MOTSC
MOTS-c is a mitochondrial-derived peptide that has become an emerging area of scientific research because of its potential involvement in cellular metabolism, energy regulation, and metabolic signaling.
Unlike many peptides encoded within nuclear DNA, MOTS-c originates from mitochondrial DNA, making it particularly interesting to researchers studying the relationship between mitochondrial function and whole-body metabolic processes. Laboratory and preclinical research has explored its potential involvement in cellular glucose utilization, insulin sensitivity, metabolic flexibility, energy homeostasis, and cellular responses to metabolic stress.
Researchers are also investigating how MOTS-c may interact with pathways associated with mitochondrial communication, cellular adaptation, and age-related changes in metabolic function. Its connection to energy metabolism has made it an increasingly studied compound within mitochondrial biology and metabolic research.
Scientific investigation into MOTS-c remains ongoing, and its biological mechanisms, potential applications, safety, and long-term effects have not been fully established.
For laboratory research purposes only. Not for human consumption.
Lee et al., 2015, Cell Metabolism: the foundational MOTS-c paper. It identifies MOTS-c as a mitochondrial-encoded peptide and examines metabolic homeostasis, insulin sensitivity, AMPK signaling, and diet-induced obesity in mice.
Reynolds et al., 2021, Nature Communications: useful for the parts about exercise, skeletal muscle metabolism, metabolic stress, aging, and communication between mitochondrial and nuclear genes.
Mitochondrial-derived peptides in energy metabolism, 2020: a broader review covering MOTS-c and other mitochondrial-derived peptides, including metabolic stress, insulin sensitivity, mitochondrial signaling, aging, and energy metabolism.
MOTS-c: effects and mechanisms related to stress, metabolism and aging, 2023: particularly useful for your wording about the Folate-AICAR-AMPK pathway, energy metabolism, cellular stress responses, insulin resistance, and aging research.
