Results 101 to 110 of about 111,045 (241)

Research Note: Establishment of vector system harboring duck RNA polymerase I promoter for avian influenza virus

Poultry Science
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). However, the efficiency of RG systems for avian-origin influenza
Yunyueng Jang, Yoon-Gi Baek, Yu-Na Lee, Ra Mi Cha, Yun-Chan Choi, Min-Ji Park, Youn-Jeong Lee, Eun-Kyoung Lee   +7 more
doaj   +1 more source

HUBUNGAN PENGETAHUAN TENTANG FLU BURUNG DENGAN SIKAP MASYARAKAT YANG MEMELIHARA UNGGAS DI WILAYAH MOJOGEDANG

Jurnal Berita Ilmu Keperawatan, 2008
Background : Avian influenza (AI) the thing which know be familier the community like avian influenza is respiration acces-duct dease couse by foult one influenza virus A.
Arysyad Miftahudin, Kartinah Kartinah
doaj   +1 more source

Interventional human ocular safety experiments for 222‐nm far‐ultraviolet‐C lamp irradiation

Photochemistry and Photobiology, Volume 101, Issue 2, Page 517-526, March/April 2025.
To directly assess the ocular safety of 222‐nm far‐ultraviolet‐C (UVC) irradiation in humans, five subjects were exposed to 222‐nm UVC at doses of 22, 50, and 75 mJ/cm2. The findings indicate that far‐UVC irradiation does not cause “clinically significant photokeratitis” or long‐term ocular damage, though it may induce temporary discomfort.
Kazunobu Sugihara, Sachiko Kaidzu, Masahiro Sasaki, Masaki Tanito   +3 more
wiley   +1 more source

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

Deteksi, Isolasi, dan Identifikasi Avian influenza Subtipe H5N1 pada Unggas di Pulau Jawa, Indonesia Tahun 2016 (DETECTION, ISOLATION AND IDENTIFICATION OF H5N1 SUBTYPE AVIAN INFLUENZA IN POULTRY IN JAVA ISLAND, INDONESIA, 2016)

Jurnal Veteriner, 2018
H5N1 subtype Avian influenza has harmed for poultry in Indonesia currently. Since clade 2.3.2 Avian influenza has been found in waterfowl from 2012, mortality of waterfowl has been occured until now. Change of extreme weather condition with high rainfall
Dyah Ayu Hewajuli, Ni Luh Putu Indi Dharmayanti, I Wayan Teguh Wibawan   +2 more
doaj   +1 more source

Animal Segregation: The Biopolitics of Concentrated Pig Farming

Tijdschrift voor Economische en Sociale Geografie, EarlyView.
Abstract This paper explores the possibility to think through the concept of animal segregation to understand the more‐than‐human geographies of livestock animals. By redirecting the analytical tools for studying the spatial separation of humans to the segregation of animals, this paper contributes to understanding the geographical processes of ...
Willem Rogier Boterman
wiley   +1 more source

Transmission tree of the highly pathogenic avian influenza (H5N1) epidemic in Israel, 2015 [PDF]

, 2016
The transmission tree of the Israeli 2015 epidemic of highly pathogenic avian influenza (H5N1) was modelled by combining the spatio-temporal distribution of the outbreaks and the genetic distance between virus isolates.
A Bataille, Avishai Lublin, D Spiegelhalter, Dirk U. Pfeiffer, EM Cottam, GJ Boender, Guillaume Fournié, Irena Shkoda, K Tamura, Michal Perry Markovich, Ram Katz, RJ Bouwstra, RJ Ypma, RJ Ypma, RJF Ypma, Rolf J. F. Ypma, Shimon Perk, Timothée Vergne   +17 more
core   +4 more sources

Rapid mortality in captive bush dogs (Speothos venaticus) caused by influenza A of avian origin (H5N1) at a wildlife collection in the United Kingdom

Emerging Microbes and Infections
Europe has suffered unprecedented epizootics of high pathogenicity avian influenza (HPAI) clade 2.3.4.4b H5N1 since Autumn 2021. As well as impacting upon commercial and wild avian species, the virus has also infected mammalian species more than ever ...
Marco Falchieri, Scott M. Reid, Akbar Dastderji, Jonathan Cracknell, Caroline J. Warren, Benjamin C. Mollett, Jacob Peers-Dent, Audra-Lynne D. Schlachter, Natalie Mcginn, Richard Hepple, Saumya Thomas, Susan Ridout, Jen Quayle, Romain Pizzi, Alejandro Núñez, Alexander M. P. Byrne, Joe James, Ashley C. Banyard   +17 more
doaj   +1 more source

Contemporary Avian Influenza A Virus Subtype H1, H6, H7, H10, and H15 Hemagglutinin Genes Encode a Mammalian Virulence Factor Similar to the 1918 Pandemic Virus H1 Hemagglutinin

mBio, 2014
Zoonotic avian influenza virus infections may lead to epidemics or pandemics. The 1918 pandemic influenza virus has an avian influenza virus-like genome, and its H1 hemagglutinin was identified as a key mammalian virulence factor.
Li Qi, Lindsey M. Pujanauski, A. Sally Davis, Louis M. Schwartzman, Daniel S. Chertow, David Baxter, Kelsey Scherler, Kevan L. Hartshorn, Richard D. Slemons, Kathie-Anne Walters, John C. Kash, Jeffery K. Taubenberger   +11 more
doaj   +1 more source

Avian influenza [PDF]

Ceylon Medical Journal, 2009
  +8 more sources