Creatine and Creatinine Metabolism - Physiological Reviews
Creatine and Creatinine Metabolism - Physiological Reviews
Creatine and Creatinine Metabolism - Physiological Reviews
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July 2000 CREATINE AND CREATININE METABOLISM 1187<br />
encoding guanidinoacetate methyltransferase (GAMT) maps to<br />
human chromosome 19 at b<strong>and</strong> p13.3 <strong>and</strong> to mouse chromosome<br />
10. Genomics 49: 162–164, 1998.<br />
115. CHANG MC, CHANG CC, AND CHANG JC. Cloning of a creatinase<br />
gene from Pseudomonas putida in Escherichia coli by using an<br />
indicator plate. Appl Environ Microbiol 58: 3437–3440, 1992.<br />
116. CHANUTIN A. The fate of creatine when administered to man.<br />
J Biol Chem 67: 29–41, 1926.<br />
117. CHAPADOS RA, GRUVER EJ, INGWALL JS, MARSH JD, AND<br />
GWATHMEY JK. Chronic administration of cardiovascular drugs:<br />
altered energetics <strong>and</strong> transmembrane signaling. Am J Physiol<br />
Heart Circ Physiol 263: H1576–H1586, 1992.<br />
118. CHAWLA RK AND JONES DP. Abnormal metabolism of S-adenosyl-L-methionine<br />
in hypoxic rat liver. Similarities to its abnormal<br />
metabolism in alcoholic cirrhosis. Biochim Biophys Acta 1199:<br />
45–51, 1994.<br />
119. CHEN C, PEARSON AM, AND GRAY JI. Meat mutagens. Adv Food<br />
Nutr Res 34: 387–449, 1990.<br />
120. CHEVLI R AND FITCH CD. �-Guanidinopropionate <strong>and</strong> phosphorylated<br />
�-guanidinopropionate as substrates for creatine kinase.<br />
Biochem Med 21: 162–167, 1979.<br />
121. CHEVREUL. Sur la composition chimique du bouillon de vi<strong>and</strong>es.<br />
J Pharm Sci Access 21: 231–242, 1835.<br />
122. CHIANG PK AND CANTONI GL. Perturbation of biochemical transmethylations<br />
by 3-deazaadenosine in vivo. Biochem Pharmacol<br />
28: 1897–1902, 1979.<br />
123. CHIDA K, TSUNENAGA M, KASAHARA K, KOHNO Y, AND KU-<br />
ROKI T. Regulation of creatine phosphokinase B activity by protein<br />
kinase C. Biochem Biophys Res Commun 173: 346–350, 1990.<br />
124. CHLUMSKY LJ, WILLIE STURGESS A, NIEVES E, AND SCHUMAN<br />
JORNS M. Identification of the covalent flavin attachment site in<br />
sarcosine oxidase. Biochemistry 37: 2089–2095, 1998.<br />
125. CHLUMSKY LJ, ZHANG L, AND JORNS MS. Sequence analysis of<br />
sarcosine oxidase <strong>and</strong> nearby genes reveals homologies with key<br />
enzymes of folate one-carbon metabolism. J Biol Chem 270:<br />
18252–18259, 1995.<br />
126. CHOU H-C, LANG NP, AND KADLUBAR FF. Metabolic activation<br />
of N-hydroxy arylamines <strong>and</strong> N-hydroxy heterocyclic amines by<br />
human sulfotransferase(s). Cancer Res 55: 525–529, 1995.<br />
127. CHRISTENSEN M, HARTMUND T, AND GESSER H. <strong>Creatine</strong> kinase,<br />
energy-rich phosphates <strong>and</strong> energy metabolism in heart<br />
muscle of different vertebrates. J Comp Physiol B Biochem Syst<br />
Environ Physiol 164: 118–123, 1994.<br />
128. CLARK JF. <strong>Creatine</strong> <strong>and</strong> phosphocreatine: a review of their use in<br />
exercise <strong>and</strong> sport. J Athletic Train 32: 45–51, 1997.<br />
129. CLARK JF, KEMP GJ, AND RADDA GK. The creatine kinase equilibrium,<br />
free [ADP] <strong>and</strong> myosin ATPase in vascular smooth muscle<br />
cross-bridges. J Theor Biol 173: 207–211, 1995.<br />
130. CLARK JF, KHUCHUA Z, KUZNETSOV AV, VASSIL’EVA E,<br />
BOEHM E, RADDA GK, AND SAKS V. Actions of the creatine<br />
analogue �-guanidinopropionic acid on rat heart mitochondria.<br />
Biochem J 300: 211–216, 1994.<br />
131. COLBERG-POLEY AM, SANTOMENNA LD, HARLOW PP, BEN-<br />
FIELD PA, AND TENNEY DJ. Human cytomegalovirus US3 <strong>and</strong><br />
UL36–38 immediate-early proteins regulate gene expression. J Virol<br />
66: 95–105, 1992.<br />
132. COLL M, KNOF SH, OHGA Y, MESSERSCHMIDT A, HUBER R,<br />
MOELLERING H, RÜSSMANN L, AND SCHUMACHER G. Enzymatic<br />
mechanism of creatine amidinohydrolase as deduced from<br />
crystal structures. J Mol Biol 214: 597–610, 1990.<br />
133. COLLISON MW AND THOMAS JA. S-thiolation of cytoplasmic<br />
cardiac creatine kinase in heart cells treated with diamide. Biochim<br />
Biophys Acta 928: 121–129, 1987.<br />
134. CONCONI F AND GRAZI E. Transamidinase of hog kidney. I.<br />
Purification <strong>and</strong> properties. J Biol Chem 240: 2461–2464, 1965.<br />
135. CONLEY KE AND KUSHMERICK MJ. Buffering work transitions in<br />
myocardium: role of a poorly metabolized creatine analogue.<br />
Magn Res Med 2: 902, 1990.<br />
136. CONNELLY A, VAN PAESSCHEN W, PORTER DA, JOHNSON CL,<br />
DUNCAN JS, AND GADIAN DG. Proton magnetic resonance spectroscopy<br />
in MRI-negative temporal lobe epilepsy. Neurology 51:<br />
61–66, 1998.<br />
137. CONNETT RJ. Analysis of metabolic control: new insights using<br />
scaled creatine kinase model. Am J Physiol Regulatory Integrative<br />
Comp Physiol 254: R949–R959, 1988.<br />
138. CONSTANTIN-TEODOSIU D, GREENHAFF PL, GARDINER SM,<br />
RANDALL MD, MARCH JE, AND BENNETT T. Attenuation by<br />
creatine of myocardial metabolic stress in Brattleboro rats caused<br />
by chronic inhibition of nitric oxide synthase. Br J Pharmacol<br />
116: 3288–3292, 1995.<br />
139. CONWAY MA, BOTTOMLEY PA, OUWERKERK R, RADDA GK,<br />
AND RAJAGOPALAN B. Mitral regurgitation. Impaired systolic<br />
function, eccentric hypertrophy, <strong>and</strong> increased severity are linked<br />
to lower phosphocreatine/ATP ratios in humans. Circulation 97:<br />
1716–1723, 1998.<br />
140. CONWAY MA AND CLARK JF. <strong>Creatine</strong> <strong>and</strong> <strong>Creatine</strong> Phosphate:<br />
Scientific <strong>and</strong> Clinical Perspectives. Orl<strong>and</strong>o, FL: Academic,<br />
1996.<br />
141. COOKE WH AND BARNES WS. The influence of recovery duration<br />
on high-intensity exercise performance after oral creatine supplementation.<br />
Can J Appl Physiol 22: 454–467, 1997.<br />
142. COOKE WH, GRANDJEAN PW, AND BARNES WS. Effect of oral<br />
creatine supplementation on power output <strong>and</strong> fatigue during<br />
bicycle ergometry. J Appl Physiol 78: 670–673, 1995.<br />
143. COOPER AC AND MILLER JR. Progressive muscular dystrophy: a<br />
review. Rev Can Biol 21: 337–351, 1962.<br />
144. CRIM MC, CALLOWAY DH, AND MARGEN S. <strong>Creatine</strong> metabolism<br />
in men: creatine pool size <strong>and</strong> turnover in relation to creatine<br />
intake. J Nutr 106: 371–381, 1976.<br />
145. CRIM MC, CALLOWAY DH, AND MARGEN S. <strong>Creatine</strong> metabolism<br />
in men: urinary creatine <strong>and</strong> creatinine excretions with creatine<br />
feeding. J Nutr 105: 428–438, 1975.<br />
146. CROSS JH, CONNELLY A, JACKSON GD, JOHNSON CL, NEV-<br />
ILLE BGR, AND GADIAN DG. Proton magnetic resonance spectroscopy<br />
in children with temporal lobe epilepsy. Ann Neurol 39:<br />
107–113, 1996.<br />
147. CUONO CB, MARQUETAND R, KLEIN MB, AND ARMITAGE I.<br />
Critical role of phosphagens in the energy cascade of cutaneous<br />
ischemia <strong>and</strong> protective action of phosphocreatine analogues in<br />
skin flap survival. Plast Reconstr Surg 101: 1597–1603, 1998.<br />
149. DALY MM. Guanidinoacetate methyltransferase activity in tissues<br />
<strong>and</strong> cultured cells. Arch Biochem Biophys 236: 576–584, 1985.<br />
150. DALY MM AND SEIFTER S. Uptake of creatine by cultured cells.<br />
Arch Biochem Biophys 203: 317–324, 1980.<br />
151. DANIELSEN S, KILSTRUP M, BARILLA K, JOCHIMSEN B, AND<br />
NEUHARD J. Characterization of the Escherichia coli codBA<br />
operon encoding cytosine permease <strong>and</strong> cytosine deaminase. Mol<br />
Microbiol 6: 1335–1344, 1992.<br />
152. DAOUK GH, KADDURAH-DAOUK R, PUTNEY S, KINGSTON R,<br />
AND SCHIMMEL P. Isolation of a functional human gene for brain<br />
creatine kinase. J Biol Chem 263: 2442–2446, 1988.<br />
153. DASHWOOD R, YAMANE S, AND LARSEN R. Study of the forces<br />
stabilizing complexes between chlorophylls <strong>and</strong> heterocyclic<br />
amine mutagens. Environ Mol Mutagen 27: 211–218, 1996.<br />
154. DAVID S, SHOEMAKER M, AND HALEY BE. Abnormal properties<br />
of creatine kinase in Alzheimer’s disease brain: correlation of<br />
reduced enzyme activity <strong>and</strong> active site photolabeling with aberrant<br />
cytosol-membrane partitioning. Mol Brain Res 54: 276–287,<br />
1998.<br />
155. DAVIDEK J, VELISEK J, KLEIN S, AND JANICEK G. Nitrosierungsprodukte<br />
von Kreatin und Kreatinin in Fleisch. Fleischwirtschaft<br />
99–100, 1976.<br />
156. DAVIES SEC, NEWCOMBE J, WILLIAMS SR, MCDONALD WI, AND<br />
CLARK JB. High resolution proton NMR spectroscopy of multiple<br />
sclerosis lesions. J Neurochem 64: 742–748, 1995.<br />
157. DAVIS BM, MILLER RK, BRENT RL, AND KOSZALKA TR. Maternofetal<br />
transport of creatine in the rat. Biol Neonate 33: 43–54, 1978.<br />
158. DAVIS CD, ADAMSON RH, AND SNYDERWINE EG. Studies on the<br />
mutagenic activation of heterocyclic amines by cynomolgus monkey,<br />
rat <strong>and</strong> human microsomes show that cynomolgus monkeys<br />
have a low capacity to N-oxidize the quinoxaline-type heterocyclic<br />
amines. Cancer Lett 73: 95–104, 1993.<br />
159. DAVIS CD, GHOSHAL A, SCHUT HAJ, AND SNYDERWINE EG.<br />
Metabolic activation of heterocyclic amine food mutagens in the<br />
mammary gl<strong>and</strong> of lactating Fischer 344 rats. Cancer Lett 84:<br />
67–73, 1994.