MOTS-c 10mg

MOTS-c (Mitochondrial Open Reading Frame of the Twelve S rRNA-c) 10mg is a groundbreaking, research-grade Mitochondrial-Derived Peptide (MDP) that represents one of the most fascinating and scientifically significant discoveries in modern molecular biology and metabolic research. Unlike conventional peptide compounds that are encoded by the nuclear genome, MOTS-c is uniquely encoded within the mitochondrial genome itself — a remarkable biological distinction that has captured the intense interest of the global scientific research community and positioned it as one of the most exciting and innovative peptide compounds currently available for laboratory investigation.

As a naturally occurring mitochondrial-derived peptide, MOTS-c plays a profound and multifaceted role in the regulation of cellular energy metabolism, mitochondrial function, and systemic metabolic homeostasis. Its discovery has opened entirely new scientific frontiers in the understanding of how mitochondria communicate with the rest of the cell and the broader organism through peptide-based signaling — a phenomenon that has fundamentally reshaped scientific thinking about the role of mitochondria beyond their classical function as the cell's primary energy-producing organelles.

The 10mg variant of MOTS-c is specifically formulated for research teams conducting structured laboratory investigations, controlled experimental protocols, and comprehensive metabolic studies into the complex mechanisms of mitochondrial peptide signaling, cellular energy regulation, and the downstream metabolic consequences of MOTS-c-mediated pathway activation. Its precise 10mg formulation ensures exceptional dosing accuracy, experimental consistency, and data reproducibility — qualities that are absolutely essential for generating meaningful and scientifically credible research outcomes in any serious laboratory environment.

What makes MOTS-c particularly compelling as a research compound is its demonstrated ability to translocate from the mitochondria to the nucleus in response to metabolic stress, where it directly influences nuclear gene expression and activates key metabolic regulatory pathways — most notably the AMPK (AMP-Activated Protein Kinase) pathway, which serves as one of the cell's master regulators of energy homeostasis. This extraordinary dual compartment activity makes MOTS-c a uniquely powerful tool for researchers seeking to explore the intersection of mitochondrial biology, nuclear gene regulation, and systemic metabolic control at the most fundamental cellular level.

Research Applications:

MOTS-c 10mg supports a broad and diverse spectrum of cutting-edge scientific research applications across mitochondrial biology, metabolic science, cellular biochemistry, and aging research, including:

• Mitochondrial Peptide Signaling Research — investigating the novel and scientifically groundbreaking mechanisms through which mitochondria-encoded peptides like MOTS-c communicate with nuclear and cytoplasmic signaling networks, reshaping the scientific understanding of mitochondrial biology and inter-organelle communication

• AMPK Pathway Activation Studies — examining MOTS-c's well-documented ability to activate the AMPK energy sensing pathway, exploring the downstream consequences of AMPK activation on glucose uptake, fatty acid oxidation, protein synthesis regulation, and overall cellular energy balance in controlled research models

• Cellular Energy Metabolism Research — conducting comprehensive investigations into how MOTS-c influences mitochondrial energy production, oxidative phosphorylation efficiency, ATP synthesis regulation, and cellular metabolic flexibility across diverse in vitro research models

• Glucose Metabolism & Insulin Sensitivity Studies — studying MOTS-c's influence on cellular glucose uptake mechanisms, insulin signaling pathway regulation, and glucose transporter expression in metabolically relevant cell types, with particular focus on its role in modulating insulin sensitivity at the cellular level

• Mitochondrial-Nuclear Crosstalk Research — exploring the remarkable phenomenon of MOTS-c's stress-induced translocation from the mitochondria to the nucleus, investigating its direct influence on nuclear gene expression, transcription factor activity, and the regulation of metabolically critical gene networks

• Aging & Longevity Research — examining the emerging and scientifically compelling research interest in MOTS-c's potential role in cellular aging processes, mitochondrial quality control, oxidative stress regulation, and the molecular mechanisms underlying metabolic decline associated with biological aging

• Exercise Metabolism & Skeletal Muscle Research — investigating MOTS-c's documented responsiveness to physical stress and its influence on skeletal muscle metabolism, mitochondrial biogenesis, muscle cell energy utilization, and exercise-induced metabolic adaptations in laboratory research models

• Oxidative Stress & Cellular Resilience Studies — studying the compound's influence on cellular antioxidant defense mechanisms, reactive oxygen species regulation, and mitochondrial membrane potential maintenance under conditions of metabolic and oxidative stress

• Lipid Metabolism & Adipose Biology — exploring MOTS-c's influence on lipid oxidation, fatty acid metabolism, adipogenesis regulation, and the metabolic crosstalk between mitochondrial peptide signaling and systemic lipid homeostasis

• Comparative Mitochondrial Peptide Research — utilizing MOTS-c alongside other mitochondrial-derived peptides such as Humanin and SHLP2 in comparative research frameworks designed to map the full landscape of mitochondrial peptide signaling and its collective influence on cellular and systemic metabolic regulation

Specifications:

Intended Use: This compound is intended strictly for in vitro research applications only. It is not approved for human or animal use and may not be used in food, drugs, cosmetics, or diagnostic procedures.

Legal Disclaimer: This product and associated information have not been evaluated by the FDA. No statement should be interpreted as a claim to diagnose, treat, cure, or prevent any condition. Use is strictly limited to qualified research professionals in certified laboratories.

Terms of Sale: By purchasing from Mile High Compounds, the buyer affirms they are a qualified researcher or institution, fully responsible for proper handling, storage, and usage in compliance with all applicable laws and regulations. All sales are final.