Mitochondrial function
research compounds.
This is the newer end of the research, and the part most prone to hype. We keep to what is on the page in the literature, nothing more, and let the work speak. Compounds studied in laboratory and animal models of mitochondrial biogenesis, oxidative phosphorylation, NAD+ biology, and mitochondrial-derived peptide signalling. Research-grade compounds with batch-specific COA verification.
Mitochondrial function and cellular energy research.
The mitochondrial-function research category covers compounds studied in laboratory and animal models for their effects on mitochondrial biogenesis, oxidative phosphorylation, NAD+ biology, mitochondrial-derived peptide signalling, and the cellular response to metabolic stress. The mechanisms studied include AMPK activation, mitochondrial unfolded-protein response (UPRmt), and the effects of mitochondrial-derived peptides (MDPs) on systemic metabolism.
Research peptides in this category are studied in cell culture (mitochondrial respiration via Seahorse assays, mitochondrial membrane potential assays, NAD+/NADH ratio measurement) and in animal models examining mitochondrial-derived signalling, fasting metabolism, and the role of NAD+ precursors in cellular bioenergetics.
Cresten compounds studied in this area.
MOTS-c
CAS 1417902-46-7Mitochondrial-derived peptide encoded within the 12S rRNA region of the mitochondrial genome. Studied for effects on metabolic homeostasis, AMPK activation, and the cellular response to metabolic stress.
NAD+
CAS 53-84-9Nicotinamide adenine dinucleotide, the central coenzyme in cellular oxidation-reduction reactions. Studied for its role in mitochondrial respiration, sirtuin activation, and DNA-repair pathways including PARP-mediated processes.
The mitochondrial-derived peptide research framework.
MOTS-c is one of the small open reading frame (sORF) peptides encoded within the mitochondrial genome rather than the nuclear genome. Discovery of these peptides has reframed the mitochondrion as a signalling organelle in addition to its classical role as the site of cellular energy production. Published research has examined MOTS-c effects on insulin sensitivity, AMPK pathway activation, and mitochondrial homeostasis in animal models.
NAD+ is studied at the upstream end of the same biology: as the substrate for sirtuin enzymes (SIRT1-7), as a cofactor for mitochondrial respiration, and as the source of nicotinamide for PARP-mediated DNA repair. NAD+ levels decline with age in mammalian tissues; the research literature includes work examining whether direct NAD+ supplementation or NAD+ precursors (NMN, NR) restore aged mitochondrial function in cellular and animal models.
Research literature indexed on this area.
Methodology and verification.
NAD+ as a research compound is particularly sensitive to handling: it is unstable in aqueous solution at room temperature and degrades rapidly when exposed to light. Storage protocols and reconstitution conditions matter for assay reproducibility. Cresten Labs supplies NAD+ as lyophilized powder under inert atmosphere; the COA documents identity (HPLC retention time, UV absorption at 260 nm), purity, and storage stability. See the methodology page for handling and storage protocols.