scholarly journals Voluntary intake of paracetamol-enriched drinking water and its influence on the success of embryo transfer in mice

2017 ◽  
Vol 111 ◽  
pp. 85-92 ◽  
Author(s):  
Thea Fleischmann ◽  
Margarete Arras ◽  
Mareike Sauer ◽  
Lanja Saleh ◽  
Thomas Rülicke ◽  
...  
1981 ◽  
Vol 97 (1) ◽  
pp. 31-36 ◽  
Author(s):  
Jean M. Bass ◽  
R. G. Hemingway ◽  
G. Fishwick ◽  
J. J. Parkins

SUMMARYThree experiments were conducted to assess the effects of several methods of dietary presentation of 250 g/day of a fully soluble liquid supplement (LS) on the voluntary intake of oat straw by non-productive cows fitted with a rumen fistula (Expt 1), pregnant beef cows (Expt 2) and lactating beef cows (Expt 3). In each case the cows received fixed daily amounts of barley (2 kg for Expts 1 and 2; 3 kg for Expt 3). LS contained (g/kg) about 1100 crude protein (as urea), 30 calcium, 15 phosphorus and 50 salt plus trace elements and vitamins. In Expt 1, provision of LS in either the drinking water, or via the rumen fistula or sprayed on to the straw increased voluntary straw intake by about 12%. In Expt 2, provision of LS, whether by spraying on the straw or in a molasses lick, increased straw consumption, but giving LS in the drinking water did not. In both Expts 1 and 2 the digestibility of the oat straw was not significantly affected by the dietary supplement, any increases in metabolizable energy intake being reflexions of increased intakes. In Expt 3 there was no difference in the voluntary intake of oat straw by group-fed lactating beef cows offered LS in either the drinking water or as a molasses lick.Giving LS sprayed on the straw, or incorporating it into a molasses lick to housed animals, are convenient and practical methods of supplementing ruminant diets to increase their voluntary straw consumption. Inclusion of LS in drinking water gave inconsistent results, but the method warrants further investigation.


2020 ◽  
Vol 8 (1) ◽  
pp. 39-43
Author(s):  
Tabita Naomi Ralahalu ◽  
C. Ch. E. Latupeirissa ◽  
Max A. Tukalpaly

To produce optimum carcass weight, broiler need an adequate ration which meet their nutrients requirement. This result in high feed cost which in turn increase cost of production. Therefore it is important to solve the problem by using non-conventional feedstuff such as agriculture by product or other ingredients.  The aims of this study were : 1). To examine the effect of giving coconut milky juice  and brown sugar water as drinking water on carcass weight and (2). To use by product of coconut milky juice  as drinking water. Experimental design used was complete randomized design, with three treatments and five replications. Each replication consists of  six chicken. The treatments were P0 (ration + plain water), P1 (ration + coconut milky juice (mature)) and P2 (ration + brown sugar water). Variables measured were: voluntary feed and drinking water intakes, carcass weight and percentage. Ration offered was commercial ration BR I produced by P.T Panca Patriot Prima Sidoarja. Chemical compositions of the ration were water content 12 %, minimum crude protein 21%, minimum crude lipid 6%, maximum crude fiber 5%,   energy 3065 kcal/kg, ash 6,5%, calcium 0.9 -1.1%, phospor 0.7 - 0.9%, antibiotic bacitracin Methylene, Disalcylate, Coccodistat Monensin. 90 DOC broilers strain CP 707 were used. An adaptation  period of 7 days allowed the animals to accustom to feed given and drinking water, and followed by 5 weeks measurement period. During the experiment the animals were fed twice daily at 07.00 and 16.00 h. The animal had free access to drinking water. The amount of drinking water and feed given was recorded daily. Drinking water and feed refusals were weighed every morning before the next feeding. Parameters measured were water and feed intakes, live and carcass weight, and carcass percentage. Drinking water and feed intakes were determined by subtracting  water and feed refusal from water and feed offered. Slaughtered weight were determined by weighing live animals after 10 hours fasting.  Carcass weight was determined by subtracting  non carcass  weight from slaughtered weight.  Analyses of variance were done using the General Linear Model (GLM). Least squares means and standard error were produced. Main effects were detected using LSD. Voluntary intakes were 1805.69 g, 1799.14 g, and 1806.66 g for P0, P1 and P2 respectively. The result shows that the treatments does not affect voluntary intake significantly (P > 0.05). However, broilers drank more (P < 0.05) coconut milky juice (mature) (P1/10287.2 ml), than plain water  (P0/9118.8 ml) or water contains brown sugar (P2/9081.8 ml).  Slaughter  and carcass weight of broilers are  1701.33 g,1849.40 g, 1847.27 g and 1263.87 g, 1386.00, 1379.90, for P0, P1 and P2 respectively.  Statistical analysis  show significant differences (P < 0.05) in slaughter and carcass weight among the treatments in which those parameters are higher for broilers received P1 and P2 than that of P0. Carcass percentage is the ratio of  slaughter  and carcass weight, which are 74.27%, 74.93 and 74.71 for P0, P1 and P2, respectively.  No differences in carcass percentage were obtained (P > 0.05) among the treatments. In conclusion, the present study has shown that giving 1 % brown sugar in drinking water and coconut milky juice (mature) as drinking water has no significant effect on voluntary intake and carcass percentage. However, giving brown sugar water and coconut milky juice (mature) affect drinking water consumption, slaughter and carcass weight.


2020 ◽  
Vol 242 ◽  
pp. 104298
Author(s):  
Kariny F. da Silva ◽  
Bruno A.N. Silva ◽  
Simon Eskinazi ◽  
David V. Jacob ◽  
Wagner A.G. Araujo ◽  
...  

1985 ◽  
Vol 248 (1) ◽  
pp. R68-R71 ◽  
Author(s):  
J. R. Blair-West ◽  
A. P. Gibson ◽  
R. L. Woods ◽  
A. H. Brook

Sheep were depleted of water by restricting water intake to 500 ml/day for 7-9 days and were then rehydrated by three treatments: voluntary intake of water, administration of water by tube into the stomach, or voluntary intake of 0.9% NaCl solution (saline). The volumes of fluids drunk within 2-3 min, or administered by tube, were approximately equal to the animal's weight loss. Plasma vasopressin rose from 4.4 +/- 0.6 to 16.8 +/- 1.0 pg/ml during water restriction. After drinking water plasma vasopressin fell from 19.0 +/- 1.9 to 7.5 +/- 0.4 pg/ml (P less than 0.001) in 15 min and gradually fell to 3.2 +/- 0.4 pg/ml over 6 h. Plasma osmolality fell from 302.4 +/- 0.9 to 301.0 +/- 1.1 mosmol/kg (NS) 15 min after water drinking and then gradually fell to subnormal levels. Sheep given water by stomach tube showed a similar decline in plasma osmolality, but the fall in plasma vasopressin was attenuated. The fall in plasma vasopressin in the first 30 min after drinking saline was almost identical with the fall after drinking water, but plasma osmolality was unaltered. Plasma vasopressin fell so rapidly after drinking water or saline as to suggest that the act of drinking caused almost complete inhibition of vasopressin release without a change in plasma osmolality. The results are consistent with earlier evidence that oropharyngeal receptors initiate the inhibition of vasopressin release after drinking.


1985 ◽  
Vol 6 (2) ◽  
pp. 52-58 ◽  
Author(s):  
Susan T. Bagley

AbstractThe genus Klebsiella is seemingly ubiquitous in terms of its habitat associations. Klebsiella is a common opportunistic pathogen for humans and other animals, as well as being resident or transient flora (particularly in the gastrointestinal tract). Other habitats include sewage, drinking water, soils, surface waters, industrial effluents, and vegetation. Until recently, almost all these Klebsiella have been identified as one species, ie, K. pneumoniae. However, phenotypic and genotypic studies have shown that “K. pneumoniae” actually consists of at least four species, all with distinct characteristics and habitats. General habitat associations of Klebsiella species are as follows: K. pneumoniae—humans, animals, sewage, and polluted waters and soils; K. oxytoca—frequent association with most habitats; K. terrigena— unpolluted surface waters and soils, drinking water, and vegetation; K. planticola—sewage, polluted surface waters, soils, and vegetation; and K. ozaenae/K. rhinoscleromatis—infrequently detected (primarily with humans).


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