Results 1 to 10 of about 3,100,016 (354)

Memory B cells and CD8⁺ lymphocytes do not control seasonal influenza A virus replication after homologous re-challenge of rhesus macaques. [PDF]

, 2011
This study sought to define the role of memory lymphocytes in the protection from homologous influenza A virus re-challenge in rhesus macaques. Depleting monoclonal antibodies (mAb) were administered to the animals prior to their second experimental ...
Carroll, Timothy D, Fritts, Linda, Matzinger, Shannon R, McChesney, Michael B, Miller, Christopher J   +4 more
core   +17 more sources

A20 deficiency in lung epithelial cells protects against influenza A virus infection [PDF]

, 2016
A20 negatively regulates multiple inflammatory signalling pathways. We here addressed the role of A20 in club cells (also known as Clara cells) of the bronchial epithelium in their response to influenza A virus infection.
Beyaert, Rudi, Hammad, Hamida, Ibanez, Lorena, Lambrecht, Bart, Maelfait, Jonathan, Mc Guire, Conor, Roose, Kenny, Saelens, Xavier, Schuijs, Martijn, Sze, Mozes, van Loo, Geert, Vereecke, Lars, Willart, Monique   +12 more
core   +16 more sources

Multicenter Evaluation of the QIAstat-Dx Respiratory Panel for the Detection of Viruses and Bacteria in Nasopharyngeal Swab Specimens [PDF]

, 2020
The QIAstat-Dx Respiratory Panel (QIAstat-Dx RP) is a multiplex in vitro diagnostic test for the qualitative detection of 20 pathogens directly from nasopharyngeal swab (NPS) specimens. The assay is performed using a simple sample-to-answer platform with
Granato, Paul, Hannet, Irene, Hansen, Glen, Leber, Amy L., Lisby, Jan Gorm, Pareja, Josep, Relich, Ryan F., Schneider, Uffe Vest, Young, Stephen   +8 more
core   +1 more source

TIV vaccination modulates host responses to influenza virus infection that correlate with protection against bacterial superinfection [PDF]

, 2019
Background: Influenza virus infection predisposes to secondary bacterial pneumonia. Currently licensed influenza vaccines aim at the induction of neutralizing antibodies and are less effective if the induction of neutralizing antibodies is low and/or the
Choi, Angela, Christopoulou, Ioanna, García-Sastre, Adolfo, Saelens, Xavier, Schotsaert, Michael   +4 more
core   +2 more sources

Transmission of H7N9 influenza virus in mice by different infective routes. [PDF]

, 2014
BackgroundOn 19 February 2013, the first patient infected with a novel influenza A H7N9 virus from an avian source showed symptoms of sickness. More than 349 laboratory-confirmed cases and 109 deaths have been reported in mainland China since then ...
Bao, Linlin, Chen, Honglin, Chen, Ting, Deng, Wei, Huang, Lan, Li, Fengdi, Li, Yanhong, Liu, Jiangning, Lv, Qi, Qin, Chuan, Xu, Lili, Xu, Yanfeng, Yao, Yanfeng, Yu, Pin, Yuan, Jing, Zhu, Hua   +15 more
core   +2 more sources

Cross-protection against European swine influenza viruses in the context of infection immunity against the 2009 pandemic H1N1 virus : studies in the pig model of influenza [PDF]

, 2015
Pigs are natural hosts for the same influenza virus subtypes as humans and are a valuable model for cross-protection studies with influenza. In this study, we have used the pig model to examine the extent of virological protection between a) the 2009 ...
A Krumbholz, A Lavenu, AC Lowen, AI Karasin, AR Vleeschauwer De, AS Monto, B Brandenburg, B Manicassamy, B Srivastava, CD O’Donnell, CD O’Donnell, CS Kyriakis, CS Kyriakis, DM Skowronski, ED Kilbourne, G Simon, GA Landolt, GG Brownlee, I Skountzou, IH Brown, JC Kash, JH Kreijtz, JL Schulman, K Hoschler, K Reeth Van, K Reeth Van, K Reeth Van, K Reeth Van, K Tamura, Karl De hert, KL Laurie, Kristien Van Reeth, L Campitelli, M Khatri, M Pensaert, M Retamal, M Strengell, MA Marco De, MI Nelson, MJ Sylte, ML Hillaire, MR Castrucci, MR Castrucci, MR Sandbulte, N Busquets, NM Bouvier, PM Colman, PP Heinen, RA Perera, RA Yetter, RJ Garten, S Liang, SL Epstein, SM Brookes, T Sonoguchi, TM Straight, Y Qiu, Y Qiu, Yu Qiu   +58 more
core   +6 more sources

Influenza research database: an integrated bioinformatics resource for influenza research and surveillance. [PDF]

, 2012
BackgroundThe recent emergence of the 2009 pandemic influenza A/H1N1 virus has highlighted the value of free and open access to influenza virus genome sequence data integrated with information about other important virus characteristics.DesignThe ...
Baumgarth, Nicole, Deitrich, Jon, García-Sastre, Adolfo, Hunt, Victoria, Klem, Edward, Kumar, Sanjeev, Larsen, Christopher N, Macken, Catherine, Noronha, Jyothi, Pickett, Brett E, Ramsey, Alvin, Scheuermann, Richard H, Squires, R Burke, Suarez, David, Zaremba, Sam, Zhang, Yun, Zhou, Liwei   +16 more
core   +1 more source

Selective engagement of FcγRIV by a M2e-specific single domain antibody construct protects against influenza A virus infection [PDF]

, 2019
Lower respiratory tract infections, such as infections caused by influenza A viruses, are a constant threat for public health. Antivirals are indispensable to control disease caused by epidemic as well as pandemic influenza A.
Ballegeer, Marlies, Creytens, Sarah, De Vlieger, Dorien, Hengel, Hartmut, Hoffmann, Katja, Nerinckx, Wim, Remaut, Han, Saelens, Xavier, Schepens, Bert, Van Hoecke, Lien, Van Molle, Inge   +10 more
core   +2 more sources

Heterologous prime-boost vaccination with H3N2 influenza viruses of swine favors cross-clade antibody responses and protection [PDF]

, 2017
The emergence of multiple novel lineages of H1 and H3 influenza A viruses in swine has confounded control by inactivated vaccines. Because of substantial genetic and geographic heterogeneity among circulating swine influenza viruses, one vaccine strain ...
Claes, Gerwin, Cox, Eric, Krammer, Florian, Mancera Gracia, José Carlos, Qiu, Yu, Sys, Lieve, Trus, Ivan, Van Reeth, Kristien, Versnaeyen, Han   +8 more
core   +2 more sources

Genetic characterization of influenza A(H3N2) viruses circulating in coastal Kenya, 2009-2017 [PDF]

, 2020
Background Influenza viruses evolve rapidly and undergo immune driven selection, especially in the hemagglutinin (HA) protein. We report amino acid changes affecting antigenic epitopes and receptor‐binding sites of A(H3N2) viruses circulating in Kilifi,
Agoti, Charles N., Chaves, Sandra S., Ngoi, Joyce M., Nokes, D. James, Nyasimi, Festus M., Nyiro, Joyce U., Otieno, Grieven P., Otieno, James R., Owuor, D. Collins   +8 more
core   +1 more source