Literature DB >> 35302933

Intercontinental Movement of Highly Pathogenic Avian Influenza A(H5N1) Clade 2.3.4.4 Virus to the United States, 2021.

Sarah N Bevins, Susan A Shriner, James C Cumbee, Krista E Dilione, Kelly E Douglass, Jeremy W Ellis, Mary Lea Killian, Mia K Torchetti, Julianna B Lenoch.   

Abstract

We detected Eurasian-origin highly pathogenic avian influenza A(H5N1) virus belonging to the Gs/GD lineage, clade 2.3.4.4b, in wild waterfowl in 2 Atlantic coastal states in the United States. Bird banding data showed widespread movement of waterfowl within the Atlantic Flyway and between neighboring flyways and northern breeding grounds.

Entities:  

Keywords:  United States; clade 2.3.4.4; dispersal; highly pathogenic avian influenza A(H5N1) virus; influenza; influenza viruses; intercontinental movement; respiratory infections; viruses; wild birds; zoonoses

Mesh:

Year:  2022        PMID: 35302933      PMCID: PMC9045435          DOI: 10.3201/eid2805.220318

Source DB:  PubMed          Journal:  Emerg Infect Dis        ISSN: 1080-6040            Impact factor:   6.883


Influenza A viruses have a worldwide distribution, and wild birds are the primary wild reservoir. Many wild ducks in particular are often repeatedly exposed to and infected with these viruses (hereafter referred to as avian influenza viruses or AIV) with little to no sign of clinical disease (), although highly pathogenic forms of the virus can sometimes cause illness and death in wild birds (). Highly pathogenic lineage viruses identified in 1996 (A/goose/Guangdong/1/1996 [Gs/GD]) have repeatedly spilled over from poultry to wild birds, and eventual emergence of highly pathogenic AIV Gs/GD clade 2.3.4.4 has led to more persistent circulation of these viruses in wild birds and high numbers of illnesses and deaths in poultry on multiple continents (). One way to better understand AIV movement on the landscape or to identify routes of introduction of novel AIVs is through wild bird band-recovery data (). These data have been collected as part of waterfowl management and conservation efforts in North America since the 1920s (). Spatial locations of where birds are banded and later recovered are recorded and archived, providing data on wild bird movement. For waterfowl, recoveries primarily occur through banded birds being reported as part of hunter harvest activities.

The Study

Wild bird samples are routinely collected by the US Department of Agriculture, Animal Plant Health Inspection Service, Wildlife Services, National Wildlife Disease Program (National Wildlife Disease Program, US Fish and Wildlife Service permit no. MB124992 0) and screened for AIV in conjunction with the National Animal Health Laboratory Network and with the National Veterinary Services Laboratories (Ames, Iowa, USA) as part of a targeted AIV surveillance program in wild birds (). Samples analyzed in this investigation came from routine wild bird surveillance activities in the US Atlantic Flyway and were primarily obtained from hunter harvest activities, live-trapping, and bird banding operations. These surveillance data, combined with bird band-recovery movement data, can shed light on AIV occurrence on the landscape, and findings in wild birds can act as an early warning system for spillover risk to poultry and humans (). For these analyses, we initially screened wild bird samples by using an influenza matrix gene real-time, reverse transcription PCR. We then tested matrix gene presumptive positive samples by using H5 and H7 subtype-specific, real-time reverse transcription PCRs. Influenza A virus RNA from wild bird samples was amplified as described (). After amplificationwas completed, we generated cDNA libraries for MiSeq by using the Nextera XT DNA Sample Preparation Kit (Illumina, https://www.illumina.com) and the 500 cycle MiSeq Reagent Kit v2 (Illumina) according to manufacturer instructions. We performed de novo and directed assembly of genome sequences by using IRMA version 0.6.7 (), followed by visual verification in DNAStar SeqMan version 14 (https://www.dnastar.com). For phylogenetic analysis, we downloaded sequences from GISAID (https://www.gisaid.org) and aligned in Geneious 11.1.5 by using MAFFT (https://www.geneious.com), then generated trees by using RAxML (https://cme.h-its.org). We queried North American Bird Banding Program data () to find all records from 1960–2021 for 11 dabbling duck species targeted for wild bird surveillance. These species were American black duck (Anas rubripes), American green-winged teal (Anas crecca carolinensis), American wigeon (Mareca americana), blue-winged teal (Spatula discors), cinnamon teal (Spatula cyanoptera), gadwall (Mareca strepera), mallard (Anas platyrhynchos), mottled duck (Anas fulvigula), northern pintail (Anas acuta), northern shoveler (Spatula clypeata), and wood duck (Aix sponsa). We then limited records for these species to only include birds that were either banded or encountered in North Carolina or South Carolina, USA, and >1 other state or province. As part of these routine surveillance efforts, we detected Gs/GD lineage clade 2.3.4.4b H5N1 highly pathogenic AIVs in multiple wild birds sampled in North Carolina and South Carolina during December 2021 and January 2022 (Figure 1). Genetic analyses showed that all virus segments were of Eurasian origin (99.7%–99.8% similar; Appendix) and have high identity with December 2021 AIV H5N1 findings in Newfoundland, Canada (Figure 1) ().
Figure 1

Maximum-likelihood phylogenic analysis of the hemagglutinin gene segment of the first sequenced set of wild bird isolates of highly pathogenic avian influenza A(H5N1) clade 2.3.4.4 virus, United States, 2021. Red indicates US wild bird highly pathogenic detections, and blue indicates closest virus detected in Newfoundland, Canada. MAFFT alignment and RAxML trees were generated in Geneious 11.1.5 (https://www.geneious.com) and visualized in FigTree 1.4.1 (https://tree.bio.ed.ac.uk). Scale bar indicates average nucleotide substitutions per site.

Maximum-likelihood phylogenic analysis of the hemagglutinin gene segment of the first sequenced set of wild bird isolates of highly pathogenic avian influenza A(H5N1) clade 2.3.4.4 virus, United States, 2021. Red indicates US wild bird highly pathogenic detections, and blue indicates closest virus detected in Newfoundland, Canada. MAFFT alignment and RAxML trees were generated in Geneious 11.1.5 (https://www.geneious.com) and visualized in FigTree 1.4.1 (https://tree.bio.ed.ac.uk). Scale bar indicates average nucleotide substitutions per site. A sample was collected on December 30, 2021 from an American wigeon in Colleton County, South Carolina [A/American_wigeon/South_Carolina/AH0195145/2021(H5N1), GISAID accession no. EPI_ISL_9869760]. Immediately after this finding, there was an additional wild bird detection in South Carolina [A/blue-winged_teal/South_Carolina/AH0195150/2021(H5N1), GISAID accession no. EPI_ISL_9876777] and detections in neighboring North Carolina (Figure 1). Another 291 detections in wild birds occurred within 2 months, indicating high susceptibility to infection with a novel virus along with continued transmission and dispersal (Table). All birds were apparently healthy live-trapped or hunter-obtained dabbling ducks (Appendix Table). North American lineage AIV was not found in any of these samples.
Table

Detetections of highly pathogenic avian influenza A(H5N1) clade 2.3.4.4 virus in wild birds, United States, December 30, 2021‒March 3, 2022*

State
Wild bird species
No. clade 2.3.4.4 detections
Alabama
American wigeon
1
ConnecticutMallard21

American black duck
9
DelawareAmerican wigeon1
Gadwall1
Northern shoveler5

American black duck
1
Florida
Blue-winged teal
2
GeorgiaAmerican wigeon1

Gadwall
1
KentuckyGadwall4

Mallard
4
Maine
American black duck
6
New Hampshire
Mallard
49
New Jersey
Mallard
21
North CarolinaAmerican green-winged teal34
American wigeon53
Gadwall19
Mallard14
Northern pintail4
Northern shoveler8

Wood duck
3
South CarolinaAmerican wigeon7
Blue-winged teal9
Gadwall7

Northern shoveler
1
Tennessee
Wood duck
2
VirginiaAmerican green-winged teal2
Gadwall1

Mallard
1
Total detections292

*All samples collected were in conjunction with the US Department of Agriculture Wildlife Services National Wildlife Disease Program.

*All samples collected were in conjunction with the US Department of Agriculture Wildlife Services National Wildlife Disease Program. Analysis of North American Bird Banding Program data showed broadscale movement of waterfowl throughout North America. Across 11 species of dabbling ducks targeted in surveillance sampling that were historically banded or encountered in North Carolina or South Carolina (and subsequently or previously banded or encountered in another state or province), a total of 64.7% of bird movements were within the Atlantic Flyway, 33.6% of analyzed species were encountered in the Atlantic and the Mississippi Flyways, and 1.7% were encountered in the Atlantic and Central Flyways (Figure 2).
Figure 2

Dabbling duck movements to and from North Carolina and South Carolina, USA, to and from other states or provinces in study of highly pathogenic avian influenza A(H5N1) 2.3.4.4 virus, United States, 2021. Data are based on North American Bird Banding Program data collected during 1960–2021. Color intensities represent number of movements detected between a given state or province and North Carolina or South Carolina. Lines are positioned at the centroid of a given state or province. Bold border lines indicate administrative migratory bird flyways (from west to east: Pacific Flyway, Central Flyway, Mississippi Flyway, and Atlantic Flyway).

Dabbling duck movements to and from North Carolina and South Carolina, USA, to and from other states or provinces in study of highly pathogenic avian influenza A(H5N1) 2.3.4.4 virus, United States, 2021. Data are based on North American Bird Banding Program data collected during 1960–2021. Color intensities represent number of movements detected between a given state or province and North Carolina or South Carolina. Lines are positioned at the centroid of a given state or province. Bold border lines indicate administrative migratory bird flyways (from west to east: Pacific Flyway, Central Flyway, Mississippi Flyway, and Atlantic Flyway).

Conclusions

Although there has been intense focus on intercontinental movement of highly pathogenic AIV from Asia to the North American Pacific Flyway (), viral movement by the trans-Atlantic pathway has been less clear (). Data reported here, in combination with the recent highly pathogenic AIV findings in Newfoundland, Canada (), suggest that wild bird surveillance captured the introduction of a Eurasian-origin highly pathogenic AIV into wild birds by the Atlantic Flyway of the United States. The potential introduction pathway probably includes wild bird migratory routes from northern Europe that overlap Arctic regions of North America and then dispersal farther south into Canada and the United States (). Band recovery data showed that most dabbling ducks banded in the Atlantic Flyway are also recovered in the Atlantic Flyway, reinforcing the predominance of within flyway movement (). However, data also show routine movement to other flyways, providing a potential mechanism of wider spread dispersal of the virus in North America. In addition, sequence data indicate that these viruses cluster closely with viruses found in Western Europe during spring of 2021 (Figure 1; Appendix). If viruses were exchanged between North American and Eurasian waterfowl on northern breeding grounds during spring and summer 2021, and then carried south during fall of 2021, these viruses might already be in multiple locations in North America (Figure 2). Because wild bird surveillance has recently been limited to the Atlantic and Pacific Flyways, introductions into the Central or Mississippi Flyways might have gone undetected. Additional detections in wild birds suggest these clade 2.3.4.4b H5 viruses continue to be transmitted (Appendix Table), and further dispersal might be seen once waterfowl migrate to summer breeding areas. Some findings of highly pathogenic AIVs in wild birds have been associated with repeated spillover of the viruses from domestic birds, which are where mutations to high pathogenicity primarily occur; however, in some cases, Gs/GD lineage viruses now appear to be maintained in wild bird populations (). This potential adaptation of highly pathogenic AIV to wild birds highlights the need for continued wild bird surveillance. In addition, these findings demonstrate that targeted AIV surveillance in wild bird populations can detect newly introduced or emergent AIVs before spillover to domestic poultry. Advanced warnings from wild bird surveillance enable poultry producers to consider altering biosecurity in the face of increased AIV risk and also help inform zoonotic disease potential ().

Appendix

Additional information on intercontinental movement of highly pathogenic avian influenza A(H5N1) clade 2.3.4.4 virus to the United States, 2021.
  12 in total

1.  Intercontinental Spread of Asian-Origin H5N8 to North America through Beringia by Migratory Birds.

Authors:  Dong-Hun Lee; Mia Kim Torchetti; Kevin Winker; Hon S Ip; Chang-Seon Song; David E Swayne
Journal:  J Virol       Date:  2015-04-08       Impact factor: 5.103

Review 2.  Evolution and ecology of influenza A viruses.

Authors:  R G Webster; W J Bean; O T Gorman; T M Chambers; Y Kawaoka
Journal:  Microbiol Rev       Date:  1992-03

3.  Genetic Evidence Supports Sporadic and Independent Introductions of Subtype H5 Low-Pathogenic Avian Influenza A Viruses from Wild Birds to Domestic Poultry in North America.

Authors:  Lei Li; Andrew S Bowman; Thomas J DeLiberto; Mary L Killian; Scott Krauss; Jacqueline M Nolting; Mia Kim Torchetti; Andrew M Ramey; Andrew B Reeves; David E Stallknecht; Richard J Webby; Xiu-Feng Wan
Journal:  J Virol       Date:  2018-09-12       Impact factor: 5.103

4.  Nanopore sequencing as a rapid tool for identification and pathotyping of avian influenza A viruses.

Authors:  Beate M Crossley; Daniel Rejmanek; John Baroch; James B Stanton; Kelsey T Young; Mary Lea Killian; Mia K Torchetti; Sharon K Hietala
Journal:  J Vet Diagn Invest       Date:  2021-02-06       Impact factor: 1.279

5.  Viral deep sequencing needs an adaptive approach: IRMA, the iterative refinement meta-assembler.

Authors:  Samuel S Shepard; Sarah Meno; Justin Bahl; Malania M Wilson; John Barnes; Elizabeth Neuhaus
Journal:  BMC Genomics       Date:  2016-09-05       Impact factor: 3.969

6.  Outbreaks among Wild Birds and Domestic Poultry Caused by Reassorted Influenza A(H5N8) Clade 2.3.4.4 Viruses, Germany, 2016.

Authors:  Anne Pohlmann; Elke Starick; Timm Harder; Christian Grund; Dirk Höper; Anja Globig; Christoph Staubach; Klaas Dietze; Günter Strebelow; Reiner G Ulrich; Jan Schinköthe; Jens P Teifke; Franz J Conraths; Thomas C Mettenleiter; Martin Beer
Journal:  Emerg Infect Dis       Date:  2017-04-15       Impact factor: 6.883

Review 7.  Highly Pathogenic Avian Influenza Viruses at the Wild-Domestic Bird Interface in Europe: Future Directions for Research and Surveillance.

Authors:  Josanne H Verhagen; Ron A M Fouchier; Nicola Lewis
Journal:  Viruses       Date:  2021-01-30       Impact factor: 5.048

8.  Tropism of Highly Pathogenic Avian Influenza H5 Viruses from the 2020/2021 Epizootic in Wild Ducks and Geese.

Authors:  Valentina Caliendo; Lonneke Leijten; Marco van de Bildt; Evelien Germeraad; Ron A M Fouchier; Nancy Beerens; Thijs Kuiken
Journal:  Viruses       Date:  2022-01-28       Impact factor: 5.048

9.  North Atlantic migratory bird flyways provide routes for intercontinental movement of avian influenza viruses.

Authors:  Robert J Dusek; Gunnar T Hallgrimsson; Hon S Ip; Jón E Jónsson; Srinand Sreevatsan; Sean W Nashold; Joshua L TeSlaa; Shinichiro Enomoto; Rebecca A Halpin; Xudong Lin; Nadia Fedorova; Timothy B Stockwell; Vivien G Dugan; David E Wentworth; Jeffrey S Hall
Journal:  PLoS One       Date:  2014-03-19       Impact factor: 3.240

10.  A case of avian influenza A(H5N1) in England, January 2022.

Authors:  Isabel Oliver; Jonathan Roberts; Colin S Brown; Alexander Mp Byrne; Dominic Mellon; Rowena DE Hansen; Ashley C Banyard; Joe James; Matthew Donati; Robert Porter; Joanna Ellis; Jade Cogdale; Angie Lackenby; Meera Chand; Gavin Dabrera; Ian H Brown; Maria Zambon
Journal:  Euro Surveill       Date:  2022-02
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  7 in total

1.  A threat from both sides: Multiple introductions of genetically distinct H5 HPAI viruses into Canada via both East Asia-Australasia/Pacific and Atlantic flyways.

Authors:  Tamiru N Alkie; Sara Lopes; Tamiko Hisanaga; Wanhong Xu; Matthew Suderman; Janice Koziuk; Mathew Fisher; Tony Redford; Oliver Lung; Tomy Joseph; Chelsea G Himsworth; Ian H Brown; Victoria Bowes; Nicola S Lewis; Yohannes Berhane
Journal:  Virus Evol       Date:  2022-08-25

2.  Maintenance and dissemination of avian-origin influenza A virus within the northern Atlantic Flyway of North America.

Authors:  Diann J Prosser; Jiani Chen; Christina A Ahlstrom; Andrew B Reeves; Rebecca L Poulson; Jeffery D Sullivan; Daniel McAuley; Carl R Callahan; Peter C McGowan; Justin Bahl; David E Stallknecht; Andrew M Ramey
Journal:  PLoS Pathog       Date:  2022-06-06       Impact factor: 7.464

3.  Global dissemination of H5N1 influenza viruses bearing the clade 2.3.4.4b HA gene and biologic analysis of the ones detected in China.

Authors:  Pengfei Cui; Jianzhong Shi; Congcong Wang; Yuancheng Zhang; Xin Xing; Huihui Kong; Cheng Yan; Xianying Zeng; Liling Liu; Guobin Tian; Chengjun Li; Guohua Deng; Hualan Chen
Journal:  Emerg Microbes Infect       Date:  2022-12       Impact factor: 19.568

4.  Pathogenesis and Transmissibility of North American Highly Pathogenic Avian Influenza A(H5N1) Virus in Ferrets.

Authors:  Joanna A Pulit-Penaloza; Jessica A Belser; Nicole Brock; Poulami Basu Thakur; Terrence M Tumpey; Taronna R Maines
Journal:  Emerg Infect Dis       Date:  2022-07-15       Impact factor: 16.126

5.  Avian influenza overview March - June 2022.

Authors:  Cornelia Adlhoch; Alice Fusaro; José L Gonzales; Thijs Kuiken; Stefano Marangon; Éric Niqueux; Christoph Staubach; Calogero Terregino; Inma Aznar; Irene Muñoz Guajardo; Francesca Baldinelli
Journal:  EFSA J       Date:  2022-08-06

6.  Has Epizootic Become Enzootic? Evidence for a Fundamental Change in the Infection Dynamics of Highly Pathogenic Avian Influenza in Europe, 2021.

Authors:  Anne Pohlmann; Jacqueline King; Alice Fusaro; Bianca Zecchin; Ashley C Banyard; Ian H Brown; Alexander M P Byrne; Nancy Beerens; Yuan Liang; Rene Heutink; Frank Harders; Joe James; Scott M Reid; Rowena D E Hansen; Nicola S Lewis; Charlotte Hjulsager; Lars E Larsen; Siamak Zohari; Kristofer Anderson; Caroline Bröjer; Alexander Nagy; Vladimir Savič; Steven van Borm; Mieke Steensels; Francois-Xavier Briand; Edyta Swieton; Krzysztof Smietanka; Christian Grund; Martin Beer; Timm Harder
Journal:  mBio       Date:  2022-06-21       Impact factor: 7.786

7.  Avian influenza overview June - September 2022.

Authors:  Cornelia Adlhoch; Alice Fusaro; José L Gonzales; Thijs Kuiken; Stefano Marangon; Éric Niqueux; Christoph Staubach; Calogero Terregino; Irene Muñoz Guajardo; Kateryna Chuzhakina; Francesca Baldinelli
Journal:  EFSA J       Date:  2022-10-11
  7 in total

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