AI Article Synopsis

  • α-Glycosidases are essential enzymes that help break down carbohydrates and are crucial for diagnosing conditions like type-II diabetes and Fabry disease due to mutations in related enzymes.
  • A new, affordable luminescent assay has been developed to effectively detect these enzymes within a hydrogel matrix, providing accurate quantification at low levels.
  • This new sensing method also allows for quick screening of drug molecules that inhibit these enzymes, aiding in the development of better treatments and diagnostics.

Article Abstract

α-Glycosidases are carbohydrate-digesting enzymes that catalyze the hydrolysis of α-1,4-glycopyranoside bonds from oligosaccharides and disaccharides. α-Glucosidase is an important biomarker for the diagnosis of type-II diabetes, Azoospermia and Pompe diseases. Additionally, the mutations in α-galactosidase lead to Fabry disease. Inhibitors targeting these enzymes are prescribed as anti-diabetic medications and as effective chaperones for Fabry disease. Comprehending the function - regulation of α-glycosidases requires accurate quantification methods. In this work, we highlight the design of a simple luminescent 'turn-on' assay for sensing these two α-glycosidases in a supramolecular TbCh hydrogel matrix using 1-α-glycosides as pro-sensitizers. The protocol offers a cost-effective method for selectively sensing α-glycosidases in the detection limit of the subnanomolar range. Importantly, the developed enzyme sensors functioned as a platform for rapid screening of drug molecules based on their inhibition potency. Therefore, the protocol is useful for facilitating the advancement of therapeutics and diagnostics targeting this important class of enzymes.

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Source
http://dx.doi.org/10.1002/asia.202401091DOI Listing

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