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Topic:Tissue

Tissue in horses refers to the various types of biological material that make up the body of the animal, including muscle, connective, epithelial, and nervous tissues. Each type of tissue has specific functions and characteristics, contributing to the overall physiology and health of the horse. Muscle tissue is responsible for movement and locomotion, connective tissue provides structural support and protection, epithelial tissue covers body surfaces and lines cavities, and nervous tissue is involved in transmitting signals for communication and coordination within the body. The study of equine tissue encompasses aspects such as growth, repair, and response to injury or disease. This page compiles peer-reviewed research studies and scholarly articles that explore the structure, function, and pathology of different tissue types in horses, offering insights into their role in equine health and disease management.
Epidemiology of equine streptococci.
Research in veterinary science    January 1, 1975   Volume 18, Issue 1 113-114 
Woolcock JB.Equine tonsillar tissue and the draining regional lymph nodes, as well as deep nasal swabs were examined bacteriologically. Group C streptococci, predominantly Streptococcus zooepidemicus, were shown to be present in all tissues. The most frequent site for isolation was the tonsil. Streptococcus equi was not located in any of the tissues sampled.
Recovery of adenoviruses and slow herpesviruses from horses having respiratory tract infection.
American journal of veterinary research    September 1, 1974   Volume 35, Issue 9 1169-1172 
Roberts AW, Whitenack DL, Carter GR.No abstract available
Passive cutaneous anaphylaxis and its enhancement by normal IgG.
Immunology    August 1, 1974   Volume 27, Issue 2 271-283 
Williams MR.Rats were injected intradermally with rabbit anti-ovalbumin serum and 3 hours later were challenged intravenously with ovalbumin and Evans Blue dye. Inflammatory lesions were produced within 20 minutes and their size was markedly dose-dependent. Attempts were made to interfere with this passive cutaneous anaphylaxis (PCA) by admixture of normal IgG with the rabbit anti-ovalbumin to measure the relative tissue binding affinities of IgG from various species. It was found that normal IgG from any of the species tested had an enhancing effect on PCA in rats. These immunoglobulins serially arranged...
[Nerve-ending distribution in the equine metacarpus and toe as obtained by serial sections of fetal limbs].
Berliner und Munchener tierarztliche Wochenschrift    April 1, 1974   Volume 87, Issue 7 136-143 
Sack WO.No abstract available
Studies on the substrate specificity of acylneuraminate cytidylyltransferase and sialytransferase of submandibular glands from cow, pig and horse.
Hoppe-Seyler's Zeitschrift fur physiologische Chemie    October 1, 1973   Volume 354, Issue 10-11 1405-1414 doi: 10.1515/bchm2.1973.354.2.1405
Schauer R, Wember M.No abstract available
The biochemistry of ferritin.
British journal of haematology    June 1, 1973   Volume 24, Issue 6 677-680 doi: 10.1111/j.1365-2141.1973.tb01695.x
Crichton RR.The researchers investigated the biochemical properties of ferritin, a protein responsible for iron storage in the body. They identified its distribution and structure, noting variations in different species and tissues. […]
Distribution of zinc and copper in pigmented tissues.
Hoppe-Seyler's Zeitschrift fur physiologische Chemie    February 1, 1973   Volume 354, Issue 2 203-204 
Horcicko J, Borovanský J, Duchon J, Procházková B.No abstract available
Influence of rations low in calcium and phosphorus on blood and tissue lead concentrations in the horse.
American journal of veterinary research    June 1, 1972   Volume 33, Issue 6 1165-1173 
Willoughby RA, Thirapatsakun T, McSherry BJ.No abstract available
[Effect of fusidin on reproduction of Venezuelan equine encephalomyelitis virus in tissue culture].
Antibiotiki    May 1, 1972   Volume 17, Issue 5 457-461 
Gerasimova SS, Novokhatskii AS.No abstract available
Detection of African horsesickness viral antigens in tissues by immunofluorescence.
Canadian journal of comparative medicine : Revue canadienne de medecine comparee    April 1, 1972   Volume 36, Issue 2 167-169 
Tessler J.The fluorescent antibody reaction was studied in tissues of ponies infected with African horsesickness virus (AHSV). Lung, spleen, lymph node, liver, skeletal muscle, intestine, stomach, nerve ganglion and kidney were sectioned and stained by the direct fluorescent antibody technique (FA). Fluorescence was demonstrated only in the spleen and could be inhibited by using unconjugated antiserum.
Inactivated complement fixing antigen from Venezuelan equine encephalitis virus grown in tissue culture. Gruber J, Birrell D, Wright GG.No abstract available
Temporal distribution of equine arteritis virus in respiratory mucosa, tissues and body fluids of horses infected by inhalation.
Research in veterinary science    September 1, 1971   Volume 12, Issue 5 459-464 
McCollum WH, Prickett ME, Bryans JT.No abstract available
Immunofluorescent localization of equine infectious anemia virus in tissue.
The American journal of pathology    February 1, 1971   Volume 62, Issue 2 283-294 
McGuire TC, Crawford TB, Henson JB.No abstract available
A histochemical and ultrastructural study of intimal bodies of horse arterioles.
Laboratory investigation; a journal of technical methods and pathology    September 1, 1970   Volume 23, Issue 3 302-306 
Montali RJ, Strandberg JD, Squire RA.No abstract available
Ferritin and ferritin iron measurement in tissues by a quantitative immunoprecipitation technique.
Analytical biochemistry    September 1, 1970   Volume 37, Issue 1 64-72 doi: 10.1016/0003-2697(70)90258-7
Leslie AJ, Kaldor I.No abstract available
Alkaline phosphatase in healing of wounds of skin and subcutis in the horse.
American journal of veterinary research    August 1, 1970   Volume 31, Issue 8 1389-1392 
Patel MR, Hardenbrook HJ.No abstract available
Studies on tissue culture of equine ovarian cell types: pathways of steroidogenesis.
The Journal of endocrinology    March 1, 1969   Volume 43, Issue 3 403-414 doi: 10.1677/joe.0.0430403
Channing CP.No abstract available
Tissue culture of equine ovarian cell types: culture methods and morphology.
The Journal of endocrinology    March 1, 1969   Volume 43, Issue 3 381-390 doi: 10.1677/joe.0.0430381
Channing CP.No abstract available
Studies on tissue culture of equine ovarian cell types: steroidogenesis.
The Journal of endocrinology    March 1, 1969   Volume 43, Issue 3 391-402 doi: 10.1677/joe.0.0430391
Channing CP, Grieves SA.No abstract available
[Tissue preparations, pregnant mare serum and antibiotics in gynecologic practice].
Veterinariia    October 1, 1968   Volume 45, Issue 10 89-92 
Obukhova AG.No abstract available
The correlation of serum levels of two transaminases with tissue levels in six vertebrate species.
Comparative biochemistry and physiology    June 1, 1968   Volume 25, Issue 3 1081-1089 doi: 10.1016/0010-406x(68)90593-8
Zimmerman HJ, Dujovne CA, Levy R.No abstract available
Intracapsular bony fragments of the distal tibia of the horse.
Journal of the American Veterinary Medical Association    May 15, 1968   Volume 152, Issue 10 1526-1529 
Birkeland R, Haakenstad LH.No abstract available
Tissue distribution of sulfadimethoxine and sulfamonomethoxine in horses after intravenous injection.
Nihon juigaku zasshi. The Japanese journal of veterinary science    February 1, 1968   Volume 30, Issue 1 21-23 doi: 10.1292/jvms1939.30.21
Oishi S.The author has already reported on the time course of blood level of sulfonamides in horses at various dose schedules3). The present paper is concerned with the tissue distri-bution of sulfadimethoxine and sulfamonomethoxine in horses. The distribution of sulfonamides has been reported by KoNDol) in experimental animals, in which the concentrations of these drugs in the kidney, liver, lung and spleen were found to be close to the blood level. Many investigators ascribed the low concen-tration of sulfonamides in the spinal fluid to the existence of a blood-brain barrier, and also observed that ...
The involution of the muscle tissue of the proximal sesamoidean ligament of horse.
Lo sperimentale    January 1, 1968   Volume 118, Issue 1 57-69 
Callegari E.No abstract available
Mechanical behaviour of tendon in vitro. A preliminary report.
Medical & biological engineering    September 1, 1967   Volume 5, Issue 5 433-443 doi: 10.1007/BF02479137
Abrahams M.The mechanical behaviour of horse and human tendon, as characterised by the stress-strain curve, has been examined with respect to load-strain cycling and strain rate. It was found that the tendon stress-strain curve for successive cycles was reporducible provided that strain on the specimen did not exceed 2·0–4·0%. If this strain level was exceeded, a permanent deformation occurred. This phenomenon was verified by histological studies on strained tendon which showed that some of the collagen fibres did not return to their original orientation. Variation in the rate of strain was found to ...
[Tissue antigens of the digestive tract in man and animals. II. Antigens of the colon].
Pathologie et biologie    April 1, 1967   Volume 15, Issue 7 359-367 
Zweibaum A, Halpern B, Veyre C, Oriol-Palou R.No abstract available
Occurrence and distribution of 5-hydroxytryptamine in some tissues of bovine and equine foetuses.
Research in veterinary science    January 1, 1967   Volume 8, Issue 1 1-5 
Bertaccini G, De Caro G, Cheli R, Mori L.No abstract available
The use of bovine ear cartilage in speeding open-wound healing in the horse.
Veterinary medicine, small animal clinician : VM, SAC    October 1, 1966   Volume 61, Issue 10 961-962 
Roberts D.No abstract available
Comparative studies on the soluble protein fractions of bovine, equine, porcine and ovine adrenal chromaffin granules.
The Biochemical journal    July 1, 1966   Volume 100, Issue 1 6C-7C doi: 10.1042/bj1000006c
Helle KB.No abstract available.
Progesterone biosynthesis by equine granulosa cells growing in tissue culture.
Nature    June 18, 1966   Volume 210, Issue 5042 1266 doi: 10.1038/2101266a0
Channing CP.OUR knowledge of the pathways of steroid biosynthesis in the ovary has been gained mainly by incubations of ovaries in vitro1,2. The tissues incubated have contained numerous cell types: granulosa cells, theca interna cells, stromal cells, interstitial cells, and sometimes luteal cells. Possibly such mixtures of two or more different cell types are able to secrete hormones that one cell type cannot secrete by itself3–9. Furthermore, during such incubations in vitro an exchange of precursors and products between different cell types may be facilitated because of breakdown of naturally occurri...