Our UK range includes compounds such as Epitalon (Epithalon), FOXO4-DRI, NAD+, MOTS-c and GHK-Cu, alongside specialised peptide bioregulators and research blends. These compounds are investigated across different areas of longevity science, including cellular senescence, telomere biology, oxidative stress and metabolic signalling.
Whether studying mitochondrial activity, cellular maintenance mechanisms or the molecular pathways associated with ageing, researchers can explore individual compounds and formulations relevant to their specific research objectives.
Browse our longevity research peptides and compounds below to compare formulations, concentrations and product information.
All products are supplied strictly for laboratory research purposes only and are not intended for human consumption or therapeutic use.
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Longevity peptides are compounds studied for their potential roles in biological processes associated with ageing. Researchers investigate how certain peptides interact with cellular signalling, mitochondrial function, oxidative stress, DNA maintenance and other mechanisms involved in cellular health. Different compounds have distinct molecular structures and research applications, and findings from laboratory studies should not be interpreted as proven human health benefits.
Several compounds have attracted scientific interest in longevity and cellular ageing research, including Epitalon (Epithalon), MOTS-c, FOXO4-DRI and GHK-Cu. Epitalon has been investigated in relation to telomere biology, MOTS-c in mitochondrial and metabolic signalling, FOXO4-DRI in experimental senescence research, and GHK-Cu in tissue-related biological processes. Research maturity and available evidence vary considerably between compounds.
Epitalon and MOTS-c are studied for different biological mechanisms. Epitalon is a synthetic peptide investigated in connection with cellular ageing and telomerase-related pathways. MOTS-c is a mitochondrial-derived peptide studied for its involvement in metabolic regulation and cellular stress responses. Neither compound has been established as a treatment for ageing in humans.
FOXO4-DRI is an experimental peptide investigated for its interactions with pathways associated with cellular senescence. Senescent cells are cells that have stopped dividing but may remain metabolically active. Preclinical researchers have explored FOXO4-DRI as a potential senolytic research compound, although its effects and safety in humans have not been established.
NAD+ (nicotinamide adenine dinucleotide) is not a peptide. It is a naturally occurring coenzyme involved in cellular energy metabolism, redox reactions and several biological pathways associated with cellular maintenance. NAD+ is frequently discussed alongside longevity peptides because of scientific interest in mitochondrial function and age-related changes in cellular NAD+ metabolism.
When selecting longevity compounds for laboratory research, important considerations include chemical identity, stated purity, concentration, batch traceability and appropriate storage conditions. Researchers should review available analytical documentation and product specifications to determine whether a compound is suitable for their experimental requirements.
Longevity peptides and related research compounds may be available from specialist UK suppliers, subject to the legal status and applicable restrictions of each substance. Coridion Sciences offers a selection of compounds intended strictly for legitimate laboratory research. Customers should review individual product descriptions and ensure their intended activities comply with relevant UK regulations.
Compounds marketed for longevity research should not be assumed to have approval for human use. Experimental peptides such as Epitalon, MOTS-c and FOXO4-DRI have not been established as approved anti-ageing treatments. Laboratory research products are not intended for human consumption, self-administration, diagnosis or treatment of medical conditions.
As Seen In The Press
Peptides can affect the way the body functions at a cellular level.