Therapeutics

Our portfolio of advanced therapeutics for clinic use and distribution prioritizes safety, efficacy and practical support. Clinical teams receive product specifications, staged‑treatment guidance, and logistical assistance to enable safe local implementation.


Small Mobile Cells

Universal, Low-Immunogenicity Regenerative Cells

  • Under 5 microns in size and present in peripheral blood.
  • Virtually no HLA markers, making them effectively universal transplant material with minimal immune rejection risk.
  • Demonstrated reversal of fibrotic conditions, notably COPD and pulmonary fibrosis.
  • Shown excellent results for neurodegenerative conditions and post-stroke recovery.
  • Transportable between clinics, enabling wider clinical deployment.
  • Used clinically for longevity and sports-injury recovery with strong subjective benefits.
  • Clinical relevance: a unique cell therapy option with lower transplant reaction risk than many cell therapies, suitable for fibrotic lung disease and neuroregeneration programs.

Early Stem Cell Exosomes

High-Regenerative, CNS-Penetrant Vesicles

  • Exosomes derived from early stem/trophoblast cells used instead of whole cells to enable blood-brain and blood-retina barrier penetration.
  • Possess very high differentiating and regenerative potential.
  • Promising outcomes for neurodegenerative diseases, including Parkinson’s disease.
  • Effective in post-traumatic brain injury and cerebrovascular accident contexts.
  • Potential clinical application for contact-sport–related chronic traumatic encephalopathy (CTE); strong interest for use in professional rugby players.
  • Clinical relevance: a targeted, non-cellular regenerative tool for CNS and retinal indications where barrier penetration is required.

Progenitor Cells and Induced Pluripotent Stem Cells

Autologous iPSC-Derived Organ-Specific Progenitor Cells

  • Organ-specific progenitor cells (kidney, heart, liver, retina) provide highest regenerative potential for respective organs.
  • Workflow: patient blood banking → reprogramming with Yamanaka factors → induced pluripotent stem cells → differentiation into organ-specific progenitors.
  • Reported clinical success reversing decreased GFR in kidney transplant rejection using newly generated cells.
  • Cell-banking service planned for patients pursuing long-term regenerative/ longevity care.
  • Clinical relevance: autologous approach minimizes immunologic issues and supports regenerative strategies aimed at avoiding organ failure interventions (e.g., dialysis).

Gene Therapies

Plasmid or mRNA – Non-Viral, Non-Integrating

  • Use of plasmid or mRNA delivery to transiently express beneficial proteins without altering host genome.
  • Klotho protein gene therapy highlighted as strongly correlating with reduced morbidity and mortality and described as nearing a “youth” therapeutic effect.
  • Follistatin gene therapy for muscular rejuvenation and overall wellbeing.
  • VEGF gene therapy to improve endothelial lining — indicated for peripheral artery disease, diabetic vasculopathy, and erectile dysfunction.
  • Reports of clinical use: intranasal Klotho drops applied for head injury recovery, intramuscular injections for cognition; clinician use with positive outcomes.
  • Customized gene therapies being developed for rare genetic mutations on a case-by-case basis.
  • Clinical relevance: safe, non-permanent enhancement of target proteins to address vascular, muscular, and systemic aging-related pathologies.

Muse Cells

Stress-enduring, Targeted Regenerative Cells

  • Multilineage-differentiating stress-enduring (Muse) cells circulate in blood and home to damaged tissue fragments.
  • Detect damaged cells via sphingomyelin residues and can differentiate into the needed cell type within ~48 hours.
  • Very low HLA marker expression, yielding minimal immune reactivity and lower transplant reaction risk compared with mesenchymal stem cells.
  • Noted for apparent “intelligent” homing and rapid in situ differentiation for tissue regeneration.
  • Clinical relevance: highly targeted regenerative option with lower immune risk for applications requiring rapid replacement of damaged cells..

NK Cell-Derived Exosomes

Natural Killer Cell Exosomes for Immune Support and Senolytic Therapy

  • NK cells clear mutated, cancerous, virus-affected, and senescent cells; their exosomes retain targeting functions in a much smaller, penetrant form.
  • Exosomes are millions of times smaller than cells, enabling penetration into bone and across the blood-brain barrier — relevant for metastasis control in bones and brain.
  • Effective senolytic tool to reduce senescent cell burden.
  • Recommended protocol: combine NK exosomes with plasmapheresis (plasma exchange) to remove debris from destroyed senescent cells; described as a “golden protocol.”
  • Operational plans include mobile apheresis capability to support the protocol in-field.
  • Clinical relevance: central component in rejuvenation programs addressing metastatic disease niches and systemic senescence.

Chronic Traumatic Encephalopathy (CTE)

Multimodal CTE Treatment Protocols – Inflammation Reduction and Regenerative Phase

  • Target population: professional rugby players, American football players, military veterans with TBI/CTE.
  • Multimodal approach includes cerebrolysin, growth-hormone–stimulating peptides, hyperbaric oxygen therapy, and intranasal/intrathecal exosomes.
  • Protocol emphasis: first reduce inflammation and astrocyte proliferation, then proceed to regeneration.
  • Clinical experience: extensive traumatic brain injury practice, collaboration with Veterans Affairs and medico-legal teams; medical director role at a brain-care clinic focused on TBI.
  • Strategic opportunity: successful high-profile cases could deliver significant public and referral impact.
  • Clinical relevance: structured, staged protocol combining anti-inflammatory measures with regenerative biologics for complex neurotrauma and CTE cases.

Novel Peptides

Advanced Peptide Library – Targeted Signaling Modulators for Organ Systems

  • Knowledge base of hundreds of peptides beyond commonly known sets.
  • Examples: Klotho peptide 1 and 6 (Klotho fragments) for kidney and other indications; intracellular sigma peptide for CNS regeneration (originally for severed spinal cord); VD11 for neuromuscular junction restoration.
  • FOXO family peptides (FOXO3/4/6/8) modulate DNA transcription processes linked to healthy aging.
  • Humanin peptides (1–10) are mitochondrial-genome–encoded signaling peptides.
  • Peptide groups target fibrotic disease, mitochondrial health, and reproductive medicine.
  • Over 80 peptides currently in large-company clinical trials, indicating active translational development.
  • Clinical relevance: precision signaling tools to “fine-tune” physiological processes across multiple organ systems.

Sublingual and Oral Peptide Delivery

Non-Invasive Routes to Improve Adoption

  • Patient preference: up to ~70% of patients reluctant to use subcutaneous injections.
  • Available oral peptides include MOTS-C and tirzepatide for metabolic/weight-loss applications.
  • Technologies convert peptides into small droplets or use nanostructures (lipid carriers and similar) to facilitate sublingual mucosal absorption and capillary penetration.
  • Development of oral capsule forms is progressing; scale and production improvements are reducing costs and increasing feasibility.
  • Clinical relevance: non-invasive delivery significantly expands patient accessibility and adherence for peptide-based therapies.

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