ABSTRACT
This study aims to identify the phytochemical profile of Apis mellifera propolis and explore the potential of its anti-diabetic activity through inhibition of α-amylase (α-AE), α-glucosidase(α-GE), as well as novel antidiabetic compounds of propolis. Apis mellifera propolis extract (AMPE) exhibited elevated polyphenol 33.26±0.17 (mg GAE/g) and flavonoid (15.45±0.13â mg RE/g). It also indicated moderate strong antioxidant activity (IC50 793.09±1.94â µg/ml). This study found that AMPE displayed promising α-AE and α-GE inhibition through inâ vitro study. Based on LC-MS/MS screening, 18 unique AMPE compounds were identified, with majorly belonging to anthraquinone and flavonoid compounds. Furthermore, in silico study determined that 8 compounds of AMPE exhibited strong binding to α-AE that specifically interacted with its catalytic residue of ASP197. Moreover, 2 compounds exhibit potential inhibition of α-GE, by interacting with crucial amino acids of ARG315, ASP352, and ASP69. Finally, we suggested that 2,7-Dihydroxy-1-(p-hydroxybenzyl)-4-methoxy-9,10-dihydrophenanthrene and 3(3-(3,4-Dihydroxybenzyl)-7-hydroxychroman-4-one as novel inhibitors of α-AE and α-GE. Notably, these compounds were initially discovered from Apis mellifera propolis in this study. The molecular dynamic analysis confirmed their stable binding with both enzymes over 100â ns simulations. The inâ vivo acute toxicity assay reveals AMPE as a practically non-toxic product with an LD50 value of 16,050â mg/kg. Therefore, this propolis may serve as a promising natural product for diabetes mellitus treatment.
Subject(s)
Antioxidants , Hypoglycemic Agents , Molecular Docking Simulation , Phytochemicals , Propolis , alpha-Amylases , alpha-Glucosidases , Propolis/chemistry , Propolis/pharmacology , Hypoglycemic Agents/chemistry , Hypoglycemic Agents/pharmacology , Antioxidants/pharmacology , Antioxidants/chemistry , Bees , Animals , alpha-Glucosidases/metabolism , alpha-Amylases/antagonists & inhibitors , alpha-Amylases/metabolism , Phytochemicals/chemistry , Phytochemicals/pharmacology , Glycoside Hydrolase Inhibitors/chemistry , Glycoside Hydrolase Inhibitors/pharmacology , Molecular Dynamics Simulation , Enzyme Inhibitors/chemistry , Enzyme Inhibitors/pharmacologyABSTRACT
Background and purpose: Scientific research is crucial to develop therapies for various disease severity levels, as modern drugs cause side effects and are difficult to predict. Researchers are exploring herbal alternatives with fewer side effects, particularly propolis, which has been validated through in vitro, in vivo, and clinical studies. This will focus on scientific evidence and its supporting technology for developing new bioactive compounds for chronic diseases. Nanotechnology can improve the delivery and absorption of herbal medicines, which often have poor bioavailability due to their high molecular weight and solubility in water, particularly in oral medicines. This technology can enhance propolis's effects through multi-target therapy and reduce side effects. Experimental approach: All publications related to each section of this review were discovered using the search engines Google Scholar, Scopus, and Pubmed. This was only available for publication between 2013 and 2023. The selected publications were used as references in this review after being thoroughly studied. Key results: Evaluation of propolis active compounds, the classification of propolis nano formulations, design concepts, and mechanisms of action of propolis nano formulation. Additionally, the challenges and prospects for how these insights can be translated into clinical benefits are discussed. Conclusion: In the last ten years, a list of nanoformulation propolis has been reported. This review concludes the difficulties encountered in developing large-scale nanoformulations. To commercialize them, improvements in nano carrier synthesis, standardized evaluation methodology within the framework of strategy process improvement, and Good Manufacturing Practices would be required.
