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Jay Gorell, Pamela Dolkart, J. Ferrendelli (1976)
REGIONAL LEVELS OF GLUCOSE, AMINO ACIDS, HIGH ENERGY PHOSPHATES, AND CYCLIC NUCLEOTIDES IN THE CENTRAL NERVOUS SYSTEM DURING HYPOGLYCEMIC STUPOR AND BEHAVIORAL RECOVERY 1Journal of Neurochemistry, 27
K. Norberg, B. Siesjou (1976)
OXIDATIVE METABOLISM OF THE CEREBRAL CORTEX OF THE RAT IN SEVERE INSULIN‐INDUCED HYPOGLYCAEMIAJournal of Neurochemistry, 26
Deuticke Deuticke, Gfrlach Gfrlach, Dierkesmann Dierkesmann (1966)
Abbau freier Nucleotide in Herz. Skeletmuskel. Gehirn und Leber der Ratte bei SauerstoffmangelPflügers Arch. ges. Physiol., 292
W. Pardridge, W. Oldendorf (1977)
TRANSPORT OF METABOLIC SUBSTRATES THROUGH THE BLOOD‐BRAIN BARRIER 1Journal of Neurochemistry, 28
I 963) Intoxications. in Grccvi$rld'.s ,Ycrrroparh-"log)
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ATP-creatine tranaphosphorylase in The Err
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Regulator) significance of the release and action of adenine derivatives in ccrebral systems. Biochrw~
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Regulatory significance of the release and action of adenine derivatives in cerebral systemsBiochem. Soc. Symp., 36
Jaroslava Eolbergrová, V. Macmillan, B. Siesjö (1972)
THE EFFECT OF MODERATE AND MARKED HYPERCAPNIA UPON THE ENERGY STATE AND UPON THE CYTOPLASMIC NADH/NAD+ RATIO OF THE RAT BRAINJournal of Neurochemistry, 19
4~) Changea in carbohydrate substrates
J. Brierley, A. Brown, Meldrum Bs (1971)
The nature and time course of the neuronal alterations resulting from oligaemia and hypoglycaemia in the brain of Macaca mulatta.Brain research, 25 3
J. Folbergrová, V. Macmillan, B. Siesjö (1972)
THE EFFECT OF HYPERCAPNIC ACIDOSIS UPON SOME GLYCOLYTIC AND KREBS CYCLE‐ASSOCIATED INTERMEDIATES IN THE RAT BRAINJournal of Neurochemistry, 19
Paolo Porta, A. Maiolo, Vittor Negri, Emanuele Rossella (1964)
CEREBRAL BLOOD FLOW AND METABOLISM IN THERAPEUTIC INSULIN COMA.Metabolism: clinical and experimental, 13
L. Lewis, B. Ljunggren, R. Ratcheson, B. Siesjö (1974)
CEREBRAL ENERGY STATE IN INSULIN‐INDUCED HYPOGLYCEMIA, RELATED TO BLOOD GLUCOSE AND TO EEGJournal of Neurochemistry, 23
r m of Erizyrriuric Arruly.~is
L. Lewis, B. Ljunggren, K. Norberg, B. Siesjö (1974)
CHANGES IN CARBOHYDRATE SUBSTRATES, AMINO ACIDS AND AMMONIA IN THE BRAIN DURING INSULIN‐INDUCED HYPOGLYCEMIAJournal of Neurochemistry, 23
J. Folbergrová, J. Passonneau, O. Lowry, D. Schulz (1969)
GLYCOGEN, AMMONIA AND RELATED METABOLITES IN THE BRAIN DURING SEIZURES EVOKED BY METHIONINE SULPHOXIMINE 1Journal of Neurochemistry, 16
Steinfr Steinfr, Pagliara Pagliara, Chase Chase, Kipnts Kipnts (1972)
II Adenosine 3′,5′‐monophosphate and guanosine 3′,5′‐monophosphate in mammalian tissues and body fluidsJ. biol. Chem., 247
B. Siesjö, J. Folbergrová, V. Macmillan (1972)
THE EFFECT OF HYPERCAPNIA UPON INTRACELLULAR pH IN THE BRAIN, EVALUATED BY THE BICARBONATE‐ CARBONIC ACID METHOD AND FROM THE CREATINE PHOSPHOKINASE EQUILIBRIUMJournal of Neurochemistry, 19
L. Salford, F. Plum, J. Brierley (1973)
Graded hypoxia-oligemia in rat brain. II. Neuropathological alterations and their implications.Archives of neurology, 29 4
G. Gibson, J. Blass (1976)
IMPAIRED SYNTHESIS OF ACETYLCHOLINE IN BRAIN ACCOMPANYING MILD HYPOXIA AND HYPOGLYCEMIAJournal of Neurochemistry, 27
J. Folbergrová, B. Ljunggren, K. Norberg, B. Siesjö (1974)
Influence of complete ischemia on glycolytic metabolites, citric acid cycle intermediates, and associated amino acids in the rat cerebral cortex.Brain research, 80 2
J. Gorell, M. Law, O. Lowry, J. Ferrendelli (1977)
LEVELS OF CEREBRAL CORTICAL GLYCOLYTIC AND CITRIC ACID CYCLE METABOLITES DURING HYPOGLYCEMIC STUPOR AND ITS REVERSALJournal of Neurochemistry, 29
A. Steiner, A. Pagliara, L. Chase, D. Kipnis (1972)
Radioimmunoassay for cyclic nucleotides. II. Adenosine 3',5'-monophosphate and guanosine 3',5'-monophosphate in mammalian tissues and body fluids.The Journal of biological chemistry, 247 4
J. Tews, Samuel Carter, W. Stone (1965)
CHEMICAL CHANGES IN THE BRAIN DURING INSULIN HYPOGLYCAEMIA AND RECOVERY *Journal of Neurochemistry, 12
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OPTIMAL FREEZING CONDITIONS FOR CEREBRAL METABOLITES IN RATSJournal of Neurochemistry, 21
P. Kleihues, K. Kobayashi, K. Hossmann (1974)
PURINE NUCLEOTIDE METABOLISM IN THE CAT BRAIN AFTER ONE HOUR OF COMPLETE ISCHEMIAJournal of Neurochemistry, 23
(1972)
A F/c'\-ih/t' SJ'sPONTCN U
Hinzen Hinzen, MÜLLER MÜLLER (1971)
Energiestoffwechsel und Funktion des Kaninchengehirns während InsulinhypoglykämiePflügers Arch. ges. Physiol., 322
L. Salford, F. Plum, B. Siesjö (1973)
Graded hypoxia-oligemia in rat brain. I. Biochemical alterations and their implications.Archives of neurology, 29 4
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H. Knauff, F. Bök (1961)
Über die freien gehirnaminosAuren und das äthanolamin der normalen ratte, sowie über das verhalten dieser stoffe nach experimenteller insulinhypoglykämieJournal of Neurochemistry, 6
L. Abood, A. Geiger (1955)
Breakdown of proteins and lipids during glucose-free perfusion of the cat's brain.The American journal of physiology, 182 3
J. Folbergrová, U. Pontén, B. Siesjö (1974)
Patterns of changes in brain carbohydrate metabolites, amino acids and organic phosphates at increased carbon dioxide tensions.Journal of neurochemistry, 22 6
(1970)
Einfluss \ o n Insulin auf den regionalen Phospholipidstoffwechsel des Kaninchengehirns i r i I
Severe hypoglycemia was induced by insulin in lightly anaesthetized (70°o N2O) and artificially ventilated rats. Brain tissue was frozen in situ after spontaneous EEG potentials had disappeared for 5. 10. 15 or 30 min and cerebral cortex concentrations of labile organic phosphates, glycolytic metabolites, ammonia and amino acids were determined. In other experiments, recovery was induced by glucose injection at the end of the period of EEG silence. All animals with an isoelectric EEG showed extensive deterioration of the cerebral energy state. and gross perturbation of amino acid concentrations. The latter included a 4‐fold rise in aspartate concentration and reductions in glutamate and glutamine concentrations to 20 and 5oo of control levels respectively. There was an associated rise in ammonia concentration to about 3μmol‐g‐1. Administration of glucose brought about extensive recovery of cerebral energy metabolism. For example, after an isoelectric period of 30 min tissue concentrations of phosphocreatine returned to or above normal, the accumulation of ADP and AMP was reversed, there was extensive resynthesis of glycogen and glutamine and full normalisation of tissue concentrations of pyruvate. α‐ketoglutarate. GABA and ammonia. However, even after 3 h of recovery there was a reduction in the ATP concentration and thereby in adenine nucleotide pool, moderate elevations of lactate content and the lactate pyruvate ratio, and less than complete restoration of the amino acid pool. It is concluded that some cells may have been irreversibly damaged by the hypoglycemia.
Journal of Neurochemistry – Wiley
Published: Nov 1, 1978
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