The therapeutic potential of ketones in cardiometabolic disease: impact on heart and skeletal muscle.
Shubham SoniSeyed Amirhossein Tabatabaei DakhiliJohn R UssherJason R B DyckPublished in: American journal of physiology. Cell physiology (2024)
β-Hydroxybutyrate (βOHB) is the major ketone in the body, and it is recognized as a metabolic energy source and an important signaling molecule. While ketone oxidation is essential in the brain during prolonged fasting/starvation, other organs such as skeletal muscle and the heart also use ketones as metabolic substrates. Additionally, βOHB-mediated molecular signaling events occur in heart and skeletal muscle cells, and via metabolism and/or signaling, ketones may contribute to optimal skeletal muscle health and cardiac function. Of importance, when the use of ketones for ATP production and/or as signaling molecules becomes disturbed in the presence of underlying obesity, type 2 diabetes, and/or cardiovascular diseases, these changes may contribute to cardiometabolic disease. As a result of these disturbances in cardiometabolic disease, multiple approaches have been used to elevate circulating ketones with the goal of optimizing either ketone metabolism or ketone-mediated signaling. These approaches have produced significant improvements in heart and skeletal muscle during cardiometabolic disease with a wide range of benefits that include improved metabolism, weight loss, better glycemic control, improved cardiac and vascular function, as well as reduced inflammation and oxidative stress. Herein, we present the evidence that indicates that ketone therapy could be used as an approach to help treat cardiometabolic diseases by targeting cardiac and skeletal muscles.
Keyphrases
- skeletal muscle
- insulin resistance
- type diabetes
- glycemic control
- weight loss
- oxidative stress
- heart failure
- cardiovascular disease
- metabolic syndrome
- healthcare
- atrial fibrillation
- bariatric surgery
- induced apoptosis
- mental health
- adipose tissue
- blood glucose
- stem cells
- dna damage
- high fat diet induced
- mesenchymal stem cells
- resting state
- climate change
- multiple sclerosis
- signaling pathway
- hydrogen peroxide
- body mass index
- white matter
- subarachnoid hemorrhage