数字农科院2.0

Gut Microbiota Affects Host Fitness of Fall Armyworm Feeding on Different Food Types

文献类型： 外文期刊

作者： Lin Ma;Daotong Wang;Qilin Ren;Jiaqi Sun;Lei Zhang;Yunxia Cheng;Xingfu Jiang

作者机构：

关键词： gut microbiota;host adaptation;life history;nutrient utilization;Spodoptera frugiperda

期刊名称： Insects

ISSN： 2075-4450

年卷期： 2024 年 15 卷 5 期

页码：

收录情况： SCIE（2024版）

摘要： The fall armyworm (FAW), Spodoptera frugiperda, seriously threatens food and cash crops. Maize, wheat, and even rice damage by FAWs have been reported in many areas of China. It is urgent to clarify the mechanism which FAWs adapt to different feeding hosts and develop effective control technologies. Two-sex life tables and 16s rDNA sequencing were used to determine the host fitness and gut microbial diversity of FAWs when fed four different food types. Considering the life history parameters, pupa weight, and nutrient utilization indexes, the host fitness of FAWs when fed different food types changed in descending order as follows: artificial diet, maize, wheat, and rice. The gut microbial composition and the diversity of FAWs when fed different food types were significantly different, and those changes were driven by low-abundant bacteria. The gut microbes of FAWs that were fed with maize had the highest diversity. The functions of the gut microbes with significant abundance differences were enriched in nutrient and vitamin metabolism and other pathways that were closely related to host adaptation. Furthermore, we identified five genera (Acinetobacter, Variovorax, Pseudomonas, Bacillus, and Serratia) and one genus (Rahnella) that were positively and negatively correlated with the host fitness, respectively. This study revealed the possible role of gut microbes in the host adaptation of FAWs.

分类号：

  • 相关文献

[1]Feeding experience on hairy vetch induces a loss of host-specific adaptation to maize and changes in the gut microbiota communities of the fall armyworm. Ma, Lin,Wang, Dao-Tong,Ren, Qi-Lin,Zhang, Lei,Cheng, Yun-Xia,Jiang, Xing-Fu. 2023

[2]Effects of dietary supplementation with palygorskite on nutrient utilization in weaned piglets. Lv, Yunfeng,Tang, Chaohua,Zhao, Qingyu,Zhang, Junmin,Lv, Yunfeng,Wang, Xiuqi.

[3]Diets supplementation with Bacillus subtilis and Macleaya cordata extract improve production performance and the metabolism of energy and nitrogen, while reduce enteric methane emissions in dairy cows. Jia P.,Tu Y.,Liu Z.,Li F.,Yan T.,Ma S.,Dong L.,Diao Q.. 2022

[4]Effects of Fermenting the Plant Fraction of a Complete Feed on the Growth Performance, Nutrient Utilization, Antioxidant Functions, Meat Quality, and Intestinal Microbiota of Broilers. Sun H.,Chen D.,Cai H.,Chang W.,Wang Z.,Liu G.,Deng X.,Chen Z.. 2022

[5]The Nutrient Expert decision support system improves nutrient use efficiency and environmental performance of radish in North China. Jia jia ZHANG,Wen cheng DING,Rong zong CUI,Ming yue LI,Sami ULLAH,Ping HE. 2022

[6]Potential application of polysaccharide mucilages as a substitute for emulsifiers: A review. Yadong Yang,Vijai Kumar Gupta,Yating Du,Mortaza Aghbashlo,Pau Loke Show,Junting Pan,Meisam Tabatabaei,Ahmad Rajaei. 2023

[7]Enhancing the Production Performance and Nutrient Utilization of Laying Hens by Augmenting Energy, Phosphorous and Calcium Deficient Diets with Fungal Phytase (Trichoderma reesei) Supplementation. Shoaib Ahmed Pirzado,Guohua Liu,Muhammad Adanan Purba,Huiyi Cai. 2024

[8]Dietary Replacement of Soybean Meal with Zanthoxylum bungeanum Seed Meal on Growth Performance, Blood Parameters, and Nutrient Utilization in Broiler Chickens. Xing Chen,Yang Li,Aijuan Zheng,Zedong Wang,Xu Wei,Shuzhen Li,Adanan Purba,Zhimin Chen,Guohua Liu. 2024

[9]VdP5CDH is involved in melanin formation, stress resistance and play a regulatory role in virulence of Verticillium dahliae. Wanqing Sun,Lihong Zhao,Jinglong Zhou,Hongjie Feng,Yalin Zhang,Zili Feng,Heqin Zhu,Feng Wei. 2024

[10]Adaptive strategies in parasitoid wasps: implications for enhanced biological control. Man, Xiaoming,Francis, Frederic,Megido, Rudy Caparros,Wan, Fanghao,Yang, Nianwan,Liu, Wanxue. 2025

[11]Comparative genomic analysis of the IId subtype family of Cryptosporidium parvum. Feng, Yaoyu,Li, Na,Feng, Yaoyu,Liu, Guangyuan,Li, Na,Roellig, Dawn M.,Kelley, Alyssa,Amer, Said,Xiao, Lihua,Amer, Said,Xiao, Lihua,Zhang, Longxian.

[12]Genome of the Giant Panda Roundworm Illuminates Its Host Shift and Parasitic Adaptation. Yue Xie,Sen Wang,Shuangyang Wu,Shenghan Gao,Qingshu Meng,Chengdong Wang,Jingchao Lan,Li Luo,Xuan Zhou,Jing Xu,Xiaobin Gu,Ran He,Zijiang Yang,Xuerong Peng,Songnian Hu,Guangyou Yang. 2022

[13]Population genetics of the cereal cyst nematode Heterodera avenae reveal geographical segregation and host adaptation. Hudie Shao,Linfeng Zhu,Zhiqiang Li,Ru Jiang,Shiming Liu,Wenkun Huang,Chuanren Li,Ling an Kong,Deliang Peng,Huan Peng. 2023

[14]Pangenomic analysis of Wolbachia provides insight into the evolution of host adaptation and cytoplasmic incompatibility factor genes. Bo Liu,Ye Song Ren,Cheng Yuan Su,Yoshihisa Abe,Dao Hong Zhu. 2023

[15]Chromosome-level genome of black cutworm provides novel insights into polyphagy and seasonal migration in insects. Minghui Jin,Bo Liu,Weigang Zheng,Conghui Liu,Zhenxing Liu,Yuan He,Xiaokang Li,Chao Wu,Ping Wang,Kaiyu Liu,Shigang Wu,Hangwei Liu,Swapan Chakrabarty,Haibin Yuan,Kenneth Wilson,Kongming Wu,Wei Fan,Yutao Xiao. 2023

[16]Genome degradation promotes Salmonella pathoadaptation by remodeling fimbriae-mediated proinflammatory response. Xiao Zhou,Xiamei Kang,Jiaqi Chen,Yan Song,Chenghao Jia,Lin Teng,Yanting Tang,Zhijie Jiang,Xianqi Peng,Xiaoxi Tao,Yiwei Xu,Linlin Huang,Xuebin Xu,Yaohui Xu,Tengfei Zhang,Shenye Yu,Jiansen Gong,Shaohui Wang,Yuqing Liu,Guoqiang Zhu,Corinna Kehrenberg,François Xavier Weill,Paul Barrow,Yan Li,Guoping Zhao,Min Yue. 2023

[17]Genome-wide analyses of glutathione S-transferase gene family and expression profiling among three haplotypes Aphis gossypii. Yaling Zhang,Muhammad Farhan,Hanjing Yang,Jun Zhao,Xiaoyan Ma,Shuai Zhang. 2025

[18]Chromosome-level genome assembly of Dendrothrips minowai and genomic analysis highlights distinct adaptations to high polyphenols in tea plants. Xiu, Chunli,Zhao, Dehai,Zhang, Jiahui,Liu, Haitao,Wang, Yusheng,Liu, Hangwei,Cai, Xiaoming,Luo, Zongxiu,Bian, Lei,Fu, Nanxia,Zhou, Li,Chen, Zongmao,Li, Zhaoqun. 2025

[19]Akt-FoxO signaling drives co-adaptation to insecticide and host plant stresses in an herbivorous insect. Zhang, Huihui,Gao, Haoli,Lin, Xumin,Yang, Baojun,Wang, Jingting,Yuan, Xiaowei,Zhang, Zhen,He, Tianshun,Liu, Zewen. 2025

[20]Integrated multiomics reveals host-virus coadaptation in persistent foot-and-mouth disease virus infection. Wang, Shuang,Zhang, Zhihui,Wei, Sumin,Huang, Guoliang,Yin, Shuanghui,Mu, Suyu,Dong, Hu,Sun, Shiqi,Guo, Huichen. 2025

作者其他论文 更多>>