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在中欧地区将玉米作为沼气原料进行培育:I. 测验交表现的数量遗传参数。

Breeding maize as biogas substrate in Central Europe: I. Quantitative-genetic parameters for testcross performance.

机构信息

Institute of Plant Breeding, Seed Science and Population Genetics, University of Hohenheim (350), Fruwirthstrasse 21, 70593, Stuttgart, Germany.

出版信息

Theor Appl Genet. 2012 Apr;124(6):971-80. doi: 10.1007/s00122-011-1761-y. Epub 2011 Dec 13.

DOI:10.1007/s00122-011-1761-y
PMID:22159756
Abstract

Biofuels have gained importance recently and the use of maize biomass as substrate in biogas plants for production of methane has increased tremendously in Germany. The objectives of our research were to (1) estimate variance components and heritability for different traits relevant to biogas production in testcrosses (TCs) of maize, (2) study correlations among traits, and (3) discuss strategies to breed maize as a substrate for biogas fermenters. We evaluated 570 TCs of 285 diverse dent maize lines crossed with two flint single-cross testers in six environments. Data were recorded on agronomic and quality traits, including dry matter yield (DMY), methane fermentation yield (MFY), and methane yield (MY), the product of DMY and MFY, as the main target trait. Estimates of variance components showed general combining ability (GCA) to be the major source of variation. Estimates of heritability exceeded 0.67 for all traits and were even much greater in most instances. Methane yield was perfectly correlated with DMY but not with MFY, indicating that variation in MY is primarily determined by DMY. Further, DMY had a larger heritability and coefficient of genetic variation than MFY. Hence, for improving MY, selection should primarily focus on DMY rather than MFY. Further, maize breeding for biogas production may diverge from that for forage production because in the former case, quality traits seem to be of much lower importance.

摘要

生物燃料最近变得越来越重要,德国利用玉米生物量作为沼气厂生产甲烷的底物,其使用量大大增加。我们研究的目的是:(1) 在玉米的测交 (TC) 中估计与沼气生产相关的不同性状的方差分量和遗传力;(2) 研究性状之间的相关性;(3) 讨论将玉米作为沼气发酵罐底物进行培育的策略。我们在六个环境中评估了 285 个不同的马齿型玉米系与两个燧石单交测验种杂交的 570 个 TC。记录了包括干物质产量 (DMY)、甲烷发酵产量 (MFY) 和甲烷产量 (MY) 在内的农艺和质量性状的数据,其中 MY 是主要目标性状。方差分量的估计表明一般配合力 (GCA) 是变异的主要来源。所有性状的遗传力估计值均超过 0.67,而且在大多数情况下更高。甲烷产量与 DMY 完全相关,但与 MFY 不相关,这表明 MY 的变化主要由 DMY 决定。此外,DMY 的遗传力和遗传变异系数均大于 MFY。因此,为了提高 MY,选择应主要集中在 DMY 上,而不是 MFY。此外,沼气生产用玉米的选育可能与饲料生产用玉米的选育不同,因为在前者中,质量性状似乎重要性较低。

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