What's the difference between monogastric and ruminant?

Monogastric


Definition:

  • (a.) Having but a single stomach.

Example Sentences:

  • (1) Remarkably, the ratio for adult rabbits is higher than in other monogastric herbivores and is instead similar to values for carnivores.
  • (2) The reaction of the cardiac frequency to i. v. applications of adrenaline and noradrenaline corresponded, as a matter of fact to the reaction observed in monogastric animals.
  • (3) With the same antisera it also proved possible to demonstrate the presence of beta-lactoglobulins in the mammary secretions of another monogastric, namely, the mare.
  • (4) The effects of starvation on fluid balance seem to become as severe in goats as in monogastric species despite food reservoirs in the reticulo-rumen and omasum at the onset of food deprivation.
  • (5) In monogastric animals, suckling influences the secretion of gastrointestinal hormones during lactation.
  • (6) This suggests that the ventromedial hypothalamic area is functioning in ruminants, probably as in monogastric animals, by inhibiting the lateral area.
  • (7) Considerable development in regard to fiber methods has occurred over the past 5 yr because of a redefinition of dietary fiber for man and monogastric animals that includes lignin and all polysaccharides resistant to mammalian digestive enzymes.
  • (8) In monogastric animals magnesium is absorbed from the small and large intestine.
  • (9) Finally, the role of fat as a well-regulated, rapidly adaptable buffer within the monogastric's total metabolism was emphasized.
  • (10) The interrelations between urea, NH3, allantoin, creatine and creatinine, uric acid and hippuric acid depend on the species (monogastric or ruminants), on the nitrogen and N amount consumed and on the recycling ratio of the amino acids.
  • (11) in 1969 with the aim of characterizing processes of nitrogen metabolism in monogastric animals.
  • (12) Similarly to monogastrics in vivo BCAA catabolism involves an interorgan cooperation in ruminants.
  • (13) These gastrointestinal microfloras are known to serve nutritional functions in ruminants, pseudoruminants, and monogastric mammals with only modest or no foregut fermentations but with extensive hindgut fermentations in blind cecal pouches.
  • (14) We have, therefore, studied the fate of 99mTc given in the diet either as TcO-4 or bioincorporated into maize in rats (as an example of a monogastric animal) and in sheep (as an example of a polygastric animal).
  • (15) The results are discussed in relation to cholesterol esterification systems demonstrated in the plasma and liver of monogastric animals.
  • (16) Our data suggest that the morphology, frequency and distribution of the cell types we have identified in the mucosa of the bovine rectum correspond with those reported in large intestine and rectum of Monogastrics, as by other authors described.
  • (17) These ratios were found to be significantly higher than those reported for monogastric mammals such as the rat or dog.
  • (18) Proceeding from CZARNETZKI's multicompartment model (1969) for N-metabolism in monogastric animals, the measured data were used to calculate the endogenous and exogenous fecal N-proportion of total nitrogen.
  • (19) The involvement of insulin in ruminants may differ from that in monogastrics but effects are observed with thyroid hormones.
  • (20) As in monogastric species, food intake in ruminants is regulated from meal to meal.

Ruminant


Definition:

  • (a.) Chewing the cud; characterized by chewing again what has been swallowed; of or pertaining to the Ruminantia.
  • (n.) A ruminant animal; one of the Ruminantia.

Example Sentences:

  • (1) The data suggest that major differences may exist between ruminants and non-ruminants in the response of liver metabolism both to lactation per se and to the effects of growth hormone and insulin.
  • (2) In the clinical trials in which there was complete substitution of fat-modified ruminant foods for conventional ruminant products the fall in serum cholesterol was approximately 10%.
  • (3) The different hydrolytic, fermentative and methanogenic activities of these populations ensure the efficient degradation of cell wall constituent in forages (cellulose, hemicellulose, pectin) ingested by ruminants.
  • (4) Ruminal digestion (% of intake) of neutral detergent fiber (NDF) and hemicellulose decreased linearly (P less than .05), whereas acid detergent fiber (ADF) digestion responded in a cubic (P less than .05) fashion to increasing concentrate level; NaHCO3 improved ruminal digestion of NDF (P less than .10) and ADF (P less than .05), but not hemicellulose.
  • (5) The results of these trials suggest that increasing level of dietary NaHCO3 greatly increases the proportion of time ruminal pH is above critical levels for ruminal protein and dry matter digestion, but does not affect total tract nutrient digestion when 50% concentrate diets are fed.
  • (6) Extents of in situ ruminal digestion (72 h residue) for NDF, hemicellulose and cellulose were lower (P less than .05) for full-head than for late-boot-stage bromegrass.
  • (7) Consistent with the convergence hypothesis, only those sites that specify amino acids in the mature lysozyme are shared uniquely with ruminant lysozyme genes.
  • (8) Each of the primary stress selected isolates was tested in synthetic saliva, rumen fluid simulating the activity in the rumen, rumen fluid followed by pepsin-hydrochloric acid treatment simulating the additional effect of ruminal and abomasal activity, pepsin-hydrochloric acid solution simulating conditions in the abomasum and finally in a trypsin solution as an example of enzyme activity in the gut.
  • (9) It follows from the results that the effectiveness of some antifasciolics on laboratory animals need not always be in correlation with their effect in ruminants - hence it is necessary to verify the results obtained in laboratory animals and to check them on natural F. hepatica hosts.
  • (10) Ruminal lactate concentrations were variable within and among treatments.
  • (11) Data from the literature on the clinical effects of bacterial endotoxins in ruminants are reviewed.
  • (12) The strains of BTV serotype 11 were mild in their pathogenicity for the ruminants as no clinical signs of disease were seen.
  • (13) On defaunation of the rumen to remove ciliated protozoa the concentration of phosphatidylcholine in ruminal digesta falls markedly and becomes lower than that in abomasal digesta.
  • (14) The effect of ubiquitous clostridial infections on ruminants is discussed.
  • (15) Rauschia gen. nov. (type species: R. triangularis) is created for species previously pertaining to Nematodirus parasite of Lagomorpha, and in which the synlophe, very complex, differs from the synlophe of the parasite of Ruminants.
  • (16) When the rate of ruminal epithelial cell proliferation was measured on the basis of 3H-thymidine incorporation into the cellular DNA, butyrate dose-dependently reduced 3H-thymidine incorporation.
  • (17) Ruminal ammonia, molar percentage butyrate, and blood ketones, plasma urea N, and plasma molar percentage butyrate were lower when hay was fed.
  • (18) Breakdown of LP by rumination was calculated from the weight of total particles regurgitated and the proportion of LP in the regurgitated and swallowed remasticated material.
  • (19) Single doses of (15NH4)2SO4 were infused into ruminal pools to determine N kinetics.
  • (20) Nickel did not alter methane production, carcass characteristics or ruminal volatile fatty acid proportions.

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