Bigini Valentina, Camerlengo Francesco, Botticella Ermelinda, Sestili Francesco, Savatin Daniel V
Department of Agriculture and Forest Sciences, University of Tuscia, 01100 Viterbo, Italy.
Institute of Sciences of Food Production (ISPA), National Research Council (CNR), 73100 Lecce, Italy.
Plants (Basel). 2021 Jun 4;10(6):1146. doi: 10.3390/plants10061146.
Plant diseases are globally causing substantial losses in staple crop production, undermining the urgent goal of a 60% increase needed to meet the food demand, a task made more challenging by the climate changes. Main consequences concern the reduction of food amount and quality. Crop diseases also compromise food safety due to the presence of pesticides and/or toxins. Nowadays, biotechnology represents our best resource both for protecting crop yield and for a science-based increased sustainability in agriculture. Over the last decades, agricultural biotechnologies have made important progress based on the diffusion of new, fast and efficient technologies, offering a broad spectrum of options for understanding plant molecular mechanisms and breeding. This knowledge is accelerating the identification of key resistance traits to be rapidly and efficiently transferred and applied in crop breeding programs. This review gathers examples of how disease resistance may be implemented in cereals by exploiting a combination of basic research derived knowledge with fast and precise genetic engineering techniques. Priming and/or boosting the immune system in crops represent a sustainable, rapid and effective way to save part of the global harvest currently lost to diseases and to prevent food contamination.
植物病害在全球范围内给主要作物生产造成了巨大损失,破坏了为满足粮食需求而将产量提高60%这一紧迫目标,气候变化使这项任务更具挑战性。主要后果涉及粮食数量和质量的下降。由于农药和/或毒素的存在,作物病害还会损害食品安全。如今,生物技术是我们保护作物产量以及实现基于科学的农业可持续性提高的最佳资源。在过去几十年里,农业生物技术基于新的、快速且高效的技术的推广取得了重要进展,为理解植物分子机制和育种提供了广泛的选择。这些知识正在加速关键抗性性状的鉴定,以便在作物育种计划中快速有效地转移和应用。本综述收集了一些实例,展示了如何通过将基础研究获得的知识与快速精确的基因工程技术相结合,在谷物中实现抗病性。激发和/或增强作物的免疫系统是一种可持续、快速且有效的方式,可以挽救目前因病害而损失的部分全球收成,并防止食品污染。