增加遮阳能力:水稻茎结构的表型和遗传综合分析

IF 3.7 2区 环境科学与生态学 Q1 BIODIVERSITY CONSERVATION Plants People Planet Pub Date : 2023-08-16 DOI:10.1002/ppp3.10419
M. Huber, M. Julkowska, L. B. Snoek, H. van Veen, J. Toulotte, Virender Kumar, Kaisa Kajala, R. Sasidharan, R. Pierik
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引用次数: 0

摘要

水稻种植正在从插秧过渡到劳动力密集度较低、对水需求较低的直接播种水稻方法。然而,这伴随着杂草增殖的增加。为了解决这个问题,这项研究试图确定作物本身如何更好地抑制杂草,重点是通过遮荫进行光竞争。使用水稻多样性面板,确定了有助于提高遮荫能力的性状,并将这些性状封装在一个单独的遮荫能力指标中。随后鉴定了支撑核心性状变异的遗传基因座。确定的单倍型可用于育种计划,以改善水稻对杂草的抑制,从而有助于可持续农业。在现代水稻种植中,主要的制约因素之一是杂草的繁殖和除草剂应用带来的生态影响。这需要提高现有水稻品种的杂草竞争力,通过加强遮荫来限制对遮荫敏感的杂草的生长。为了确定提高水稻遮荫能力的性状,我们在营养早期对344个品种的水稻多样性小组进行了详尽的表型分析。一项全基因组关联研究(GWAS)揭示了与遮荫能力相关的冠层结构性状变异的遗传位点。屏幕显示了13个被测性状的枝条结构的显著自然变化,其中遮荫潜力主要由投射的枝条面积、叶片数量、秆高和冠层坚实度决定。遮荫等级是一种基于这些核心性状的指标,用于识别具有最高遮荫潜力的品种。发现5个遗传位点与冠层结构、遮荫潜力和早期活力有关。鉴定有助于遮荫能力和潜在等位基因变异的性状将为未来的基因组辅助育种计划服务。在水稻育种中实施现有的遗传资源以提高遮荫和杂草竞争力,将减少其农业对除草剂的依赖,并有助于实现更环保的可持续农业。
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Towards increased shading capacity: A combined phenotypic and genetic analysis of rice shoot architecture
Rice farming is transitioning from transplanting rice seedlings towards the less labour‐intensive and less water‐demanding method of directly seeding rice. This, however, is accompanied by increased weed proliferation. To tackle this issue, this study seeks to identify how the crop itself can better suppress weeds, with a focus on light competition via shading. Using a rice diversity panel, traits were identified that contribute to enhanced shading capacity, and these traits were encapsulated into a single shading capacity metric. This was followed by the identification of the genetic loci underpinning variation in the core traits. The identified haplotypes can be used in breeding programmes to improve weed suppression by rice, thus contributing to sustainable agriculture. In modern rice farming, one of the major constraints is weed proliferation and the entailed ecological impact of herbicide application. This requires increased weed competitiveness in current rice varieties, achieved via enhanced shade casting to limit the growth of shade‐sensitive weeds. To identify traits that increase rice shading capacity, we exhaustively phenotyped a rice diversity panel of 344 varieties at an early vegetative stage. A genome‐wide association study (GWAS) revealed genetic loci underlying variation in canopy architecture traits linked with shading capacity. The screen shows considerable natural variation in shoot architecture for 13 examined traits, of which shading potential is mostly determined by projected shoot area, number of leaves, culm height and canopy solidity. The shading rank, a metric based on these core traits, identifies varieties with the highest shading potential. Five genetic loci were found to be associated with canopy architecture, shading potential and early vigour. Identification of traits contributing to shading capacity and underlying allelic variation will serve future genomic‐assisted breeding programmes. Implementing the presented genetic resources for increased shading and weed competitiveness in rice breeding will make its farming less dependent on herbicides and contribute towards more environmentally sustainable agriculture.
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来源期刊
CiteScore
9.90
自引率
5.90%
发文量
81
审稿时长
12 weeks
期刊介绍: Plants, People, Planet aims to publish outstanding research across the plant sciences, placing it firmly within the context of its wider relevance to people, society and the planet. We encourage scientists to consider carefully the potential impact of their research on people’s daily lives, on society, and on the world in which we live. We welcome submissions from all areas of plant sciences, from ecosystem studies to molecular genetics, and particularly encourage interdisciplinary studies, for instance within the social and medical sciences and chemistry and engineering.
期刊最新文献
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