Literature DB >> 5010856

Distribution of creatine, guanidinoacetate and the enzymes for their biosynthesis in the animal kingdom. Implications for phylogeny.

J F Van Pilsum, G C Stephens, D Taylor.   

Abstract

1. The distribution of creatine and the creatine-synthesizing enzymes in the animal kingdom has been investigated. Creatine was found in tissues of all vertebrates examined, and in various invertebrates from phyla Annelida, Echinodermata, Hemichordata and Chordata, subphylum Cephalochordata. The activities of the creatine-synthesizing enzymes, arginine-glycine transamidinase and guanidinoacetate methylpherase, were not detected in the hagfish or in any of the invertebrates, including those in which creatine was found, with the exception that transamidinase activities were detected in the amphioxus and salt water clam; however, these activities are considered to be artifacts for reasons mentioned in the text. Additional evidence that the hagfish and various creatine-containing invertebrates could not synthesize creatine was the observation that these animals did not convert one or the other of the likely precursors of creatine (arginine and glycine) into creatine, in vivo. Further, the inability of these animals to synthesize creatine is correlated with the observations that all animals tested were able to abstract creatine from their aqueous environment. 2. The activities of the creatine-synthesizing enzymes were detected in the sea lamprey and in all but a few of the other vertebrates examined. Neither activity could be detected in the sharks and rays (cartilaginous fish), buffalo fish (bony fish) or the snapping turtle. Transamidinase or guanidinoacetate methylpherase activity could not be found in the salamander or garter snake, respectively. 3. The results obtained with the lamprey are in direct contrast with those obtained with the hagfish (both subphylum Agnatha, class Cyclostomata). The lamprey had the ability to synthesize creatine and did not abstract creatine from lake water. The hagfish did not have any apparent ability to synthesize creatine and did abstract creatine from sea water. The present report thus supports the theory that the myxinoid (hagfish) and petromyzoid (lamprey) agnathans are only distantly related. 4. The lack of creatine-synthesizing enzyme activities in the cartilaginous fishes may have phylogenetic significance, but may also be explained by the availability of creatine in the diet of these animals. The lack of one or both enzyme activities in vertebrates other than the hagfish and the cartilaginous fish is suggested to be the result of creatine in the diet.

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Year:  1972        PMID: 5010856      PMCID: PMC1178382     

Source DB:  PubMed          Journal:  Biochem J        ISSN: 0264-6021            Impact factor:   3.857


  28 in total

1.  [BIOGENESIS OF 2 SULFURATED GUANIDINES: TAUROCYAMINE AND HYPOTAUROCYAMINE].

Authors:  N V THOAI; S ZAPPACOSTA; Y ROBIN
Journal:  Comp Biochem Physiol       Date:  1963-11

2.  Transamidinase activities, in vitro, of tissues from various mammals and from rats fed protein-free, creatine-supplemented and normal diets.

Authors:  J F VAN PILSUM; B OLSEN; D TAYLOR; T ROZYCKI; J C PIERCE
Journal:  Arch Biochem Biophys       Date:  1963-03       Impact factor: 4.013

3.  Uptake of glucose from solution by the solitary coral, Fungia.

Authors:  G C STEPHENS
Journal:  Science       Date:  1960-05-20       Impact factor: 47.728

4.  The formation in vivo of lombricine in the earthworm (Megascolides cameroni).

Authors:  R J ROSSITER; T J GAFFNEY; H ROSENBERG; A H ENNOR
Journal:  Biochem J       Date:  1960-09       Impact factor: 3.857

5.  Creatine and creatine phosphate in normal and protein-depleted rats.

Authors:  J F VAN PILSUM
Journal:  J Biol Chem       Date:  1957-09       Impact factor: 5.157

6.  Biosynthesis of arginine from canavanine and ornithine in kidney.

Authors:  J B WALKER
Journal:  J Biol Chem       Date:  1956-01       Impact factor: 5.157

7.  The direct determination of creatine in pathological urine.

Authors:  G S Walpole
Journal:  J Physiol       Date:  1911-05-22       Impact factor: 5.182

8.  Phylogeny and the distribution of creatine in invertebrates.

Authors:  G C Stephens; J F Van Pilsum; D Taylor
Journal:  Biol Bull       Date:  1965-12       Impact factor: 1.818

9.  Uptake of organic material by aquatic invertebrates. IV. The influence of salinity on the uptake of amino acids by the brittle star, Ophiactis arenosa.

Authors:  G C Stephens; R A Virkar
Journal:  Biol Bull       Date:  1966-08       Impact factor: 1.818

10.  UPTAKE OF ORGANIC MATERIAL BY AQUATIC INVERTEBRATES. II. ACCUMULATION OF AMINO ACIDS BY THE BAMBOO WORM, CLYMENELLA TORQUATA.

Authors:  G C STEPHENS
Journal:  Comp Biochem Physiol       Date:  1963-11
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  19 in total

1.  Functional equivalence and evolutionary convergence in complex communities of microbial sponge symbionts.

Authors:  Lu Fan; David Reynolds; Michael Liu; Manuel Stark; Staffan Kjelleberg; Nicole S Webster; Torsten Thomas
Journal:  Proc Natl Acad Sci U S A       Date:  2012-06-13       Impact factor: 11.205

2.  Characterization of AGAT, GAMT and CT1 in amphioxus: implications for the evolutionary conservation of creatine metabolism related molecules at the invertebrate-to-vertebrate transition.

Authors:  Lifeng Wang; Dongyan Chen; Ying Zhang; Yushuang Lin; Jianwei Li; Hongwei Zhang
Journal:  Dev Genes Evol       Date:  2008-09-05       Impact factor: 0.900

3.  Arginine:glycine amidinotransferase deficiency: the third inborn error of creatine metabolism in humans.

Authors:  C B Item; S Stöckler-Ipsiroglu; C Stromberger; A Mühl; M G Alessandrì; M C Bianchi; M Tosetti; F Fornai; G Cioni
Journal:  Am J Hum Genet       Date:  2001-09-10       Impact factor: 11.025

4.  Mutation in the Monocarboxylate Transporter 12 Gene Affects Guanidinoacetate Excretion but Does Not Cause Glucosuria.

Authors:  Nasser Dhayat; Alexandre Simonin; Manuel Anderegg; Ganesh Pathare; Benjamin P Lüscher; Christine Deisl; Giuseppe Albano; David Mordasini; Matthias A Hediger; Daniel V Surbek; Bruno Vogt; Jörn Oliver Sass; Barbara Kloeckener-Gruissem; Daniel G Fuster
Journal:  J Am Soc Nephrol       Date:  2015-09-16       Impact factor: 10.121

Review 5.  X-linked creatine transporter deficiency: clinical aspects and pathophysiology.

Authors:  Jiddeke M van de Kamp; Grazia M Mancini; Gajja S Salomons
Journal:  J Inherit Metab Dis       Date:  2014-05-01       Impact factor: 4.982

6.  Human skeletal muscle creatine transporter mRNA and protein expression in healthy, young males and females.

Authors:  Robyn M Murphy; Rebecca J Tunstall; Kate A Mehan; David Cameron-Smith; Michael J McKenna; Lawrence L Spriet; Mark Hargreaves; Rodney J Snow
Journal:  Mol Cell Biochem       Date:  2003-02       Impact factor: 3.396

Review 7.  Creatine metabolism and the consequences of creatine depletion in muscle.

Authors:  M Wyss; T Wallimann
Journal:  Mol Cell Biochem       Date:  1994 Apr-May       Impact factor: 3.396

8.  Metabolomic investigations of American oysters using H-NMR spectroscopy.

Authors:  Andrey P Tikunov; Christopher B Johnson; Haakil Lee; Michael K Stoskopf; Jeffrey M Macdonald
Journal:  Mar Drugs       Date:  2010-10-08       Impact factor: 5.118

Review 9.  Arginine metabolism: nitric oxide and beyond.

Authors:  G Wu; S M Morris
Journal:  Biochem J       Date:  1998-11-15       Impact factor: 3.857

10.  Molecular cloning, sequence analysis, and expression in Escherichia coli of the cDNA for guanidinoacetate methyltransferase from rat liver.

Authors:  H Ogawa; T Date; T Gomi; K Konishi; H C Pitot; G L Cantoni; M Fujioka
Journal:  Proc Natl Acad Sci U S A       Date:  1988-02       Impact factor: 11.205

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