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21 results on '"Cui, Xiyan"'

1. Expression Patterns and Molecular Mechanisms Regulating Drought Tolerance of Soybean [Glycine max (L.) Merr.] Conferred by Transcription Factor Gene GmNAC19

Author

Cui, Xiyan, primary, Tang, Minghao, additional, Li, Lei, additional, Chang, Jiageng, additional, Yang, Xiaoqin, additional, Chang, Hongli, additional, Zhou, Jiayu, additional, Liu, Miao, additional, Wang, Yan, additional, Zhou, Ying, additional, Sun, Fengjie, additional, and Chen, Zhanyu, additional

Published
2024
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2. Variations in Protein and Gene Expression Involved in the Pathways of Carbohydrate, Abscisic Acid, and ATP-Binding Cassette Transporter in Soybean Roots under Drought Stress.

Author

Yang, Xiaoqin, Cui, Xiyan, Chang, Jiageng, Wang, Jianan, Wang, Yujue, Liu, Haoye, Wang, Yan, Chen, Yanbo, Yang, Yuhan, Yao, Dan, Sun, Fengjie, and Zhou, Ying

Subjects
*ATP-binding cassette transporters, *PROTEIN expression, *ABSCISIC acid, *GENE expression, *SOYBEAN, *DROUGHTS, *CARBOHYDRATES
Abstract

Plant roots play crucial roles in their response to drought conditions. However, the molecular responses in soybean roots to drought stress remain unclear. We investigated the alterations in the protein expression in the roots of a drought-resistant soybean cultivar 'Jiyu 47' during the seedling phase based on tandem mass tag (TMT) proteomics analysis. The results revealed significant variations in the expression of the proteins involved in several metabolic pathways in soybean roots, including sucrose metabolism, abscisic acid (ABA) metabolism, and the ATP-binding cassette (ABC) transporter pathway. Gene Ontology and Kyoto Encyclopedia of Genes and Genomes enrichment analyses revealed a coordinated expression pattern of the proteins involved in the various cellular pathways responding to drought stress in soybean. The increased production of sucrose and betaine enhanced the inhibition of the damage caused by reactive oxygen species (ROS) and the tolerance of drought stress. The results of the physiological variations showed that sucrose metabolism, ABA metabolic mechanism, and the ABC transporter pathways played an important role in the antioxidant defense system in response to drought stress in soybean roots. The results of quantitative real-time PCR revealed the up-regulated expression of three genes (i.e., GmPYR1, GmHO-1, and GmSOD) involved in ABA biosynthesis and the signaling pathway. This study provides novel insights into the comprehension of the molecular pathways regulating the soybean root response to drought stress. [ABSTRACT FROM AUTHOR]

Published
2024
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13. Genome-wide analysis of the YABBY family in soybean and functional identification of GmYABBY10 involvement in high salt and drought stresses

Author

Dan Lu, Chen Zhanyu, Shou-Cheng Chai, Cui Xiyan, Tai-Fei Yu, Shuang-Xi Zhang, Yu-Jie Ji, Wei-Jun Zheng, and Shu-Ping Zhao

Subjects
0301 basic medicine, Physiology, Transgene, Arabidopsis, Plant Science, Genetically modified crops, Biology, 03 medical and health sciences, Osmotic Pressure, Botany, Genetics, MYB, Gene, Plant Proteins, Zinc finger, Dehydration, Protoplasts, fungi, Wild type, food and beverages, biology.organism_classification, Plants, Genetically Modified, 030104 developmental biology, Seedling, Soybeans, Genome-Wide Association Study
Abstract

YABBY family is a plant specific transcription factor family, with the typical N-terminal C2C2 type zinc finger domain and the C-terminal YABBY conservative structure domain, which plays important biological roles in plant growth, development and morphogenesis. In this study, a total of 17 YABBY genes were identified in the soybean genome. The results of this research showed that 17 soybean YABBY genes were located on 11 chromosomes. Analysis of putative cis-acting elements showed that soybean YABBY genes contained lots of MYB and MYC elements. Quantitative Real-time PCR (qRT-PCR) showed that the expressions of GmYABBY3, GmYABBY10 and GmYABBY16 were more highly sensitive in drought, NaCl and ABA stresses. And the transient expression in Arabidopsis protoplasts showed that GmYABBY3 protein distributed uniformly the whole cells, while GmYABBY10 protein was mainly localized in the membranes and cytoplasm and GmYABBY16 protein was localized the nucleus and membranes. To further identify the function of GmYABBY10, we obtained the transgenic Arabidopsis overexpression GmYABBY10. Based on germination and seedling root arrays in transgenic Arabidopsis, we found that the rates of wild type seeds was a litter higher than that of GmYABBY10 transgenic seeds under both PEG and NaCl treatment. While the root length and root surface of wild type seedlings were bigger than those of GmYABBY10 transgenic seedlings. When seedlings were grown in soil, the survival rates of wild type were higher than those of transgenic plants under both PEG and NaCl treatment, which indicated that GmYABBY10 may be a negatively regulator in plant resistances to drought and salt stresses. This study provided valuable information regarding the classification and functions of YABBY genes in soybean.

Published
2017

14. ZmCOL3 , a CCT gene represses flowering in maize by interfering with the circadian clock and activating expression of ZmCCT

Author

Jin, Minliang, primary, Liu, Xiangguo, additional, Jia, Wei, additional, Liu, Haijun, additional, Li, Wenqiang, additional, Peng, Yong, additional, Du, Yanfang, additional, Wang, Yuebin, additional, Yin, Yuejia, additional, Zhang, Xuehai, additional, Liu, Qing, additional, Deng, Min, additional, Li, Nan, additional, Cui, Xiyan, additional, Hao, Dongyun, additional, and Yan, Jianbing, additional

Published
2018
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15. ZmCOL3, a CCT-domain containing gene affects maize adaptation as a repressor and upstream of ZmCCT

Author

Jin, Minliang, primary, Liu, Xiangguo, additional, Jia, Wei, additional, Liu, Haijun, additional, Li, Wenqiang, additional, Peng, Yong, additional, Du, Yanfang, additional, Wang, Yuebin, additional, Yin, Yuejia, additional, Zhang, Xuehai, additional, Liu, Qing, additional, Deng, Min, additional, Li, Nan, additional, Cui, Xiyan, additional, Hao, Dongyun, additional, and Yan, Jianbing, additional

Published
2017
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19. De Novo Sequencing and Analysis of the Safflower Transcriptome to Discover Putative Genes Associated with Safflor Yellow in Carthamus tinctorius L.

Author

Liu, Xiuming, primary, Dong, Yuanyuan, additional, Yao, Na, additional, Zhang, Yu, additional, Wang, Nan, additional, Cui, Xiyan, additional, Li, Xiaowei, additional, Wang, Yanfang, additional, Wang, Fawei, additional, Yang, Jing, additional, Guan, Lili, additional, Du, Linna, additional, Li, Haiyan, additional, and Li, Xiaokun, additional

Published
2015
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20. Discovery and Analysis of MicroRNAs in Leymus chinensis under Saline-Alkali and Drought Stress Using High-Throughput Sequencing

Author

Zhai, Junfeng, primary, Dong, Yuanyuan, additional, Sun, Yepeng, additional, Wang, Qi, additional, Wang, Nan, additional, Wang, Fawei, additional, Liu, Weican, additional, Li, Xiaowei, additional, Chen, Huan, additional, Yao, Na, additional, Guan, Lili, additional, Chen, Kai, additional, Cui, Xiyan, additional, Yang, Meiying, additional, and Li, Haiyan, additional

Published
2014
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21. Update on functional analysis of long non-coding RNAs in common crops.

Author

Zhang A, Pi W, Wang Y, Li Y, Wang J, Liu S, Cui X, Liu H, Yao D, and Zhao R

Abstract

With the rapid advances in next-generation sequencing technology, numerous non-protein-coding transcripts have been identified, including long noncoding RNAs (lncRNAs), which are functional RNAs comprising more than 200 nucleotides. Although lncRNA-mediated regulatory processes have been extensively investigated in animals, there has been considerably less research on plant lncRNAs. Nevertheless, multiple studies on major crops showed lncRNAs are involved in crucial processes, including growth and development, reproduction, and stress responses. This review summarizes the progress in the research on lncRNA roles in several major crops, presents key strategies for exploring lncRNAs in crops, and discusses current challenges and future prospects. The insights provided in this review will enhance our comprehension of lncRNA functions in crops, with potential implications for improving crop genetics and breeding., Competing Interests: The authors declare that the research was conducted in the absence of any commercial or financial relationships that could be construed as a potential conflict of interest., (Copyright © 2024 Zhang, Pi, Wang, Li, Wang, Liu, Cui, Liu, Yao and Zhao.)

Published
2024
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