Analyze Diet

Topic:Metabolic Health

Metabolic health in horses refers to the physiological processes that manage energy production, utilization, and storage in equine bodies. These processes are critical for maintaining overall health, performance, and well-being. Metabolic health encompasses various aspects, including glucose metabolism, insulin sensitivity, and lipid regulation. Conditions such as Equine Metabolic Syndrome (EMS) and insulin dysregulation are common metabolic disorders that affect horses, impacting their ability to process and store energy efficiently. This topic compiles peer-reviewed research studies and scholarly articles that explore the mechanisms, diagnostic approaches, and management strategies related to metabolic health in horses.
Changes of plasma uric acid levels in horses after galloping.
Research in veterinary science    July 1, 1978   Volume 25, Issue 1 127-128 
Keenan DM.Two horses were alternately galloped and cantered at 48 h intervals in a cross over trial. Galloping produced a rise in plasma lactic and uric acids. The lactic acid decreased in concentration whereas the uric acid increased in the hour after exercise. Plasma phosphate levels were depressed 1 h after galloping. There was no significant variation in these parameters after cantering. Possible reasons for these changes are discussed.
Methods for measuring physical condition and energy expenditure in horses.
Journal of animal science    June 1, 1978   Volume 46, Issue 6 1666-1672 doi: 10.2527/jas1978.4661666x
Burke DJ, Albert WW.No abstract available
Biochemical changes in horses during endurance rides.
The Veterinary record    May 27, 1978   Volume 102, Issue 21 469 doi: 10.1136/vr.102.21.469
Orton RG.No abstract available
Nutritional problems in horses.
Modern veterinary practice    May 1, 1978   Volume 59, Issue 5 395-396 
No abstract available
The use of cocoa-bean meal in the diets of horses: pharmacology, and pharmacokinetics of theobromine.
The British veterinary journal    March 1, 1978   Volume 134, Issue 2 171-180 doi: 10.1016/s0007-1935(17)33542-x
Kelly WR, Lambert MB.No abstract available
Amprolium-induced thiamine deficiency in horses: clinical features.
American journal of veterinary research    February 1, 1978   Volume 39, Issue 2 255-261 
Cymbaluk NF, Fretz PB, Loew FM.No abstract available
The effect of acetylpromazine medication on red blood cell metabolism in the horse.
Annales de recherches veterinaires. Annals of veterinary research    January 1, 1978   Volume 9, Issue 1 17-24 
Courtot D, Mouthon G, Mestries JC.No abstract available
Bending properties of cortical bone of the horse.
American journal of veterinary research    January 1, 1978   Volume 39, Issue 1 25-28 
Schryver HF.Bending properties of samples of cortical bone taken from the cranial, caudal, medial, and lateral quadrants of the midshaft of the radius, femur, and metacarpus of 12 ponies, 18 months old, were determined by 4-point loading at a rate of 10 mm/minute. The elastic modulus for all samples was between 16.2 and 20.2 GN/m2, and the ultimate breaking strength, between 204 and 255 MN/m2. There was greater variation in these properties between bone quadrants than between bones. Samples from the cranial and medial quadrants of both femur and radius were stiffer and had greater ultimate breaking streng...
Interrelationship of Na, HCO3, and volatile fatty acid transport by equine large intestine.
The American journal of physiology    December 1, 1977   Volume 233, Issue 6 E469-E478 doi: 10.1152/ajpendo.1977.233.6.E469
Argenzio RA, Southworth M, Lowe JE, Stevens CE.No abstract available
Effect of training on some metabolic changes associated with submaximal endurance exercise in the horse.
Equine veterinary journal    October 1, 1977   Volume 9, Issue 4 226-230 doi: 10.1111/j.2042-3306.1977.tb04037.x
Snow DH, Mackenzie G.The effects of prolonged cantering before and after a 10 week training programme were studied in 6 horses. Determinations were carried on on venous blood for packed cell volume, glucose, glycerol, free fatty acids, beta-hydroxybutyrate, 11-hydroxycorticosteroids, pH and pCO2. Exercise caused a slight increase in glucose, lactate and pH, a moderate rise in PCV, glycerol and free fatty acids, and a marked rise in 11-hydroxycorticosteroids. A decrease in venous pCO2 occurred and a slight but not significant decrease in beta-hydroxybutyrate. Training was found to cause no significant difference in...
[Clinical aspects of nutritional muscular dystrophy in foals].
DTW. Deutsche tierarztliche Wochenschrift    August 5, 1977   Volume 84, Issue 8 293-296 
Bostedt H.No abstract available
Rapid changes in equine erythrocyte glutathione reductase with exercise.
American journal of veterinary research    July 1, 1977   Volume 38, Issue 7 1045-1047 
Brady PS, Shelle JE, Ullrey DE.No abstract available
Total nutritional support of the foal.
Veterinary medicine, small animal clinician : VM, SAC    July 1, 1977   Volume 72, Issue 7 1197-1208 
Gideon L.No abstract available
The effect of training and detraining on lactate dehydrogenase isoenzymes in the horse.
Biochemical and biophysical research communications    April 25, 1977   Volume 75, Issue 4 863-869 doi: 10.1016/0006-291x(77)91462-0
Guy PS, Snow DH.No abstract available
[Magnesium metabolism in the horse].
Zentralblatt fur Veterinarmedizin. Reihe A    February 1, 1977   Volume 24, Issue 2 128-139 
Meyer H, Ahlswede L.No abstract available
Serum enzyme and protein concentrations in English shire horses.
The Veterinary record    January 29, 1977   Volume 100, Issue 5 91-92 doi: 10.1136/vr.100.5.91
Blackmore DJ, Kent JE.No abstract available
Electolyte imbalance in horses.
The Veterinary record    January 8, 1977   Volume 100, Issue 2 36 doi: 10.1136/vr.100.2.36-a
Andrew AE.No abstract available
Drug interactions in the horse: effects of chloramphenicol, quinidine, and oxyphenbutazone on phenylbutazone metabolism.
American journal of veterinary research    January 1, 1977   Volume 38, Issue 1 123-127 
Tobin T, Blake JW, Valentine R.The plasma half-life of phenylbutazone in horses was not increased after pretreatment with chloramphenicol or quinidine, but was increased after oxyphenbutazone. This increased plasma half-life after oxyphenbutazone is consistent with observations in other species and suggests that oxyphenbutazone inhibits the metabolism of phenylbutazone in horses. Lack of inhibition of phenylbutazone metabolism in the horse by chloramphenicol and quinidine is inconsistent with results obtained in other species.
[Poisoning with meta (metaldehyde) in a horse].
Schweizer Archiv fur Tierheilkunde    December 1, 1976   Volume 118, Issue 12 557-558 
Grandchamp G.No abstract available
[Effect of ATP on carbohydrate metabolism].
Veterinariia    November 1, 1976   Issue 11 99-100 
Alekseev MIu.No abstract available
Measurement of volatile fatty acid production rates in the cecum of the pony.
Journal of animal science    June 1, 1976   Volume 42, Issue 6 1465-1470 doi: 10.2527/jas1976.4261465x
Glinsky MJ, Smith RM, Spires HR, Davis CL.Three experiments, each utilizing three ponies, were conducted using a mixed VFA solution of [1−14C] acetate, [1−14C] propionate and [2–33H] butyrate to determine VFA production rates in the cecum of the pony. Diet A used in experiment 1, contained a forage to grain ratio of 1:2, while diet B, used in experiments 2 and 3, contained a forage to grain ratio of 3:1. Experiment 1, in which a constant infusion technique was used, resulted in net VFA production rates (mmoles/min) of 3.667 to 3.977 (x̄=3.836) for acetate, .410 to 1.664 (x̄=1.213) for propionate and .342 to 1.124 (x̄=.629) fo...
The influence of hepatic microsomal amidopyrine demethylase activity on halothane hepatotoxicity in the horse.
The Journal of pathology    June 1, 1976   Volume 119, Issue 2 105-112 doi: 10.1002/path.1711190205
Gopinath G, Ford EJ.The hepatotoxic effect of oral halothane in the horse is increased by pretreatment with phenobarbitone or DDT but not by chlorpromazine. Phenobarbitone and DDT increase the activity of hepatic amidopyrine N-demethylase but chlorpromazine does not. Carbon disulphide protects the liver of the horse against halothane.
Treatment for azoturia and tying-up.
Modern veterinary practice    May 1, 1976   Volume 57, Issue 5 413-416 
No abstract available
A preliminary study of the measurement of plasma osmotic pressure in equine medicine.
Equine veterinary journal    April 1, 1976   Volume 8, Issue 2 84-85 doi: 10.1111/j.2042-3306.1976.tb03301.x
Wilkinson JS.The normal plasma osmotic pressure was established in 205 Thoroughbred horses. Samples taken from horses suffering from a variety of diseases showed that measurement of this parameter might prove a valuable non specific test for assessing the severity of some diseases in which there are alterations in metabolism.
Characterization of protein phosphokinase activities in horse thyroid nuclei.
Biochimica et biophysica acta    March 11, 1976   Volume 429, Issue 1 163-172 doi: 10.1016/0005-2744(76)90038-3
Verhaegen M, Sand G.The distribution of protein phosphokinase (EC 2.7.1.37) activities has been established in horse thyroid nuclei. The presence of several enzyme activities has been demonstrated, two of which are clearly distinct. The first one acts on histone as substrate and is activated by cyclic AMP. Physico-chemical properties of this nuclear cyclic AMP-dependent histone kinase and of the cytosol histone kinase are different, demonstrating the absence of a contamination from the cytosol. The second enzyme acts on casein as substrate and is not stimulated by cyclic AMP POR CYCLIC GMP. The findings are consi...
Letter: Laminitis in ponies.
The Veterinary record    January 24, 1976   Volume 98, Issue 4 77-78 doi: 10.1136/vr.98.4.77
Jones M.No abstract available
Cardiac monitoring during exercise tests in the horse. 3. Changes in the electrocardiogram during and after exercise.
Australian veterinary journal    January 1, 1976   Volume 52, Issue 1 6-10 doi: 10.1111/j.1751-0813.1976.tb05360.x
Steel JD, Hall MC, Stewart GA.Changes that occur in the equine ECG during and after exercise have been described and compared with resting ECG's obtained from the same horses. When the speed of work equals or is greater than "three-quarter pace" (i.e. "even time" or 200 metres in 15 seconds) the high heart rates developed cause the loss of ECG waveforms that are readily discernible at rest. Although differences in the waveforms between horses with normal and abnormal resting ECG's have been observed, the more definitive useful information is the fact that abnormal horses showed significantly higher heart rates than normal ...
Fetal and placental O2 consumption and the uptake of different metabolites in the ruminant and horse during late gestation.
Advances in experimental medicine and biology    January 1, 1976   Volume 75 731-736 doi: 10.1007/978-1-4684-3273-2_85
Silver M, Comline RS.No abstract available
Nutrition and bone development in horses.
Journal of the American Veterinary Medical Association    January 1, 1976   Volume 168, Issue 1 39-44 
Hintz HF, Schryver HF.No abstract available
Creatine phosphokinase in normal sheep and in sheep with nutritional muscular dystrophy.
Journal of comparative pathology    January 1, 1976   Volume 86, Issue 1 23-28 doi: 10.1016/0021-9975(76)90023-2
Boyd JW.No abstract available
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