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生物技术方法降低小米中的植酸含量,改善其营养价值。

Biotechnological approaches to reduce the phytic acid content in millets to improve nutritional quality.

机构信息

ICAR-National Institute for Plant Biotechnology, Pusa Campus, New Delhi, 110012, India.

Amity University, Uttar Pradesh, Noida, India.

出版信息

Planta. 2024 Sep 19;260(4):99. doi: 10.1007/s00425-024-04525-9.

Abstract

The review article summarizes the approaches and potential targets to address the challenges of anti-nutrient like phytic acid in millet grains for nutritional improvement. Millets are a diverse group of minor cereal grains that are agriculturally important, nutritionally rich, and the oldest cereals in the human diet. The grains are important for protein, vitamins, macro and micronutrients, fibre, and energy sources. Despite a high amount of nutrients, millet grains also contain anti-nutrients that limit the proper utilization of nutrients and finally affect their dietary quality. Our study aims to outline the genomic information to identify the target areas of research for the exploration of candidate genes for nutritional importance and show the possibilities to address the presence of anti-nutrient (phytic acid) in millets. So, the physicochemical accessibility of micronutrients increases and the agronomic traits can do better. Several strategies have been adopted to minimize the phytic acid, a predominant anti-nutrient in cereal grains. In the present review, we highlight the potential of biotechnological tools and genome editing approaches to address phytic acid in millets. It also highlights the biosynthetic pathway of phytic acid and potential targets for knockout or silencing to achieve low phytic acid content in millets.

摘要

综述文章总结了针对小米中抗营养物质(如植酸)的挑战的方法和潜在目标,以改善其营养价值。小米是一类多样化的小谷物,在农业上具有重要意义,营养丰富,是人类饮食中最古老的谷物。这些谷物是蛋白质、维生素、宏量和微量元素、纤维和能量来源的重要组成部分。尽管含有大量的营养物质,但小米粒中也含有抗营养物质,这些物质限制了营养物质的合理利用,最终影响了它们的膳食质量。我们的研究旨在概述基因组信息,以确定研究目标领域,探索对营养重要性的候选基因,并展示解决小米中抗营养物质(植酸)的存在的可能性。因此,增加了微量元素的物理化学可及性,并且可以更好地改善农业性状。已经采取了几种策略来最小化植酸的含量,植酸是谷物中主要的抗营养物质。在本综述中,我们强调了生物技术工具和基因组编辑方法在解决小米中植酸问题上的潜力。它还突出了植酸的生物合成途径以及实现小米中低植酸含量的潜在靶标,如敲除或沉默。

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