数字农科院2.0

Extreme climate shifts pest dominance hierarchy through thermal evolution and transgenerational plasticity

文献类型： 外文期刊

作者： Liang Zhu;Ary A. Hoffmann;Shi Min Li;Chun Sen Ma

作者机构：

关键词： cereal aphids;climate change;dominance shift;eco-evolutionary dynamics;evolution;extreme temperature events;thermal selection;transgenerational plasticity

期刊名称： Functional Ecology

ISSN： 0269-8463

年卷期： 2021 年 35.0 卷 7.0 期

页码：

收录情况： JCR（2021版）

摘要： Dominance hierarchy, the dominance ranking of members in a community, is determined by the relative population fitness of coexisting species. Climate change can shift dominance hierarchies depending on how species respond to changing climate, but ecological mechanisms underlying such shifts remain largely unknown. Specifically, dominance hierarchy shifts under climate change have rarely been linked to eco-evolutionary responses to thermal extremes, which we consider in this study. We conducted an 8-year field survey to link extreme high-temperature events to the shift in dominance hierarchy of two worldwide cereal aphid species (Rhopalosiphum padi and Sitobion avenae), which may respond rapidly through evolutionary or plastic responses to thermal extremes due to their short generation duration, clonal structure and high thermal sensitivity. To further understand the mechanism involved in this change in species' dominance, we characterised aphid heat tolerance and demography of the two species sourced from relatively mild (Xinxiang) and hot (Wuhan) locations in a common garden design and compared the same measures in up- and down-selected lines of the two aphid species. We found that accumulation of extreme high-temperature events (EHTs) affected per capita growth rate of S. avenae but not R. padi, driving a shift in annual relative dominance of these two common species in wheat fields. Furthermore, evidence from common garden tests and artificial thermal selection revealed that evolutionary and plastic changes in thermal tolerance under EHTs were species-dependent; R. padi evolved higher heat tolerance without reducing fitness while S. avenae did not evolve heat tolerance but showed detrimental transgenerational plastic changes under thermal extremes. Rhopalosiphum padi may take over the dominant position of S. avenae in a warmer future, due to a higher evolutionary potential of heat tolerance and less detrimental plasticity following selection. Field surveys and laboratory experiments together point to a shift in species dominance related to interspecific differences in species' evolutionary rates and transgenerational plasticity of thermal traits during selection events associated with extreme climatic conditions. This study highlights that eco-evolutionary dynamics can contribute to community responses to natural thermal extremes. A free Plain Language Summary can be found within the Supporting Information of this article.

分类号：

  • 相关文献

[1]Life stages of an aphid living under similar thermal conditions differ in thermal performance. Xing, Kun,Zhao, Fei,Ma, Chun-sen,Hoffmann, Ary A..

[2]Interactions of elevated carbon dioxide and temperature with aphid feeding on transgenic oilseed rape: Are Bacillus thuringiensis (Bt) plants more susceptible to nontarget herbivores in future climate?. Himanen, Sari J.,Nissinen, Anne,Nerg, Anne-Marja,Holopainen, Jarmo K.,Nissinen, Anne,Dong, Wen-Xia,Stewart, C. Neal, Jr.,Poppy, Guy M..

[3]Growth stage-dependent extreme temperature stresses on crop yield. Wenling Ren,Guanpeng Dong,Yuchen Guo,Jiazhe Zhu,Zhonglei Yu,Yadong Yang,Yaqiu Zhu,Hongjuan Zhang,Hang Zhang,Changhong Miao. 2025

[4]Density Estimation of Ground-Dwelling Predators in Wheat Fields of Northwest China. Yu, MingFu,Liu, JiaYang,Ali, Abid,Ali, Abid,Li, Keming,Khuhro, Niaz Hussain. 2016

[5]NATURAL CONTROL OF CEREAL APHIDS (HOMOPTERA, APHIDIDAE) BY ENTOMOPATHOGENIC FUNGI (ZYGOMYCETES, ENTOMOPHTHORALES) AND PARASITOIDS (HYMENOPTERA, BRACONIDAE AND ENCYRTIDAE) ON IRRIGATED SPRING WHEAT IN SOUTHWESTERN IDAHO. FENG, MG,JOHNSON, JB,HALBERT, SE. 1991

[6]BIOASSAY OF 4 ENTOMOPHTHORALEAN FUNGI (ENTOMOPHTHORALES) AGAINST DIURAPHIS-NOXIA AND METOPOLOPHIUM-DIRHODUM (HOMOPTERA, APHIDIDAE). FENG, MG,JOHNSON, JB. 1991

[7]Life Stages Of An Aphid L.iving Under Similar Thermal C onditions Differ In Thermal Performance. Zhao, Fei,Hoffmann, Ary A.,Xing, Kun,Ma, Chun-sen,Zhao, Fei. 2017

[8]Interspecific differences in thermal tolerance landscape explain aphid community abundance under climate change. Yuan Jie Li,Si Yang Chen,Lisa Bjerregaard Jørgensen,Johannes Overgaard,David Renault,Hervé Colinet,Chun Sen Ma. 2023

[9]Physiology And Defense Responses Of Wheat To The Infestation Of Different Cereal Aphids. Liu, FH, Kang, ZW, Tan, XL, Fan, YL, Tian, HG, Liu, TX. 2020

[10]Divergent Molecular Evolution In Glutathione S-Transferase Conferring Malathion Resistance In The Oriental Fruit Fly, Bactrocera Dorsalis (Hendel). Xu, Li,Niu, Jinzhi,Meng, Li-Wei,Wang, Jin-Jun,Meng, Li-Wei,Niu, Jinzhi,Wang, Luo-Luo,Wang, Jin-Jun,Xu, Li,Lu, Xue-Ping. 2020

[11]Desmoglein 4 diversity and correlation analysis with coat color in goat. E, G. X.,Zhao, Y. J.,Na, R. S.,Zhao, Z. Q.,Jiang, C. D.,Zhang, J. H.,Chen, L. P.,Qiu, X. Y.,Hu, W.,Huang, Y. F.,Ma, Y. H.,Cao, G. L.,He, J. N.,Arlvd, S.. 2016

[12]The pattern of Phosphate transporter 1 genes evolutionary divergence in Glycine max L.. Fan, Chengming,Wang, Xu,Xiao, Chaowen,Jiang, Ying,Zhang, Xiaomei,Fu, Yong-Fu,Hu, Ruibo,Wang, Yahui,Zheng, Changying. 2013

[13]Antiviral Activity of The Host Restriction Factor Tetherin. Yin Xin,Wang Xiao-Jun,Yin Xin,Wei Ping. 2014

[14]Evolution of the cyclin gene family in plants. Jia, Rui-Dong,Guo, Chun-Ce,Xu, Gui-Xia,Shan, Hong-Yan,Kong, Hong-Zhi,Jia, Rui-Dong,Jia, Rui-Dong. 2014

[15]Molecular and geographic evolutionary support for the essential role of GIGANTEAa in soybean domestication of flowering time. Wang, Yan,Gu, Yongzhe,Gao, Huihui,He, Chaoying,Gu, Yongzhe,Gao, Huihui,Qiu, Lijuan,Chang, Ruzhen,Chen, Shouyi. 2016

[16]Transcriptome Characterization of Gnetum parvifolium Reveals Candidate Genes Involved in Important Secondary Metabolic Pathways of Flavonoids and Stilbenoids. Deng, Nan,Chang, Ermei,Ji, Jing,Yao, Xiamei,Liu, Jianfeng,Ma, Jing,Jiang, Zeping,Shi, Shengqing,Li, Minghe,Banish, Igor V.,Chen, Lanzhen,Chen, Lanzhen. 2016

[17]Mutational analysis of the SDD sequence motif of a PRRSV RNA-dependent RNA polymerase. Zhou Yan,Zheng HaiHong,Gao Fei,Tian DeBin,Yuan ShiShan. 2011

[18]Analysis of codon usage bias of envelope glycoprotein genes in nuclear polyhedrosis virus (NPV) and its relation to evolution. Zheng, Hao,Yan, Donghua,Jiang, Zijian,Qi, Qi,Sun, Jingchen,Xu, Anying. 2016

[19]Concerted evolution of D1 and D2 to regulate chlorophyll degradation in soybean. Li, Congcong,Li, Weiyu,Wang, Zheng,Zhou, Zhengkui,Shen, Yanting,Wu, Mian,Wu, Yunshuai,Liu, Cuimin,Tian, Zhixi,Fang, Chao,Li, Congcong,Shen, Yanting,Li, Guiquan,Kong, Ling-An,Jackson, Scott A.. 2014

[20]Phenylalanine ammonia-lyase gene families in cucurbit species: Structure, evolution, and expression. Dong Chun-juan,Cao Ning,Zhang Zhi-gang,Shang Qing-mao. 2016

作者其他论文 更多>>