Dumbai Joe Alexander, Liu Runze, Luo Xiao, Syed Ruqiya, Aslam Farhan, Luo Zhenying, Zheng Zhitian
School of Life Science and Food Engineering, Huaiyin Institute of Technology, Huai'an, China.
Ganzhou Vegetable and Flower Research Institute, Ganzhou, China.
Front Cell Infect Microbiol. 2025 Feb 11;15:1536532. doi: 10.3389/fcimb.2025.1536532. eCollection 2025.
The filamentous fungal genus contains many species that cause catastrophic diseases in fruits, cereal, and vegetables. These diseases cause substantial losses in yield and contaminate affected crops with toxins. This causes huge losses in the agricultural sector and threatens human and animal health. The most efficient approach to control the spp. is fungicide application. Phenamacril is a site-specific fungicide that exerts its antifungal effect on sensitive spp. It is a new fungicide developed that targets by inhibiting myosin-5, an important protein in fungal growth and disease development. Because of its remarkable specificity, the new fungicide phenamacril is regarded as environmentally benign. However, many research findings have reported the emergence of the resistance of spp. to phenamacril in both the field and laboratory. This article comprehensively analyzes the mechanisms underlying spp. resistance to phenamacril. We examine the molecular, genetic, and environmental factors contributing to this resistance. We emphasize the importance of continued research and integrating different approaches to monitoring and managing drug-resistant spp. populations. Integrating current inventions to inform strategies for sustainable disease control practices, and increase plant health, and yield will contribute to ongoing global efforts to achieve food and nutritional sustainability for the world's rapidly growing population while ensuring the effectiveness of the fungicidal product.
丝状真菌属包含许多能在水果、谷物和蔬菜中引发灾难性疾病的物种。这些疾病会导致产量大幅损失,并用毒素污染受影响的作物。这在农业领域造成了巨大损失,并威胁到人类和动物健康。控制该属物种最有效的方法是施用杀菌剂。苯噻菌胺是一种作用于特定位点的杀菌剂,对敏感的该属物种发挥抗真菌作用。它是一种新开发的杀菌剂,通过抑制肌球蛋白-5来靶向该属物种,肌球蛋白-5是真菌生长和疾病发展中的一种重要蛋白质。由于其显著的特异性,新型杀菌剂苯噻菌胺被认为对环境无害。然而,许多研究结果报告了该属物种在田间和实验室中对苯噻菌胺产生抗性的情况。本文全面分析了该属物种对苯噻菌胺产生抗性的潜在机制。我们研究了导致这种抗性的分子、遗传和环境因素。我们强调持续研究以及整合不同方法来监测和管理耐药该属物种群体的重要性。整合当前的发明以指导可持续疾病控制实践的策略,并提高植物健康和产量,将有助于全球为世界快速增长的人口实现粮食和营养可持续性的持续努力,同时确保杀菌剂产品的有效性。