Optimising Root and Grain Yield Through Variety Selection in Winter Wheat Across a European Climate Gradient

IF 4 2区 农林科学 Q2 SOIL SCIENCE
H. Heinemann, F. Durand-Maniclas, F. Seidel, F. Ciulla, T. G. Bárcena, M. Camenzind, S. Corrado, Z. Csűrös, Zs. Czakó, D. Eylenbosch, A. Ficke, C. Flamm, J. M. Herrera, V. Horáková, A. Hund, F. Lüddeke, F. Platz, B. Poós, D. Rasse, M. da Silva-Lopes, M. Toleikiene, A. Veršulienė, M. Visse-Mansiaux, K. Yu, J. Hirte, A. Don
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Abstract

Ensuring food security through sustainable practices while reducing greenhouse gas emissions are key challenges in modern agriculture. Utilising genetic variability within a crop species to identify varieties with higher root biomass carbon (C) could help address these challenges. It is thus crucial to quantify and understand intra-specific above- and belowground performance under varying environmental conditions. The study objectives were to: (a) quantify root biomass and depth distribution in different winter wheat varieties under various pedoclimatic conditions, (b) investigate the influence of variety and pedoclimatic conditions on the relationship between above- and belowground biomass production, and (c) assess whether optimised winter wheat variety selection can lead to both greater root biomass C and yield, boosting C accrual. Root biomass, root distribution to 1 m soil depth and root-to-shoot ratios were assessed in 10 different winter wheat varieties grown at 11 experimental sites covering a European climatic gradient from Spain to Norway. Median root biomass down to 1 m depth was 1.4 ± 0.7 Mg ha−1. The primary explanatory factor was site, accounting for 60% of the variation in root biomass production, while the genetic diversity between wheat varieties explained 9.5%. Precipitation had a significantly negative effect on total root biomass, especially in subsoil. Significant differences were also observed between varieties in root-to-shoot ratios and grain yield. The difference between the variety with the lowest root biomass and the one with the highest across sites was on average 0.9 Mg ha−1 which is an increase of 45%. Pedoclimatic conditions had a greater influence than variety, and determined the relationship's direction between root biomass and grain yield. A site-specific approach is, therefore, needed to realise the full potential for increased root biomass and yield offered by optimised variety selection.

Abstract Image

跨欧洲气候梯度的冬小麦品种选择优化根系和籽粒产量
通过可持续做法确保粮食安全,同时减少温室气体排放是现代农业面临的主要挑战。利用作物物种内部的遗传变异来鉴定根系生物量碳(C)较高的品种可能有助于解决这些挑战。因此,在不同的环境条件下,量化和理解特定的地上和地下性能是至关重要的。本研究的目的是:(a)量化不同土壤气候条件下不同冬小麦品种的根系生物量和深度分布,(b)研究品种和土壤气候条件对地上和地下生物量生产关系的影响,以及(c)评估优化冬小麦品种选择是否能同时提高根系生物量和产量,从而促进碳积累。在11个试验点对10个不同冬小麦品种进行了根系生物量、根系在1 m土壤深度的分布和根冠比的评估,试验点覆盖了从西班牙到挪威的欧洲气候梯度。1 m深度的根系生物量中位数为1.4±0.7 Mg ha−1。小麦品种间遗传多样性对根系生物量变化的解释率为9.5%,对根系生物量变化的解释率为60%,对根系生物量变化的解释率为60%。降水对根系总生物量有显著的负向影响,尤其是对底土。品种间根冠比和籽粒产量也存在显著差异。根系生物量最低的品种与跨站点生物量最高的品种的差异平均为0.9 Mg ha−1,增加了45%。土壤气候条件的影响大于品种,决定了根系生物量与产量的关系方向。因此,需要一种特定地点的方法来充分发挥优化品种选择所提供的增加根生物量和产量的潜力。
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来源期刊
European Journal of Soil Science
European Journal of Soil Science 农林科学-土壤科学
CiteScore
8.20
自引率
4.80%
发文量
117
审稿时长
5 months
期刊介绍: The EJSS is an international journal that publishes outstanding papers in soil science that advance the theoretical and mechanistic understanding of physical, chemical and biological processes and their interactions in soils acting from molecular to continental scales in natural and managed environments.
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