数字农科院2.0

Dynamics of heat shock protein responses to thermal stress changes after metamorphosis in a lepidopteran insect

文献类型： 外文期刊

作者： Yaozong Su;Xiangrui Li;Wei Zhang;Bo Zhang;Chun-Sen Ma

作者机构：

关键词： heat shock proteins;metamorphosis;oriental fruit moth;pupal thermal stress

期刊名称： Archives of Insect Biochemistry and Physiology

ISSN： 0739-4462

年卷期： 2021 年 107.0 卷 2.0 期

页码：

收录情况： JCR（2021版）

摘要： In the last decade, unexpected high temperatures have been frequent in spring and early summer. Numerous studies have shown that such thermal stress has substantial effects on life-history traits that influence fitness of insects, but few have examined expression dynamics of heat shock proteins (Hsps) across developmental stages, especially as regards potential carry-over effects at the transcriptional level across metamorphosis. We exposed pupae of the oriental fruit moth (“OFM,” Grapholita molesta Busck) to mild heat stress (38°C, 6 h) and then quantified expression patterns of six Hsps (Hsp90, 70, 60, 40, 21, and 11) from pupal through adult stages. Almost all Hsps showed a higher expression immediately after pupae were heat-stressed, but later dropped to normal levels after metamorphosis. Although upregulation of Hsps is transient and the effects carry over longer to early adult stage, upregulation will nonetheless have positive effects on adult fitness. The fitness of some insects may benefit from higher expression of chaperon genes after mild stress, in the form of higher fecundity and longer lifespan, as a carry-over effect. These results suggest that mild thermal stress can change genetic expression that later boosts adult fitness through a cascade effect. © 2021 Wiley Periodicals LLC

分类号：

  • 相关文献

[1]Molecular characterization of insulin receptor (IR) in oriental fruit moth, Grapholita molesta (Lepidoptera: Tortricidae), and elucidation of its regulatory roles in glucolipid homeostasis and metamorphosis through interaction with miR-982490. Fang, Haibo,Wang, Xiu,Liu, Xiaoxia,Michaud, J. P.,Wu, Yanan,Zhang, Huaijiang,Li, Yisong,Li, Zhen. 2022

[2]Cloning and expression of heat shock protein genes in two whitefly species in response to thermal stress. Wan, F. -H.,Yu, H.,Wan, F. -H..

[3]Molecular Characterization Of Primary Juvenile H.ormone Responders Methoprene-Tolerant (Met) A nd Kruppel Homolog 1 (Kr-H1) In Grapholita Molesta (Lepidoptera: Tortricidae) With Clarification Of Their Roles In Metamorphosis And Reproduction. Zhang, J, Liu, XX, Liu, YC, An, YQ, Fang, HB, Michaud, JP, Zhang, HJ, Li, YS, Zhang, QW, Li, Z. 2019

[4]Male accessory gland-derived carboxypeptidase B regulates sperm activation in the spermatophores of Grapholita molesta. Jie Cheng,Wei Wei,Yiyang Zhang,Fang Zhu,Zhongjian Shen,Xianwei Li,Yu Liang,Huiming Xiang,Ruiyan Ma. 2025

[5]Maturation of Eupyrene Sperm upon Ejaculation Is Influenced by a Male Accessory Gland-Derived Serine Protease in Grapholita molesta. Cheng, Jie,Guo, Tai,Zhou, Zhongyan,Wei, Wei,Liang, Yu,Xiang, Huiming,Ma, Ruiyan,Shen, Zhongjian,Zhao, Zhi-Guo. 2025

[6]Expression profile of cathepsin B in the fat body of Bombyx mori during metamorphosis. Roh, Jong Yul,Je, Yeon Ho,Lee, Kwang Sik,Kim, Bo Yeon,Choo, Young Moo,Sohn, Hung Dae,Jin, Byung Rae,Yoon, Hyung Joo,Kang, Pil Don,Woo, Soo Dong,Gui, Zhong Zheng.

[7]Ecdysone signaling induces two phases of cell cycle exit in Drosophila cells. Guo, Yongfeng,Flegel, Kerry,Buttitta, Laura A.,Kumar, Jayashree,McKay, Daniel J.,Kumar, Jayashree,McKay, Daniel J.,Guo, Yongfeng. 2016

[8]A de novo transcriptomic analysis to reveal functional genes in Apolygus lucorum. Liu, Yang,Wei, Jin-Jin,Li, Jian-Hong,Wang, Gui-Rong,Cao, De-Pan,Li, Jian-Hong. 2016

[9]Ecdysone receptor strongly influences larval–pupal–adult transition and melanization in Tuta absoluta. Wang X.,Wu J.,Guo J.,Yang N.,Wan F.,Lü Z.,Liu W.. 2024

[10]Effect of Diet and Metamorphosis on the Stable Isotopes of Ectropis grisescens (Lepidoptera: Geometridae). Syed Abdul Wadood,Xin Li,Hanyi Mei,Farzeen Asghar,Chunlin Li,Karyne M Rogers,Jing Nie,Shengzhi Shao,Wahab Ali Khan,Meijun Tang,Yuwei Yuan. 2025

[11]Roles of heat-shock protein 70 in protecting against intestinal mucosal damage. Wu, Xin,Zhang, Yuzhe,Yin, Yulong,Wu, Xin,Yin, Yulong,Ruan, Zheng,Wu, Xin,Yin, Yulong,Ruan, Zheng,Yu, Huimin,Wu, Zhenlong,Wu, Guoyao,Wu, Guoyao. 2013

[12]Heat-induced apoptosis and gene expression in bovine mammary epithelial cells. Hu, Han,Wang, Jiaqi,Gao, Haina,Li, Songli,Zhang, Yangdong,Zheng, Nan,Hu, Han,Wang, Jiaqi,Gao, Haina,Li, Songli,Zhang, Yangdong,Zheng, Nan,Hu, Han,Wang, Jiaqi,Gao, Haina,Li, Songli,Zhang, Yangdong,Zheng, Nan.

[13]Molecular cloning, characterization, and heterologous expression analysis of heat shock protein genes (hsp70 and hsp90) of the invasive alien weed, Ageratina adenophora (Asteraceae). Wan, Fang Hao,Guo, Jian Ying,Gong, Wei Na,Xie, Bing Yan.

[14]CHIP mediates down-regulation of nucleobindin-1 in preosteoblast cell line models. Xue, Fuying,Zhao, Xinghui,Zhao, Taoran,Meng, Ying,Guo, Junwei,Chen, Wei,Wu, Yanping,Zhao, Zhanzhong.

[15]Transcription dynamics of heat shock proteins in response to thermal acclimation in Ostrinia furnacalis. Yudong Quan,Zhenying Wang,Hongyi Wei,Kanglai He. 2022

[16]Genome-Wide Identification and Analysis of the Heat-Shock Protein Gene Superfamily in Bemisia tabaci and Expression Pattern Analysis under Heat Shock. Hao Yuan Zheng,Peng Hao Qin,Kun Yang,Tong Xian Liu,You Jun Zhang,Dong Chu. 2022

[17]Whirly1 Regulates Hsp21.5A Expression To Promote Thermotolerance In Tomato. Zhuang, KY, Gao, YY, Liu, ZB, Diao, PF, Sui, N, Meng, QW, Meng, C, Kong, FY. 2020

[18]A haplotype-resolved genome for Rhododendron x pulchrum and the expression analysis of heat shock genes. Shen, Jian-Shuang,Lan, Lan,Kan, Sheng-Long,Cheng, He-Feng,Peng, Dan,Wan, Zi-Yun,Hu, Yue,Huang, Xiao-Ling,Li, Xue-Qin,Ye, Yuan-Jun,Tembrock, Luke R.,Wu, Zhi-Qiang,Jin, Song-Heng. 2023

作者其他论文 更多>>