Walker Berkley J, Busch Florian A, Driever Steven M, Kromdijk Johannes, Lawson Tracy
Biochemistry of Plants, Heinrich-Heine University, Düsseldorf, Germany.
Research School of Biology and ARC Centre of Excellence for Translational Photosynthesis, The Australian National University, Acton, ACT, Australia.
Methods Mol Biol. 2018;1770:3-24. doi: 10.1007/978-1-4939-7786-4_1.
Measurements of in vivo photosynthesis are powerful tools that probe the largest fluxes of carbon and energy in an illuminated leaf, but often the specific techniques used are so varied and specialized that it is difficult for researchers outside the field to select and perform the most useful assays for their research questions. The goal of this chapter is to provide a broad overview of the current tools available for the study of in vivo photosynthesis so as to provide a foundation for selecting appropriate techniques, many of which are presented in detail in subsequent chapters. This chapter also organizes current methods into a comparative framework and provides examples of how they have been applied to research questions of broad agronomical, ecological, or biological importance. The chapter closes with an argument that the future of in vivo measurements of photosynthesis lies in the ability to use multiple methods simultaneously and discusses the benefits of this approach to currently open physiological questions. This chapter, combined with the relevant methods chapters, could serve as a laboratory course in methods in photosynthesis research or as part of a more comprehensive laboratory course in general plant physiology methods.
体内光合作用的测量是探究光照叶片中最大碳通量和能量通量的有力工具,但通常所使用的具体技术种类繁多且专业性强,以至于该领域之外的研究人员很难为其研究问题选择并开展最有用的分析方法。本章的目的是对目前可用于体内光合作用研究的工具进行广泛概述,以便为选择合适的技术奠定基础,其中许多技术将在后续章节中详细介绍。本章还将当前方法组织成一个比较框架,并举例说明它们如何应用于具有广泛农学、生态学或生物学重要性的研究问题。本章最后提出一个观点,即体内光合作用测量的未来在于能够同时使用多种方法,并讨论了这种方法对于当前尚未解决的生理学问题的益处。本章与相关方法章节相结合,可作为光合作用研究方法的实验课程,或作为更全面的植物生理学通用方法实验课程的一部分。