Literature DB >> 26839002

Genome-wide identification, classification, and analysis of NADP-ME family members from 12 crucifer species.

Peng Tao1, Weiling Guo2, Biyuan Li1, Wuhong Wang1, Zhichen Yue1, Juanli Lei1, Yanting Zhao1, Xinmin Zhong3.   

Abstract

NADP-dependent malic enzymes (NADP-MEs) play essential roles in both normal development and stress responses in plants. Here, genome-wide analysis was performed to identify 65 putative NADP-ME genes from 12 crucifer species. These NADP-ME genes were grouped into five categories of syntenic orthologous genes and were divided into three clades of a phylogenic tree. Promoter motif analysis showed that NADP-ME1 genes in Group IV were more conserved with each other than the other NADP-ME genes in Groups I and II. A nucleotide motif involved in ABA responses, desiccation and seed development was found in the promoters of most NADP-ME1 genes. Generally, the NADP-ME genes of Brassica rapa, B. oleracea and B. napus had less introns than their corresponding Arabidopsis orthologs. In these three Brassica species, the NADP-ME genes derived from the least fractionated subgenome have lost less introns than those from the medium fractionated and most fractionated subgenomes. BrNADP-ME1 showed the highest expression in petals and mature embryos. Two paralogous NADP-ME2 genes (BrNADP-ME2a and BrNADP-ME2b) shared similar expression profiles and differential expression levels. BrNADP-ME3 showed down-regulation during embryogenesis and reached its lowest expression in early cotyledonary embryos. BrNADP-ME4 was expressed widely in multiple organs and showed high expression during the whole embryogenesis process. Different NADP-ME genes of B. rapa showed differential gene expression profiles in young leaves after ABA treatment or cold stress. Our genome-wide identification and characterization of NADP-ME genes extend our understanding of the evolution or function of this family in Brassicaceae.

Entities:  

Keywords:  Brassicaceae; Gene expression; Gene structure; NADP-ME; Promoter

Mesh:

Substances:

Year:  2016        PMID: 26839002     DOI: 10.1007/s00438-016-1174-3

Source DB:  PubMed          Journal:  Mol Genet Genomics        ISSN: 1617-4623            Impact factor:   3.291


  40 in total

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Authors:  Peng Tao; Xinmin Zhong; Biyuan Li; Wuhong Wang; Zhichen Yue; Juanli Lei; Weiling Guo; Xiaoyun Huang
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