Abstract

Medicinal plants have been identified as a feasible avenue for the development of new potent antidiabetic agents. The phytoconstituent compositions of different Toona ciliata and Schkuhria pinnata extracts were determined and quantified using standard chemical methods after exhaustive extraction. Thereafter, their antioxidant and antiglycation potentials were spectrophotometrically determined. The cytotoxicity profiles of the extracts on C2C12 cells were determined using the MTT assay. Toona ciliata methanol extract resulted in the highest percentage yield (20.83%) and high total phenols and flavonoids content in the methanol and acetone extracts compared to S. pinnata extracts. The acetone extract of T. ciliata showed good activity in the DPPH scavenging and FRAP assays with EC50 values of 1.90 mg/ml and 5.26 mg/ml, respectively. Arbutin's antiglycation ability was outperformed by treatments with the methanol, acetone, and hexane extract of T. ciliata which resulted in 2.49%, 2.79%, and 2.56% glycation, respectively. The hexane extract of T. ciliata was less toxic to C2C12 cells as compared to the other extracts with CC50 value of 402.16 μg/ml. Only the hexane extract of S. pinnata resulted in glucose utilisation of 28.56% which was higher than that of insulin (26.06%) after 6 hours and is therefore considered as the most potent extract with hypoglycaemic potential in this study. Studies are ongoing aimed at identifying drug candidates in this extract that may be employed in the development of hypoglycaemic, antioxidant, and antiglycation agents.

Highlights

  • Diabetes mellitus is a noncurable, multifactorial, and noncommunicable condition with symptoms that clinically manifest as perpetual hyperglycaemia [1, 2]

  • Methanol had the highest extraction percentage yield while hexane had the least yield in both plants

  • The highest percentage yield was obtained for the methanol extract of T. ciliata (20.83%) and lowest for the hexane extract of S. pinnata (0.64%)

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Summary

Introduction

Diabetes mellitus is a noncurable, multifactorial, and noncommunicable condition with symptoms that clinically manifest as perpetual hyperglycaemia [1, 2]. Glycation, which occurs via the Maillard reaction, is the spontaneous reaction between structural or functional proteins and reactive sugar moieties [5]. This results in the formation of advanced glycation end-products (AGEs) which are essentially accumulated glycosylated proteins [4, 6]. Glycation is known to be the underlying cause in both the development and perpetuation of the complications associated with diabetes [5] These complications include neuropathy, nephropathy, retinopathy, and various cardiovascular diseases [2, 4]. Three main etiological types of diabetes are prominent which are type I, type II, and gestational diabetes [2]

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