Current Status of Endoplasmic Reticulum Stress in Type II Diabetes.
Sagir MustaphaMustapha MohammedAhmad Khusairi AzemiAbubakar Ibrahim JatauAishatu ShehuLukman MustaphaIbrahim Muazzamu AliyuRabi'u Nuhu DanrakaAbdulbasit AminAuwal Adam BalaWan Amir Nizam Wan AhmadAida Hanum Ghulam RasoolMohd Rais MustafaSiti Safiah MokhtarPublished in: Molecules (Basel, Switzerland) (2021)
The endoplasmic reticulum (ER) plays a multifunctional role in lipid biosynthesis, calcium storage, protein folding, and processing. Thus, maintaining ER homeostasis is essential for cellular functions. Several pathophysiological conditions and pharmacological agents are known to disrupt ER homeostasis, thereby, causing ER stress. The cells react to ER stress by initiating an adaptive signaling process called the unfolded protein response (UPR). However, the ER initiates death signaling pathways when ER stress persists. ER stress is linked to several diseases, such as cancer, obesity, and diabetes. Thus, its regulation can provide possible therapeutic targets for these. Current evidence suggests that chronic hyperglycemia and hyperlipidemia linked to type II diabetes disrupt ER homeostasis, thereby, resulting in irreversible UPR activation and cell death. Despite progress in understanding the pathophysiology of the UPR and ER stress, to date, the mechanisms of ER stress in relation to type II diabetes remain unclear. This review provides up-to-date information regarding the UPR, ER stress mechanisms, insulin dysfunction, oxidative stress, and the therapeutic potential of targeting specific ER stress pathways.
Keyphrases
- endoplasmic reticulum
- type diabetes
- induced apoptosis
- endoplasmic reticulum stress
- glycemic control
- oxidative stress
- cardiovascular disease
- signaling pathway
- cell death
- estrogen receptor
- current status
- insulin resistance
- breast cancer cells
- cell cycle arrest
- weight loss
- dna damage
- cancer therapy
- protein protein
- squamous cell carcinoma
- high fat diet
- weight gain
- diabetic rats
- healthcare
- epithelial mesenchymal transition
- binding protein
- social media
- fatty acid
- molecular dynamics simulations
- papillary thyroid
- small molecule
- ischemia reperfusion injury
- health information
- heat shock