Literature DB >> 682050

Taurine deficiency in the kitten: exchange and turnover of [35S] taurine in brain, retina, and other tissues.

J A Sturman, D K Rassin, K C Hayes, G E Gaull.   

Abstract

Kittens fed a purified diet containing partially-purified casein as the source of protein become taurine-deficient and develop retinal degeneration. The present studies report the exchange and turnover of taurine in different areas of brain, retina and other tissues and fluids of control and taurine-deficient kittens. The various tissues and fluids have different rates of exchange and different half-lives of taurine; taurine deficiency causes a range of changes in these parameters. Generally, tissues and fluids from taurine-deficient kittens accumulated more [35S] taurine and had a longer half-life of taurine than tissues and fluids from control kittens. Nine areas of brain were studied and, of these areas, olfactory bulb had the greatest concentration of taurine. Olfactory bulb resisted taurine depletion to a greater extent than other areas; and, in contrast to other areas of brain, in taurine-deficient kittens, it accumulated [35S] taurine for most of the experiment. Retina resisted taurine depletion and, in taurine-deficient kittens but not in control kittens, it accumulated [35S] taurine throughout the experiment. The amount of taurine conjugated to bile acids was unchanged by the taurine depletion, but the kinetic behavior was altered and was similar to that of retina. The results provide support for the suggestion that, in the kitten at least, taurine is most important for the functions of bile and retina and that taurine depletion affects retina before bile. Taurine may have special importance in olfactory bulb but not necessarily in other regions of brain.

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Year:  1978        PMID: 682050     DOI: 10.1093/jn/108.9.1462

Source DB:  PubMed          Journal:  J Nutr        ISSN: 0022-3166            Impact factor:   4.798


  7 in total

1.  Accumulation of taurine in the nasal mucosa and the olfactory bulb.

Authors:  N G Lindquist; A Lydén; K Narfström; H Samaan
Journal:  Experientia       Date:  1983-07-15

2.  Deletion of the γ-aminobutyric acid transporter 2 (GAT2 and SLC6A13) gene in mice leads to changes in liver and brain taurine contents.

Authors:  Yun Zhou; Silvia Holmseth; Caiying Guo; Bjørnar Hassel; Georg Höfner; Henrik S Huitfeldt; Klaus T Wanner; Niels C Danbolt
Journal:  J Biol Chem       Date:  2012-08-15       Impact factor: 5.157

3.  Plasma and Whole Blood Taurine Concentrations in Dogs May Not Be Sensitive Indicators of Taurine Deficiency When Dietary Sulfur Amino Acid Content Is Reduced.

Authors:  Cristina L Tôrres; Vincent C Biourge; Robert C Backus
Journal:  Front Vet Sci       Date:  2022-05-09

4.  Taurine deficiency in the kitten subcellular distribution of taurine and [35S]taurine in brain.

Authors:  D K Rassin; J A Sturman; K C Hayes; G E Gaull
Journal:  Neurochem Res       Date:  1978-08       Impact factor: 3.996

5.  The effect of taurine on high potassium-and noradrenaline-induced contraction in rabbit ear artery.

Authors:  F Franconi; A Giotti; S Manzini; F Martini; I Stendardi; L Zilletti
Journal:  Br J Pharmacol       Date:  1982-04       Impact factor: 8.739

6.  Distribution of 35S-taurine in rat neonates and adults. A whole-body autoradiographic study.

Authors:  M Shimada; R Shimono; M Watanabe; T Imahayashi; H S Ozaki; T Kihara; K Yamaguchi; S Niizeki
Journal:  Histochemistry       Date:  1984

7.  Studies on retinitis pigmentosa in man. I. Taurine and blood platelets.

Authors:  M J Voaden; A A Hussain; I P Chan
Journal:  Br J Ophthalmol       Date:  1982-12       Impact factor: 4.638

  7 in total

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