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Topic:Influenza

Equine influenza is a highly contagious respiratory disease caused by influenza A viruses, specifically affecting horses. The disease is characterized by symptoms such as fever, coughing, nasal discharge, and lethargy. Transmission occurs primarily through aerosolized droplets and direct contact, leading to rapid spread among susceptible populations. Vaccination is a common preventive measure, though the virus's ability to mutate necessitates ongoing surveillance and vaccine updates. This page gathers peer-reviewed research studies and scholarly articles that explore the virology, epidemiology, clinical presentation, and management strategies of equine influenza, with a focus on its impact on equine health and welfare.
Production of monoclonal antibodies against equine influenza: application to a comparative study of various strains of the virus.
Annales de recherches veterinaires. Annals of veterinary research    January 1, 1989   Volume 20, Issue 3 243-250 
Crucière C, Guillemin MC, Roseto A, Wirbel A, Plateau E.Monoclonal antibodies (Mo Abs) were prepared against influenza/A/equine/Prague/1/56 (H7N7) and influenza/A/equine/Miami/1/63 (H3N8) reference strains of equine influenza virus. These monoclonals were tested against the 2 reference strains, 8 field strains of equine influenza virus, 3 human influenza viruses possessing the H3 hemagglutinin, and one virus of human origin possessing the H1 hemagglutinin. Two antibodies were obtained in one fusion against the Prague/1/56 strain and reacted only with this strain. Four anti/A/equine/Miami/1/63 Mo Abs were obtained in one fusion. They differentiated ...
Origin of the hemagglutinin on A/Equine/Johannesburg/86 (H3N8): the first known equine influenza outbreak in South Africa.
Archives of virology    January 1, 1989   Volume 106, Issue 1-2 159-164 doi: 10.1007/BF01311048
Kawaoka Y, Webster RG.A severe influenza outbreak occurred in horses in South Africa in 1986. The causative agent was identified as an influenza virus [A/Equine/Johannesburg/86 (H3N8)]. Antigenic analyses of the hemagglutinin (HA) with ferret antisera and monoclonal antibodies showed that the Eq/Johannesburg/86 virus is similar to recent equine H3 viruses. The nucleotide sequence analysis on the HA genes of Eq/Johannesburg/86 and other equine H3 influenza viruses, together with the epidemiological data, clearly demonstrated that the Eq/Johannesburg/86 virus was derived from a virus that had been circulating in hors...
A serological survey for equine influenza in New Zealand horses.
New Zealand veterinary journal    December 1, 1988   Volume 36, Issue 4 205-206 doi: 10.1080/00480169.1988.35534
Horner GW, Ledgard AM.No abstract available
Reactions to equine influenza vaccination.
The Veterinary record    October 1, 1988   Volume 123, Issue 14 379 doi: 10.1136/vr.123.14.379-c
Webbon P.No abstract available
Antigenic variation of equine influenza: a stable virus.
Equine veterinary journal    September 1, 1988   Volume 20, Issue 5 316-318 doi: 10.1111/j.2042-3306.1988.tb01533.x
Wood JM.No abstract available
A-equi-2 influenza in horses in the Republic of South Africa.
Journal of the South African Veterinary Association    June 1, 1988   Volume 59, Issue 2 123-125 
Rogers AL.In early December 1986 A-equi-2 influenza virus was isolated for the first time in the Republic of South Africa. All horses were susceptible to the highly contagious aerosol-borne orthomyxovirus resulting in widespread outbreaks of equine influenza with typical primary respiratory symptoms. Treatment consisted of rest, anti-inflammatory drugs, antibiotics and good nursing. Future protection can be obtained by vaccination.
Detection of influenza nucleoprotein antigen in nasal secretions from horses infected with A/equine influenza (H3N8) viruses.
Journal of virological methods    May 1, 1988   Volume 20, Issue 1 1-12 doi: 10.1016/0166-0934(88)90034-1
Cook RF, Sinclair R, Mumford JA.An antigen capture indirect enzyme linked immunosorbent assay (ELISA) was developed to detect influenza nucleoprotein antigen in nasal secretions from horses infected with A/equine/H3N8 viruses. Results from this assay were compared with conventional virus isolation in embryonated hens eggs.
Reactions to equine ‘flu vaccination.
The Veterinary record    April 16, 1988   Volume 122, Issue 16 373 doi: 10.1136/vr.122.16.373
No abstract available
Duration of circulating antibody and immunity following infection with equine influenza virus.
The Veterinary record    February 6, 1988   Volume 122, Issue 6 125-128 doi: 10.1136/vr.122.6.125
Hannant D, Mumford JA, Jessett DM.The duration of immunity as measured by virological, serological and clinical responses following infection with influenza A/equine/Newmarket/79 (H3N8) was assessed in repeated challenge experiments in which ponies were infected by exposure to aerosols of infectious virus. Previous infection stimulated complete clinical protection which persisted for at least 32 weeks as demonstrated by the absence of febrile responses and coughing in two groups of ponies infected 16 weeks or 32 weeks after the first infection. Partial clinical protection persisted for over a year as demonstrated by the absenc...
Influenza virus ISCOMs: antibody response in animals.
Vaccine    February 1, 1988   Volume 6, Issue 1 49-53 doi: 10.1016/0264-410x(88)90014-x
Sundquist B, Lövgren K, Morein B.A monovalent experimental ISCOM vaccine has been prepared with the envelope glycoproteins haemagglutinin and neuraminidase of the equine virus strain A/Solvalla/79 (H3N8). In vaccination trials on BALB/c mice the ISCOM vaccine induced more than ten times higher serum antibody titres measured in ELISA than a corresponding experimental micelle vaccine. Similarly, in guinea-pigs the ISCOMs induced about tenfold higher haemagglutination inhibition (HI) and neuraminidase inhibition (NI) titres than a micelle vaccine or a conventional killed influenza whole virus vaccine. Horses vaccinated with a di...
Outbreak of equine influenza in India.
The Veterinary record    December 12, 1987   Volume 121, Issue 24 569-570 
Uppal PK, Yadav MP.No abstract available
[Analysis of equine influenza H3N8 viruses].
Voprosy virusologii    May 1, 1987   Volume 32, Issue 3 298-300 
Nerome K.No abstract available
Equine influenza in South Africa.
The Veterinary record    March 28, 1987   Volume 120, Issue 13 310 doi: 10.1136/vr.120.13.310-b
Frank C.No abstract available
[Influenza epidemic in horses in West Berlin 1983-1985. 1. Clinical and hematological findings].
DTW. Deutsche tierarztliche Wochenschrift    March 9, 1987   Volume 94, Issue 3 153-155 
Jaeschke G, Lange W.No abstract available
[Influenza epidemic in horses in West Berlin 1983-1985. 2. Virological and serological findings].
DTW. Deutsche tierarztliche Wochenschrift    March 9, 1987   Volume 94, Issue 3 157-160 
Lange W, Jaeschke G.No abstract available
Surveillance of equine influenza in France.
Revue scientifique et technique (International Office of Epizootics)    March 1, 1987   Volume 6, Issue 1 141-162 doi: 10.20506/rst.6.1.281
Jacquet A, Cheyroux M, Plateau E.No abstract available
[Respiratory infectious diseases in horses].
Tierarztliche Praxis. Supplement    January 1, 1987   Volume 2 1-4 
Mayr A.Among all infectious diseases affecting horses, respiratory disease pose the greatest threat to horses kept in stables, horses used for breeding and race horses. Here a distinction should be made between the so-called monocausal infectious diseases (so-called Henle-Koch postulates) and multicausal infectious diseases which are the result of the synergistic interaction of different processes, that alone do not lead to disease. There is no clearcut distinction between the two groups. The most important monocausal respiratory infections of horses are caused by equine influenza virus (subtypes 1 a...
[Differentiation of equine influenza viruses subtype 2 with monoclonal antibodies].
Tierarztliche Praxis. Supplement    January 1, 1987   Volume 2 41-46 
Eichhorn W.Infections and clinical diseases caused by equine 2 influenza A viruses are observed worldwide. The frequency of these outbreaks supports the hypothesis that antigenic variation of the surface proteins may play an important role. For the demonstration of these variations, monoclonal antibodies (Mabs) were prepared. They are directed against the hemagglutinin or the neuraminidase of the prototype strain a/eq/Miami/1/63. In hemagglutination-inhibition assays with Mabs two reaction patterns were observed: four Mabs inhibited 14 out of 17 strains tested. Another Mab recognized the hemagglutinin of...
Tracheal mucus transport in the horse following equine influenza vaccination.
The Veterinary record    December 13, 1986   Volume 119, Issue 24 601-602 
Coombs SL, Webbon PM.No abstract available
The lack of effect of inoculation with equine influenza vaccine on theophylline pharmacokinetics in the horse.
Journal of veterinary pharmacology and therapeutics    December 1, 1986   Volume 9, Issue 4 426-432 doi: 10.1111/j.1365-2885.1986.tb00063.x
Short CR, Horner MW, Blay PK, Moss MS, Edington N, Clarke CR.Several studies conducted during the past few years have shown that the pharmacokinetics of a variety of drugs may be altered following viral infection or vaccination. The elimination of drugs which are extensively metabolized, such as theophylline, may be prolonged, especially following exposure to RNA viruses such as Type A influenza or similar orthomyxoviruses. The purpose of this study was to determine whether vaccination of horses with equine influenza virus affected pharmacokinetic parameters describing the distribution and elimination of intravenously administered theophylline. Three th...
Nucleotide and deduced amino acid sequence of the influenza neuraminidase genes of two equine serotypes.
Virology    December 1, 1986   Volume 155, Issue 2 460-468 doi: 10.1016/0042-6822(86)90207-2
Dale B, Brown R, Miller J, White RT, Air GM, Cordell B.Equine influenza is caused by two serotypes of type A influenza virus, EIV-A1 and EIV-A2. The complete nucleotide sequence of the neuraminidase (NA) genes of both the A1 (N7 subtype) and A2 (N8 subtype) serotype has been determined following cloning of full-length viral NA cDNAs into pBR322. Analysis of the deduced amino acid sequences reveals that the N7 and N8 genes share expected extensive homologies with the previously sequenced N1, N2, and N9 NA subtypes. These homologies include conservation of basic NA gene and protein structure, cysteine residues, potential glycosylation sites, and res...
Use of indirect and competitive ELISAs to compare isolates of equine influenza A virus.
Journal of virological methods    November 1, 1986   Volume 14, Issue 3-4 253-265 doi: 10.1016/0166-0934(86)90027-3
Denyer MS, Crowther JR.Antigenic differences within equine-1 and equine-2 isolates of influenza were studied by haemagglutination inhibition tests, indirect ELISA and competition ELISA, using the same antisera. Better differentiation was obtained with the competition ELISA than with the other two tests. All three methods produced similar relationships within the equine-1 isolates but differed in their ability to differentiate the equine-2 isolates where the competition ELISA was superior and produced epidemiologically sensible results. In all three tests, post-infection ferret and horse sera were more useful in disc...
Influence of vitamin E and selenium supplement on antibody production in horses.
Equine veterinary journal    November 1, 1986   Volume 18, Issue 6 472-474 doi: 10.1111/j.2042-3306.1986.tb03694.x
Baalsrud KJ, Overnes G.Fifteen horses used for serum production were maintained on low vitamin E and selenium diets. They were divided into four groups receiving: Group 1 no supplements, Group 2 vitamin E, Group 3 selenium and Group 4 both vitamin E and selenium. The humoral immune response to novel antigens, such as tetanus toxoid and equine influenza virus, was increased in groups receiving either vitamin E or selenium/vitamin E. No effects were recorded on the titres against Escherichia coli or the levels of immunoglobulin G.
Hemagglutination-inhibiting antibodies to equine influenza viruses in Japanese horses and antigenic variation of the viruses.
The Kitasato archives of experimental medicine    September 1, 1986   Volume 59, Issue 3 49-55 
Kudo H, Ohde H, Yamanaka T, Ohtsuka Y, Matumoto M.No abstract available
Reactions to equine influenza vaccine.
The Veterinary record    May 3, 1986   Volume 118, Issue 18 519-520 doi: 10.1136/vr.118.18.519-b
Belgrave J, Allpress RG.No abstract available
Reactions to equine influenza vaccination.
The Veterinary record    April 12, 1986   Volume 118, Issue 15 435 doi: 10.1136/vr.118.15.435-a
Hardy BD.No abstract available
Reactions to influenza vaccination.
The Veterinary record    March 29, 1986   Volume 118, Issue 13 371 doi: 10.1136/vr.118.13.371-a
Farmer CG.No abstract available
Influenza vaccination.
The Veterinary record    March 22, 1986   Volume 118, Issue 12 342 doi: 10.1136/vr.118.12.342-b
No abstract available
Rationale for the use of influenza vaccines in horses and the importance of antigenic drift.
Equine veterinary journal    March 1, 1986   Volume 18, Issue 2 93-96 doi: 10.1111/j.2042-3306.1986.tb03554.x
Baker DJ.No abstract available
Reactions to influenza vaccination.
The Veterinary record    March 1, 1986   Volume 118, Issue 9 251-252 doi: 10.1136/vr.118.9.251
Matthews AG.No abstract available
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