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MOTS-C

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  • MOTS-c Peptide ( Mitochondrial Open Reading Frame of the 12S rRNA-c ) is a
    mitochondrially encoded research peptide that plays a role in
    cellular energy metabolism and metabolic regulation .
    In laboratory research, MOTS-c is applied to
    study the interaction between mitochondrial activity, insulin signaling, and fatty acid metabolism in vitro. MOTS-c is produced to the highest laboratory standards and verified via
    High-Performance Liquid Chromatography (HPLC) to ensure a purity of ≥ 99%.
    Each batch is suitable for controlled research environments and biochemical applications.

Price range: €50.00 through €190.00

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Description

MOTS-c Peptide – Mitochondrial-Derived Metabolic Research Peptide

MOTS-c (Mitochondrial Open Reading Frame of the 12S rRNA Type-c) is a mitochondrial-derived peptide widely studied in metabolic regulation, cellular energy balance, and mitochondrial signaling research. As a short bioactive peptide encoded within mitochondrial DNA, MOTS-c has gained significant attention in laboratory research exploring metabolism, stress response pathways, and cellular adaptation mechanisms.


What Is MOTS-c Peptide?

MOTS-c is a naturally occurring peptide encoded by mitochondrial DNA and translated within cells. In research settings, it is investigated for its involvement in metabolic homeostasis, insulin signaling pathways, and mitochondrial-to-nuclear communication.

Its unique origin from mitochondrial genetic material makes MOTS-c Peptide an important compound in studies focused on:

  • Cellular energy regulation

  • Mitochondrial signaling networks

  • Adaptive stress-response pathways

  • Metabolic pathway modulation


Key Research Areas & Observations

Scientific literature frequently references MOTS-c Peptide in studies related to:

🔬 Metabolic Regulation Research

Explored in laboratory models evaluating glucose metabolism, lipid utilization, and cellular energy balance.

🧬 Mitochondrial Signaling Pathways

Studied for its role in mitochondrial-to-nuclear communication and transcriptional regulation.

⚙️ Cellular Stress Response

Referenced in experimental research analyzing adaptive cellular responses to metabolic stress.

🧪 Gene Expression & Pathway Modulation

Used in molecular biology studies investigating signaling cascades and regulatory protein activation.


Laboratory Applications

MOTS-c peptide is primarily utilized in:

  • Metabolic and bioenergetics research

  • Mitochondrial function studies

  • Cellular adaptation and stress-response experiments

  • Molecular and transcriptional pathway analysis

Experimental concentrations vary depending on assay design, model system, and laboratory protocol.


Product Highlights

  • High-purity MOTS-c peptide

  • Research-grade quality

  • No fillers, additives, or excipients

  • Manufactured under strict laboratory standards

  • Suitable for in vitro and controlled experimental research


MOTS-c
 ( Mitochondrial Open Reading Frame of the 12S rRNA-c ) is a
mitochondrially encoded research peptide that plays a role in
cellular energy metabolism and metabolic regulation .
In laboratory research, MOTS-c is applied to
study the interaction between mitochondrial activity, insulin signaling, and fatty acid metabolism in vitro. MOTS-c is produced to the highest laboratory standards and verified via
High-Performance Liquid Chromatography (HPLC) to ensure a purity of ≥ 99%.
Each batch is suitable for controlled research environments and biochemical applications.

 

Important specifications

Feature Value / explanation
Name MOTS-c Peptide
Molecular formula C294H451N81O83S
Molecular weight ≈ 2171 Da
Form Lyophilisate (dry powder)
Purity ≥ 99% (HPLC tested)
Storage conditions Store refrigerated, protected from light and moisture.

 

Research relevance

  • Under investigation for its role in cellular energy metabolism, metabolic homeostasis, and stress response .
  • Interesting for studies of insulin sensitivity, fatty acid combustion and mitochondrial signaling pathways .
  • Promising research model in the study of aging, metabolism and energy balance .