Analyze Diet

Topic:Microbiology

Microbiology and horses explores the interactions between microorganisms and equine hosts, focusing on the role of bacteria, viruses, fungi, and other microbes in horse health and disease. This field examines the microbial flora present in various equine environments, including the gastrointestinal tract, skin, and respiratory system, and investigates how these microorganisms influence equine physiology and pathology. Research in this area includes studies on microbial infections that affect horses, the development of antimicrobial resistance, and the impact of probiotics and prebiotics on equine health. This page compiles peer-reviewed research studies and scholarly articles that investigate the diversity, dynamics, and implications of microbial communities in horses, as well as the strategies for managing microbial-related diseases.
The fine structure of equine papillomas and the equine papilloma virus.
Journal of ultrastructure research    February 1, 1970   Volume 30, Issue 3 328-343 doi: 10.1016/s0022-5320(70)80066-1
Fulton RE, Doane FW, Macpherson LW.Combined light and electron microscopy were used to follow the sequence of virus development in equine papillomas. The deepest layer in which virus was observed was the stratum spinosum of the epidermis. In this layer virus was scattered throughout the nuclei and was occasionally found in association with the nucleolus. In the stratum granulosum virus particles were more numerous, often forming isolated nuclear aggregates. Virus inclusions observed in the stratum granulosum by electron microscopy were correlated with nuclear inclusions seen by light microscopy. In the stratum corneum closely p...
[Microsporic disease caused by Microsporum canis Bodin (1902) in horses and man in Czechoslovakia].
Ceskoslovenska dermatologie    October 1, 1969   Volume 44, Issue 5 218-222 
Buchvald J, Sedlácek V.No abstract available
Electron microscopy of equine infectious anemia virus.
Journal of virology    October 1, 1969   Volume 4, Issue 4 521-527 doi: 10.1128/JVI.4.4.521-527.1969
Tajima M, Nakajima H, Ito Y.Equine infectious anemia (EIA) virus was observed in thin sections of infected cultured horse leukocytes by electron microscopy. The virus particles had a spherical shape and were between 80 and 120 nm in diameter. Most of them contained an electron-dense nucleoid 40 to 60 nm in diameter. They were observed to form by a process of budding from the plasma membrane and appeared to have thin surface projections. The particles described were not detected in uninfected cultured cells, and their appearance could be prevented by adding EIA immune serum to the inoculum. The implications of these findi...
[Cephalexin: microbiological activity in vitro and in vivo].
Antibiotica    June 1, 1969   Volume 7, Issue 2 93-128 
Muggleton PW, Renzini G, Ravagnan G, Orsolini P.No abstract available
[Microsporiasis in horses, with special regard for a Microsporum gypseum infection in a foal].
Mykosen    May 1, 1968   Volume 11, Issue 5 337-346 
Kaben U, Ritscher D.No abstract available
[Transaminase activity of mare’s milk and koumiss in the process of its ripening].
Voprosy pitaniia    May 1, 1968   Volume 27, Issue 3 87-89 
Il'iasov IZ, ShaÄ­khiev AA.No abstract available
Hemolysin production in Escherichia coli associated with nalidixic acid resistance.
Antimicrobial agents and chemotherapy    January 1, 1968   Volume 8 54-56 doi: 10.1128/AAC.8.1.54
Walton JR, Smith DH.No abstract available
[Culture of Trichomonas vaginalis (II)].
Folia medica    January 1, 1968   Volume 10, Issue 5 338-341 
Baltova E.No abstract available
Bacteriostatic effects of horse sera and serum fractions on Clostridium welchii Type A, and the abolition of bacteriostasis by iron salts.
Immunology    March 1, 1967   Volume 12, Issue 3 285-301 
Rogers HJ.Under a variety of conditions of concentration, Eh, and pH, horse anti- serum and normal horse serum exerted similar bacteriostatic effects against Type A. Ferric iron abolished the bacteriostatic effect when added during the first 2 hours of incubation at Eh+60 mV. Ferrous iron abolished the bacteriostatic effect when added after 3 hours. Ferric iron abolished the bacteriostatic effect at—140 mV. A mixture consisting of horse β- and γ-globulins together with human transferrin exerted a bacteriostatic effect similar to that of whole serum. This system responded in the same way as whole se...
Identification of staphylococcal hemolysins by an electrophoretic localization technique.
Journal of bacteriology    February 1, 1967   Volume 93, Issue 2 525-530 doi: 10.1128/jb.93.2.525-530.1967
Haque RU.A technique for identifying and characterizing staphylococcal hemolysins by first separating them electrophoretically in barbital-buffered agar gel (pH 8.4) at 5 ma/cm for 2 hr and then determining their hemolytic activities by exposing them to human, horse, rabbit, and sheep erythrocytes is described. The alpha-hemolysin produced by a White variant of the Wood 46 strain of Staphylococcus aureus migrated 18 mm towards the cathode, and it lysed horse, rabbit, and sheep erythrocytes, whereas a Clear variant of the Wood 46 strain of S. aureus produced a lysin which migrated similarly to the alpha...
Microsporum gypseum isolated from ringworm lesions in a horse.
New Zealand veterinary journal    July 1, 1966   Volume 14, Issue 7 92-93 doi: 10.1080/00480169.1966.33642
Carter ME.No abstract available
Colicine K: VI. The Immune Response of Horses to a Colicinogenic Strain of Escherichia Coli.
The Journal of experimental medicine    October 31, 1965   Volume 122, Issue 5 891-903 doi: 10.1084/jem.122.5.891
Goebel WF, Staub AM.1. The immunization of horses with the colicinogenic bacillus E. coli K235 L + O(m) stimulates antibodies which precipitate and neutralize colicine K and neutralize the heterologous colicine I as well. 2. Unlike rabbits, horses evoke predpitating antibodies for the sialic acid-containing polysaccharide colominic acid.
Isolation of Bordetella bronchiseptica from Horses.
The Veterinary record    May 29, 1965   Volume 77 632-633 
GALLAGHER GL.No abstract available
Lipid Inclusions in L Cells Associated with Venezuelan Equine Encephalomyelitis Virus Infection.
Journal of bacteriology    April 1, 1965   Volume 89, Issue 4 1101-1103 doi: 10.1128/jb.89.4.1101-1103.1965
HARDY FM, ARBITER D.Hardy, Frank M. (Fort Detrick, Frederick, Md.), and David Arbiter. Lipid inclusions in L cells associated with Venezuelan equine encephalomyelitis virus infection. J. Bacteriol. 89:1101-1103. 1965.-Venezuelan equine encephalomyelitis (VEE) virus has been shown to induce changes of lipid components within the L cell. Lipid inclusions in the form of dark granular bodies were observed in the L cell after aqueous osmium tetroxide fixation and Sudan black staining. Microscopic examination of cells as early as 8 hr after infection with VEE virus showed an increase in the concentration of these inclu...
The Specific Polysaccharide of Type XVIII Pneumococcus. III.
Biochemistry    November 1, 1963   Volume 2 1288-1294 doi: 10.1021/bi00906a020
ESTRADA-PARRA S, HEIDELBERGER M.No abstract available
A case of equine ringworm caused by Microsporum gypseum.
Nihon juigaku zasshi. The Japanese journal of veterinary science    August 1, 1963   Volume 25, Issue 4 203-205 doi: 10.1292/jvms1939.25.203
Okoshi S, Takashio M.No abstract available
Viability of Coliform Bacteria in Antarctic Soil.
Journal of bacteriology    May 1, 1963   Volume 85, Issue 5 1121-1123 doi: 10.1128/jb.85.5.1121-1123.1963
BOYD WL, BOYD JW.Boyd, William L. (Ohio State University, Columbus) and Josephine W. Boyd. Viability of coliform bacteria in antarctic soil. J. Bacteriol. 85:1121-1123. 1963.-The distribution of coliform bacteria in soils of Ross Island and the nearby mainland was studied. None was found in almost all of the samples collected, including some from the Adelie penguin rookeries at Cape Royds and Cape Crozier and in soil at the McMurdo Base which had been recently contaminated by human sewage. Samples of pony manure left from previous expeditions were also negative, with one exception where Escherichia coli were p...
Production and fermentation of lactate by bacteria in the alimentary canal of the horse and pig.
Journal of comparative pathology    January 1, 1963   Volume 73 1-8 doi: 10.1016/s0368-1742(63)80001-6
ALEXANDER F, DAVIES ME.No abstract available
CANDIDA SILVAE SP.N., A YEAST ISOLATED FROM HUMANS AND HORSES.
Antonie van Leeuwenhoek    January 1, 1963   Volume 29 261-264 doi: 10.1007/BF02046067
VIDAL-LEIRIA M, VANUDEN N.No abstract available
On Trichomonas caballi n. sp., a protozoan parasite from the horse.
Zeitschrift fur Parasitenkunde (Berlin, Germany)    January 1, 1961   Volume 21 164-168 doi: 10.1007/BF00260021
ABRAHAM R.No abstract available
On the intestinal yeast flora of horses, sheep, goats and swine.
Journal of general microbiology    December 1, 1958   Volume 19, Issue 3 435-445 doi: 10.1099/00221287-19-3-435
VAN UDEN N, DO SOUSA LC, FARINHA M.From the caeca of 252 horses, 503 sheep, 250 goats and 250 swine, 486 yeast isolates belonging to 28 species and 1 variety were obtained. The distribution of the yeasts of any species and for Candida albicans respectively was: horses, 52·4%, 4·4%; sheep, 6·8%, 4·2%; goats, 6·4%, 08%; swine, 88·8%, 9·2%. The suitability of the sheep and goats as hosts for yeasts of any species seems very limited. The most frequent occurrences for single species were: Candida slooffii in swine (48·4%), Trichosporon cutaneum in horses (21·8%) and Saccharomyces tellustris (Candida bovina) in swine (14%...
[Studies on the interactions between bacteria and ascarides in intestinal zoonoses of hogs and horses]. EMANUILOFF I.No abstract available
Ringworm in horses caused by the dermatophyte, Microsporum gypsum.
Journal of the American Veterinary Medical Association    October 1, 1957   Volume 131, Issue 7 329-332 
KAPLAN W, HOPPING JL, GEORG LK.No abstract available
The intestinal flora in horses with certain skin changes; with special reference to the coliform microbes.
Acta pathologica et microbiologica Scandinavica. Supplementum    January 1, 1957   Volume 119 1-102 
MANSSON I.No abstract available
Isolation of the dermatophyte, Microsporum gypseum, from a horse with ringworm.
Journal of the American Veterinary Medical Association    October 15, 1956   Volume 129, Issue 8 381-383 
FOSNAUGH CJ, GEORG LK, KAPLAN W.No abstract available
The effect of neotetrazolium on virus growth.
Transactions of the New York Academy of Sciences    March 1, 1955   Volume 17, Issue 5 389-397 doi: 10.1111/j.2164-0947.1955.tb00409.x
KODZA H, ANTOPOL W.No abstract available
Facilitation of demonstration of hemolytic streptococci in throat swabs by the use of nucleate and a mixture of sheep and horse blood.
Acta pathologica et microbiologica Scandinavica    January 1, 1955   Volume 36, Issue 2 187-192 doi: 10.1111/j.1699-0463.1955.tb04587.x
GRUBB R, NYMAN M.No abstract available
[Quantitative studies on acidophil bacteria in the intestines in horses].
Mikrobiologiia    July 1, 1954   Volume 23, Issue 4 474-476 
ULENDEEV AI.No abstract available
In vivo observations on the ciliate protozoa inhabiting the large intestine of the horse.
Journal of general microbiology    December 1, 1953   Volume 9, Issue 3 376-384 doi: 10.1099/00221287-9-3-376
ADAMS KM.The ciliate population of the large intestine of the horse shows large, daily variations. The ventral colon is the site where the ciliate fauna varies most. Two species, Cycloposthium edentatum and C. dentiferum, became established in the large intestine after passage through the stomach and small intestine. The introduction of new species into the ventral colon caused significant changes in the fauna of that part of the gut.
The characters of streptococci isolated from the uteri of thoroughbred mares in Ireland.
Journal of comparative pathology    October 1, 1952   Volume 62, Issue 4 260-265 doi: 10.1016/s0368-1742(52)80027-x
CRONIN MT.No abstract available