Showing 21 - 40 results of 216 for search '"influenza viruses"', query time: 0.06s Refine Results
  1. 21

    Piezo1-directed neutrophil extracellular traps regulate macrophage differentiation during influenza virus infection by Yuexin Wang, Qiuli Yang, Yingjie Dong, Likun Wang, Zhiyuan Zhang, Ruiying Niu, Yufei Wang, Yujing Bi, Guangwei Liu

    Published 2025-01-01
    “…Our studies provide critical insight into the role of neutrophil-based mechanical regulation of immunopathology in directing macrophage lineage commitment during the response to influenza virus infection.…”
    Get full text
    Article
  2. 22

    Comparison of the Infectivity and Transmission of Contemporary Canine and Equine H3N8 Influenza Viruses in Dogs by Heidi L. Pecoraro, Susi Bennett, Kristina Garretson, Ayshea M. Quintana, Katharine F. Lunn, Gabriele A. Landolt

    Published 2013-01-01
    “…Phylogenetic analyses indicate that canine influenza viruses (CIVs) (H3N8) evolved from contemporary equine influenza virus (EIV). …”
    Get full text
    Article
  3. 23
  4. 24

    Research Note: Establishment of vector system harboring duck RNA polymerase I promoter for avian influenza virus by Yunyueng Jang, Yoon-Gi Baek, Yu-Na Lee, Ra Mi Cha, Yun-Chan Choi, Min-Ji Park, Youn-Jeong Lee, Eun-Kyoung Lee

    Published 2025-01-01
    “…Reverse genetics (RG) systems are extensively utilized to investigate the characteristics of influenza viruses and develop vaccines, predominantly relying on human RNA polymerase I (pol I). …”
    Get full text
    Article
  5. 25

    T4 Phage Displaying Dual Antigen Clusters Against H3N2 Influenza Virus Infection by Shenglong Liu, Mengzhou Lin, Xin Zhou

    Published 2025-01-01
    “…Background: The current H3N2 influenza subunit vaccine exhibits weak immunogenicity, which limits its effectiveness in preventing and controlling influenza virus infections. Methods: In this study, we aimed to develop a T4 phage-based nanovaccine designed to enhance the immunogenicity of two antigens by displaying the HA1 and M2e antigens of the H3N2 influenza virus on each phage nanoparticle. …”
    Get full text
    Article
  6. 26

    Three Types of Broadly Reacting Antibodies against Influenza B Viruses Induced by Vaccination with Seasonal Influenza Viruses by Daisuke Hirano, Nobuko Ohshima, Ritsuko Kubota-Koketsu, Ayami Yamasaki, Gene Kurosawa, Yoshinobu Okuno, Shunji Yoshida, Yoshikazu Kurosawa

    Published 2018-01-01
    “…We analyzed the antibody (Ab) repertoire against influenza B viruses induced by vaccination with seasonal influenza viruses in one individual who had never been vaccinated until 2009. …”
    Get full text
    Article
  7. 27

    Testing of chickens experimentally infected with A/H9N2 avian influenza virus isolates for their immune responses by O. S. Osipova, M. A. Volkova, S. V. Frolov, D. B. Andreychuk, I. A. Chvala

    Published 2022-03-01
    “…Data on tests of chickens for their immune responses to infection with low pathogenic А/Н9N2 avian influenza virus isolates belonging to Y-280 and G1 genetic lines are presented in the paper. …”
    Get full text
    Article
  8. 28
  9. 29
  10. 30
  11. 31
  12. 32
  13. 33

    GGCX promotes Eurasian avian-like H1N1 swine influenza virus adaption to interspecies receptor binding by Jiahui Zou, Meijun Jiang, Rong Xiao, Huimin Sun, Hailong Liu, Thomas Peacock, Shaoyu Tu, Tong Chen, Jinli Guo, Yaxin Zhao, Wendy Barclay, Shengsong Xie, Hongbo Zhou

    Published 2025-01-01
    “…Abstract The Eurasian avian-like (EA) H1N1 swine influenza virus (SIV) possesses the capacity to instigate the next influenza pandemic, owing to its heightened affinity for the human-type α-2,6 sialic acid (SA) receptor. …”
    Get full text
    Article
  14. 34

    Isolation and examination of A/H5N1 avian influenza virus that caused disease outbreaks in Altai Krai in 2014 by I. A. Chvala, A. V. Andriyasov, N. G. Zinyakov, D. A. Altunin, V. Yu. Sosipatorova

    Published 2018-04-01
    “…Laboratory tests allowed isolation and identification of highly pathogenic A/H5N1 avian influenza virus. Molecular and biological properties of the virus were examined; typical clinical signs, post-mortem lesions and disease character in chicks were described.…”
    Get full text
    Article
  15. 35
  16. 36
  17. 37
  18. 38
  19. 39

    RESULTS OF EXPERIMENTAL INFECTION OF TURKEYS WITH A/DUCK/ALTAI/469/14 H5N1 STRAIN OF AVIAN INFLUENZA VIRUS by V. Yu. Sosipatorova, D. A. Altunin, I. A. Chvala, N. S. Mudrak, D. B. Andreychuk

    Published 2018-10-01
    “…Immunohistochemical analysis showed the greatest distribution of the influenza virus antigen in the cerebral endothelium, cerebellar Purkinje neurons, acinar cells of the pancreas and in myocardiocytes of the heart. …”
    Get full text
    Article
  20. 40

    Human ANP32A/B are SUMOylated and utilized by avian influenza virus NS2 protein to overcome species-specific restriction by Liuke Sun, Xing Guo, Mengmeng Yu, Xue-Feng Wang, Huiling Ren, Xiaojun Wang

    Published 2024-12-01
    “…Abstract Human ANP32A/B (huANP32A/B) poorly support the polymerase activity of avian influenza viruses (AIVs), thereby limiting interspecies transmission of AIVs from birds to humans. …”
    Get full text
    Article