数字农科院2.0

Virome of Giant Panda-Infesting Ticks Reveals Novel Bunyaviruses and Other Viruses That Are Genetically Close to Those from Giant Pandas

文献类型: 外文期刊

作者: Ma, Rui;Zhao, Min;Wang, Haoning;Hou, Rong;Qin, Kailin;Qian, Yu;Zhang, Han;Zhou, Yanshan;Wu, Wei;Gu, Jiang;Wang, Xiaochun;Shen, Quan;Liu, Songrui;Liu, Jiabin;Bi, Wenlei;Yu, Xiang;Yang, Shixing;Feng, Feifei;Li, Zusheng;Zhang, Long;Lan, G

作者机构:

关键词: ticks;tick-borne viruses;giant pandas;cross-species transmission;phylogenetic analysis

期刊名称: MICROBIOLOGY SPECTRUM

ISSN: 2165-0497

年卷期: 2022 年

页码:

收录情况: SCIE(2022版)

摘要: Tick infestations have been reported as one of the factors threatening the health of giant pandas, but studies of viral pathogens carried by ticks feeding on the blood of giant pandas are limited. To assess whether blood-sucking ticks of giant pandas can carry viral pathogens and if so, whether the viruses in ticks are associated with those previously detected in giant panda hosts, we determined the viromes of ticks detached from giant pandas in a field stocking area in Sichuan Province, southwest China. Using viral metagenomics we identified 32 viral species in ticks, half of which (including anellovirus [n = 9], circovirus [n = 3], and gemycircularvirus [n = 4]) showed homology to viruses carried by giant pandas and their associated host species (such as red pandas and mosquitoes) in the same living domain. Remarkably, several viruses in this study phylogenetically assigned as bunyavirus, hepe-like virus, and circovirus were detected with relatively high abundance, but whether these newly identified tick-associated viruses can replicate in ticks and then transmit to host animals during a blood meal will require further investigation. These findings further expand our understanding of the role of giant panda-infesting ticks in the local ecosystem, especially related to viral acquisition and transmission, and lay a foundation to assess the risk for giant panda exposure to tick-borne viruses. IMPORTANCE Ticks rank only second to mosquitoes as blood-feeding arthropods, capable of spreading pathogens (including viruses, bacteria, and parasites) to hosts during a blood meal. To better understand the relationship between viruses carried by ticks and viruses that have been reported in giant pandas, it is necessary to analyze the viromes of giant panda-parasitic blood-sucking ticks. This study collected 421 ticks on the body surface of giant pandas in Sichuan Province, China. We characterized the extensive genetic diversity of viruses harbored by these ticks and reported frequent communication of viruses between giant pandas and their ticks. While most of the virome discovered here are nonpathogenic viruses from giant pandas and potentially tick-specific viruses, we revealed some possible tick-borne viruses, represented by novel bunyaviruses. This research contributes to the literature because currently there are few studies on the virome of giant panda-infesting ticks. Ticks rank only second to mosquitoes as blood-feeding arthropods, capable of spreading pathogens (including viruses, bacteria, and parasites) to hosts during a blood meal. To better understand the relationship between viruses carried by ticks and viruses that have been reported in giant pandas, it is necessary to analyze the viromes of giant panda-parasitic blood-sucking ticks.

分类号:

  • 相关文献

[1]High diversity of piro plasm species carried by ticks from Qinghai, China. Zhi Li,Yuan Han,Jun long Liu,Xue yong Zhang,Xiuying Shen,Zhi hong Guo,Hong Yin,Hong Duo,Yong Fu. 2025

[2]Gut phageome of the giant panda (Ailuropoda melanoleuca) reveals greater diversity than relative species. Juan Lu,Haoning Wang,Chunmei Wang,Min Zhao,Rong Hou,Quan Shen,Shixing Yang,Likai Ji,Yuwei Liu,Xiaochun Wang,Songrui Liu,Tongling Shan,Wen Zhang. 2023

[3]Viral metagenomics unveiled extensive communications of viruses within giant pandas and their associated organisms in the same ecosystem. Min Zhao,Chanjuan Yue,Zijun Yang,Yunli Li,Dongsheng Zhang,Ju Zhang,Shixing Yang,Quan Shen,Xiaoyan Su,Dunwu Qi,Rui Ma,Yuqing Xiao,Rong Hou,Xia Yan,Lin Li,Yanshan Zhou,Jiabin Liu,Xiaochun Wang,Wei Wu,Wen Zhang,Tongling Shan,Songrui Liu. 2022

[4]Characterization of parainfluenza virus 5 from diarrheic piglet highlights its zoonotic potential. Ibrahim, Yassein M.,Zhang, Wenli,Werid, Gebremeskel Mamu,Zhang, He,Pan, Yu,Zhang, Lin,Xu, Yunfei,Li, Changwen,Chen, Hongyan,Wang, Yue. 2022

[5]Role of feline ANP32 proteins in regulating polymerase activity of influenza A virus. Lu G.,Zheng F.,Xiao Y.,Shao R.,Ou J.,Yin X.,Li S.,Zhang G.. 2024

[6]Proteomic analysis of castor bean tick Ixodes ricinus: a focus on chemosensory organs. Dani, Francesca Romana,Ban, Liping,Song, Limei,Pelosi, Paolo,Dani, Francesca Romana.

[7]Comparative Profiling of MicroRNAs in Male and Female Rhipicephalus sanguineus. Shao, Chang-Chun,Tao, Jian-Ping,Xu, Min-Jun,Zhu, Xing-Quan,Chen, Yi-Zhou.

[8]The life cycle of Hyalomma rufipes (Acari: Ixodidae) under laboratory conditions. Chen, Ze,Li, Youquan,Liu, Zhijie,Yang, Jifei,Yin, Hong. 2012

[9]Molecular Evidence of Bartonella melophagi in Ticks in Border Areas of Xinjiang, China. Jun Ni,Qiaoyun Ren,Hanliang Lin,Malike Aizezi,Jin Luo,Yi Luo,Zhan Ma,Ze Chen,Wenge Liu,Junhui Guo,Zhiqiang Qu,Xiaofeng Xu,Zegong Wu,Yangchun Tan,Jinming Wang,Youquan Li,Guiquan Guan,Jianxun Luo,Hong Yin,Guangyuan Liu. 2021

[10]Tick distribution and detection of Babesia and Theileria species in Eastern and Southern Kazakhstan. Chunli Sang,Meihua Yang,Bin Xu,Guangyuan Liu,Yicheng Yang,Kenesbay Kairullayev,Otarbayev Bauyrzhan,Wurelihazi Hazihan,Sándor Hornok,Yuanzhi Wang. 2021

[11]Proteomics reveals the hemolymph components of partially fed Hyalomma asiaticum ticks. Yuan C.,Yang Q.,Wu J.,Peng Y.,Li Y.,Xiong S.,Zhou J.,Wang M.,Hu Z.,Zou Z.,Xia Q.. 2022

[12]The Characteristic Analysis of Ribosomal Protein L12 in Haemaphysalis longicornis (Acari: Ixodidae) Ticks [Haemaphysalis longicornis (Akar: Ixodidae) Kenelerinde Ribozomal Protein L12’nin Karakteristik Analizi]. Jin Luo,Wenge Liu,Qiaoyun Ren,Xiaokai Song,Ruofeng Yan,Guangyuan Liu,Xiangrui Li. 2022

[13]Characterization of an MLP Homologue from Haemaphysalis longicornis (Acari: Ixodidae) Ticks. Luo, Jin,Luo, Jin,Chen, Ronggui,Yin, Hong,Zhao, Bo,Zhao, Hongying,Shen, Hui,Li, Xiangrui,Ren, Qiaoyun,Guan, Guiquan,Yin, Hong,Luo, Jianxun,Liu, Guangyuan. 2020

[14]Comparative Analysis Of Microrna Profiles B.etween Wild And Cultured H aemaphysalis Longicornis (Acari, Ixodidae) Ticks. Luo, J,Ren, QY,Chen, Z,Liu, WG,Qu, ZA,Xiao, RH,Chen, RG,Lin, HL,Wu, ZG,Luo, JX,Yin, H,Wang, H,Liu, GY. 2019

[15]Epidemiological Survey Of Ticks And T.ick-Borne Pathogens In Pet D ogs In South-Eastern China. Zhang, JW, Liu, QB, Wang, DM, Li, WM, Beugnet, F, Zhou, JL. 2017

[16]Micropathogen community identification in ticks (Acari: Ixodidae) using third-generation sequencing. Jin Luo,Qiaoyun Ren,Wenge Liu,Xiangrui Li,Hong Yin,Mingxin Song,Bo Zhao,Guiquan Guan,Jianxun Luo,Guangyuan Liu. 2021

[17]Molecular Characterization and Gene Expression Analysis of Aquaporin in Haemaphysalis qinghaiensis. Qingli Niu,Rongzeng Hao,Yuping Pan,Zhijie Liu,Jifei Yang,Guiquan Guan,Jianxun Luo,Hong Yin. 2022

[18]Discovery and vertical transmission analysis of Dabieshan Tick Virus in Haemaphysalis longicornis ticks from Chengde, China. Xu, Xiaofeng,Gao, Zhihua,Wu, Youhong,Yin, Hong,Ren, Qiaoyun,Zhang, Jie,Liu, Yongsheng,Yang, Shunli,Bayasgalan, Chimedtseren,Tserendorj, Ariunaa,Yang, Xiaolong,Chen, Ze. 2024

[19]Role of Recognition MicroRNAs in Hemaphysalis longicornis and Theileria orientalis Interactions. Jin Luo,Shuaiyang Zhao,Qiaoyun Ren,Guiquan Guan,Jianxun Luo,Hong Yin. 2024

[20]Comprehensive analysis of the global impact and distribution of tick paralysis, a deadly neurological yet fully reversible condition. Deng, Yuan-Ping,Fu, Yi-Tian,Elsheikha, Hany M.,Cao, Mei-Ling,Zhu, Xing-Quan,Wang, Jin-Lei,Zhang, Xue-Ling,Xie, Shi-Chen,Yao, Chaoqun,Liu, Guo-Hua. 2024

作者其他论文 更多>>