Topic:Biochemistry

The study of biochemistry in horses encompasses the chemical processes and substances that occur within equine organisms. This field investigates the molecular interactions and pathways that are fundamental to horse physiology, including metabolism, enzyme activity, and genetic expression. Key areas of interest include the examination of metabolic disorders, nutrient absorption, and the biochemical basis of muscle function and energy production. Researchers utilize biochemical analysis to understand health and disease mechanisms in horses, contributing to the development of diagnostic tools and therapeutic strategies. This page gathers peer-reviewed studies and scholarly articles that explore various biochemical processes and their implications for equine health and performance.

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. [...]

Proceedings of the National Academy of Sciences of the United States of America June 1, 1973 Volume 70, Issue 6 1701-1703 doi: 10.1073/pnas.70.6.1701

Creutz C, Sutin N.The kinetics of the reduction of horseheart ferricytochrome c by sodium dithionite (phosphate buffer-sodium chloride; pH 6.5, mu = 1.0, 25 degrees ) features two reaction pathways; one with the rate constant k(3) = 1.17 x 10(4) M(-1) sec(-1), the other with the rate constant k(1)k(2)/k(-1) = 6.0 x 10(4) M(-1) sec(-1). These pathways are interpreted in terms of remote attack (possibly by way of the exposed edge of the porphyrin system) and adjacent attack (requiring the opening of the heme crevice). The limiting rate for the adjacent pathway (k(1) = 30 sec(-1)) is in good agreement with the rat...

Archives internationales de physiologie et de biochimie May 1, 1973 Volume 81, Issue 2 385

Roosemont JL.No abstract available

American journal of veterinary research May 1, 1973 Volume 34, Issue 5 631-636

Whitmore HL, Wentworth BC, Ginther OJ.No abstract available

Endocrinology May 1, 1973 Volume 92, Issue 5 1397-1404 doi: 10.1210/endo-92-5-1397

Bhavnani BR, Short RV.No abstract available

Research communications in chemical pathology and pharmacology May 1, 1973 Volume 5, Issue 3 741-758

Brookes LG, Forrest IS.No abstract available

DTW. Deutsche tierarztliche Wochenschrift April 15, 1973 Volume 80, Issue 8 190

Meyer H, Lemmer U.No abstract available

Biochemistry April 10, 1973 Volume 12, Issue 8 1622-1630 doi: 10.1021/bi00732a025

Lee JC, Harpst JA.No abstract available

Journal of animal science April 1, 1973 Volume 36, Issue 4 730-733 doi: 10.2527/jas1973.364730x

Madigan JE, Evans JW.No abstract available

The Journal of endocrinology April 1, 1973 Volume 57, Issue 1 175-176 doi: 10.1677/joe.0.0570175

Allen WE, Chard T, Forsling ML.No abstract available

DTW. Deutsche tierarztliche Wochenschrift April 1, 1973 Volume 80, Issue 7 166

Meyer H, Lemmer U.No abstract available

Zeitschrift fur Anatomie und Entwicklungsgeschichte March 20, 1973 Volume 139, Issue 2 173-183 doi: 10.1007/BF00523636

Sorensen VW, Prasad G.No abstract available

Journal of reproduction and fertility March 1, 1973 Volume 32, Issue 3 475-477 doi: 10.1530/jrf.0.0320475

Anand AS, Thompson KW, Wentworth BC, First NL.No abstract available

Endocrinology March 1, 1973 Volume 92, Issue 3 657-666 doi: 10.1210/endo-92-3-657

Bhavani BR, Short RV.No abstract available

Annales d'immunologie February 1, 1973 Volume 124, Issue 1 45-74

Lavergne M, Raynaud M.No abstract available

Endocrinology February 1, 1973 Volume 92, Issue 2 646-649 doi: 10.1210/endo-92-2-646

Leidenberger F, Reichert LE.No abstract available

Arhiv za higijenu rada i toksikologiju February 1, 1973 Volume 24, Issue 2 117-126

Maksimović M, Cosić M, Binenfeld Z.No abstract available

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

Applied microbiology February 1, 1973 Volume 25, Issue 2 190-194 doi: 10.1128/am.25.2.190-194.1973

Hart LT, Broussard EA.Immunodiffusion antigen from spleens of horses infected with equine infectious anemia virus was prepared by methods employing freeze-thaw cycles and thiocyanate treatment. Thiocyanate (0.5 M) permitted the recovery of the greatest amount of antigen. Furthermore, it was most effective for recovery of immunodiffusion antigen from spleens which yielded unsatisfactory concentrations of antigen by the conventional freeze-thaw or water-extraction methods. The reactivity of the antigen did not appear to be affected by this chemical treatment.

Acta endocrinologica February 1, 1973 Volume 72, Issue 2 366-375 doi: 10.1530/acta.0.0720366

Oh R, Tamaoki BI.The microsomal fraction (10 000–105 000 × g precipitate) of equine testes was fractionated into the smooth- and the rough-surfaced microsomal subfractions by a sucrose density-gradient centrifugation in the presence of CsCl. The validity of this fractionating procedure was confirmed by electron microscopic examination and also by chemical analysis of the RNA contents in these subfractions. The aromatizing enzyme system (19-hydroxylase and aromatase) which was concentrated in the microsomal fractions among the organellae was found to be localized in the smoothsurfaced microsomal fraction. Th...