Genome-wide identification and functional roles relating to anthocyanin biosynthesis analysis in maize

被引:3
作者
Wang, Xiaofang [1 ]
Li, Huangai [1 ]
Wang, Shuai [1 ]
Ruan, Meiqi [1 ]
Li, Yiping [1 ]
Zhu, Lei [1 ]
Dong, Zhenying [1 ,2 ]
Long, Yan [1 ,2 ]
机构
[1] Univ Sci & Technol Beijing, Res Inst Biol & Agr, Zhongzhi Int Inst Agr Biosci, Sch Chem & Biol Engn,Shunde Innovat Sch, Beijing 100083, Peoples R China
[2] Beijing Int Sci & Technol Cooperat Base Biotech Br, Beijing Engn Lab Main Crop Biotech Breeding, Beijing 100192, Peoples R China
关键词
Maize; Anthocyanin; Biosynthetic genes; Gene expression; Silk; ARABIDOPSIS-THALIANA; CHALCONE SYNTHASE; GENE FAMILY; MALE-STERILITY; MALE-FERTILITY; AMINO-ACID; EXPRESSION; METABOLISM; TRANSCRIPTOME; TOLERANCE;
D O I
10.1186/s12870-025-06053-4
中图分类号
Q94 [植物学];
学科分类号
071001 ;
摘要
BackgroundAnthocyanin is an important class of water-soluble pigments that are widely distributed in various tissues of plants, and it not only facilitates diverse color changes but also plays important roles in various biological processes. Maize silk, serving as an important reproductive organ and displaying a diverse range of colors, plays an indispensable role in biotic resistance through its possession of anthocyanin. However, the copy numbers, characteristics, and expression patterns of genes involved in maize anthocyanin biosynthesis are not fully understood. In this study, gene numbers, distribution, structure, cis-elements of the anthocyanin synthetic gene family were identified, and then the potential transcriptional factors were predicted by two analyzed methods. Finally, genes involved in maize silk pigment were screened by un-targeted metabolism analysis.ResultsTen gene families involved in the maize anthocyanin biosynthesis pathway were identified, and 142 synthetic genes were obtained. These anthocyanin biosynthetic genes have high copy numbers and are normally clustered on chromosomes. The promoters of these synthetic genes contain various cis-elements and the gene expression patterns and transcriptional regulatory networks were analyzed. These genes are distributed on different chromosomes and gene expression patterns vary across different tissues in maize. Specifically, these genes often exhibit higher expression in the stem, leaves, and seeds. Ten highly expressed genes in silks were identified. Based on un-targeted metabolites detection in the silks of four maize representative inbred lines with different colors, two main differential anthocyanin components were identified. Furthermore, the gene expression patterns of the ten highly expressed genes and their potential interacting transcriptional factors were analyzed across the four inbred lines.ConclusionsThe results in this study show a through picture of maize anthocyanin synthetic genes, and the structure and function of genes related to anthocyanin biosynthesis in maize could be further investigated.
引用
收藏
页数:20
相关论文
共 87 条
[1]   Cinnamate-4-hydroxylase expression in Arabidopsis - Regulation in response to development and the environment [J].
BellLelong, DA ;
Cusumano, JC ;
Meyer, K ;
Chapple, C .
PLANT PHYSIOLOGY, 1997, 113 (03) :729-738
[2]   Maize ZmbZIP33 Is Involved in Drought Resistance and Recovery Ability Through an Abscisic Acid-Dependent Signaling Pathway [J].
Cao, Liru ;
Lu, Xiaomin ;
Wang, Guorui ;
Zhang, Qianjin ;
Zhang, Xin ;
Fan, Zaifeng ;
Cao, Yanyong ;
Wei, Li ;
Wang, Tongchao ;
Wang, Zhenhua .
FRONTIERS IN PLANT SCIENCE, 2021, 12
[3]   Functional characterization of two chalcone isomerase (CHI) revealing their responsibility for anthocyanins accumulation in mulberry [J].
Chao, Nan ;
Wang, Ru-feng ;
Hou, Chong ;
Yu, Ting ;
Miao, Ke ;
Cao, Fang-yuan ;
Fang, Rong-jun ;
Liu, Li .
PLANT PHYSIOLOGY AND BIOCHEMISTRY, 2021, 161 :75-83
[4]   Understanding the genetic regulation of anthocyanin biosynthesis in plants - Tools for breeding purple varieties of fruits and vegetables [J].
Chaves-Silva, Samuel ;
dos Santos, Adolfo Luis ;
Chalfun-Junior, Antonio ;
Zhao, Jian ;
Peres, Lazaro E. P. ;
Benedito, Vagner Augusto .
PHYTOCHEMISTRY, 2018, 153 :11-27
[5]  
Chen C., 2018, BioRxiv, V289660, P289660
[6]   TBtools: An Integrative Toolkit Developed for Interactive Analyses of Big Biological Data [J].
Chen, Chengjie ;
Chen, Hao ;
Zhang, Yi ;
Thomas, Hannah R. ;
Frank, Margaret H. ;
He, Yehua ;
Xia, Rui .
MOLECULAR PLANT, 2020, 13 (08) :1194-1202
[7]   Cryptochrome 1b represses gibberellin signaling to enhance lodging resistance in maize [J].
Chen, Shizhan ;
Fan, Xiaocong ;
Song, Meifang ;
Yao, Shuaitao ;
Liu, Tong ;
Ding, Wusi ;
Liu, Lei ;
Zhang, Menglan ;
Zhan, Weimin ;
Yan, Lei ;
Sun, Guanghua ;
Li, Hongdan ;
Wang, Lijian ;
Zhang, Kang ;
Jia, Xiaolin ;
Yang, Qinghua ;
Yang, Jianping .
PLANT PHYSIOLOGY, 2024, 194 (02) :902-917
[8]   Identification of MYB transcription factor genes and their expression during abiotic stresses in maize [J].
Chen, Y. H. ;
Cao, Y. Y. ;
Wang, L. J. ;
Li, L. M. ;
Yang, J. ;
Zou, M. X. .
BIOLOGIA PLANTARUM, 2018, 62 (02) :222-230
[9]   TSPTFBS 2.0: trans-species prediction of transcription factor binding sites and identification of their core motifs in plants [J].
Cheng, Huiling ;
Liu, Lifen ;
Zhou, Yuying ;
Deng, Kaixuan ;
Ge, Yuanxin ;
Hu, Xuehai .
FRONTIERS IN PLANT SCIENCE, 2023, 14
[10]   Genome-Wide Association Study and Genomic Prediction on Plant Architecture Traits in Sweet Corn and Waxy Corn [J].
Dang, Dongdong ;
Guan, Yuan ;
Zheng, Hongjian ;
Zhang, Xuecai ;
Zhang, Ao ;
Wang, Hui ;
Ruan, Yanye ;
Qin, Li .
PLANTS-BASEL, 2023, 12 (02)