For laboratory research use only. Not for human or animal use.

Research compound

MOTS-C

Peptide · Mitochondrial signaling

MOTS-c is a mitochondrial-derived peptide associated with research on cellular stress and metabolic adaptation. It belongs to a different research context from small-molecule mitochondrial uncouplers such as BAM-15.

Available Products

Mechanism and Research Context

Experimental work has examined MOTS-c in relation to exercise and age-dependent muscle homeostasis. Studies of an endogenous peptide and experiments using externally supplied material answer related but different questions.

Interpreting the Evidence

Keep observations about naturally occurring MOTS-c separate from claims about a supplied research product. Species, age and experimental conditions can change the meaning of a measured response.

Available Research Formats

Browse the MOTS-C listings above for current quantities, pricing and availability. Each product page identifies the format and its labeled contents. Compare the amount per container with the amount per unit where applicable; these are different measurements.

Use the individual listing to review its specifications and available COA link before selecting a material for laboratory work.

Research Goals

Mitochondrial signaling is the research topic covered in this profile. Topic labels organize the literature; they do not describe an intended treatment or guarantee an experimental result.

Documentation and Handling

Check the identity, composition and storage information supplied with the exact material. Analytical reports describe the sample tested; a source report is not verification of a different lot. Visit the Lab Reports page or contact Refresh Research for documentation questions.

All Refresh Research materials are for laboratory research only, not for human or animal use. See our research-use policy.

References

The publications below provide research context. They are not tests of Refresh Research products.

  1. MOTS-c is an exercise-induced mitochondrial-encoded regulator of age-dependent physical decline and muscle homeostasis.

Continue exploring

A clearer view of the catalog.

All Compounds