Cargando…

Genomic and transcriptomic analysis unveils population evolution and development of pesticide resistance in fall armyworm Spodoptera frugiperda

The fall armyworm (FAW), Spodoptera frugiperda, is a destructive pest native to America and has recently become an invasive insect pest in China. Because of its rapid spread and great risks in China, understanding of FAW genetic background and pesticide resistance is urgent and essential to develop...

Descripción completa

Detalles Bibliográficos
Autores principales: Gui, Furong, Lan, Tianming, Zhao, Yue, Guo, Wei, Dong, Yang, Fang, Dongming, Liu, Huan, Li, Haimeng, Wang, Hongli, Hao, Ruoshi, Cheng, Xiaofang, Li, Yahong, Yang, Pengcheng, Sahu, Sunil Kumar, Chen, Yaping, Cheng, Le, He, Shuqi, Liu, Ping, Fan, Guangyi, Lu, Haorong, Hu, Guohai, Dong, Wei, Chen, Bin, Jiang, Yuan, Zhang, Yongwei, Xu, Hanhong, Lin, Fei, Slippers, Bernard, Postma, Alisa, Jackson, Matthew, Abate, Birhan Addisie, Tesfaye, Kassahun, Demie, Aschalew Lemma, Bayeleygne, Meseret Destaw, Degefu, Dawit Tesfaye, Chen, Feng, Kuria, Paul K., Kinyua, Zachary M., Liu, Tong-Xian, Yang, Huanming, Huang, Fangneng, Liu, Xin, Sheng, Jun, Kang, Le
Formato: Online Artículo Texto
Lenguaje:English
Publicado: Higher Education Press 2020
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9226219/
https://www.ncbi.nlm.nih.gov/pubmed/33108584
http://dx.doi.org/10.1007/s13238-020-00795-7
_version_ 1784733817996574720
author Gui, Furong
Lan, Tianming
Zhao, Yue
Guo, Wei
Dong, Yang
Fang, Dongming
Liu, Huan
Li, Haimeng
Wang, Hongli
Hao, Ruoshi
Cheng, Xiaofang
Li, Yahong
Yang, Pengcheng
Sahu, Sunil Kumar
Chen, Yaping
Cheng, Le
He, Shuqi
Liu, Ping
Fan, Guangyi
Lu, Haorong
Hu, Guohai
Dong, Wei
Chen, Bin
Jiang, Yuan
Zhang, Yongwei
Xu, Hanhong
Lin, Fei
Slippers, Bernard
Postma, Alisa
Jackson, Matthew
Abate, Birhan Addisie
Tesfaye, Kassahun
Demie, Aschalew Lemma
Bayeleygne, Meseret Destaw
Degefu, Dawit Tesfaye
Chen, Feng
Kuria, Paul K.
Kinyua, Zachary M.
Liu, Tong-Xian
Yang, Huanming
Huang, Fangneng
Liu, Xin
Sheng, Jun
Kang, Le
author_facet Gui, Furong
Lan, Tianming
Zhao, Yue
Guo, Wei
Dong, Yang
Fang, Dongming
Liu, Huan
Li, Haimeng
Wang, Hongli
Hao, Ruoshi
Cheng, Xiaofang
Li, Yahong
Yang, Pengcheng
Sahu, Sunil Kumar
Chen, Yaping
Cheng, Le
He, Shuqi
Liu, Ping
Fan, Guangyi
Lu, Haorong
Hu, Guohai
Dong, Wei
Chen, Bin
Jiang, Yuan
Zhang, Yongwei
Xu, Hanhong
Lin, Fei
Slippers, Bernard
Postma, Alisa
Jackson, Matthew
Abate, Birhan Addisie
Tesfaye, Kassahun
Demie, Aschalew Lemma
Bayeleygne, Meseret Destaw
Degefu, Dawit Tesfaye
Chen, Feng
Kuria, Paul K.
Kinyua, Zachary M.
Liu, Tong-Xian
Yang, Huanming
Huang, Fangneng
Liu, Xin
Sheng, Jun
Kang, Le
author_sort Gui, Furong
collection PubMed
description The fall armyworm (FAW), Spodoptera frugiperda, is a destructive pest native to America and has recently become an invasive insect pest in China. Because of its rapid spread and great risks in China, understanding of FAW genetic background and pesticide resistance is urgent and essential to develop effective management strategies. Here, we assembled a chromosome-level genome of a male FAW (SFynMstLFR) and compared re-sequencing results of the populations from America, Africa, and China. Strain identification of 163 individuals collected from America, Africa and China showed that both C and R strains were found in the American populations, while only C strain was found in the Chinese and African populations. Moreover, population genomics analysis showed that populations from Africa and China have close relationship with significantly genetic differentiation from American populations. Taken together, FAWs invaded into China were most likely originated from Africa. Comparative genomics analysis displayed that the cytochrome p450 gene family is extremely expanded to 425 members in FAW, of which 283 genes are specific to FAW. Treatments of Chinese populations with twenty-three pesticides showed the variant patterns of transcriptome profiles, and several detoxification genes such as AOX, UGT and GST specially responded to the pesticides. These findings will be useful in developing effective strategies for management of FAW in China and other invaded areas. ELECTRONIC SUPPLEMENTARY MATERIAL: The online version of this article (10.1007/s13238-020-00795-7) contains supplementary material, which is available to authorized users.
format Online
Article
Text
id pubmed-9226219
institution National Center for Biotechnology Information
language English
publishDate 2020
publisher Higher Education Press
record_format MEDLINE/PubMed
spelling pubmed-92262192022-06-25 Genomic and transcriptomic analysis unveils population evolution and development of pesticide resistance in fall armyworm Spodoptera frugiperda Gui, Furong Lan, Tianming Zhao, Yue Guo, Wei Dong, Yang Fang, Dongming Liu, Huan Li, Haimeng Wang, Hongli Hao, Ruoshi Cheng, Xiaofang Li, Yahong Yang, Pengcheng Sahu, Sunil Kumar Chen, Yaping Cheng, Le He, Shuqi Liu, Ping Fan, Guangyi Lu, Haorong Hu, Guohai Dong, Wei Chen, Bin Jiang, Yuan Zhang, Yongwei Xu, Hanhong Lin, Fei Slippers, Bernard Postma, Alisa Jackson, Matthew Abate, Birhan Addisie Tesfaye, Kassahun Demie, Aschalew Lemma Bayeleygne, Meseret Destaw Degefu, Dawit Tesfaye Chen, Feng Kuria, Paul K. Kinyua, Zachary M. Liu, Tong-Xian Yang, Huanming Huang, Fangneng Liu, Xin Sheng, Jun Kang, Le Protein Cell Research Article The fall armyworm (FAW), Spodoptera frugiperda, is a destructive pest native to America and has recently become an invasive insect pest in China. Because of its rapid spread and great risks in China, understanding of FAW genetic background and pesticide resistance is urgent and essential to develop effective management strategies. Here, we assembled a chromosome-level genome of a male FAW (SFynMstLFR) and compared re-sequencing results of the populations from America, Africa, and China. Strain identification of 163 individuals collected from America, Africa and China showed that both C and R strains were found in the American populations, while only C strain was found in the Chinese and African populations. Moreover, population genomics analysis showed that populations from Africa and China have close relationship with significantly genetic differentiation from American populations. Taken together, FAWs invaded into China were most likely originated from Africa. Comparative genomics analysis displayed that the cytochrome p450 gene family is extremely expanded to 425 members in FAW, of which 283 genes are specific to FAW. Treatments of Chinese populations with twenty-three pesticides showed the variant patterns of transcriptome profiles, and several detoxification genes such as AOX, UGT and GST specially responded to the pesticides. These findings will be useful in developing effective strategies for management of FAW in China and other invaded areas. ELECTRONIC SUPPLEMENTARY MATERIAL: The online version of this article (10.1007/s13238-020-00795-7) contains supplementary material, which is available to authorized users. Higher Education Press 2020-10-27 2022-07 /pmc/articles/PMC9226219/ /pubmed/33108584 http://dx.doi.org/10.1007/s13238-020-00795-7 Text en © The Author(s) 2020 https://creativecommons.org/licenses/by/4.0/Open AccessThis article is licensed under a Creative Commons Attribution 4.0 International License, which permits use, sharing, adaptation, distribution and reproduction in any medium or format, as long as you give appropriate credit to the original author(s) and the source, provide a link to the Creative Commons licence, and indicate if changes were made. The images or other third party material in this article are included in the article's Creative Commons licence, unless indicated otherwise in a credit line to the material. If material is not included in the article's Creative Commons licence and your intended use is not permitted by statutory regulation or exceeds the permitted use, you will need to obtain permission directly from the copyright holder. To view a copy of this licence, visit http://creativecommons.org/licenses/by/4.0/ (https://creativecommons.org/licenses/by/4.0/) .
spellingShingle Research Article
Gui, Furong
Lan, Tianming
Zhao, Yue
Guo, Wei
Dong, Yang
Fang, Dongming
Liu, Huan
Li, Haimeng
Wang, Hongli
Hao, Ruoshi
Cheng, Xiaofang
Li, Yahong
Yang, Pengcheng
Sahu, Sunil Kumar
Chen, Yaping
Cheng, Le
He, Shuqi
Liu, Ping
Fan, Guangyi
Lu, Haorong
Hu, Guohai
Dong, Wei
Chen, Bin
Jiang, Yuan
Zhang, Yongwei
Xu, Hanhong
Lin, Fei
Slippers, Bernard
Postma, Alisa
Jackson, Matthew
Abate, Birhan Addisie
Tesfaye, Kassahun
Demie, Aschalew Lemma
Bayeleygne, Meseret Destaw
Degefu, Dawit Tesfaye
Chen, Feng
Kuria, Paul K.
Kinyua, Zachary M.
Liu, Tong-Xian
Yang, Huanming
Huang, Fangneng
Liu, Xin
Sheng, Jun
Kang, Le
Genomic and transcriptomic analysis unveils population evolution and development of pesticide resistance in fall armyworm Spodoptera frugiperda
title Genomic and transcriptomic analysis unveils population evolution and development of pesticide resistance in fall armyworm Spodoptera frugiperda
title_full Genomic and transcriptomic analysis unveils population evolution and development of pesticide resistance in fall armyworm Spodoptera frugiperda
title_fullStr Genomic and transcriptomic analysis unveils population evolution and development of pesticide resistance in fall armyworm Spodoptera frugiperda
title_full_unstemmed Genomic and transcriptomic analysis unveils population evolution and development of pesticide resistance in fall armyworm Spodoptera frugiperda
title_short Genomic and transcriptomic analysis unveils population evolution and development of pesticide resistance in fall armyworm Spodoptera frugiperda
title_sort genomic and transcriptomic analysis unveils population evolution and development of pesticide resistance in fall armyworm spodoptera frugiperda
topic Research Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9226219/
https://www.ncbi.nlm.nih.gov/pubmed/33108584
http://dx.doi.org/10.1007/s13238-020-00795-7
work_keys_str_mv AT guifurong genomicandtranscriptomicanalysisunveilspopulationevolutionanddevelopmentofpesticideresistanceinfallarmywormspodopterafrugiperda
AT lantianming genomicandtranscriptomicanalysisunveilspopulationevolutionanddevelopmentofpesticideresistanceinfallarmywormspodopterafrugiperda
AT zhaoyue genomicandtranscriptomicanalysisunveilspopulationevolutionanddevelopmentofpesticideresistanceinfallarmywormspodopterafrugiperda
AT guowei genomicandtranscriptomicanalysisunveilspopulationevolutionanddevelopmentofpesticideresistanceinfallarmywormspodopterafrugiperda
AT dongyang genomicandtranscriptomicanalysisunveilspopulationevolutionanddevelopmentofpesticideresistanceinfallarmywormspodopterafrugiperda
AT fangdongming genomicandtranscriptomicanalysisunveilspopulationevolutionanddevelopmentofpesticideresistanceinfallarmywormspodopterafrugiperda
AT liuhuan genomicandtranscriptomicanalysisunveilspopulationevolutionanddevelopmentofpesticideresistanceinfallarmywormspodopterafrugiperda
AT lihaimeng genomicandtranscriptomicanalysisunveilspopulationevolutionanddevelopmentofpesticideresistanceinfallarmywormspodopterafrugiperda
AT wanghongli genomicandtranscriptomicanalysisunveilspopulationevolutionanddevelopmentofpesticideresistanceinfallarmywormspodopterafrugiperda
AT haoruoshi genomicandtranscriptomicanalysisunveilspopulationevolutionanddevelopmentofpesticideresistanceinfallarmywormspodopterafrugiperda
AT chengxiaofang genomicandtranscriptomicanalysisunveilspopulationevolutionanddevelopmentofpesticideresistanceinfallarmywormspodopterafrugiperda
AT liyahong genomicandtranscriptomicanalysisunveilspopulationevolutionanddevelopmentofpesticideresistanceinfallarmywormspodopterafrugiperda
AT yangpengcheng genomicandtranscriptomicanalysisunveilspopulationevolutionanddevelopmentofpesticideresistanceinfallarmywormspodopterafrugiperda
AT sahusunilkumar genomicandtranscriptomicanalysisunveilspopulationevolutionanddevelopmentofpesticideresistanceinfallarmywormspodopterafrugiperda
AT chenyaping genomicandtranscriptomicanalysisunveilspopulationevolutionanddevelopmentofpesticideresistanceinfallarmywormspodopterafrugiperda
AT chengle genomicandtranscriptomicanalysisunveilspopulationevolutionanddevelopmentofpesticideresistanceinfallarmywormspodopterafrugiperda
AT heshuqi genomicandtranscriptomicanalysisunveilspopulationevolutionanddevelopmentofpesticideresistanceinfallarmywormspodopterafrugiperda
AT liuping genomicandtranscriptomicanalysisunveilspopulationevolutionanddevelopmentofpesticideresistanceinfallarmywormspodopterafrugiperda
AT fanguangyi genomicandtranscriptomicanalysisunveilspopulationevolutionanddevelopmentofpesticideresistanceinfallarmywormspodopterafrugiperda
AT luhaorong genomicandtranscriptomicanalysisunveilspopulationevolutionanddevelopmentofpesticideresistanceinfallarmywormspodopterafrugiperda
AT huguohai genomicandtranscriptomicanalysisunveilspopulationevolutionanddevelopmentofpesticideresistanceinfallarmywormspodopterafrugiperda
AT dongwei genomicandtranscriptomicanalysisunveilspopulationevolutionanddevelopmentofpesticideresistanceinfallarmywormspodopterafrugiperda
AT chenbin genomicandtranscriptomicanalysisunveilspopulationevolutionanddevelopmentofpesticideresistanceinfallarmywormspodopterafrugiperda
AT jiangyuan genomicandtranscriptomicanalysisunveilspopulationevolutionanddevelopmentofpesticideresistanceinfallarmywormspodopterafrugiperda
AT zhangyongwei genomicandtranscriptomicanalysisunveilspopulationevolutionanddevelopmentofpesticideresistanceinfallarmywormspodopterafrugiperda
AT xuhanhong genomicandtranscriptomicanalysisunveilspopulationevolutionanddevelopmentofpesticideresistanceinfallarmywormspodopterafrugiperda
AT linfei genomicandtranscriptomicanalysisunveilspopulationevolutionanddevelopmentofpesticideresistanceinfallarmywormspodopterafrugiperda
AT slippersbernard genomicandtranscriptomicanalysisunveilspopulationevolutionanddevelopmentofpesticideresistanceinfallarmywormspodopterafrugiperda
AT postmaalisa genomicandtranscriptomicanalysisunveilspopulationevolutionanddevelopmentofpesticideresistanceinfallarmywormspodopterafrugiperda
AT jacksonmatthew genomicandtranscriptomicanalysisunveilspopulationevolutionanddevelopmentofpesticideresistanceinfallarmywormspodopterafrugiperda
AT abatebirhanaddisie genomicandtranscriptomicanalysisunveilspopulationevolutionanddevelopmentofpesticideresistanceinfallarmywormspodopterafrugiperda
AT tesfayekassahun genomicandtranscriptomicanalysisunveilspopulationevolutionanddevelopmentofpesticideresistanceinfallarmywormspodopterafrugiperda
AT demieaschalewlemma genomicandtranscriptomicanalysisunveilspopulationevolutionanddevelopmentofpesticideresistanceinfallarmywormspodopterafrugiperda
AT bayeleygnemeseretdestaw genomicandtranscriptomicanalysisunveilspopulationevolutionanddevelopmentofpesticideresistanceinfallarmywormspodopterafrugiperda
AT degefudawittesfaye genomicandtranscriptomicanalysisunveilspopulationevolutionanddevelopmentofpesticideresistanceinfallarmywormspodopterafrugiperda
AT chenfeng genomicandtranscriptomicanalysisunveilspopulationevolutionanddevelopmentofpesticideresistanceinfallarmywormspodopterafrugiperda
AT kuriapaulk genomicandtranscriptomicanalysisunveilspopulationevolutionanddevelopmentofpesticideresistanceinfallarmywormspodopterafrugiperda
AT kinyuazacharym genomicandtranscriptomicanalysisunveilspopulationevolutionanddevelopmentofpesticideresistanceinfallarmywormspodopterafrugiperda
AT liutongxian genomicandtranscriptomicanalysisunveilspopulationevolutionanddevelopmentofpesticideresistanceinfallarmywormspodopterafrugiperda
AT yanghuanming genomicandtranscriptomicanalysisunveilspopulationevolutionanddevelopmentofpesticideresistanceinfallarmywormspodopterafrugiperda
AT huangfangneng genomicandtranscriptomicanalysisunveilspopulationevolutionanddevelopmentofpesticideresistanceinfallarmywormspodopterafrugiperda
AT liuxin genomicandtranscriptomicanalysisunveilspopulationevolutionanddevelopmentofpesticideresistanceinfallarmywormspodopterafrugiperda
AT shengjun genomicandtranscriptomicanalysisunveilspopulationevolutionanddevelopmentofpesticideresistanceinfallarmywormspodopterafrugiperda
AT kangle genomicandtranscriptomicanalysisunveilspopulationevolutionanddevelopmentofpesticideresistanceinfallarmywormspodopterafrugiperda