Emerging Zoonotic Influenza A Virus Detection in Myanmar: Surveillance Practices and Findings

被引:9
|
作者
Win, Ye Tun [1 ]
Gardner, Emma [2 ]
Hadrill, David [3 ]
Mon, Cho Cho Su [3 ]
Kyin, Maung Maung [3 ]
Maw, Min Thein [1 ]
Claes, Filip [4 ]
von Dobschuetz, Sophie [2 ]
Kalpravidh, Wantanee [4 ]
Wongsathapornchai, Kachen [4 ]
Mon, Hla Hla [5 ]
Myint, Win Win [5 ]
Thein, Wai Zin [6 ]
Mon, Pont Pont [6 ]
机构
[1] Minist Agr Livestock & Irrigat, Livestock Breeding & Vet Dept, Naypyitaw, Myanmar
[2] Food & Agr Org United Nations, Anim Hlth Serv, Rome, Italy
[3] Food & Agr Org United Nations, ECTAD, Yangon, Myanmar
[4] Food & Agr Org United Nations, ECTAD, Bangkok, Thailand
[5] Livestock Breeding & Vet Dept, Mandalay Vet Diagnost Lab, Mandalay, Myanmar
[6] Livestock Breeding & Vet Dept, Yangon Vet Diagnost Lab, Yangon, Myanmar
关键词
Avian influenza; Infectious diseases; Public health preparedness; response; Surveillance; LIVE-BIRD MARKETS; PATHOGENIC AVIAN INFLUENZA; LETHAL H5N1; POULTRY; PROTECTION; CHALLENGE; EVOLUTION; VACCINE; SPREAD;
D O I
10.1089/hs.2016.0131
中图分类号
R1 [预防医学、卫生学];
学科分类号
1004 ; 120402 ;
摘要
We describe 2-season, risk-based, virological surveillance for zoonotic avian influenza in Myanmar and report the first detection of influenza A subtypes H5N6 and H9N2 in Myanmar. The study focused mainly on the live bird markets in border townships, where illegal poultry importation from China usually takes place. The objective was to enhance early warning for low pathogenic avian influenza A(H7N9) incursion. The study followed the guidelines of the Food and Agriculture Organization (FAO) of the United Nations for influenza A(H7N9) surveillance in uninfected countries. The sampling strategy was risk-based at all sampling levels. Sample collection and laboratory analysis were carried out with the government of the Union of the Republic of Myanmar. Laboratory testing was according to a previously published FAO laboratory protocol and algorithm designed to detect a range of influenza A subtypes. Challenges to implementation are outlined. The study provided evidence that the H7N9 subtype had not entered Myanmar but detected other subtypes, including H5N6 and H9N2. Although there were logistical difficulties associated with nation-related issues, the results highlight the importance and feasibility of this risk-based active surveillance, which should be urgently established in other countries, especially those located at the east-southeast influenza epicenter.
引用
收藏
页码:483 / 493
页数:11
相关论文
共 50 条
  • [1] Influenza surveillance in animals: what is our capacity to detect emerging influenza viruses with zoonotic potential?
    Von Dobschuetz, S.
    De Nardi, M.
    Harris, K. A.
    Munoz, O.
    Breed, A. C.
    Wieland, B.
    Dauphin, G.
    Lubroth, J.
    Staerk, K. D. C.
    EPIDEMIOLOGY AND INFECTION, 2015, 143 (10): : 2187 - 2204
  • [2] Initial Identification and Characterization of an Emerging Zoonotic Influenza Virus Prior to Pandemic Spread
    Metzgar, David
    Baynes, Darcie
    Myers, Christopher A.
    Kammerer, Peter
    Unabia, Michelle
    Faix, Dennis J.
    Blair, Patrick J.
    JOURNAL OF CLINICAL MICROBIOLOGY, 2010, 48 (11) : 4228 - 4234
  • [3] The role for PCR in Influenza virus detection and surveillance
    Abraham, Asha Mary
    Sridharan, Gopalan
    INDIAN JOURNAL OF VIROLOGY, 2008, 19 (01): : 82 - 82
  • [4] Global Surveillance of Emerging Influenza Virus Genotypes by Mass Spectrometry
    Sampath, Rangarajan
    Russell, Kevin L.
    Massire, Christian
    Eshoo, Mark W.
    Harpin, Vanessa
    Blyn, Lawrence B.
    Melton, Rachael
    Ivy, Cristina
    Pennella, Thuy
    Li, Feng
    Levene, Harold
    Hall, Thomas A.
    Libby, Brian
    Fan, Nancy
    Walcott, Demetrius J.
    Ranken, Raymond
    Pear, Michael
    Schink, Amy
    Gutierrez, Jose
    Drader, Jared
    Moore, David
    Metzgar, David
    Addington, Lynda
    Rothman, Richard
    Gaydos, Charlotte A.
    Yang, Samuel
    St. George, Kirsten
    Fuschino, Meghan E.
    Dean, Amy B.
    Stallknecht, David E.
    Goekjian, Ginger
    Yingst, Samuel
    Monteville, Marshall
    Saad, Magdi D.
    Whitehouse, Chris A.
    Baldwin, Carson
    Rudnick, Karl H.
    Hofstadler, Steven A.
    Lemon, Stanley M.
    Ecker, David J.
    PLOS ONE, 2007, 2 (05):
  • [5] Emerging and endemic zoonotic diseases: surveillance and diagnostics
    Stevenson, M.
    Halpin, K.
    Heuer, C.
    REVUE SCIENTIFIQUE ET TECHNIQUE-OFFICE INTERNATIONAL DES EPIZOOTIES, 2021, 40 (01): : 119 - 129
  • [6] Targeting Surveillance for Zoonotic Virus Discovery
    Levinson, Jordan
    Bogich, Tiffany L.
    Olival, Kevin J.
    Epstein, Jonathan H.
    Johnson, Christine K.
    Karesh, William
    Daszak, Peter
    EMERGING INFECTIOUS DISEASES, 2013, 19 (05) : 743 - 747
  • [7] Preventing zoonotic influenza virus infection
    Ramirez, Alejandro
    Capuano, Ana W.
    Wellman, Debbie A.
    Lesher, Kelly A.
    Setterquist, Sharon F.
    Gray, Gregory C.
    EMERGING INFECTIOUS DISEASES, 2006, 12 (06) : 997 - 1000
  • [8] Surveillance of European Domestic Pig Populations Identifies an Emerging Reservoir of Potentially Zoonotic Swine Influenza A Viruses
    Henritzi, Dinah
    Petric, Philipp Peter
    Lewis, Nicola Sarah
    Graaf, Annika
    Pessia, Alberto
    Starick, Elke
    Breithaupt, Angele
    Strebelow, Guenter
    Luttermann, Christine
    Parker, Larissa Mareike Kristin
    Schroeder, Charlotte
    Hammerschmidt, Baerbel
    Herrler, Georg
    Beilage, Elisabeth Grosse
    Stadlbauer, Daniel
    Simon, Viviana
    Krammer, Florian
    Wacheck, Silke
    Pesch, Stefan
    Schwemmle, Martin
    Beer, Martin
    Harder, Timm Clemens
    CELL HOST & MICROBE, 2020, 28 (04) : 614 - +
  • [9] MERS Coronavirus: An Emerging Zoonotic Virus
    Li, Fang
    Du, Lanying
    VIRUSES-BASEL, 2019, 11 (07):
  • [10] Influenza virus infections in Yangon, Myanmar
    Hasegawa, Go
    Kyaw, Yadanar
    Li, Danjuan
    Saito, Reiko
    Suzuki, Hiroshi
    Cho, Tin Maung
    Naito, Makoto
    JOURNAL OF CLINICAL VIROLOGY, 2006, 37 (03) : 233 - 234