Heat Shock Proteins as a Potential Therapeutic Target in the Treatment of Gestational Diabetes Mellitus: What We Know so Far.
Katarzyna E Skórzyńska-DziduszkoŻaneta Kimber-TrojnarJolanta Patro-MałyszaAgnieszka Stenzel-BembenekJan OleszczukBożena Leszczyńska-GorzelakPublished in: International journal of molecular sciences (2018)
Gestational diabetes mellitus (GDM) is a complex condition that involves a variety of pathological mechanisms, including pancreatic β-cell failure, insulin resistance, and inflammation. There is an increasing body of literature suggesting that these interrelated phenomena may arise from the common mechanism of endoplasmic reticulum (ER) stress. Both obesity-associated nutrient excess and hyperglycemia disturb ER function in protein folding and transport. This results in the accumulation of polypeptides in the ER lumen and impairs insulin secretion and signaling. Exercise elicits metabolic adaptive responses, which may help to restore normal chaperone expression in insulin-resistant tissues. Pharmacological induction of chaperones, mimicking the metabolic effect of exercise, is a promising therapeutic tool for preventing GDM by maintaining the body's natural stress response. Metformin, a commonly used diabetes medication, has recently been identified as a modulator of ER-stress-associated inflammation. The results of recent studies suggest the potential use of chemical ER chaperones and antioxidant vitamins as therapeutic interventions that can prevent glucose-induced ER stress in GDM placentas. In this review, we discuss whether chaperones may significantly contribute to the pathogenesis of GDM, as well as whether they can be a potential therapeutic target in GDM treatment.
Keyphrases
- heat shock
- endoplasmic reticulum
- insulin resistance
- type diabetes
- oxidative stress
- heat stress
- heat shock protein
- metabolic syndrome
- pregnant women
- physical activity
- high intensity
- cardiovascular disease
- poor prognosis
- adipose tissue
- estrogen receptor
- glycemic control
- gene expression
- diabetic rats
- single cell
- human health
- high fat diet
- breast cancer cells
- weight loss
- emergency department
- high fat diet induced
- stem cells
- pregnancy outcomes
- blood glucose
- skeletal muscle
- body composition
- climate change
- body mass index
- polycystic ovary syndrome
- blood pressure
- anti inflammatory
- single molecule
- molecular dynamics simulations
- resistance training
- stress induced
- small molecule