数字农科院2.0

Flavonoid production in tomato mediates both direct and indirect plant defences against whiteflies in tritrophic interactions

文献类型： 外文期刊

作者： Yang, Fengbo;Shen, Haowei;Huang, Tianyu;Yao, Qixi;Hu, Jinyu;Tang, Juan;Zhang, Rong;Tong, Hong;Wu, Qingjun;Zhang, Youjun;Su, Qi

作者机构：

关键词： Solanum lycopersicum;flavonoids;Bemisia tabaci;biological control;tritrophic interactions;integrated pest management

期刊名称： PEST MANAGEMENT SCIENCE

ISSN： 1526-498X

年卷期： 2023 年

页码：

收录情况： SCIE（2023版）

摘要： BACKGROUNDThe role of plant flavonoids in direct defences against chewing and sap-sucking herbivorous insects has been extensively characterized. However, little is known about flavonoid-mediated tritrophic interactions between plants, herbivorous insects and natural enemies. In this study, we investigated how flavonoids modulate plant-insect interactions in a tritrophic system involving near-isogenic lines (NILs) of cultivated tomato (Solanum lycopersicum) with high (line NIL-purple hypocotyl [PH]) and low (line NIL-green hypocotyl [GH]) flavonoid levels, with a generalist herbivore whitefly (Bemisia tabaci) and its predatory bug (Orius sauteri). RESULTSBy contrasting levels of tomato flavonoids (direct defence) while manipulating the presence of predators (indirect defence), we found that high production of flavonoids in tomato was associated with a higher inducibility of direct defences and a stronger plant resistance to whitefly infestation and stimulated the emissions of induced volatile organic compounds, thereby increasing the attractiveness of B. tabaci-infested plants to the predator O. sauteri. Furthermore, suppression of B. tabaci population growth and enhancement of plant growth were mediated directly by the high production of flavonoids and indirectly by the attraction of O. sauteri, and the combined effects were larger than each effect individually. CONCLUSIONOur results show that high flavonoid production in tomato enhances herbivore-induced direct and indirect defences to better defend against herbivores in tritrophic interactions. Thus, the development of transgenic plants may present an opportunity to utilize the beneficial role of flavonoids in integrated pest management, while simultaneously maintaining or improving resistance against other pests and pathogens. & COPY; 2023 Society of Chemical Industry.

分类号：

  • 相关文献

[1]Establishment of an in vitro method for evaluating whitefly resistance in tomato. Guo, Guangjun,Gao, Jianchang,Wang, Xiaoxuan,Guo, Yanmei,Du, Yongchen,Snyder, J. C..

[2]Herbivore-induced volatiles reduce the susceptibility of neighboring tomato plants to transmission of a whitefly-borne begomovirus. Yang, Fengbo,Huang, Tianyu,Tong, Hong,Shi, Xiaobin,Zhang, Rong,Gu, Weina,Li, Yue,Han, Peng,Zhang, Xiaoming,Yang, Yuting,Zhou, Zhixiong,Wu, Qingjun,Zhang, Youjun,Su, Qi. 2024

[3]Seed priming with rutin enhances tomato resistance against the whitefly Bemisia tabaci. Juan Tang,Haowei Shen,Rong Zhang,Fengbo Yang,Jinyu Hu,Jinting Che,Hongyan Dai,Hong Tong,Qingjun Wu,Youjun Zhang,Qi Su. 2023

[4]The potential invasion risk and preventive measures against the tomato leafminer Tuta absoluta in China. Zhang, Guifen,Liu, Wanxue,Wan, Fanghao,Han, Peng,Wang, Su,Desneux, Nicolas.

[5]Laboratory and field trials reveal the potential of a gel formulation of entomopathogenic nematodes for the biological control of fall armyworm caterpillars (Spodoptera frugiperda). Fallet P.,Bazagwira D.,Guenat J.M.,Bustos-Segura C.,Karangwa P.,Mukundwa I.P.,Kajuga J.,Degen T.,Toepfer S.,Turlings T.C.J.. 2022

[6]Invasiveness, biology, ecology, and management of the fall armyworm, Spodoptera frugiperda. Kenis, Marc,Benelli, Giovanni,Biondi, Antonio,Calatayud, Paul-Andre,Day, Roger,Desneux, Nicolas,Harrison, Rhett D.,Kriticos, Darren,Rwomushana, Ivan,van den Berg, Johnnie,Verheggen, Francois,Zhang, Yong-Jun,Agboyi, Lakpo Koku,Ahissou, Regis Besmer,Ba, Malick N.,Bernal, Julio,Bueno, Adeney de Freitas,Carriere, Yves,Carvalho, Geraldo Andrade,Chen, Xue-Xin,Cicero, Lizette,du Plessis, Hannalene,Early, Regan,Fallet, Patrick,Fiaboe, Komi K. M.,Firake, Dnyaneshwar M.,Goergen, Georg,Groot, Astrid T.,Guedes, Raul N. C.,Gupta, Ankita,Hu, Gao,Huang, Fn,Jaber, Lara R.,Malo, Edi A.,McCarthy, Christina B.,Meagher, Robert L., Jr.,Mohamed, Samira,Sanchez, David Mota,Nagoshi, Rodney N.,Negre, Nicolas,Niassy, Saliou,Ota, Noboru,Nyamukondiwa, Casper,Omoto, Celso,Palli, Subba Reddy,Pavela, Roman,Ramirez-Romero, Ricardo,Rojas, Julio C.,Subramanian, Sevgan,Tabashnik, Bruce E.,Tay, Wee Tek,Virla, Eduardo Gabriel,Wang, Su,Williams, Trevor,Zang, Lian-Sheng;. 2022

[7]Comparative Screening of Mexican, Rwandan and Commercial Entomopathogenic Nematodes to Be Used against Invasive Fall Armyworm, Spodoptera frugiperda. Patrick Fallet,Lara De Gianni,Ricardo A.R. Machado,Pamela Bruno,Julio S. Bernal,Patrick Karangwa,Joelle Kajuga,Bancy Waweru,Didace Bazagwira,Thomas Degen,Stefan Toepfer,Ted C.J. Turlings. 2022

[8]Flavonoid-producing tomato plants have a direct negative effect on the zoophytophagous biological control agent Orius sauteri. Yang, Fengbo,Zhang, Xinyi,Shen, Haowei,Xue, Hu,Tian, Tian,Zhang, Qinghe,Hu, Jinyu,Tong, Hong,Zhang, Youjun,Su, Qi. 2022

[9]Toxicity of chemical pesticides commonly used in maize to Trichogramma ostriniae (Hymenoptera: Trichogrammatidae), an egg parasitoid of Asian corn borer. Hongkun Tai,Feng Zhang,Chun Xiao,Rui Tang,Zhi Liu,Shuxiong Bai,Zhenying Wang. 2022

[10]Biology of fall armyworm – an introduction. Elvira S. de Lange,Yutao Xiao,Leo W. Beukeboom. 2023

[11]Entomopathogenic nematodes as an effective and sustainable alternative to control the fall armyworm in Africa. Fallet, Patrick,Bazagwira, Didace,Ruzzante, Livio,Ingabire, Geraldine,Levivier, Sacha,Bustos-Segura, Carlos,Kajuga, Joelle,Toepfer, Stefan,Turlings, Ted C. J.. 2024

[12]Management of Insect Pests on Tea Plantations: Safety, Sustainability, and Efficiency. Zongmao Chen,Zongxiu Luo. 2025

[13]Acute Toxicity of Dinotefuran to Picromerus lewisi Scott (Hemiptera: Pentatomidae) and Its Impact on Offspring Growth and Predation Ability in Integrated Pest Management. Ji, Yutong,Wang, Mengqing,Xue, Chuanzhen,Mao, Jianjun,Li, Yuyan,Zhang, Lisheng. 2025

[14]Advancing towards a sustainable green management system (SGMS) for the sweet potato weevil, Cylas formicarius: a synthesis of traditional knowledge and modern innovations. Hua, Jinfeng,Li, Yanqing,Li, Zongyun,Ma, Daifu,He, Shuyan,Li, Chao,Zalucki, Myron P.,Gao, Yulin. 2026

[15]Plant essential oils in the management of Tuta absoluta (Meyrick): biological insights, classification, and mode of action. Swathy, Kannan,Vivekanandhan, Perumal,Sarayut, Pittarate,Siripan, Thanandon,Han, Peng,Zhang, Yibo,Patcharin, Krutmuang. 2026

[16]Mating and host density affect host feeding and parasitism in two species of whitefly parasitoids. Liu, Tong-Xian,Zang, Lian-Sheng,Shi, Shu-Sen,Zang, Lian-Sheng,Wan, Fang-Hao,Zhang, Fan. 2011

[17]Effects of rearing host species on the host-feeding capacity and parasitism of the whitefly parasitoid Encarsia formosa. Ruan, Changchun,Zang, Liansheng,Liu, Linzhou,Zang, Liansheng,Wan, Fanghao. 2014

[18]Analysis of Cry1Ab toxin bioaccumulation in a food chain of Bt rice, an herbivore and a predator. Ye, Gong-yin,Fang, Qi,Hu, Cui,Liu, Zhi-cheng,Peng, Yu-fa. 2009

[19]Ozone Degrades Common Herbivore-Induced Plant Volatiles: Does This Affect Herbivore Prey Location by Predators and Parasitoids?. Pinto, Delia M.,Blande, James D.,Nykanen, Riikka,Dong, Wen-Xia,Nerg, Anne-Marja,Holopainen, Jarmo K..

[20]Effect of parasitism on flight behavior of the soybean aphid, Aphis glycines. Wu, Kongming,Wyckhuys, Kris A. G.,Heimpel, George E..

作者其他论文 更多>>