The Effects of Animal or Plant-Based Diets on Energy Partitioning in Selected Ontogenetic Stages of the Shrimp Litopenaeus vannamei

Autores/as

  • Gérard Cuzon COP-Tahiti, IFREMER
  • Abelardo Brito Posgrado de Ciencias del Mar y Limnología, UNAM
  • Luis Jiménez-Yan Universidad Juárez Autónoma de Tabasco
  • Roberto Brito Universidad Autónoma del Carmen
  • García Tomás Unidad Multidisiplinaria de Dcoencia e Investigación de Sisal, UNAM.
  • Gabriel Taboada Unidad Multidisiplinaria de Dcoencia e Investigación de Sisal, UNAM.
  • Gabriela Gaxiola Unidad Multidisiplinaria de Dcoencia e Investigación de Sisal, UNAM.

Resumen

juveniles at low dietary protein under laboratory conditions showed a feasible way at least in terms of weight
gain (0.60 versus 0.47g live weight for PL52 raised on animal and plant diets respectively). L.vannamei is a
promising species from this point of view to examine ontogenetic variations of its performance whether
receiving animal or plant-based diets. Also, it is interesting to follow the performances of juveniles on a
monotonous dietary treatment or with a drastic change between plant base (2.5g weight gain) and animal base
diets (3.1g weight gain). It is the purpose of this work because data are presented at larval and postlarval stages.
Performances can be produced in terms of recovered energy for larvae (5.2 J/larvae/day), and it helps to propose
the range of variation larvae exhibited while fed both dietary treatments and measure in particular digestible
energy intake (1.1J/larvae/day at Zoea I), feces production on a basis of 82% digestible energy, ammonia
excretion (0.02 J/larvae/day) and respiration (0.48J/larvae/day). Postlarvae required between 1 and 3J/Pl’s /day
that is in agreement with findings on other peneid species. Final assessment is made on a possible improvement
in terms of energy expenditure in the two situations (PA and PV) and for the main periods of the life cycle
(larvae, Pl’s, juveniles and pre-breeders). Energy demand is increasing with development stages and values will
be used to explore a model of feed distribution which should be adequate to maintain animals in optimum
growth with a minimum wastage and a maximum water quality. Moreover, it is of importance through the
energy expenditure in both cases (PA and PV) to see up to which extent animals are going to sustain on all plant
diets while keeping performances (recovered energy in a range of 10-20% for juveniles) to get enough growth
rate with a minimum of animal marine protein utilisation as a main source for this species.

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Akiyama D.M., Dominy,W.G & Lawrence,A.L.,(1991) Peneid shrimp nutrition for the commercial feed

industry- revised Am.Soybean Assoc.,AQ 32:35.

Amouroux J.M., Cuzon G., & Gremare A. (1997).Association of pulse chase design, compartmental analysis and

analog modeling to assess absorption and assimilation efficiencies in Penaeus stylirostris fed an

artificial diet. Aquaculture, 149(1-2)71-86.

Aquacop (1984) Elevage larvaire de peneides en milieu tropical. 3rd meeting ot the ICES working group on

mariculture, Brest, Ifremer,May 10-12, 1977, Actes de colloque CNEXO, 4:168-179.

Aquacop (2000) How L.stylirostris pre-breeder respond to an all-plant diet? mimeographed Ifremer COP report.

pp. (unpublished).

Arena L. (2004) Polymorphism of amylases and growth performances with starch utilization by L.vannamei

from wild or domesticated origins. Thèse EPHE; Paris, 120pp.

Brito Bermúdez A. (2004) Utilización de Fuentes de Proteína Vegetal y Carbohidratos en la Nutrición de

Postlarvas y Juveniles Tempranos de Litopenaeus vannamei y su Efecto Fisiológico y Bioquímico en

Comparación con Fuentes de Proteína Animal. tesis Postgrado, UNAM, Mexico, 54pp.

Brito R., Chimal M.E., Gaxiola G., Rosas C., (2000) Growth, metabolic rate, and digestive enzyme activity in

the white shrimp Litopenaeus setiferus early postlarvae fed different diets. Journal of Experimental.

Marine. Biology. Ecology. 255: 21-36.

Brito R., Rosas C., Chimal, M.E, Gaxiola G. (2001) Effect of different diets and digestive enzyme activity in

Litopenaeus vannamei (Boone, 1931) early post-larvae. Aquaculture Research. 32: 257-266.

Bureau D.P; Azevedo P; Tapia-Slazar M; Cuzon G. (2000) Pattern and cost of growth and nutrient deposition in

fish and shrimp: Potential implications and applications. Quinto Simposio Internacional de Nutrición

Acuícola. Telchak, Yucatán.

Ceccaldi H.J.(1987) Anatomy and physiology of digestive tract of crustaceans reared in aquaculture. Adv. in

Tropical Aquculture, Tahiti, 1989, Ifremer, Actes Colloque, 9:243-259.

Cho C.Y. & S.J. Kaushik (1990) Nutritional energetics in fish: energy and protein utilization in rainbow trout

(Salmo gairdneri). In: Bourne, G.H. (ed.), Aspects of food production, consumption and energy values.

World Rev. Nutr. Diet. Karger, Basel, vol.61, p.132-172.

Comoglio L I., Gaxiola, G Roque A, Cuzon G, Amin O.(2004) Effects of starvation on re-feeding, digestive

enzymes activity, O2 consumption and ammonia excretion in the juvenile white shrimp, Litopenaeus

vannamei. J.Shellfish Research, (accepted).

Cousin M., Cuzon G., Guillaume J., and Aquacop (1996) Digestibility of starch in Penaeus vannamei: In vivo

and in vitro study on eight samples of various origin Aquaculture 140(4)361-372.

Cowey CB.(1994) Amino acid requirements of fish: A critical appraisal of present values. Aquaculture, 124(1-

1-11.

Cuzon G., Guillaume J. (1997) Energy and protein: energy ratio. In: D’Abramo, L.R., Conklin, D.E., and

Akiyama, D. M. Crustacean Nutrition, Advances in World Aquaculture, vol.6, World Aquaculture

Society, Baton Rouge, Lousiana, U.S.A., pp.51-70.

Dawirs R.R. (1983). Respiration, energy balance and development during growth and starvation of Carcinus

maenas L. larvae (Decapoda: Portunidae).Journal of Experimental Marine Biology and Ecology 69 (2)

-128.

Devresse B.(1988) A comparison of shrimp feeds for several countries for their proximate, amino acid and fatty

acid composition. Report mimeographed 13pp.

Durruty C.V.(2000) Requerimientos nutrimentales de proteina en larvas de L. setiferus y L.vannamei. MS thesis,

UNAM, Mexico, 37pp.

Gallardo P., Martínez G., Pedroza-Islas R. Cuzon G., & Gaxiola G.(2003) Effect of Artemia nauplii substitution

by artificial feed containing krill hydrolysate on ingestion rate, oxygen consumption and energy budget

of the mysis of Litopenaeus vannamei (Boone, 1931). Nauplius, 11(2).

Gauquelin F. (1996) Effets du taux de protéines alimentaires sur la croissance, la consommation d’oxygène et

l’excrétion ammoniacale de la crevette Penaeus stylirostris. Mémoire de Stage, Maîtrise de Sciences et

Techniques, Université de Corse, France, 37 pp.

Gaxiola G., MartínezW., Ramón F., Martínez G., Palomino G., Paredes A., Gallardo P.P. Rosas C., Goyard E.,

Prou, J. & Cuzon. G., (2004) Ingestion rate, digestive enzymes activities, metabolism and reserves with

Farfantepenaeus brasiliensis larvae fed Chaetoceros gracilis and Tetraselmis chuii.Comparative.

Biochemistry Physiology, (accepted).

Harris RP, Samain J-F; Moal J, Martin-Jezequel V & Poulet SA.(1986). Effects of algal diet on digestive enzyme

activity in Calanus helgolandicus. Marine biology. Berlin, Heidelberg, 90 3)353-361.

Hewitt D.R. and Irving M.G. (1990) Oxygen consumption and ammonia excretion of the brown tiger prawn

Penaeus esculentus fed diets of varying protein content. Comparative. Biochemistry Physiology.,

(3)373-378.

Jones D.A., Yule A.B., & Holland D.L. (1997) Larval Nutrition. In: Crustacean Nutrition, Advances in World

Aquaculture, vol 6 (ed. by L.R. D´Abramo, D.E. Conklin and D.M. Akiyama), pp. 353-389. The World

Aquaculture Society, Baton Rouge, LA.

Kurmaly K., Yule A.B., Jones, D.A. (1989) An energy budget for the larvae of Penaeus monodon (Fabricius).

Aquaculture 81, 13–25.

Lemos D. and Rodriguez, A.(1998) Nutritional effect on body composition anf trypsin activity of P.japonicus

during early postlarva development. Aquaculture, 160:103-116.

Lemos D; Ezquerra J.M; García-Carreño F.L. (2000) Protein digestión in penaeid shrimp: Digestive proteinases,

proteinase inhibitors and feed digestibility. Aquaculture 186: 89-105.

Lemos D and Phan V.N. (2001) Ontogenetic variation in metabolism, biochemical composition and energy

content during de early life stage of Farfantepenaeus paulensis (Crustacea: Decapoda: Peneidae).

Marine Biology. 138: 985-997.

Lovett D.L., Felder D.L., (1990a) Ontogeny of kinematics in the gut of the white shrimp Penaeus setiferus

(Crustacea: Penaeidae). Journal. Crusaceant. Biology. 10, 53–68.

Lovett D.L. and Felder D.L. (1990b) Ontogenetic Changes in Enzime Distribution and Midgut Function in

Developmental Stages of Penaeus setiferus (Crustacea, Decapoda, Penaeidae). Biol Bull, 178: 160-174.

Lucas A. (1996) Bioenergetics of Aquatics Animals. Masson ed., Paris,147pp.

Jimenez-Yan L., Gaxiola G., Cuzon G., Brito A., (2004) Bioenergetics and juveniles L.vannamei Aquaculture.

submitted

Mente E, Houlihan DF., and Sorgeloos P., (1997) Growth and protein metabolism in Crustacea: low turnover in

tropical shrimps? Proceed. Island. Aquaculture and tropical aquaculture, Martinique, les trois islets, mai

-9.

Ocampo. V. L. (1998) Metabolizable energy and growth efficiency of the shrimp under the effect of

environmental variations: 4th. Simposium Internacional de Nutricion Acuicola, La Paz, Baja California

Sur, Mexico,15-18 november 1998 :pp. 44-60.

Ottogalli L., (1991) Complete substitution of microcapsules for algae for Penaeus stylirostris larval rearing in

New Caledonia. J. World Aquaculture Soc. 22, 46A.

Rosas C., Sanchez, A., Díaz E., Soto L.A., Gaxiola G., and Brito R. (1996) Effect of dietary protein level on

apparent heat increment and post-prandial nitrogen excretion of Penaeus setiferus, P. schmitti, P.

duorarum and P notialis postlarvae. Journal of the World Aquaculture Society 27:92-102.

Rosas C, Cuzon G, Gaxiola G, Arena L, Lemaire P, Soyez C, van Wormhoudt A. (2000) Influence of dietary

carbohydrate on the metabolism of juvenile Litopenaeus stylirostris Journal of Experimental Marine

Biology and Ecology.249: 181-198.

Rosas C, Cuzon G, Gaxiola G, Pascual,C, Taboada G, Arena L, van Wormhoudt, A. (2002) An energetic and

conceptual model of the physiological role of dietary carbohydrates and salinity on Litopenaeus

vannamei juveniles. Journal of Experimental Marine Biology and Ecology. 268: 47-67.

Teshima S.(1995) Partinioning of energy according to protein sources in P.japonicus juveniles. Symposium,

Kagoshima, pp.

Trucho, JF.(1980) Lactate increases the oxygen affinity of crab hemocyanin. J. Exp. Zool., 214: 205-208.

Tsai I-H.,Lu P-J and Chuang J-L, (1986). Chymotrypsins in digestive tract of decapods (shrimps).Comparative

.Biochemistry Physiology. 85B, 1:235-239.

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Cómo citar

Cuzon, G., Brito, A., Jiménez-Yan, L., Brito, R., Tomás, G., Taboada, G., & Gaxiola, G. (2019). The Effects of Animal or Plant-Based Diets on Energy Partitioning in Selected Ontogenetic Stages of the Shrimp Litopenaeus vannamei. Avances En Nutrición Acuicola. Recuperado a partir de https://nutricionacuicola.uanl.mx/index.php/acu/article/view/188

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