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Molecular Modeling and docking of Wheat Hydroquinone Glucosyl transferase by using Hydroquinone Phenyl phosphorodiamate and n-(n butyl) Phosphorothiocic Triamide as Inhibitors

机译:以对苯二酚磷酸二氢苯基酯和正硫代磷酸硫代三酰胺为抑制剂的小麦对苯二酚葡萄糖基转移酶的分子模拟和对接

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摘要

In agriculture high urease activity during urea fertilization causes substantial environmental and economical problems by releasing abnormally large amount of ammonia into the atmosphere which leads to plant damage as well as ammonia toxicity. All over the world, urea is the most widely applied nitrogen fertilizer. Due to the action of enzyme urease; urea nitrogen is lost as volatile ammonia. For efficient use of nitrogen fertilizer, urease inhibitor along with the urea fertilizer is one of the best promising strategies. Urease inhibitors also provide an insight in understanding the mechanism of enzyme catalyzed reaction, the role of various amino acids in catalytic activity present at the active site of enzyme and the importance of nickel to this metallo enzyme. By keeping it in view, the present study was designed to dock three urease inhibitors namely Hydroquinone (HQ), Phenyl Phosphorodiamate (PPD) and N-(n-butyl) Phosphorothiocic triamide (NBPT) against Hydroquinone glucosyltransferase using molecular docking approach. The 3D structure of Hydroquinone glucosyltransferase was predicted using homology modeling approach and quality of the structure was assured using Ramachandran plot. This study revealed important interactions among the urease inhibitors and Hydroquinone glucosyltransferase. Thus, it can be inferred that these inhibitors may serve as future anti toxic constituent against plant toxins.
机译:在农业中,尿素施肥过程中尿素酶的高活性通过将异常大量的氨释放到大气中而导致严重的环境和经济问题,这会导致植物损害以及氨毒性。在全世界,尿素是应用最广泛的氮肥。由于尿素酶的作用;尿素氮以挥发性氨的形式损失。为了有效地使用氮肥,脲酶抑制剂和尿素肥料是最有希望的策略之一。脲酶抑制剂还有助于理解酶催化反应的机理,各种氨基酸在酶活性位点的催化活性中的作用以及镍对该金属酶的重要性。考虑到这一点,本研究设计了使用分子对接方法将三种脲酶抑制剂对接氢醌(葡糖基磷酸二氢盐(PPD)和N-(正丁基)磷酸硫代三酰胺(NBPT))与对苯二酚葡糖基转移酶。使用同源建模方法预测了对苯二酚葡糖基转移酶的3D结构,并使用Ramachandran图确保了结构的质量。这项研究揭示了脲酶抑制剂和氢醌葡萄糖基转移酶之间的重要相互作用。因此,可以推断这些抑制剂可以作为将来对抗植物毒素的抗毒成分。

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