Molecular and neural roles of sodium-glucose cotransporter 2 inhibitors in alleviating neurocognitive impairment in diabetic mice.
Iwona Piatkowska-ChmielMariola HerbetMonika Gawrońska-GrzywaczKamil PawłowskiMarta Ostrowska-LeśkoJarosław DudkaPublished in: Psychopharmacology (2023)
Diabetes causes a variety of molecular changes in the brain, making it a real risk factor for the development of cognitive dysfunction. Complex pathogenesis and clinical heterogeneity of cognitive impairment makes the efficacy of current drugs limited. Sodium-glucose cotransporter 2 inhibitors (SGLT2i) gained our attention as drugs with potential beneficial effects on the CNS. In the present study, these drugs ameliorated the cognitive impairment associated with diabetes. Moreover, we verified whether SGLT2i can mediate the degradation of amyloid precursor protein (APP) and modulation of gene expression (Bdnf, Snca, App) involved in the control of neuronal proliferation and memory. The results of our research proved the participation of SGLT2i in the multifactorial process of neuroprotection. SGLT2i attenuate the neurocognitive impairment through the restoration of neurotrophin levels, modulation of neuroinflammatory signaling, and gene expression of Snca, Bdnf, and App in the brain of diabetic mice. The targeting of the above-mentioned genes is currently seen as one of the most promising and developed therapeutic strategies for diseases associated with cognitive dysfunction. The results of this work could form the basis of a future administration of SGLT2i in diabetics with neurocognitive impairment.
Keyphrases
- gene expression
- cognitive impairment
- cerebral ischemia
- type diabetes
- cardiovascular disease
- glycemic control
- bipolar disorder
- dna methylation
- working memory
- resting state
- white matter
- blood brain barrier
- stress induced
- brain injury
- functional connectivity
- physical activity
- current status
- subarachnoid hemorrhage
- single molecule
- drug induced
- adipose tissue
- small molecule
- cancer therapy
- binding protein
- amino acid
- multiple sclerosis
- protein protein
- risk assessment
- transcription factor
- weight loss