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基于转录组分析鉴定棉花花粉和花药对高温胁迫的特异基因

Rapid Identification of Pollen- and Anther-Specific Genes in Response to High-Temperature Stress Based on Transcriptome Profiling Analysis in Cotton.

机构信息

Key Laboratory of Crop Genetic Improvement, Huazhong Agricultural University, Wuhan 430070, China.

Institute of Economic Crops, Xinjiang Academy of Agricultural Sciences, Urumqi 830091, China.

出版信息

Int J Mol Sci. 2022 Mar 21;23(6):3378. doi: 10.3390/ijms23063378.

DOI:10.3390/ijms23063378
PMID:35328797
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC8954629/
Abstract

Anther indehiscence and pollen sterility caused by high temperature (HT) stress have become a major problem that decreases the yield of cotton. Pollen- and anther-specific genes play a critical role in the process of male reproduction and the response to HT stress. In order to identify pollen-specific genes that respond to HT stress, a comparative transcriptome profiling analysis was performed in the pollen and anthers of HT-sensitive Line H05 against other tissue types under normal temperature (NT) conditions, and the analysis of a differentially expressed gene was conducted in the pollen of H05 under NT and HT conditions. In total, we identified 1111 pollen-specific genes (PSGs), 1066 anther-specific genes (ASGs), and 833 pollen differentially expressed genes (DEGs). Moreover, we found that the late stage of anther included more anther- and pollen-specific genes (APSGs). Stress-related -regulatory elements (CREs) and hormone-responsive CREs are enriched in the promoters of APSGs, suggesting that APSGs may respond to HT stress. However, 833 pollen DEGs had only 10 common genes with 1111 PSGs, indicating that PSGs are mainly involved in the processes of pollen development and do not respond to HT stress. Promoters of these 10 common genes are enriched for stress-related CREs and MeJA-responsive CREs, suggesting that these 10 common genes are involved in the process of pollen development while responding to HT stress. This study provides a pathway for rapidly identifying cotton pollen-specific genes that respond to HT stress.

摘要

高温(HT)胁迫导致的花药不开裂和花粉不育已成为降低棉花产量的主要问题。花粉和花药特异性基因在雄性生殖过程和对 HT 胁迫的响应中起着关键作用。为了鉴定对 HT 胁迫有响应的花粉特异性基因,在正常温度(NT)条件下,对 HT 敏感系 H05 的花粉和花药与其他组织类型进行了比较转录组分析,并在 NT 和 HT 条件下对 H05 的花粉进行了差异表达基因分析。总共鉴定到 1111 个花粉特异性基因(PSGs)、1066 个花药特异性基因(ASGs)和 833 个花粉差异表达基因(DEGs)。此外,我们发现花药的晚期包含更多的花药和花粉特异性基因(APSGs)。APSGs 的启动子中富含与应激相关的调控元件(CREs)和激素响应的 CREs,表明 APSGs 可能对 HT 应激有响应。然而,833 个花粉 DEGs 与 1111 个 PSGs 仅有 10 个共同基因,表明 PSGs 主要参与花粉发育过程,不响应 HT 应激。这 10 个共同基因的启动子富含与应激相关的 CREs 和 MeJA 响应的 CREs,表明这些共同基因参与花粉发育过程的同时响应 HT 应激。本研究为快速鉴定对 HT 胁迫有响应的棉花花粉特异性基因提供了途径。

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