Mots-c 40mg Vial

Description

PeptoLabs MOTS-C is a small 16-amino acid peptide created in mitochondria and important for regulating cellular metabolism. It helps regulate cellular energy balance, influencing glucose metabolism, insulin response, and stress response. MOTS-C travels to the cell nucleus, where it affects genes responsible for the creation of new mitochondria and metabolic control, especially when the cell is under stress.

Studies of the peptide have shown that it can help increase endurance, reduce obesity and insulin resistance, and improve osteoporosis and other conditions. MOTS-C supports normal metabolism and may influence longevity, improve physical fitness, and reduce the symptoms of obesity, insulin resistance, and osteoporosis.

Muscle metabolism

Mouse experiments have shown that MOTS-C can reverse age-related insulin resistance in muscles by improving glucose uptake. This occurs because muscles respond better to AMPK activation, which increases the production of glucose transporters. Importantly, this process is not insulin-dependent, offering another way to enhance glucose uptake by muscles when insulin is ineffective or low. Ultimately, muscle function improves, muscle growth is stimulated, and insulin resistance is reduced.

Fat metabolism

Mouse experiments have shown that low estrogen levels lead to increased fat mass and impaired adipose tissue function. This increases the risk of insulin resistance and diabetes. However, when MOTS-C is added to mice, brown adipose tissue function improves and white adipose tissue accumulation decreases. The peptide appears to protect against adipose tissue dysfunction and inflammation, which typically precede insulin resistance.

MOTS-C appears to affect fat metabolism by activating the AMPK pathway. This pathway is activated when cellular energy is low, stimulating cells to absorb glucose and fatty acids for metabolism. It is also activated by ketogenic diets, such as the Atkins diet, which promote fat metabolism and protect muscle. MOTS-C influences the methionine-folate cycle, increases AICAR levels, and activates AMPK.

Recent studies suggest that MOTS-C can exit mitochondria and enter the cell nucleus, where it influences genes. During metabolic stress, MOTS-C regulates nuclear genes associated with glucose regulation and antioxidant responses.

Data obtained in mice indicate that MOTS-C is important for regulating the metabolism of sphingolipids, monoacylglycerols, and dicarboxylates, particularly in obesity. By inhibiting these processes and enhancing beta-oxidation, MOTS-C prevents fat accumulation. Some of these effects are likely related to MOTS-C’s actions in the cell nucleus. Studying MOTS-C has led to the fat accumulation and insulin resistance hypothesis, which is becoming increasingly popular and may suggest ways to address obesity and diabetes. It appears that a disruption in mitochondrial fat metabolism can lead to insufficient fat oxidation, leading to elevated blood fat levels. This forces the body to increase insulin levels to clear the blood of lipids. This ultimately leads to increased fat deposition and changes that lead to adaptation to high insulin levels (resistance).

Insulin sensitivity

A study of MOTS-C levels in people with normal insulin sensitivity and those with insulin resistance revealed an interesting finding. It turns out that this peptide is associated with insulin sensitivity only in people of normal weight. This suggests that MOTS-C may play a role in the development of insulin resistance, but not in its maintenance.

Scientists believe this peptide could be useful for monitoring prediabetes in people of normal weight. Changes in MOTS-C levels could be an early warning sign of potential insulin resistance. Supplementing with MOTS-C in a timely manner could contribute to preventing the development of insulin resistance and, subsequently, diabetes.

Mouse studies are promising, but more research is needed to fully understand how MOTS-C affects insulin regulation.

Osteoporosis

It is believed that MOTS-C influences the production of type I collagen by bone cells (osteoblasts). Studies of osteoblasts show that MOTS-C regulates the TGF-beta/SMAD pathway, which is essential for the normal function and survival of osteoblasts. By supporting osteoblast survival, MOTS-C improves the production of type I collagen, which leads to stronger bones.

Other osteoporosis studies have shown that MOTS-C helps bone marrow stem cells transform into osteoblasts via the same TGF-beta/SMAD pathway. As a result, more new bone tissue is formed. This suggests that MOTS-C not only protects and supports osteoblasts but also stimulates their development from stem cells.

Longevity

A study of MOTS-C revealed an interesting feature of the peptide associated with longevity in certain populations, such as the Japanese. In their MOTS-C gene, glutamate is replaced by lysine at position 14 of the protein. It’s not yet entirely clear how this substitution affects the protein’s function, but it’s certainly important because glutamate and lysine have very different properties and can alter the structure and function of MOTS-C. More research is needed to understand exactly how this works. Importantly, this substitution is found only in people from Northeast Asia and is believed to be somehow linked to their exceptional longevity.

Dr. Changhan David Li of the USC Leonard Davis School of Gerontology believes that mitochondria play a key role in prolonging life and maintaining a healthy lifespan. Mitochondria are crucial components of metabolism and are closely linked to aging and age-related diseases. Diet has long been considered the only reliable way to influence mitochondrial function and, consequently, longevity. However, peptides like MOTS-C may offer the possibility of a more direct and potent impact on mitochondrial function.

How MOTS-C affects the heart.

A study of people preparing for angiography revealed that those with low levels of MOTS-C in their blood have problems with the cells lining their blood vessels. These cells are important for blood pressure, clotting, and plaque formation. Experiments in rats showed that MOTS-C itself doesn’t seem to affect blood vessels, but it makes vascular cells more sensitive to other signals, such as acetylcholine. Giving MOTS-C to rats improves the function of their blood vessels, including small vessels and vessels around the heart.

MOTS-C isn’t the only peptide that affects the heart. Research suggests that at least three such peptides help protect heart cells from stress and inflammation. It’s believed that disruptions in these peptides may also contribute to heart disease. These peptides may be important for restoring blood flow after ischemia and for normal vascular function.

Please note! The information on this website is for informational purposes only; this product is not a medicine. The manufacturer may change the packaging appearance without notice.

This product is for research purposes only and is not for human use.  The information has been compiled from numerous studies and analyses conducted over many years and is not intended to diagnose, treat, cure or prevent any disease.