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青贮饲料和生物燃料生产用玉米的培育,展示了基因组序列的一个前进步骤。

Breeding maize for silage and biofuel production, an illustration of a step forward with the genome sequence.

机构信息

INRA, UR889, Unité de Génétique et d'Amélioration des Plantes Fourragères, 86600 Lusignan, France.

LRSV, Laboratoire de Recherche en Sciences Végétales, UMR5546, Université Paul Sabatier Toulouse III / CNRS, Auzeville, BP 42617, 31326 Castanet-Tolosan, France; INRA, US1258, Centre National de Ressources Génomiques Végétales, CS 52627, 31326 Castanet-Tolosan, France.

出版信息

Plant Sci. 2016 Jan;242:310-329. doi: 10.1016/j.plantsci.2015.08.007. Epub 2015 Aug 18.

DOI:10.1016/j.plantsci.2015.08.007
PMID:26566848
Abstract

The knowledge of the gene families mostly impacting cell wall digestibility variations would significantly increase the efficiency of marker-assisted selection when breeding maize and grass varieties with improved silage feeding value and/or with better straw fermentability into alcohol or methane. The maize genome sequence of the B73 inbred line was released at the end of 2009, opening up new avenues to identify the genetic determinants of quantitative traits. Colocalizations between a large set of candidate genes putatively involved in secondary cell wall assembly and QTLs for cell wall digestibility (IVNDFD) were then investigated, considering physical positions of both genes and QTLs. Based on available data from six RIL progenies, 59 QTLs corresponding to 38 non-overlapping positions were matched up with a list of 442 genes distributed all over the genome. Altogether, 176 genes colocalized with IVNDFD QTLs and most often, several candidate genes colocalized at each QTL position. Frequent QTL colocalizations were found firstly with genes encoding ZmMYB and ZmNAC transcription factors, and secondly with genes encoding zinc finger, bHLH, and xylogen regulation factors. In contrast, close colocalizations were less frequent with genes involved in monolignol biosynthesis, and found only with the C4H2, CCoAOMT5, and CCR1 genes. Close colocalizations were also infrequent with genes involved in cell wall feruloylation and cross-linkages. Altogether, investigated colocalizations between candidate genes and cell wall digestibility QTLs suggested a prevalent role of regulation factors over constitutive cell wall genes on digestibility variations.

摘要

对影响细胞壁消化率变化的基因家族的了解,将极大地提高在培育具有改良青贮饲料价值和/或具有更好的秸秆发酵酒精或甲烷能力的玉米和草品种时,利用标记辅助选择的效率。2009 年底,B73 自交系的玉米基因组序列被公布,为鉴定数量性状的遗传决定因素开辟了新途径。然后,考虑到基因和 QTL 的物理位置,研究了一组假定参与次生细胞壁组装的候选基因与细胞壁消化率(IVNDFD)的 QTL 之间的大集合的共定位。基于来自六个 RIL 后代的可用数据,将 59 个与 38 个非重叠位置相对应的 QTL 与分布在整个基因组中的 442 个基因列表相匹配。总共,176 个基因与 IVNDFD QTL 共定位,并且通常在每个 QTL 位置上都有几个候选基因共定位。首先在与 ZmMYB 和 ZmNAC 转录因子编码基因的 QTL 共定位中发现了频繁的 QTL 共定位,其次在与锌指、bHLH 和 xylogen 调节因子编码基因的 QTL 共定位中发现了频繁的 QTL 共定位。相反,在与单萜生物合成基因相关的 QTL 共定位中,很少发现与 C4H2、CCoAOMT5 和 CCR1 基因的共定位。在与细胞壁阿魏酰化和交联相关的基因中,也很少发现紧密的共定位。总之,候选基因与细胞壁消化率 QTL 之间的调查共定位表明,调节因子在消化率变化中对组成型细胞壁基因起着普遍作用。

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