数字农科院2.0

Niche width and interspecific competition of wheat aphids Rhopalosiphum padi and Sitobion avenae are increased by simulated warming

文献类型： 外文期刊

作者： Li, Wei-Wei;Yan, Jia;Yang, Jiaqi;Zhang, Yunhui;Tan, Xiao-Ling

作者机构：

关键词： climate warming;global change;population dynamics;niche competition;life table

期刊名称： ENTOMOLOGIA GENERALIS

ISSN： 0171-8177

年卷期： 2025 年

页码：

收录情况： SCIE（2025版）

摘要： Climate warming exacerbates yield losses due to crop pests, but its influence on the distribution of Rhopalosiphum padi and Sitobion avenae, and consequent changes in their interspecific competition within multi-pest systems in wheat fields, remains poorly known. This study examined the impact of a 2 degrees C increase from 19 to 21 degrees C on the life table of two major aphid pests during wheat heading stage, the number of winged aphids, population dynamics in single- versus mixed- (interspecific competition) species systems, as well as their niche breadth (Bn) and niche overlap (LO) were analyzed. Results revealed that the warming increased the intrinsic rate of increase (rm) of both aphids in the lower leaves, while shortened the nymphal developmental period of both aphids. Additionally, R. padi exhibited higher rm compared to S. avenae. Warming significantly increased the abundance of both aphids but decreased the proportion of winged aphids. Moreover, Bn and LO increased when two aphids coexisted, which especially exacerbated competition in upper leaves of the wheat. The lower temperature favored the growth of S. avenae in the mix population. This advantage disappears when in the higher temperature. Consequently, warming promotes the population growth of both aphids, leading to their overlapping presence in the upper leaf of wheat and escalating interspecific competition. Under elevated temperatures, R. padi emerged as the more dominant species in mixed populations, emphasizing the significance of enhancing control measures against R. padi to guarantee high quality wheat yield in the future.

分类号：

  • 相关文献

[1]How Could Agricultural Land Systems Contribute to Raise Food Production Under Global Change?. Wu Wen-bin,Yu Qiang-yi,Yang Peng,Tang Hua-jun,Peter, Verburg H.,You Liang-zhi. 2014

[2]Simulation of future global warming scenarios in rice paddies with an open-field warming facility. Rehmani, Muhammad Ishaq Asif,Zhang, Jingqi,Li, Ganghua,Ata-Ul-Karim, Syed Tahir,Wang, Shaohua,Yan, Chuan,Liu, Zhenghui,Ding, Yanfeng,Rehmani, Muhammad Ishaq Asif,Zhang, Jingqi,Li, Ganghua,Wang, Shaohua,Yan, Chuan,Liu, Zhenghui,Ding, Yanfeng,Kimball, Bruce A.,Yan, Chuan. 2011

[3]Effects of warming and nitrogen deposition on the coupling mechanism between soil nitrogen and phosphorus in Songnen Meadow Steppe, northeastern China. Zhang, Nanyi,Song, Piao,Guo, Jixun,Gao, Yingzhi,Guo, Rui,Song, Piao.

[4]Evaluation of the livelihood vulnerability of pastoral households in Northern China to natural disasters and climate change. Ding, Wenqiang,Ren, Weibo,Li, Ping,Hou, Xiangyang,Li, Xiliang,Xie, Jihong,Ding, Yong,Sun, Xiaolong.

[5]Proposing an interdisciplinary and cross-scale framework for global change and food security researches. Yu, Qiangyi,Wu, Wenbin,Yang, Peng,Li, Zhengguo,Tang, Huajun,Yu, Qiangyi,Wu, Wenbin,Yang, Peng,Li, Zhengguo,Tang, Huajun,Xiong, Wei. 2012

[6]Generalist Predators Shape Biotic Resistance along a Tropical Island Chain. Kris A.G. Wyckhuys,Johanna Audrey Leatemia,Muhammad Zainal Fanani,Michael J. Furlong,Baogen Gu,Buyung Asmara Ratna Hadi,Jeffij Virgowat Hasinu,Maria C. Melo,Saartje Helena Noya,Aunu Rauf,Johanna Taribuka,Yubak Dhoj Gc. 2023

[7]Sustainability challenges for the social-environmental systems across the Asian Drylands Belt. Jiquan Chen,Ranjeet John,Jing Yuan,Elizabeth A. Mack,Pavel Groisman,Ginger Allington,Jianguo Wu,Peilei Fan,Kirsten M. De Beurs,Arnon Karnieli,Garik Gutman,Martin Kappas,Gang Dong,Fangyuan Zhao,Zutao Ouyang,Amber L. Pearson,Beyza Şat,Norman A. Graham,Changliang Shao,Anna K. Graham,Geoffrey M. Henebry,Zhichao Xue,Amarjargal Amartuvshin,Luping Qu,Hogeun Park,Xiaoping Xin,Jingyan Chen,Li Tian,Colt Knight,Maira Kussainova,Fei Li,Christine Fürst,Jiaguo Qi. 2022

[8]Significant loss of soil inorganic carbon at the continental scale. Song, Xiao-Dong,Yang, Fei,Wu, Hua-Yong,Zhang, Jing,Li, De-Cheng,Liu, Feng,Zhao, Yu-Guo,Yang, Jin-Ling,Ju, Bing,Cai, Chong-Fa,Huang, Biao,Long, Huai-Yu,Lu, Ying,Sui, Yue-Yu,Wang, Qiu-Bing,Wu, Ke-Ning,Zhang, Feng-Rong,Zhang, Ming-Kui,Shi, Zhou,Ma, Wan-Zhu,Xin, Gang,Qi, Zhi-Ping,Chang, Qing-Rui,Ci, En,Yuan, Da-Gang,Zhang, Yang-Zhu,Bai, Jun-Ping,Chen, Jia-Ying,Chen, Jie,Chen, Yin-Jun,Dong, Yun-Zhong,Han, Chun-Lan,Li, Ling,Liu, Li-Ming,Pan, Jian-Jun,Song, Fu-Peng,Sun, Fu-Jun,Wang, Deng-Feng,Wang, Tian-Wei,Wei, Xiang-Hua,Wu, Hong-Qi,Zhao, Xia,Zhou, Qing,Zhang, Gan-Lin. 2022

[9]Emerging Issues In Grassland Ecology Research: Perspectives For Advancing Grassland Studies In Nigeria. Jimoh, SO, Muraina, TO, Bello, SK, NourEldeen, N. 2020

[10]Eco-Asset Variations and Their Driving Factors in the Qinghai–Tibet Plateau, China, under the Context of Global Change. Xingming Yuan,Bing Guo,Miao Lu,Wenqian Zang,Chuan Liu,Baoyu Wang,Xiangzhi Huang. 2023

[11]Editorial: Soil carbon stability in forests in response to global change scenarios. Zhiyang Feng,Guangqiang Long,Xuebo Zheng,Daniela Zuzolo,Rudong Zhao. 2024

[12]Global scientific progress and shortfalls in biological control of the fall armyworm Spodoptera frugiperda. Wyckhuys K.A.G.,Akutse K.S.,Amalin D.M.,Araj S.-E.,Barrera G.,Beltran M.J.B.,Ben Fekih I.,Calatayud P.-A.,Cicero L.,Cokola M.C.,Colmenarez Y.C.,Dessauvages K.,Dubois T.,Durocher-Granger L.,Espinel C.,Fallet P.,Fernández-Triana J.L.,Francis F.,Gómez J.,Haddi K.,Harrison R.D.,Haseeb M.,Iwanicki N.S.A.,Jaber L.R.,Khamis F.M.,Legaspi J.C.,Lomeli-Flores R.J.,Lopes R.B.,Lyu B.,Montoya-Lerma J.,Montecalvo M.P.,Polaszek A.,Nguyen T.D.,Nurkomar I.,O'Hara J.E.,Perier J.D.,Ramírez-Romero R.,Sánchez-García F.J.,Robinson-Baker A.M.,Silveira L.C.,Simeon L.,Solter L.F.,Santos-Amaya O.F.,Talamas E.J.,de Souza Tavares W.,Trabanino R.,Turlings T.C.J.,Valicente F.H.,Vásquez C.,Wang Z.,Wengrat A.P.G.S.,Zang L.-S.,Zhang W.,Zimba K.J.,Wu K.,Elkahky M.,Hadi B.A.R.. 2024

[13]Transitioning towards dynamic, nature-based crop defenses: Dynamic, nature-based crop defenses: KAG Wyckhuys, X-W Wang and M Elkahky. Kris A.G. Wyckhuys,Xiao Wei Wang,Maged Elkahky. 2024

[14]Global response of soil phosphatase activity to land reclamation and vegetation restoration. Huaisong Wang,Mingming Wang,Jialing Xu,Yibo Tian,Jinyu Bai,Lei Zhang,Lianxuan Shi,Jixun Guo,Yingzhi Gao,Rui Guo,Tao Zhang. 2025

[15]Resin-coated urea effectively simulates the chronic dynamics of natural nitrogen deposition. Zhao, Yi,Ke, Yuguang,Wu, Honghui,Xu, Chong,Li, Xiwen,Hautier, Yann,Borer, Elizabeth T.,Yu, Qiang. 2025

[16]Long-Term Elevated CO2 Improves Soil Health and Rice Yields in Paddy Fields. Jiang, Fan,Du, Wenchao,van van Groenigen, Kees,Penuelas, Josep,Chang, Scott X.,Song, Lian,Cai, Chuang,Wang, Yu,Deng, Lin,Hu, Zhengkun,Shen, Weishou,Wu, Qicong,Yu, Haiyang,Yin, Ying,Ai, Fuxun,Zhou, Wei,Wang, Dongming,Sun, Jianqiang,Yan, Xiaoyuan,Shen, Renfang,Zhang, Jiabao,Guo, Hongyan,Zhu, Chunwu. 2025

[17]Grassland Conversion To Cropland Leads To Greater Influences of Climate Change on Variations of Carbon and Nitrogen in Subsoil than Topsoil. Tan, Qiqi,Liu, Libo,Dou, Pengpeng,Wang, Kun. 2025

[18]The Detection and Population Dynamics of Microbial Growth in Commercial Orange Juices in China. Liu, C. -Y.,Yang, X. -H.,Guo, D. -Q.,Hu, Q.,Zhou, Z. -Q.,Jiao, B. -N.. 2012

[19]Overwintering and population dynamics of Bemisia tabaci biotype B in greenhouse during the spring in northern China. Wu, K.,Zhang, Y.,Guo, Y.. 2007

[20]Field survival analyses of adult Diabrotica virgifera virgifera (Coleoptera: Chrysomelidae). Toepfer, Stefan,Toepfer, Stefan,Kuhlmann, Ulrich,Zellner, Michael,Szalai, Mark.

作者其他论文 更多>>