Genes controlling skeletal muscle glucose uptake and their regulation by endurance and resistance exercise.
Sander A J VerbruggeJulia A AlhusenShimon KempinNicolas J PillonJan RozmanHenning WackerhageMaximilian KleinertPublished in: Journal of cellular biochemistry (2021)
Exercise improves the insulin sensitivity of glucose uptake in skeletal muscle. Due to that, exercise has become a cornerstone treatment for type 2 diabetes mellitus (T2DM). The mechanisms by which exercise improves skeletal muscle insulin sensitivity are, however, incompletely understood. We conducted a systematic review to identify all genes whose gain or loss of function alters skeletal muscle glucose uptake. We subsequently cross-referenced these genes with recently generated data sets on exercise-induced gene expression and signaling. Our search revealed 176 muscle glucose-uptake genes, meaning that their genetic manipulation altered glucose uptake in skeletal muscle. Notably, exercise regulates the expression or phosphorylation of more than 50% of the glucose-uptake genes or their protein products. This included many genes that previously have not been associated with exercise-induced insulin sensitivity. Interestingly, endurance and resistance exercise triggered some common but mostly unique changes in expression and phosphorylation of glucose-uptake genes or their protein products. Collectively, our work provides a resource of potentially new molecular effectors that play a role in the incompletely understood regulation of muscle insulin sensitivity by exercise.
Keyphrases
- skeletal muscle
- high intensity
- genome wide
- insulin resistance
- resistance training
- blood glucose
- physical activity
- gene expression
- bioinformatics analysis
- genome wide identification
- binding protein
- poor prognosis
- type diabetes
- blood pressure
- small molecule
- metabolic syndrome
- transcription factor
- glycemic control
- protein protein
- single cell
- smoking cessation
- big data
- cardiovascular risk factors