Evolutionary analysis of the anti-viral STAT2 gene of primates and rodents: Signature of different stages of an arms race

被引:3
作者
Bueno Landau, Luane Jandira [1 ]
de Oliveira Fam, Bibiana Sampaio [1 ]
Yepez, Yuri [1 ]
Caldas-Garcia, Gabriela Barreto [1 ]
Pissinatti, Alcides [2 ]
Falotico, Tiago [3 ]
Reales, Guillermo [1 ,4 ]
Schuler-Faccini, Lavinia [4 ]
Sortica, Vinicius Albuquerque [1 ]
Bortolini, Maria Catira [1 ]
机构
[1] Univ Fed Rio Grande do Sul, Dept Genet, Lab Evolucao Humana & Mol, Porto Alegre, RS, Brazil
[2] Rio de Janeiros Primatol Ctr RJPC INEA, Rio De Janeiro, RJ, Brazil
[3] Univ Sao Paulo, Sch Arts Sci & Humanities, Sao Paulo, SP, Brazil
[4] Hosp Clin Porto Alegre, Serv Genet Med, Inst Nacl Genet Med Populat, Porto Alegre, RS, Brazil
关键词
STAT2; SH2; domain; Molecular evolution; Primates; Flavivirus infection; Rodentia; Arms race; ZIKA VIRUS; YELLOW-FEVER; POSITIVE SELECTION; STRUCTURAL BASIS; MOUSE MODEL; STAT2; INTERFERON; PROTEIN; ALIGNMENT; OUTBREAK;
D O I
10.1016/j.meegid.2021.105030
中图分类号
R51 [传染病];
学科分类号
100401 ;
摘要
STAT2 plays a strategic role in defending viral infection through the signaling cascade involving the immune system initiated after type I interferon release. Many flaviviruses target the inactivation or degradation of STAT2 as a strategy to impair this host's line of defense. Primates are natural reservoirs for a range of disease-causing flaviviruses (e.g., Zika, Dengue, and Yellow Fever virus), while rodents appear less susceptible. We analyzed the STAT2 coding sequence of 28 Rodentia species and 49 Primates species. Original data from 19 Platyrrhini species were sequenced for the SH2 domain of STAT2 and included in the analysis. STAT2 has many sites whose variation can be explained by positive selection, measurement by two methods (PALM indicated 12, MEME 61). Both evolutionary tests significantly marked sites 127, 731, 739, 766, and 780. SH2 is under evolutionary constraint but presents episodic positive selection events within Rodentia: in one of them, a moderately radical change (serine > arginine) at position 638 is found in Peromyscus species, and can be implicated in the difference in susceptibility to flaviviruses within Rodentia. Some other positively selected sites are functional such as 5, 95, 203, 251, 782, and 829. Sites 251 and 287 regulate the signaling mediated by the JAK-STAT2 pathway, while 782 and 829 create a stable tertiary structure of STAT2, facilitating its connection with transcriptional coactivators. Only three positively selected sites, 5, 95, and 203, are recognized members who act on the interface between STAT2 and flaviviruses NS5 protein. We suggested that due to the higher evolutionary rate, rodents are, at this moment, taking some advantage in the battle against infections for some well-known Flaviviridae, in particular when compared to primates. Our results point to dynamics that fit with a molecular evolutionary scenario shaped by a thought-provoking virus-host arms race.
引用
收藏
页数:13
相关论文
共 120 条
[21]   Serologic Evidence of Flavivirus Infections in Peridomestic Rodents in Merida, Mexico [J].
Cigarroa-Toledo, Nohemi ;
Talavera-Aguilar, Lourdes G. ;
Baak-Baak, Carlos M. ;
Garcia-Rejon, Julian E. ;
Hernandez-Betancourt, Silvia ;
Blitvich, Bradley J. ;
Machain-Williams, Carlos .
JOURNAL OF WILDLIFE DISEASES, 2016, 52 (01) :168-172
[22]   Interferon-Stimulated Genes as Enhancers of Antiviral Innate Immune Signaling [J].
Crosse, Keaton M. ;
Monson, Ebony A. ;
Beard, Michael R. ;
Helbig, Karla J. .
JOURNAL OF INNATE IMMUNITY, 2018, 10 (02) :85-93
[23]   Structural analysis and insight into Zika virus NS5 mediated interferon inhibition [J].
Dar, Hamza Arshad ;
Zaheer, Tahreem ;
Paracha, Rehan Zafar ;
Ali, Amjad .
INFECTION GENETICS AND EVOLUTION, 2017, 51 :143-152
[24]   JAK-STAT PATHWAYS AND TRANSCRIPTIONAL ACTIVATION IN RESPONSE TO IFNS AND OTHER EXTRACELLULAR SIGNALING PROTEINS [J].
DARNELL, JE ;
KERR, IM ;
STARK, GR .
SCIENCE, 1994, 264 (5164) :1415-1421
[25]   A SERO-EPIDEMIOLOGICAL SURVEY FOR CERTAIN ARBOVIRUSES (TOGAVIRIDAE) IN PAKISTAN [J].
DARWISH, MA ;
HOOGSTRAAL, H ;
ROBERTS, TJ ;
AHMED, IP ;
OMAR, F .
TRANSACTIONS OF THE ROYAL SOCIETY OF TROPICAL MEDICINE AND HYGIENE, 1983, 77 (04) :442-445
[26]  
de Almeida P.R., 2019, MICROBIOLOGY, DOI [10.1101/828871, DOI 10.1101/828871]
[27]   Seroprevalence of selected flaviviruses in free-living and captive capuchin monkeys in the state of Pernambuco, Brazil [J].
de Oliveira-Filho, E. F. ;
Oliveira, R. A. S. ;
Ferreira, D. R. A. ;
Laroque, P. O. ;
Pena, L. J. ;
Valenca-Montenegro, M. M. ;
Mota, R. A. ;
Gil, L. H. V. G. .
TRANSBOUNDARY AND EMERGING DISEASES, 2018, 65 (04) :1094-1097
[28]   Wild terrestrial rainforest mammals as potential reservoirs for flaviviruses (yellow fever, dengue 2 and St Louis encephalitis viruses) in French Guiana [J].
de Thoisy, B ;
Dussart, P ;
Kazanji, M .
TRANSACTIONS OF THE ROYAL SOCIETY OF TROPICAL MEDICINE AND HYGIENE, 2004, 98 (07) :409-412
[30]   Zika Virus Outbreak on Yap Island, Federated States of Micronesia [J].
Duffy, Mark R. ;
Chen, Tai-Ho ;
Hancock, W. Thane ;
Powers, Ann M. ;
Kool, Jacob L. ;
Lanciotti, Robert S. ;
Pretrick, Moses ;
Marfel, Maria ;
Holzbauer, Stacey ;
Dubray, Christine ;
Guillaumot, Laurent ;
Griggs, Anne ;
Bel, Martin ;
Lambert, Amy J. ;
Laven, Janeen ;
Kosoy, Olga ;
Panella, Amanda ;
Biggerstaff, Brad J. ;
Fischer, Marc ;
Hayes, Edward B. .
NEW ENGLAND JOURNAL OF MEDICINE, 2009, 360 (24) :2536-2543