Baghalian Kambiz, Hajirezaei Mohammad-Reza, Schreiber Falk
Leibniz Institute of Plant Genetics and Crop Plant Research, D-06466 Gatersleben, Germany Institute of Computer Science, Martin Luther University Halle-Wittenberg, 06120 Halle, Germany College of Agriculture and Natural Resources, Islamic Azad University-Karaj Branch, Karaj 31485-313, Iran
Leibniz Institute of Plant Genetics and Crop Plant Research, D-06466 Gatersleben, Germany.
Plant Cell. 2014 Oct;26(10):3847-66. doi: 10.1105/tpc.114.130328. Epub 2014 Oct 24.
Models are used to represent aspects of the real world for specific purposes, and mathematical models have opened up new approaches in studying the behavior and complexity of biological systems. However, modeling is often time-consuming and requires significant computational resources for data development, data analysis, and simulation. Computational modeling has been successfully applied as an aid for metabolic engineering in microorganisms. But such model-based approaches have only recently been extended to plant metabolic engineering, mainly due to greater pathway complexity in plants and their highly compartmentalized cellular structure. Recent progress in plant systems biology and bioinformatics has begun to disentangle this complexity and facilitate the creation of efficient plant metabolic models. This review highlights several aspects of plant metabolic modeling in the context of understanding, predicting and modifying complex plant metabolism. We discuss opportunities for engineering photosynthetic carbon metabolism, sucrose synthesis, and the tricarboxylic acid cycle in leaves and oil synthesis in seeds and the application of metabolic modeling to the study of plant acclimation to the environment. The aim of the review is to offer a current perspective for plant biologists without requiring specialized knowledge of bioinformatics or systems biology.
模型用于出于特定目的来表示现实世界的各个方面,而数学模型为研究生物系统的行为和复杂性开辟了新途径。然而,建模通常很耗时,并且在数据开发、数据分析和模拟方面需要大量计算资源。计算建模已成功应用于辅助微生物的代谢工程。但这种基于模型的方法直到最近才扩展到植物代谢工程,主要是因为植物中代谢途径更复杂以及其细胞结构高度区室化。植物系统生物学和生物信息学的最新进展已开始梳理这种复杂性,并促进高效植物代谢模型的创建。本综述在理解、预测和修改复杂植物代谢的背景下,突出了植物代谢建模的几个方面。我们讨论了对叶片中光合碳代谢、蔗糖合成、三羧酸循环以及种子中油脂合成进行工程改造的机会,以及代谢建模在研究植物对环境适应性方面的应用。本综述的目的是为植物生物学家提供一个当前的视角,而无需生物信息学或系统生物学的专业知识。