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MOTS-c: Mitochondrial-Derived Peptide Signaling in Metabolic Research

Research-focused overview of MOTS-c biology and experimental findings. For laboratory research use only.

Research Use Only: The content below summarizes non-clinical and exploratory findings and is not intended for human or veterinary use.

What is MOTS-c?

MOTS-c is a 16–amino acid mitochondrial-derived peptide encoded within the 12S rRNA region of mitochondrial DNA.
Under conditions of cellular or metabolic stress, experimental models suggest MOTS-c may translocate to the nucleus
and participate in signaling pathways that connect mitochondrial status with nuclear gene expression.
Scholarly reviews describe potential roles in metabolic signaling, stress adaptation, and aging-related pathways
within controlled research systems.

Preclinical Highlights

Metabolic Signaling (Preclinical)
Murine studies report that MOTS-c exposure is associated with changes in metabolic signaling pathways,
including AMPK-related activity and glucose-handling markers, under controlled experimental conditions.
PubMed ·
PMC
Exercise-Associated Signals
Experimental literature describes signaling patterns that overlap with pathways activated during physical activity,
leading some authors to explore MOTS-c within an “exercise-associated” research context.
PubMed
Stress & Aging Context
Review articles summarize MOTS-c as part of mitochondrial retrograde signaling, with observed associations
to inflammatory markers and age-related signaling changes in laboratory models.
PubMed ·
PMC
Human Observations (Exploratory)
Limited human and ex-vivo studies report transient, exercise-associated changes in circulating or tissue-level MOTS-c.
These observations remain exploratory and are not linked to established clinical applications.
PMC

Mechanistic Snapshot (Experimental)

Axis Model Observed Research Findings
AMPK-Related Signaling Mouse & in-vitro Altered AMPK pathway activation and glucose transport signaling observed in preclinical models.
PubMed
Nuclear Translocation Cell stress models Stress-induced movement to the nucleus with downstream gene-expression modulation in experimental systems.
PubMed
Exercise-Linked Changes Human / ex-vivo Transient increases observed following exercise in small exploratory studies.
PMC


View MOTS-c (Research Grade)

Disclaimer: For laboratory research use only. Not intended for human or veterinary consumption, diagnosis, or treatment.