The Science Behind the Tools
Evidence-informed wellness starts with understanding the research. Explore the peer-reviewed science behind peptide bioregulators, cellular aging, neuroplasticity, and longevity.
Professor Vladimir Khavinson
Professor Vladimir Khavinson is a world-renowned gerontologist and the pioneer of peptide bioregulator research. As the President of the European Academy of Gerontology and Geriatrics, he has dedicated over 40 years to studying the effects of short peptides on aging and disease.
His groundbreaking research has resulted in the development of numerous peptide bioregulators that are now used worldwide to support healthy aging and organ function.
Prime Peptide® IPH Technology
Innovative Peptide Health (IPH) technology represents the latest advancement in peptide bioregulation, developed by the St. Petersburg Institute of Bioregulation and Gerontology.
An innovative natural bioregulator with powerful cellular protection properties:
- •Oncoprotective properties for cellular defense
- •Regenerative capabilities for tissue repair
- •Antioxidant protection against oxidative stress
- •Supports natural antitumor defenses
Advanced peptide complex with pronounced anti-aging effects:
- •Promotes comprehensive cellular protection
- •Restores cellular functionality and vitality
- •Modulates expression of tumor suppressor proteins
- •Clinically validated for effectiveness
Cellular Regulation
IPH peptides act as natural bioregulators at the cellular level
Gene Expression
Modulates expression of key proteins for cellular health
Oxidative Protection
Protects cells from oxidative stress and damage
Tissue Regeneration
Stimulates natural regeneration mechanisms
Anti-Aging
Targets key aging mechanisms for comprehensive support
"Modern research in gerontology shows that regulatory processes at the cellular and tissue levels determine the quality and longevity of our lives. Peptides serve as a natural tool for managing these processes. Prime Peptide® products are innovative complexes developed in line with the latest advances in longevity science."
Understanding Peptide Bioregulators
Peptides are the body's natural information carriers — short chains of amino acids that signal cells to maintain, repair, and regulate their own function. As we age, peptide levels decline significantly, contributing to the gradual loss of organ function and resilience.
A peptide is a molecule consisting of two or more amino acids linked together with a peptide bond. With a size of up to 1 nanometer, peptides are part of the nanoworld. Conventionally, a peptide molecule consists of under 100 amino acids, while a protein molecule contains over 100. Peptides can be derived from plants or animals as well as artificially synthesized.
In the body, peptides carry information, transferring biological signals from one cell to another to ensure proper functioning. When cells work correctly, the whole body functions optimally. Natural peptides are organic substances that regulate cellular condition, enabling the body to heal itself through cellular-level normalization.
Life exists because of two kinds of molecules: peptides that carry information and DNA that stores genetic information. When peptides enter the body, they immediately begin their work, giving new life to cells by replacing old, damaged cells with new ones.
Peptides can increase cell lifetime by 30-40%, launching an active recovery process throughout the body.
Peptide bioregulators have a unique capability to restore protein synthesis in the body that decreases due to illness or aging. This restoration increases adaptation potential and recovery of functional activity.
Peptides regulate gene activity, decreasing the activity of "bad" genes while activating "good" genes, thereby stimulating the production of beneficial proteins.
The amount of peptides in a 55-year-old is 10 times less than in a 20-year-old
Natural aging theoretically starts after age 90 — what we see now is premature aging
Systematic use of peptide bioregulators is advisable starting from age 40
Protein synthesis smoothly reduces with age, leading to body dysfunction. Elderly people experience longer lasting sicknesses and recovery periods due to dramatically reduced peptide levels.
Proteins are the construction material for any living organism. Each protein has its own unique structure and performs strictly defined functions in the body:
Involved in all life processes including growth and reproduction
Actin and myosin enable all muscle movement
Maintain all chemical processes: respiration, digestion, metabolism
Carries oxygen to cells and removes carbon dioxide
Antibodies that protect from pathogens, viruses, and bacteria
Responsible for blood clotting in wounds
Anti-Aging Effects
Actively prevent aging processes, launch recovery mechanisms, and increase cellular resistance to toxins and harmful factors.
Immediate Action
Unlike supplements that may take time to show effects, peptides begin working immediately upon entering the body.
Tissue-Specific Action
Different peptide bioregulators target specific organs and tissues, providing targeted support where needed.
Scientific Foundation: The Institute of Gerontology and Bio-Regulation led by Prof. V.Kh. Khavinson developed a comprehensive program after 20 years of research focusing on prevention of age-related problems, decreased mortality, and increased working period.
Research Library
Explore peer-reviewed research on peptide bioregulators, NAD+ science, autophagy, and longevity interventions.
Khavinson V, Linkova N, Dyatlova A, Kuznik B, Umnov R • Current Aging Science (2020)
This review summarizes data on the geroprotective properties of short peptides. Peptide bioregulators have been shown to regulate gene expression, restore protein synthesis, and slow down aging processes in various organ systems.
How Peptide Bioregulators Work
Understanding the science behind peptide bioregulation
Cellular Uptake
Short peptides (2-4 amino acids) are absorbed and transported into cells, where they can reach the nucleus.
Gene Regulation
Peptides interact with DNA and histones to regulate gene expression, activating genes responsible for protein synthesis.
Tissue Restoration
Increased protein synthesis leads to improved tissue function, cellular regeneration, and organ health.