利用最先进的统计工具揭示玉米基因型与环境之间的相互作用:提高产量稳定性的创新性经验选择

Q3 Agricultural and Biological Sciences
Chitra Bahadur Kunwar , Bikas Basnet , Samjhana Sunuwar , Deep Narayan Mahato , Ramdas Chaudhari , Jharna Upadhya , Pragya Pokhrel
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引用次数: 0

摘要

传统育种优先考虑理想条件下的高产量,因此可能会遗漏产量和稳定性都较好的基因型。因此,本研究试图找出在压力和资源环境下都能提供更可预测、更可靠产量的稳定基因型,从而不仅提高粮食安全,而且提高财政稳定性。研究结合固定效应模型(AMMI&GGI)和随机效应模型(BLUP&MTSI),不仅从理论上,而且从经验上进行比较--所有 4 个模型都涵盖了每个模型的弱点,从而筛选出精英杂交玉米。此外,采用 RCB 设计,在两个冬季对 4 个研究站的 41 个杂交种进行了多环境试验评估。同样,利用 "metan "软件包(R 软件)中用于分析 GEI 的尖端统计方法,通过细致的分析筛选出性能一致的杂交种。AMMI(Additive Main effects and Multiplicative Interaction)分析表明,在基因型、环境、杂交种和基因型-环境互作(GEI)的显著(p ≤ 0.05)效应中,3个互作主成分(IPCs)可以解释互作效应的产量变异。此外,AMMI 双小区的基因型-环境互作图(GEI)阐明了 4 个具有高产量稳定性和高于平均水平表现的杂交种(MRM-4062、Super-22、PAC-744 和 Gen-4118)。此外,8 个杂交种(4118、4558、5454、NMH1258、PAC 746、PAC 745 Gold 和 SUPER 9090)无论其稳定性如何,都表现出优异的产量。Nepalgunj 的 GEI 值最低。相反,兰普尔(Rampur)的基因工程指数高于平均水平,表明其具有很强的调节品种表现的能力。此外,基于产量相似性,全球基因组学双图显示了两个潜在的巨型环境。九个高产杂交种(SUPPER 6768、SUPPER 9396、PAC750、MBS5622、PAC745 Gold、MRM4065、NMH8392、Gen-4118 和 Gen-4558)被确定为顶点杂交种,这表明它们在不同环境中表现优异。即使假设混合效应模型、最佳线性无偏预测模型(BLUP)和按产量标准化的平均绝对值加权模型(WAASBY),Gen-4118 的平均产量都是最高的,其次是 NMH-8392、TMH2858 等,而多性状稳定指数(MTSI)则认为 SUPPER-9090 是最稳定的高产基因型,其次是 NMH4040、Super-22、Gen-4118、MBS-1144 和 NMH1255。总之,Gen-4118、Super-9090、MRM-4062、NMH1258、NMH-8392、TMH2858、PAC 746 和 PAC 745 Gold 是产量最高、表现最稳定的hybrids,有望在不同环境下进行商业化种植。显然,这项研究具有减轻农民风险(经济负担、作物歉收)和提高粮食安全/气候适应能力的潜力。更重要的是,它为未来耐寒基因的研究铺平了道路,从而进一步改良作物。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Unraveling genotype-by-environment interaction in maize using cutting edge statistical tools: Innovative empirical selection for increased yield stability

By prioritizing high yields in ideal conditions, traditional breeding might miss out that genotypes with superior yield and stability. Thus,this study seeks to identify stable genotypes that offer more predictable and reliable yields; under both stress and resourceful environments, leading to not only greater food security but financial stability as well. Incorporating both fixed (AMMI&GGI) and random effects models (BLUP & MTSI), not only leveraged theoretical but also empirical comparisons-weakness of each model is covered by all 4 models-to select elites hybrids Maize. Furthermore, a multi-environment trial assessed 41 hybrids across 4 research stations in 2 winter seasons using RCB design. Likewise, compiled cutting-edge statistical methods for GEI analyses from the “metan” package (R-Software), selected hybrids with consistent performance with meticulous analysis. AMMI(Additive Main effects and Multiplicative Interaction)analysis revealed that of significant (p ≤ 0.05) effects of genotype, environment, & genotype-environment interaction (GEI), explaining yield variance with interaction effects were captured by 3 interaction principal components (IPCs). Moreover,GEI graphics of AMMI biplots elucidates four hybrids(MRM-4062, Super-22, PAC-744, and Gen-4118) with high yield stability and above-average performance. Additionally, eight hybrids (4118, 4558, 5454, NMH1258, PAC 746, PAC 745 Gold, and SUPER 9090) exhibited superior yield, regardless of their stability. Nepalgunj exhibited the lowest GEI value. Conversely, Rampur displayed an above-average GEI, indicating a strong ability to modulate varieties performance. Besides this, GGE biplot revealed two potential mega-environments based on yield similarities. Nine high-yielding hybrids (SUPPER 6768, SUPPER 9396, PAC750, MBS5622, PAC745 Gold, MRM4065, NMH8392, Gen-4118, and Gen-4558) were identified as vertex hybrids, signifying their superior performance across wide environments. Even supposing, mixed effects model, both the best linear unbiased prediction (BLUP) weighted with average absolute score standardized by yields (WAASBY) models, Gen-4118 ranked highest in terms of average yield, followed by NMH-8392, TMH2858, and others, and Multi-Trait Stability Index (MTSI) identified SUPPER-9090 as the most stable and high-yielding genotype, followed by NMH4040, Super-22, Gen-4118, MBS-1144, and NMH1255. In a nutshell, Gen-4118, Super-9090, MRM-4062, NMH1258, NMH-8392, TMH2858, PAC 746, PAC 745 Gold emerge as the highest-yielding and most consistently high-performinghybrids, offering promise for commercial farming across diverse environments. Clearly,this study has potential to mitigate risks for farmers (economic burden, crop failure) and bolster food security/climate resilience. What's more, it paves the way for future research on cold tolerance genes for even greater crop improvement.

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来源期刊
Ecological Genetics and Genomics
Ecological Genetics and Genomics Agricultural and Biological Sciences-Ecology, Evolution, Behavior and Systematics
CiteScore
1.80
自引率
0.00%
发文量
44
期刊介绍: Ecological Genetics and Genomics publishes ecological studies of broad interest that provide significant insight into ecological interactions or/ and species diversification. New data in these areas are published as research papers, or methods and resource reports that provide novel information on technologies or tools that will be of interest to a broad readership. Complete data sets are shared where appropriate. The journal also provides Reviews, and Perspectives articles, which present commentary on the latest advances published both here and elsewhere, placing such progress in its broader biological context. Topics include: -metagenomics -population genetics/genomics -evolutionary ecology -conservation and molecular adaptation -speciation genetics -environmental and marine genomics -ecological simulation -genomic divergence of organisms
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