Instituto de Biotecnología/UNAM, Cuernavaca, Morelos, México.
Proteomics. 2013 Jun;13(12-13):1885-900. doi: 10.1002/pmic.201200399.
Salinity is a major threat limiting the productivity of crop plants. A clear demand for improving the salinity tolerance of the major crop plants is imposed by the rapidly growing world population. This review summarizes the achievements of proteomic studies to elucidate the response mechanisms of selected model and crop plants to cope with salinity stress. We also aim at identifying research areas, which deserve increased attention in future proteome studies, as a prerequisite to identify novel targets for breeding strategies. Such areas include the impact of plant-microbial communities on the salinity tolerance of crops under field conditions, the importance of hormone signaling in abiotic stress tolerance, and the significance of control mechanisms underlying the observed changes in the proteome patterns. We briefly highlight the impact of novel tools for future proteome studies and argue for the use of integrated approaches. The evaluation of genetic resources by means of novel automated phenotyping facilities will have a large impact on the application of proteomics especially in combination with metabolomics or transcriptomics.
盐度是限制作物生产力的主要威胁。快速增长的世界人口对提高主要作物的耐盐性提出了明确要求。本综述总结了蛋白质组学研究在阐明选定的模式植物和作物对盐胁迫的响应机制方面的成就。我们还旨在确定值得在未来蛋白质组研究中进一步关注的研究领域,作为鉴定用于育种策略的新靶标的前提。这些领域包括在田间条件下植物-微生物群落对作物耐盐性的影响、激素信号在非生物胁迫耐受性中的重要性以及观察到的蛋白质组模式变化的控制机制的意义。我们简要强调了未来蛋白质组研究新工具的影响,并主张采用综合方法。新型自动化表型设施对遗传资源的评估将对蛋白质组学的应用产生重大影响,特别是与代谢组学或转录组学结合使用时。