reinjecting in 3 years to maintain the maximum effect.

VEGF protein predominantly remains localized because it strongly binds to the extracellular matrix and primarily influences the immediate surrounding cells, especially endothelial cells. Its rapid uptake by cells through receptors, combined with its short half-life (approximately 30 minutes), restricts it from circulating widely, keeping it concentrated near the area of production.

The localized nature of VEGF means the accurate measurement of its expression requires direct tissue biopsies from the specific region of interest. However, monitoring VEGF expression effectively over time or across multiple areas would demand multiple invasive procedures. Since repeated biopsies of healthy tissues raise ethical issues and patient discomfort, direct measurement through biopsies isn’t standard practice for healthy tissues.

Data from Neovasculgen plasmid studies confirm active VEGF expression, with in vitro results showing VEGF protein levels increasing significantly from baseline (~11–27 pg/ml) to approximately 151 pg/ml within 96 hours after transfection. Additionally, preclinical mouse studies using a hind-limb ischemia model demonstrated a substantial increase in blood flow restoration, achieving up to 80–90% recovery at 35 days post-treatment, highlighting effective, sustained VEGF expression and therapeutic benefit.

A single vial of Neovasculgen contains 1.2 mg of VEGF plasmid, which translates to 17.5 mcg/kg for an average adult.

In preclinical toxicity trials, rats and dogs were injected with doses up to 10,000 mcg/kg daily for 90 days. That’s roughly 12,500 times the dose of the 4-vial human protocol. No significant side effects or deaths were observed during those studies. The therapeutic index of the drug is 10,000 (according to the Hodge & Sterner scale). It’s important to note that the dose above 2 vials per session wasn’t investigated in humans.

Thus, it’s not clear that it’s possible to overdose on VEGF Plasmid. We, however, do not recommend exceeding the 4 vials per session (and 4 more vials 7–21 days apart).

For VEGF together with AAV-follistatin there is now preclinical data: in mice, giving the VEGF plasmid first and AAV-follistatin afterwards produced more muscle growth in the treated limb and roughly double the capillary counts of follistatin alone (Vakhrusheva, 2026, a preprint that has not been peer reviewed). That pairing is being tested in people in the CALM-AF-AI trial (NCT07443826). For combinations with stem cells or with other gene therapies there is still no such data. The final decision is made by the treating physician and the patient.

For muscle: VO2max before and 6 months after, results in running/cycling/walking or any relevant activity, recovery rates after exercise (subjective), and muscle circumference.

For PAD: pain-free walking distance, and all of the above.

For hair: photos from the same angle before and 6 months after; trichoscopy exam (follicle size and density at various sites) before and 6 months after.

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References

  1. Deev R, Plaksa I, Bozo I, Isaev A. Results of an international postmarketing surveillance study of pl-VEGF165 safety and efficacy in 210 patients with peripheral arterial disease. American Journal of Cardiovascular Drugs, 2017;17(3):235-242. doi:10.1007/s40256-016-0210-3 · PMC5435773
  2. Deev R, Plaksa I, Bozo I, et al. Results of 5-year follow-up study in patients with peripheral artery disease treated with PL-VEGF165 for intermittent claudication. Therapeutic Advances in Cardiovascular Disease, 2018;12(9):237-246. doi:10.1177/1753944718786926 · PMC6116753
  3. Croley AN, Zwetsloot KA, Westerkamp LM, et al. Lower capillarization, VEGF protein, and VEGF mRNA response to acute exercise in the vastus lateralis muscle of aged vs. young women. Journal of Applied Physiology, 2005;99(5):1872-1879. doi:10.1152/japplphysiol.00498.2005
  4. Ryan NA, Zwetsloot KA, Westerkamp LM, Hickner RC, Pofahl WE, Gavin TP. Lower skeletal muscle capillarization and VEGF expression in aged vs. young men. Journal of Applied Physiology, 2006;100(1):178-185. doi:10.1152/japplphysiol.00827.2005
  5. Ross M, Kargl CK, Ferguson R, Gavin TP, Hellsten Y. Exercise-induced skeletal muscle angiogenesis: impact of age, sex, angiocrines and cellular mediators. European Journal of Applied Physiology, 2023;123(7):1415-1432. doi:10.1007/s00421-022-05128-6
  6. Grunewald M, Kumar S, Sharife H, et al. Counteracting age-related VEGF signaling insufficiency promotes healthy aging and extends life span. Science, 2021;373(6554):eabc8479. doi:10.1126/science.abc8479
  7. Vakhrusheva A, Nedorubov A, Leshko V, Morgunov I. Sequential VEGF-A165 plasmid and AAV-follistatin gene therapy enhances muscle hypertrophy and capillarisation in C57BL/6 mice. bioRxiv, 2026. Preprint, not peer reviewed. doi:10.64898/2026.08.26.747237

Disclaimer

Gene therapies described on this website are experimental and not approved by the FDA. Effects are not guaranteed, and individual results may vary. Therapies are provided by third parties in Próspera ZEDE (Roatán, Honduras), Mexico and the Bahamas; Unlimited Bio is not a medical provider. Always seek the advice of a qualified healthcare provider with any questions you may have regarding a medical condition or treatment.