Chaperone-Based Therapeutic Target Innovation: Heat Shock Protein 70 (HSP70) for Type 2 Diabetes Mellitus.
W Riski Widya MulyaniMade Indira Dianti Sanjiwaninull SandraI Putu Yuda PrabawaAnak Agung Wiradewi LestariDesak Made WihandaniKetut SuastikaMade Ratna SaraswatiAgha BhargahIda Bagus Amertha Putra ManuabaPublished in: Diabetes, metabolic syndrome and obesity : targets and therapy (2020)
Type 2 diabetes mellitus (T2DM) is still a global health problem. Current T2DM treatments are limited to curing the symptoms and have not been able to restore insulin sensitivity in insulin-sensitive tissues that have become resistant. In the past decade, some studies have shown the significant role of a chaperone family, heat shock protein 70 (HSP70), in insulin resistance pathogenesis that leads to T2DM. HSP70 is a cytoprotective molecular chaperone that functions in protein folding and degradation. In general, studies have shown that decreased concentration of HSP70 is able to induce inflammation process through JNK activation, inhibit fatty acid oxidation by mitochondria through mitophagy decrease and mitochondrial biogenesis, as well as activate SREBP-1c, one of the lipogenic gene transcription factors in ER stress. The overall molecular pathways are potentially leading to insulin resistance and T2DM. Increased expression of HSP70 in brain tissues is able to improve insulin sensitivity and glycemic control specifically. HSP70 modulation-targeting strategies (including long-term physical exercise, hot tub therapy (HTT), and administration of alfalfa-derived HSP70 (aHSP70)) in subjects with insulin resistance are proven to have therapeutic and preventive potency that are promising in T2DM management.
Keyphrases
- heat shock protein
- glycemic control
- insulin resistance
- type diabetes
- heat shock
- blood glucose
- weight loss
- metabolic syndrome
- global health
- adipose tissue
- oxidative stress
- high fat diet
- transcription factor
- skeletal muscle
- polycystic ovary syndrome
- public health
- gene expression
- fatty acid
- single molecule
- stem cells
- signaling pathway
- cardiovascular disease
- copy number
- poor prognosis
- mesenchymal stem cells
- brain injury
- cardiovascular risk factors
- case control
- blood brain barrier
- smoking cessation
- bone marrow