Glucose-Lowering Effects of Imeglimin and Its Possible Beneficial Effects on Diabetic Complications.
Hidekatsu YanaiHiroki AdachiMariko HakoshimaHisayuki KatsuyamaPublished in: Biology (2023)
Mitochondrial dysfunction is a prominent pathological feature of type 2 diabetes, which contributes to β-cell mass reduction and insulin resistance. Imeglimin is a novel oral hypoglycemic agent with a unique mechanism of action targeting mitochondrial bioenergetics. Imeglimin reduces reactive oxygen species production, improves mitochondrial function and integrity, and also improves the structure and function of endoplasmic reticulum (ER), changes which enhance glucose-stimulated insulin secretion and inhibit the apoptosis of β-cells, leading to β-cell mass preservation. Further, imeglimin inhibits hepatic glucose production and ameliorates insulin sensitivity. Clinical trials into the effects of imeglimin monotherapy and combination therapy exhibited an excellent hypoglycemic efficacy and safety profile in type 2 diabetic patients. Mitochondrial impairment is closely associated with endothelial dysfunction, which is a very early event in atherosclerosis. Imeglimin improved endothelial dysfunction in patients with type 2 diabetes via both glycemic control-dependent and -independent mechanisms. In experimental animals, imeglimin improved cardiac and kidney function via an improvement in mitochondrial and ER function or/and an improvement in endothelial function. Furthermore, imeglimin reduced ischemia-induced brain damage. In addition to glucose-lowering effects, imeglimin can be a useful therapeutic option for diabetic complications in type 2 diabetic patients.
Keyphrases
- endoplasmic reticulum
- oxidative stress
- combination therapy
- blood glucose
- glycemic control
- type diabetes
- insulin resistance
- clinical trial
- induced apoptosis
- reactive oxygen species
- single cell
- cell cycle arrest
- mesenchymal stem cells
- cardiovascular disease
- endoplasmic reticulum stress
- cell therapy
- cell death
- heart failure
- diabetic rats
- stem cells
- deep learning
- adipose tissue
- left ventricular
- breast cancer cells
- estrogen receptor
- high fat diet
- brain injury
- subarachnoid hemorrhage
- blood pressure
- resting state
- wound healing
- metabolic syndrome
- endothelial cells
- cell proliferation
- double blind