埃塞俄比亚南部普通豆(Phaseolus vulgaris L.)多环境产量试验的ge -双标图分析

Y. Rezene
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引用次数: 3

摘要

以36种菜豆(Phaseolus vulgaris L.)为研究对象。位于埃塞俄比亚南部的6种不同土壤肥力状况的不同环境的基因型。基因型采用6 × 6三重格设计,连续两个主要种植季进行试验,目的是评价普通豆类基因型的产量表现和鉴定大型环境。采用GGE(即G =基因型和GE =由环境、相互作用决定的基因型)双图方法,将每种环境的基因型均值应用GGE双图软件后,用图形表示产量数据。前两个主成分(AXIS 1和AXIS2)用于显示二维GGE双图。因此,得分>0的基因型AXIS1为高产基因型,得分<0的基因型AXIS2为低产基因型。与基因型AXIS1不同的是,基因型AXIS2得分接近零为稳定型,而基因型AXIS2得分大则为不稳定型。环境AXIS1得分与GEI的交叉性质有关,而AXIS2得分与非交叉GEI有关。南方地区6个试验环境分为mega -1和mega -2两个不同的mega -1环境,mega -1环境由GOHF13、ARMF12和ARLF13组成,其中基因型14 (SCR10)为最佳优胜者,mega -2环境含有GOHF12,普通豆基因型20(SCR17)为最佳优胜者。研究结果表明,南方地区应采取特殊适应育种策略,利用正GEI提高普通豆的产量和生产力。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
GGE-Biplot Analysis of Multi-Environment Yield Trials of Common Bean (Phaseolus vulgaris L.) in the southern Ethiopia
The present study was conducted on thirty-six common beans (Phaseolus vulgaris L.) Genotypes across six contrasting environments defined for its different soil fertility status and located at the southern Ethiopia. The genotypes were arranged in 6 x 6 triple lattice design and executed for two successive main cropping seasons with the objectives to evaluate yield performance of common bean genotypes and identification of mega environments. GGE (i.e., G = genotype and GE = genotype by environment, interaction) bi-plot methodology was used for graphical presentation of yield data after subjecting the genotypic means of each environment to GGE Bi-plot software. The first two principal components (AXIS 1 and AXIS2) were used to display a two-dimensional GGE bi-plot. Thus, genotypic AXIS1 scores >0 classified the high yielding genotypes while AXIS2 scores <0 identified low yielding genotypes. Unlike genotypic AXIS1, genotypic AXIS2, scores near zero showed stable genotypes whereas large AXIS2 scores classified the unstable ones. The environmental AXIS1 were related to crossover nature of GEI while AXIS2 scores were associated with non-cross over GEI. The six test environments in the southern region were divided in to two distinct mega environments (Mega-1 and 2). Mega-1 constituted GOHF13, ARMF12 and ARLF13 while genotype 14 (SCR10) being the best winner, on the other hand, Mega-2 contained GOHF12 and while common bean genotype 20(SCR17) being the best winner. The results of this study indicated that breeding for specific adaptation should be taken as a breeding strategy in southern region to exploit positive GEI to increase production and productivity of common bean.
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