针对烟粉虱蜕皮激素受体设计的新杀虫剂

IF 2.3 Q1 AGRICULTURE, MULTIDISCIPLINARY
Indu, Krishnendu Bera*, Jozef Hritz, Václav Brázda and Rajesh Kumar, 
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引用次数: 0

摘要

烟粉虱是一种极具破坏性的害虫,影响世界各地的许多作物。它以韧皮部汁液为食,在叶片上分泌蜜露,导致霉菌积累,影响光合作用和果实品质。此外,它还传播100多种植物病毒,这些病毒会干扰植物生长,降低作物产量。在这项工作中,我们以烟粉虱的蜕皮激素受体(EcR)为目标,因为它参与了变态、细胞分化和繁殖过程。从UniProt数据库(A0A142K0N3)中检索到EcR序列,经多序列比对(MSA)发现,该配体结合域在其他危害植物的害虫中保守。利用iDock 2.2.3从NPAtlas 2.0数据库中检索到烟粉虱(B. tabaci, PDB ID: 1Z5X)的EcR结构,对32552个次级代谢物进行高通量虚拟筛选。根据idock2.2.3预测的结合能选择前40个代谢物,并使用AutoDock Vina 1.1.2重新对接。选择前4个含EcR化合物的配合物进行分子动力学模拟(模拟总时间为0.5 μs),并与载子-EcR结构进行比较。另外,在1.64 μs的条件下进行了伞形采样模拟。结果表明,NPA008492、NPA006374、NPA012964和NPA012752是潜在的先导分子,有望进行实验验证。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
New Insecticide Designed to Target Ecdysone Receptors of Bemisia tabaci

Bemisia tabaci is a highly destructive pest that affects many crops worldwide. Its feeding behavior on phloem sap and secretion of honeydew on leaves leads to the accumulation of mold, which impairs photosynthesis and fruit quality. Additionally, it transmits more than 100 plant viruses, which interfere with plant growth and reduce crop productivity. In this work, we targeted the ecdysone receptor (EcR) of B. tabaci, as it is involved in metamorphosis, cell differentiation, and reproduction processes. The EcR sequence was retrieved from the UniProt database (A0A142K0N3), and multiple sequence alignment (MSA) revealed that the ligand-binding domain is conserved among other plant-destroying pests and insects. The EcR structure of B. tabaci (PDB ID: 1Z5X) was used for high-throughput virtual screening with 32,552 secondary metabolites, retrieved from the NPAtlas 2.0 database using iDock 2.2.3. The top 40 metabolites were selected based on their predicted binding energy by iDock 2.2.3 and redocked using AutoDock Vina 1.1.2. The complexes of the top four compounds with EcR were selected for molecular dynamics simulation (total simulation time: 0.5 μs) and compared with the apo-EcR structure. Additionally, umbrella sampling simulations were performed for 1.64 μs. The insecticide-like properties and toxicity of the four metabolites were compared with conventional pesticides such as ponasterone A. Our computational predictions suggest that NPA008492, NPA006374, NPA012964, and NPA012752 are potential lead molecules and promising candidates for experimental validation.

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CiteScore
2.80
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