Abstract
Intrauterine growth retardation (IUGR) can result f m a variety of maternal, placental or fetal factors. Placental insufficiency (24, 25) and chronic vascular disease (36) are of major importance and result in diminution of uterine blood flow. The associated clinical picture is characterized by body wasting, the body weight being law for gestational age. Weight reduction of the organs is the result of diminished cell size (9, 42) and is most pronounced in the liver. The brain/body ratio is elevated because brain weight is relatively spared. The smallfor-gestational-age (SGA) infant is threatened by many hazards, one of which is the risk of neonatal hypoglycemia (11). Early glucose administration is, therefore, indicated (2, 11). Onset of hypoglycemia is mostly during the first day after delivery (23, 51). Exogenous glucose is cleared rapidly from the blood in these infants (30). It was accepted for many years that insufficient glycogen stores in SGA newborns could explain their increased risk of neonatal hypoglycemia. Several data, however, point to a more complex mechanism which has not been completely elucidated. The aim of this chapter is to review current knowledge on carbohydrate metabolism in IUGR in rat and man and to present some of our own data in the rat.
Access this chapter
Tax calculation will be finalised at checkout
Purchases are for personal use only
Preview
Unable to display preview. Download preview PDF.
References
Anagnostakis, D and R Tardinois, Urinary catecholamine excretion and plasma NEFA concentration in small for date infants. Pediatrics 47: 1000–1009, 1971
Bossi, E, Neonatale hypoglyk âmie. Eine Übersicht über pathophysiologie, Klinik und Therapie. Schweiz Rundschau Med 64: 1214–1219, 1975
Brans, YW and P Ortega, Water content and distribution in intrauterine growth-retarded newborn rats. Biol Neonate 31: 116–121, 1977
Cake, MB, D Yeung, and IT Oliver, The control of postnatal hypoglycemia. Suggestions based on experimental observations in neonatal rats. Biol Neonate 18: 183–192, 1971
Chanez, C, JM Roux, and C Tordet-Caridroit, Glycémie, glycogène et glucose-6-phosphatase dans la foie, ä la période périnatale, chez le rat dysmature. C R Soc Biol 163: 2272–2275, 1969
Chanez, C, C Tordet-Caridroit, and JM Roux, Studies on experimental hypotrophy in the rat. II. Development of some liver enzymes of gluconeogenesis. Biol Neonate 18: 58–65, 1971
Chanez, C and C Tordet-Caridroit, Glucose, acides gras libres et glycerol du plasma, au cours du développement au rat ayant subi un retard de croissance intra-utérine, Arch Franc Péd 29: 593–601, 1972
Chanez-Bel, C and C Tordet-Caridroit, Influence du retard de croissance intra-utérine sur le taux de corticostérone plasmatique et surrénalien chez le rat au cours du développement. C R Soc Biol 169: 286–290, 1975
Chase, HP, CS Dabiere, N Welch, and D O’Brien, Intra-uterine under-nutrition and brain development. Pediatrics 47: 491–500, 1971
Christensen, NC, Concentrations of triglycerides, free fatty acids and glycerol, in cord blood of newborn infants with a birth weight of 2700 grams. Acta Paediat Scand 66: 43–48, 1977
Cornblath, M and R Schwartz, Hypoglycemia in the neonate,In: Disorders of carbohydrate metabolism in infancy, Ch 5, Saunders, Philadelphia, 1976
Dahlquist, G and B Persson, Effect of intrauterine growth retardation on the postnatal development of D-B-hydroxybutyrate dehydrogenese activity in rat brain. Biol Neonate 28: 353–364, 1976
Dahlquist, G, Cerebral utilization of glucose, ketone bodies and oxygen in starving infant rats and the effects of intrauterine growth retardation. Acta Physiol Scand 98: 237–247, 1976
Falorni, A, F Massi-Benedetti, S Gallo, and A Romizi, Levels of glucose in blood and insulin in plasma and glucagon response to arginine infusion in low birth weight infants. Pediat Res 9: 5560, 1975
Ferré, P, JP Pégorier, EB Marliss, and JR Girard, Influence of exogenous fat and gluconeogenic substrates on glucose homeostasis in the newborn rat. Amer J Physiol 234: 129–136, 1978a
Ferre, P, JP Pégorier, DH Williamson, and JR Girard, The development of ketogenesis at birth in the rat. Biochem J 176: 759–765, 1978b
Frazer, TE, IE Karl, L Hillman,nd DM Bier, Direct measurement of gluconeogenesis from 2,3–1’C alanine in the human neonate during the first 8 hours of life. Pediat Res 13: 474 (abstract), 1979
Gentz, JCH, R Warmer, BEH Persson, and M Cornblath, Intravenous glucose tolerance, plasma insulin, free fatty acids and B-hydroxybutyrate in underweight newborn infants. Acta Paediat Scand 58: 481–490, 1969
Girard, JR, GS Cuendet, EB Marliss, A Kervran, M Rieutort, and R Assan, Fuels, hormones, and liver metabolism at term and during the early neonatal period in the rat. J Clin Invest 52: 3190–3200, 1973
Girard, JR, A Kervran, E Soufflet, and R Assan, Factors affecting the secretion of insulin and glucagon by the rat fetus. Diabetes 23: 310–317, 1974
Girard, J, P Ferré, and M Gilbert, Le metabolisme énergétique pendant la période périnatale. Diab Metab (Paris) 1: 241–257, 1975
Girard, JR, C Chanez, A Kervran, C Tordet-Caridroit, and R Assan, Studies on experimental hypotrophy in the rat. III. Plasma insulin and glucagon. Biol Neonate 29: 262–266, 1976
Griffith, AD, Association of hypoglycaemia with symptoms in the newborn. Arch Dis Child 43: 688–694, 1968
Gruenwald, P, Chronic fetal distress and placental insufficiency. Biol Neonate 5: 215–265, 1963
Gruenwald, P, Chronic fetal distress. Clin Ped 3: 141–149, 1964
Harris, RJ, Plasma nonesterified fatty acid and blood glucose levels in healthy and hypoxemic newborn infants. J Pediat 84: 578584, 1974
Hawkins, RA, DH Williamson, and HA Krebs, Ketone-body utilization by adult and suckling rat brain in vivo. Biochem J 122: 13–18, 1971
Haymond, MW, IE Karl, and AS Pagliara, Increased gluconeogenic substrates in the small-for-gestational-age infant. New Engl J Med 291: 322–328, 1974
Hohenauer, L, Studien zur intrauterinen Dystrophie. I. Intrauterine Dystrophie im Tierexperiment. Pädiat Pädol 6: 1–16, 1971
Horvâth, I, P Tdth, and K Méhes, The predictive value of glucose utilization rate in neonatal hypoglycaemia of small-for-gestational-age infants. Acta Paediat Acad Sci Hung 16: 143–147, 1975
Kollée, LAA, LAH Monnens, JMF Trijbels, JH Veerkamp, and AJM Janssen, Experimental intrauterine growth retardation in the rat. Evaluation of the Wigglesworth model. Early Hum Dev 3: 295–300, 1979
Kollée, LAA, LIH Monnens, JMF Trijbels, JH Veerkamp, AJM Janssen, and H van Haard-Hustings, Gluconeogenic key enzymes in normal and intrauterine growth-retarded newborn rats. Early Hum Dev 3: 345–352, 1979b
de Leeuw, R and IJ de Vries, Hypoglycemia in small-for-dates newborn infants. Pediatrics 58: 18–22, 1976
Levitsky, LL, SM Speck, and R Shulman, Metabolic response to fasting in experimental intrauterine growth retardation. A comparison of two models. Biol Neonate 30: 11–16, 1976
Levitsky, LL, A Kimber, JA Marchichow, and J Uchara, Metabolic response to fasting in experimental growth retardation induced by surgical and nonsurgical maternal stress. Biol Neonate 31: 311–315, 1977
Lubchenco, LO, C Hansman, and L Bäckström, Factors influencing fetal growth, In: Aspects of praematurity and dysmaturity, Jonxis, JHP, HKA Visser, and JA Troelstra(ed.), Leiden, Stenfert Kroese, 149–166, 1968
Manniello, RL, AJ Adams, and PM Farrell, The influence of antenatal corticosteroids on hypoglycemia in newborn rats with intrauterine growth retardation. Pediat Res 11: 840–844, 1977a
Manniello, RJ, JD Schulman, and PM Farrell, Amino acid metabolism in dysmature newborn rats–possible explanation for the anti-hypoglycemic effects of prenatal glucocorticoids. Pediat Res 11: 1165–1166, 1977b
Mestyan, J, K Schultz, and M Horvath, Comparative glycemic responses to alanine in normal term and small-for-gestational-age infants. J Pediat 85: 276–278, 1974
Mestyan, J, Gy Soltsz, K Schultz, and M Horvath, Hyperaminoacidemia due to the accumulation of gluconeogenic amino acid precursors in hypoglycemic small-for-gestational-age infants. J Pediat 87: 409–414, 1975
Mestyan, J, I Rubecz, and Gy Soltész, Changes in blood glucose, free fatty acids and amino acids in low birth-weight infants re-ceiving intravenous fat emulsion. Biol Neonate 30: 74–79, 1976
Naye, RL and JA Kelly, Judgment of fetal age. III. The pathologist’s evaluation. Pediat Clin N Amer 13: 849–862, 1966
Nitzan, M and H Groffman, Metabolic changes in experimental intrauterine growth retardation: blood glucose and liver glycogen in dysmature and premature newborn rats. Israel J Med Sci 6: 697702, 1970
Nitzan, M and H Groffman, Glucose metabolism in experimental intrauterine growth retardation.In vitro studies with liver and brain slices. Biol Neonate 17: 420–426, 1971a
Nitzan, M and H Groffman, Hepatic gluconeogenesis and lipogenesis in experimental intrauterine growth retardation in the rat. Amer J Obstet Gynec 109: 623–627, 1971b
Nitzan, M, S Orloff, and JD Schulman, Placental transfer of analogs of glucose and amino acids in experimental intrauterine growth retardation. Pediat Res 13: 100–103, 1979
Oh, W, M D’Am dio, LL Yap, L Hohenauer, and J Metcoff, Glycogen synthesis in experimental intrauterine fetal growth retardation. Pediat Res 2: 415–416, 1968
Oh, W, M D’Ancdio, LL Yap, L Hohenauer, and J Guy, Carbohydrate metabolism in experimental intrauterine growth retardation in rats. Amer J Obstet Gynec 108: 415–421, 1970
Oh, W and JA Guy, Cellular growth in experimental intrauterine growth retardation in rats. J Nutr 101: 1631–1634, 1971
Pollak, A,JB Susa, BS Stonestreet, R Schwartz, and W Oh, Phosphoenolpyruvate carboxykinase in experimental intrauterine growth retardation in rats. Pediat Res 13:175–177, 1979
Raivio, KO, Neonatal hypoglycemia. II. A clinical study of 44 idiopathic cases with special reference to corticosteroid treatment. Acta Paediat Scand 57: 540–546, 1968
Roux, JM, C Tordet-Caridroit, and C Chanez, Studies on experimental hypotrophy in the rat. I. Chemical composition of the total body and some organs in the rat foetus. Biol Neonate 15: 342–347, 1970
Roux, JM, Studies on cellular development in the suckling rat with intrauterine growth retardation. Biol Neonate 18: 290–299, 1971
Roux, JM and Th Jahchan, Plasma level of amino-acids in the developing young rat after intra-uterine growth retardation. Life sci 14: 1101–1107, 1974
Sabel, KG, R Olegard, K Hildingsson, M Mellander, and P Karlberg, Imparied fatty acid oxidation and increased gluconeogenic plasma substrates in SGA newborns with hypoglycemia-improvement after injection of lipids. Pediat Res 13: 72 (abstract), 1979
Siegel, SR, W Oh, and DA Fisher, Fructose-1,6-diphosphatase and glucose-6-phosphatase in newborn rats with intrauterine growth retardation. Early Hum Dev 3: 43–49, 1979
Snell, K and DG Walker, Glucose metabolism in the newborn rat. Temporal studies in vivo. Biochem J 132: 739–752, 1973
Snell, K and DG Walker, Glucose metabolism in the newborn rat: the role of insulin. Diabetologia 14: 59–64, 1978
Sqvik, O and PH Finne, Alanine-stimulated glucose production in the small-for-gestational-age infant. Pediat Res 11: 1024 (abstract), 1977
Stanley, ChA, EK Anday, L Baker, and M Delivoria-Papadopoulos, Metabolic fuel and hormone responses to fasting in newborn infants Pediatrics 64: 613–619, 1979
Tordet-Caridroit, C, J Roux, and C Chanez, Etude du développement post-natal du rat né dysmature. C R Soc Biol 163: 1321–1323, 1969
Editor information
Editors and Affiliations
Rights and permissions
Copyright information
© 1981 ECSC, EEC, EAEC, Brussels-Luxembourg
About this chapter
Cite this chapter
Kollée, L.L.A., Monnens, L.A.H., Trijbels, J.M.F., Veerkamp, J.H. (1981). Carbohydrate Metabolism in Intrauterine Growth Retardation. In: De Meyer, R. (eds) Metabolic Adaptation to Extrauterine Life. Developments in Perinatal Medicine, vol 1. Springer, Dordrecht. https://doi.org/10.1007/978-94-011-7514-2_8
Download citation
DOI: https://doi.org/10.1007/978-94-011-7514-2_8
Publisher Name: Springer, Dordrecht
Print ISBN: 978-94-011-7516-6
Online ISBN: 978-94-011-7514-2
eBook Packages: Springer Book Archive