Utilization of carbohydrates by shrimp

Autores/as

  • G. Cuzon IFREMER,
  • C. Rosas UNAM
  • G. Gaxiola UNAM
  • G. Taboada UNAM
  • A. Van Wormhoudt College de France

Palabras clave:

carbohydrates, shrimp, energy

Resumen

Glucose metabolism was extensively studied in Crustacea during the 60's and 70's with an
emphasis on decapods. In decapods juveniles can be described precisely at each step of intermolt cycle which
last longer than penaeid ones (Aquacop, 1972) and qualified as diecdysis. Consequently metabolic pathways
for glucose can be described accurately. This basic approach in decapods can help understand metabolism in
shrimp. Comprehension of metabolic pathways lead to draw the outlines for carbohydrate utilization by
shrimp: after going through main carbohydrates (CBH) sources, digestibility, glucose tolerance test, utilization
by whole animal, hepatopancreas glycogen, pathways of CBH breakdown such as glycogenolysis, glucolysis,
substrate cycle, minor pathways, aerobic breakdown, CBH synthesis and glucose utilisation. The diabetic like
shrimp is under the pervasive influence of the molting process. Shrimp derives energy from CBH. Even
though protein can easily supply energy too through gluconeogenesis. Related to the balance between protein
and calories, shrimp sustain optimal growth even at high dietary protein. Maximal growth rate of juveniles can
be achieved with high dietary protein level (50-60%) but CBH can play a role in sparing protein for optimal
growth in practice. CBH under starch form will represent up to 20-30%. A good comprehension of CBH
metabolism will lead to a greater supply of plant protein sources (soybean meal, pea meal, lupin, canola, wheat
gluten, rice bran, distillers) in shrimp feed. A recycling of chitin is done with the re-ingestion of exuviae, which
tend to underline the capability for chitin hydrolysis. Can ponds natural productivity help to maintain constant
food supply leading to a high glycemia level compared to tank experiments where a zero food supply during 12
hours makes a difference? Keeping that in mind, the formulator will propose diet with as much CBH as
possible, taking into account the potential to digest it, whether under native or pre-cooked form, the structure of
CBH (ratio amylose / amylopectin), the possibility to stimulate enzymes of intermediary metabolism. To a
certain extent it will lead to a great respect of the environment when reducing phosphorous output (wastes). Up
to which extent CBH can fit with immune response in regular grower feed for shrimp is worth to be addressed.
Complex CBH could represent a potential source of stimulants for immune response.

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Citas

Abdel-Rahman, S. H., Kanazawa, A., Teshima, S., 1979. Effects of dietary carbohydrates on the growth and levels of the

hepatopancreas glycogen and serum glucose of prawn. Bull. Jap.Soc.Scien. Fish.,12 :1491-1494.

Alvarado, F., J.W.L.Robinson. 1979. A kinetic study of the interaction between amino acids and monosaccharides at the

intestinal brush-border membrane. J.Physiol., 295:457-475.

Aquacop (Cuzon et al.). 1972. Determination des stades d'intermue chez Macrobrachium rosenbegii et Penaeus

merguiensis. Rapport interne Cnexo/Cop, 37pp.

Aquacop. 1976. Résultats experimentaux sur P. japonicus : spécificité des besoins en proteines. FAO Meeting, Kyoto,

Japan. FIR : AQ. Conf./76/E.42.

Aquacop. 1977. Reproduction in captivity and growth of P.monodon, Fabricius in Polynesia. Proc.8th Ann.Meeting World

Maricul. Soc.:927-945.

Aquacop. 1978. Study of nutritional requirements and growth of Penaeus merguiensis in tanks by means of purified and

artificial diets. Proc. Maricult Soc, 9 : 225-234.

Bauchau A.G., Mengeot J.C.1968. Action de la serotonine et d l'hromone diabetogene des sur la phosphorilase

musculaire.glycémie chez les crustacés. Gen Comp. Edocr. 11 : 132-138.

Boulton, A.P., Huggins, A.K. 1970. Glycolytic activity in crustaceans. Comp. Biochem. Physiol. Vol 33: 491-498.

Chang, E., O'Connor, J.D. 1985. Metabolism and transport of carbohydrates and lipids. IN: Bliss D, and Mantel H.L. The

Biology of Crustacea Vol 5. Academic Press, Ne York: 263-281.

Carey, F.G. 1965. Chitin synthesis in vitro by Crustacean enzymes. Comp. Biochem Physiol. 16: 155-158.

Capuzzo, J.M. 1981. Crustacean bioenergetics: the role of environmental variables and dietary levels of macronutrients on

enegetic efficiencies. In .D. Pruder,C.J. Langdon et D.E Conklin (Ed.). Proc. 2nd

Int.ConF.Aqua.NutSpec.Publ.n°2,LSU,Baton Rouge,LA,USA,pp71-86.

Clark, D.J., Lawrence, A.L., Swakon, D.H.D. 1993. Apparent chitin digestibility in shrimp. Aquaculture,109 :51-57.

Cousin, M. 1995. Contribution à l'étude de l'utilisation des glucides et du rapport proteine/énergie chez P.vannamei et

P.stylrostris. Thèse INA/PG. Paris. Pp. 201

Cousin, M., Cuzon,G., Guillaume,J., Aquacop. 1996. Digestibility of starches in P.vannamei. In vitro and in vivo study on 8

samples of various origin. Aquaculture,150(4)361-372.

Cuzon, G., Aquacop. 1998. Nutritional review of Penaeus stylirostris. Reviews in Fisheries Science. 6: 129-141

Cuzon, G., Rosas, C., Gaxiola, G, Taboada,G., A. Van Wormhoudt. 2000. Effect of lack of dietary carbohydrates on

gluconeogenesis enhancement in pre-molt Litopenaeus stylirostris juveniles and pre-adults. (in preparation).

Cruz-Suarez, L.E., Riccque-Marie, D., Pinal-Marsilla, J.D., Wesche-Embling,P. 1994. Effect of different carbohydrates

sources on the growth of P vannamei: economical impact. Aquaculture, 123(3/4): 349-360.

Davis, D.A. and Arnold, C.R. 1993. Evaluation of five carbohydrate sources for P.vannamei.Aquaculture, 114: 285-292.

Cuenot, L. 1893. Etudes physiologiques sur les crustacés décapodes. Arch.Biol. (Liège), 13 :245-303.

Dean, J.M. , Wernberg, F.J., 1965. Variations in the blood glucose of Crustacea. Comp. Biochem. Physiol. 14: 29-34.

Elliot J., Keith, M., McDonald, N., Stark, R. 1989. Carbohydrate energy sources for prawn diets. com.pers.

Florkin, F. 1960. Blood chemistry. In: The Physiology of Crustacea (Edited by Waterman T). Academic Press New York,

pp 141-154.

Gauquelin, F., Aquacop. 1996. Etude de l'excrétion azotée et de l'influence de régimes alimentaires chez P .stylirostris.

Rapport interne Ifremer,35pp.

Gibson, R., Barker, P.L. 1979. The decapod hepatopancreas. Oceanogr. Mar. Biol. Ann. Rev. 17: 285-346

Gwinn, J.F., Stevenson, J.R. 1973. Role of acetil glucosamine in chitin synthesis in crayfish II. Enzymes in the epidermis

for incorporatrion of acetil glucosamine into UDP-acetylglucosamine. Comp. Biochem Physiol. 45B: 777-785.

Hemre, G-I., Lie, O, Lumbertsen, G. D., Sundby, A. 1990. Dietary carbohydrate utilization in cod (G.morhua). Hormonal

response of insulin, glucagon and glucagon like-peptide to diet and starvation. Comp. Biochem. Physiol., 97A :41-

Hochachka, P.W., Somero, G.N., Scheider, D.E., Freed, J.M. 1971. The organization and control of metabolism in the

crustacean gill. Comp. Biochem.Physiol., 33:529-548.

Huggins, A.K., Munday, K.A. 1968. Crustacean metabolism. In: Loensteind O (ed) Advances Comparative Physiology and

Biochemistry. Academic Press, New York: 271-378.

Lallier, F. H., Walsh, P.J. 1991. Metabolic potential in tissue of the blue crab, Callinectes sapidus. Bull. Mar. Sci. 48: 665-

Le Pryol, Y. 1999. Influence des regimes riches en glucides sur le metabolism et l'activite des enzymes digestives chez la

crevette Penaues vannamei. Universite de Bretagne Occidentale IUT de Quimper Departement de Genie Biologque

Option: Industrie Agroalimentaire 2 eme annee: 1998-1999.

Loret, S.M. 1993. Hemocyte differentiation in the shore crab Carcinus moenas could be accompanied by a loss of

glycogenosynthesis capability. J. Exp. Zool.,167:548-555.

Loret, S.M., Devos, P.E. 1992. Hydrolisis of G6P by a microsomal specific phosphatase and glucose phosphorylation by

low Km hexokinase in the digestive gland of the crab Carcinus maenas: variations during the molt cycle. Comp.

Biochem. Physiol. 162: 651-657.

Lynch M.P., Webb, K.L. 1973. Variation in serum constituents of the blue crab Callinectes sapidus :glucose.

Comp.Biochem.Physiol.45A :127-139.

Kitabayashi , K., Shudo, K., Nakamura, K., Ishikawa, K. 1971. Bull Tokai Reg. Fish Res.Lab. 65, 109-118.

Mc Donald, N.L., Stark, J.R., Keith, M. 1989. Digestion and nutrition in the prawn Penaeus monodon. World Aquacult

Soc: 20: 53A.

Maginnis,L.A. 1971. Glucose transport by the perfused midgut of the freshwater prawn M. rosenbergii. PhD dissertation,

Univ. Hawaii, Honolulu.

McWhinnie,M.A, Kurchenberg, R.J.1962. Crayfish hepatopancreas metabolism and the intermolt cycle.

Comp.Biochem.Physiol.,6 :117-128.

Nelson, S.G., Knight, A.W., Li, H.W. 1977. The metabolic cost of food utilisation and ammonia production by juvenile

Macrobrachium rosembergii (crustacea : Palemonidae). Comp. Biochem. Physiol. 57 A : 67-72

Newsholme, T., Crabtree, B. 1976. Substrate cycles in metabolic regulation and in heat

generation.Biochem.Soc.Symp.,41:61-109.

Oliveira, G. T., D. S. R. S. 1997. Gluconeogenesis in hepatopancreas of Chasmagnathus granulata crabs maintained on

high-protein or carbohydrate-rich diets. Comp. Biochem. Physiol. 118A: 1429-1435.

Parvathy, K. 1970. Blood sugars in relation to chitin synthesis during cuticle formation in of Emerita asiatica.Mar.Biol.,

:108-112.

Pascual, F.P, Coloso, R.M., Tamse, C.T. 1983. Survival and some histological changes in P. monodon Fabricius fed

various carbohydrates. Aquaculture, 31:169-180.

Renaud, L.1949. Le cycle des réserves organiques chez les crustacés décapodes. Ann. Ins. Oceanolog. 24 :249-357.

Rosas, C., Cuzon, G., Gaxiola, G., Arena, L., Lemaire, P., Soyez, C., Van Wormhoudt, A. 2000a. Influence of dietary

carbohydrates on the metabolism of juveniles L. stylirostris. Journal of Experimental Marine Biology and Ecology,

(181-198).

Rosas, C., Cuzon, G., Taboada, G., Pascual,C., Gaxiola, G., Van Wormhoudt, A. 2000b. Effect of dietary protein and

energy levels (P/E) on growth, O2 consumption, hemolymph and digestive gland carbohydrates, N-ammonia and

osmotic pressure of P. vannamei and L. setiferus juveniles (Crustacea: Decapoda: peneidae). Aquaculture

Research, (In press).

Rosas, C., Cuzon, G., Gaxiola, G., LePriol, Y., Pascual, C., Rossignyiol, J., Contreras, F., Sanchez, A., Van Wormhoudt, A.

c. Metabolism and growth of juveniles of L. vannamei : effect of salinity and dietary carbohydrates level.

Marine Biology (accepted).

Ross -Stevenson, J.R. 1985. Dynamics of the integument. In: Bliss, D. and Mantel, L.H (eds), The Biology of Crustacea,

Vol 9. Acadermic Press., pp: 1-42.

Santos,E.A., Nery, L.E. and Manzoni, G.C..1988. Action of theCHH of Chasmagnathus granulata

(Dana,1851)decapoda:grapsidae.Comp.Biochem.Physiol.,89A(3) 329-332.

Sedlmeier,D.. 1995. Mode of action of CHH. Amer. Zool.;25:223-232.

Sheer, B.T., Sheer, M.A.R. 1951. The hormonal control of metabolism in crustaceans —I. Blood sugars in spiny lobsters.

Physiologia Comp. Oecol, 2: 198-209.

Shiau, S.Y., Peng C.Y. 1992. Utilization of different carbohydrates at different dietary protein levels in grass prawn,

Penaeus monodon, reared in seawater. Aquaculture. 101: 241-250.

Sick, L.V., Andrews J.W. 1972. The effect of selected dietary lipids, carbohydrates and proteins on the growth, survival

and body composition of P. duorarum. Proc.World Maricult.Soc.,4;263-276.

Spindler, K.D., Willig, A., Keller, A. 1976. Cyclic nucleotides and crustaceans blood glucose levels. Comp.

Biochem.Physiol. 54A :3

Thabrew, M.I., Poat P.C., Munday K.A. 1971. Carbohydrate metabolism in Carcinus maenas gill tissue. Comp. Biochem.

Physiol. Vol. 40B: 531-541.

Van Wormhoudt, A. 2000; com. pers

Walton, M.J., Cowey, C.B. 1982. Aspects of intermediary metabolism in salmonid fish. Comp. Biochem. Physiol.,

B(1) :59-79.

Weber, R.E., MacDonald, S. 1961. On the excretion of glucose in the lobster Jasus lalandii (Crustacea:decapoda). Comp.

Biochem.Physiol., 38A: 465-467.

Wolvekamp H.P., Waterman, T.H., 1960. Respiration. In: The Physiology of The Crustacean (Edited by Waterman, T.H.)

Vol 1, Academic Press, New York, pp: 35-101.

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Cuzon, G., Rosas, C., Gaxiola, G., Taboada, G., & Van Wormhoudt, A. (2019). Utilization of carbohydrates by shrimp. Avances En Nutrición Acuicola. Recuperado a partir de https://nutricionacuicola.uanl.mx/index.php/acu/article/view/282