Speed-bred crops for food security and sustainable agriculture.

IF 3.6 3区 生物学 Q1 PLANT SCIENCES
Planta Pub Date : 2025-06-19 DOI:10.1007/s00425-025-04746-6
Garima Aggarwal, A S Jeena, Kajal Mehra, Bishawajit Kumar, Shivani Kashyap, Dhananjay Kumar Yadav, Alok Kumar Maurya, S C Venkatesh, Prakhar Singla, Abhishek Bohra
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Abstract

Main conclusion: Overcoming the existing barriers of speed breeding and its integration with modern genetic technologies will be crucial for its widespread adoption in plant breeding programs. Safeguarding global food security calls for a steady stream of climate-smart crop varieties delivered in less time with fewer agricultural resources. In this context, speed breeding (SB) was introduced as a shortening practice in modern agriculture through innovative solutions that promote rapid growth and development in plants. Since then, SB application has led to significant increase in yield and climate-resilience traits of modern crop varieties. SB protocols optimized for long-day and day-neutral plants have witnessed great success, and research on optimizing SB for short-day plants (e.g., rice, soybean, pigeonpea) has also been encouraging. Most interestingly, SB offers ample scope for integration with modern breeding methods like genomic selection, haplotype-based breeding and genome editing, which further enhances its capacity to deliver new crop varieties with enhanced stress adaptation and yield potential. While significant progress has been made in uncovering genetic loci associated with SB-relevant traits such as flowering time and maturity, the broader genetic basis of photoperiod response remains understudied in food crops. Despite its transformative potential, SB faces several limitations such as high energy demands, risks of genetic bottlenecks, and difficulties in applications at field scale, thus underscoring the need for continuous improvements. Our review offers the most updated overview of SB applications in crops plants, the genetic mechanisms underlying photoperiod response. We also present prospects for combining SB with evolving technologies for rapid and better breeding outcomes. We advocate that while transformative, SB still faces a set of challenges that must be carefully addressed to realize its full potential for future food supply.

促进粮食安全和可持续农业的速成作物。
主要结论:克服快速育种存在的障碍,并将其与现代遗传技术相结合,将是其在植物育种计划中广泛采用的关键。维护全球粮食安全需要在更短的时间内以更少的农业资源提供稳定的气候智能型作物品种。在这种背景下,快速育种(SB)作为一种缩短现代农业的做法,通过创新的解决方案,促进植物的快速生长和发育。从那时起,SB的应用使现代作物品种的产量和气候适应能力显著提高。针对长日照和中性日照植物优化的合成酶方案已经取得了巨大的成功,而针对短日照植物(如水稻、大豆、鸽子豆)优化合成酶的研究也令人鼓舞。最有趣的是,SB为基因组选择、基于单倍型的育种和基因组编辑等现代育种方法提供了充分的整合空间,这进一步增强了其培育具有更强的逆境适应性和产量潜力的新作物品种的能力。虽然在揭示与sb相关性状(如开花时间和成熟度)相关的遗传位点方面取得了重大进展,但粮食作物光周期反应的更广泛遗传基础仍未得到充分研究。尽管具有变革潜力,但合成合成酶仍面临着一些限制,如高能量需求、遗传瓶颈风险以及在现场大规模应用中的困难,因此需要不断改进。本文综述了SB在作物植物中的最新应用,以及光周期响应的遗传机制。我们还展望了将生物合成与不断发展的技术相结合以获得快速和更好的育种结果的前景。我们认为,虽然生物合成具有变革性,但仍面临一系列挑战,必须认真应对,以充分发挥其在未来粮食供应中的潜力。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Planta
Planta 生物-植物科学
CiteScore
7.20
自引率
2.30%
发文量
217
审稿时长
2.3 months
期刊介绍: Planta publishes timely and substantial articles on all aspects of plant biology. We welcome original research papers on any plant species. Areas of interest include biochemistry, bioenergy, biotechnology, cell biology, development, ecological and environmental physiology, growth, metabolism, morphogenesis, molecular biology, new methods, physiology, plant-microbe interactions, structural biology, and systems biology.
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