Fahad Shah, Nie Lixiao, Khan Faheem Ahmed, Chen Yutiao, Hussain Saddam, Wu Chao, Xiong Dongliang, Jing Wang, Saud Shah, Khan Farhan Anwar, Li Yong, Wu Wei, Khan Fahad, Hassan Shah, Manan Abdul, Jan Amanullah, Huang Jianliang
Biotechnol Lett. 2014 Jul;36(7):1407-20. doi: 10.1007/s10529-014-1510-9.
Rice diseases (bacterial, fungal, or viral) threaten food productivity. Host resistance is the most efficient, environmentally friendly method to cope with such diverse pathogens. Quantitative resistance conferred by quantitative trait loci (QTLs) is a valuable resource for rice disease resistance improvement. Although QTLs confer partial but durable resistance to many pathogen species in different crop plants, the molecular mechanisms of quantitative disease resistance remain mostly unknown. Quantitative resistance and non-host resistance are types of broad-spectrum resistance, which are mediated by resistance (R) genes. Because R genes activate different resistance pathways, investigating the genetic spectrum of resistance may lead to minimal losses from harmful diseases. Genome studies can reveal interactions between different genes and their pathways and provide insight into gene functions. Protein–protein interaction (proteomics) studies using molecular and bioinformatics tools may further enlighten our understanding of resistance phenomena.
水稻病害(细菌、真菌或病毒)威胁着粮食产量。宿主抗性是应对这类多样病原体的最有效、最环保的方法。由数量性状基因座(QTL)赋予的数量抗性是提高水稻抗病性的宝贵资源。尽管QTL在不同作物中对许多病原体物种赋予部分但持久的抗性,但其数量抗病性的分子机制大多仍不清楚。数量抗性和非宿主抗性是广谱抗性的类型,由抗性(R)基因介导。由于R基因激活不同的抗性途径,研究抗性的遗传谱可能会使有害病害造成的损失降至最低。基因组研究可以揭示不同基因及其途径之间的相互作用,并深入了解基因功能。使用分子和生物信息学工具进行的蛋白质-蛋白质相互作用(蛋白质组学)研究可能会进一步加深我们对抗性现象的理解。