Mining of Potential Antifungal Molecules for Control of Fusarium fujikuroi in Rice using in silico and in vitro Analysis

IF 0.7 4区 工程技术 Q3 ENGINEERING, MULTIDISCIPLINARY Journal of Scientific & Industrial Research Pub Date : 2023-11-01 DOI:10.56042/jsir.v82i11.3127
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Abstract

A library of 170 fungicidal molecules of different functional moieties were subjected to in-silico assessment of their relative potential to inhibit ten vital targets of the Fusarium fujikuroi, bakanae disease causative pathogen in rice. Targets chosen were tubulin proteins (α-, β- and γ-tubulin) and NRPS31 gene cluster (FFUJ_00005, FFUJ_00006, FFUJ_00007, FFUJ_00008, FFUJ_00010, FFUJ_00011, FFUJ_00013). In-silico findings were validated with the help of in vitro analysis of the molecules to predict the most effective compound(s) relative to carbendazim (positive control). Most effective molecules were selected based on their chemical characteristics and Lipinski’s rule. One each of the natural and synthetic origin molecules was selected for the molecular dynamics and in-vitro analysis. β-Caryophyllene came out as the most potential molecule followed by flusilazole. The extent of inhibition of α-tubulin by these two molecules was significantly higher than by carbendazim. In-vitro bioassay validated the in-silico findings with LC50 values of 3.29, 64.12, and 178.77 μg/mL for β-caryophyllene, flusilazole and carbendazim, respectively. Further, molecular dynamics also revealed the selected molecular complex as highly effective with time when analyzed using Root Mean Square Deviation (RMSD) and Radius of Gyration (Rg).
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水稻黑镰刀菌抑菌活性分子的筛选及体外分析
利用计算机对170个不同功能片段的杀菌剂分子库进行了抑菌潜力的比较研究,比较了它们对水稻藤黑镰刀菌病原菌10个重要靶点的抑菌能力。选择的靶点为微管蛋白(α-、β-和γ-微管蛋白)和NRPS31基因簇(FFUJ_00005、FFUJ_00006、FFUJ_00007、FFUJ_00008、FFUJ_00010、FFUJ_00011、FFUJ_00013)。在体外分子分析的帮助下,验证了计算机上的发现,以预测相对于多菌灵(阳性对照)最有效的化合物。最有效的分子是根据它们的化学特性和利平斯基规则来选择的。选择天然和合成源分子各1个进行分子动力学和体外分析。β-石竹烯是最有潜力的分子,其次是氟咪唑。这两种分子对α-微管蛋白的抑制程度明显高于多菌灵。体外生物实验验证了β-石竹烯、氟美唑和多菌灵的LC50值分别为3.29、64.12和178.77 μg/mL。此外,分子动力学还表明,当使用均方根偏差(RMSD)和旋转半径(Rg)进行分析时,所选择的分子复合物随时间的变化是高度有效的。
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来源期刊
Journal of Scientific & Industrial Research
Journal of Scientific & Industrial Research 工程技术-工程:综合
CiteScore
1.70
自引率
16.70%
发文量
99
审稿时长
4-8 weeks
期刊介绍: This oldest journal of NISCAIR (started in 1942) carries comprehensive reviews in different fields of science & technology (S&T), including industry, original articles, short communications and case studies, on various facets of industrial development, industrial research, technology management, technology forecasting, instrumentation and analytical techniques, specially of direct relevance to industrial entrepreneurs, debates on key industrial issues, editorials/technical commentaries, reports on S&T conferences, extensive book reviews and various industry related announcements.It covers all facets of industrial development.
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