A Dynamic Simulation Model for Growth of Penaeid shrimps

Autores/as

  • A. K. Mishra Wageningen University and Research centre
  • M. Verdegem Wageningen University and Research centre
  • A. van Dam Wageningen University and Research centre

Resumen

Bio-energetic dynamic penaeid shrimp growth model was developed from an existing
model on tilapia growth. The model was divided into 6 sub modules: (1) Moulting; (2) Feed
consumption; (3) Digestion and biosynthesis; (4) Energy metabolism; (5) Oxidation; and
(6) Growth; and was parameterized based on the literature. The model was calibrated and
validated with an independent data set.
For calibration, the best agreement between observed and simulated value for growth was
achieved when it was assumed that 14% of dietary amino acids was converted to glucose
and ratio of fat: protein for energy generation was 0.819. Calculated regression equation
and R2 were Y = 0.868X + 1.384 and 0.71, respectively, where Y is simulated and X is the
observed final shrimp weight. The Average Relative Error (ARE) was 5.64%. For
validation comparing experimental and simulated final shrimp weight, we found Y =
1.091X + 0.116, R2 = 0.97 with an ARE of 10.22%.
The model can predict general patterns of shrimp growth. The explanatory character of the
model allowed prediction of growth under a wide range of conditions. Effect of feed
nutritional quality, feeding rate, body composition, and temperature and moulting on
shrimp can be predicted well by the model, which will provide insight of interactions
among the growth and growth parameters of shrimp.

Descargas

Los datos de descargas todavía no están disponibles.

Citas

Akiyama, D. M., Coelho, S. R., Lawrence, A. L., Robinson E. H., 1988. Apparent digestibility of feedstuffs

by the marine shrimps, Penaeus vannamei Boone. Bulletin Japanese Society of Science and

Fisheries 55 (1), 91.

Bautista, M. N., Subosa, P. F., 1997. Changes in shrimp feed quality and effects on growth and survival of

Penaeus monodon juveniles. Aquaculture 151, 121-129.

Catacutan, M. R., 1991. Apparent digestibility of diets with various carbohydrate levels and the growth

response of Penaeus monodon. Aquaculture, 95, 89-96.

Chang, E. S., 1992. Endocrinology. In: Fast, A.W. and Lesters L.J. (Eds.), Marine Shrimp Culture: Principles

and Practices, Elsevier Science Publisher, 53-91.

Choe, S., 1971. Body increase during moulting and moulting cycle of the oriental brown shrimp Penaeus

japonicus. Marine Biology 9, 31-37.

Clark, D. J., Lawrence, A. L., Swakon, D. H. D., 1993. Apparent chitin digestibility in penaeid shrimp.

Aquaculture, 109, 51-57.

Condrey, R. E., Gosselink, J. G., Bennett, H. J., 1972. Comparison of the assimilation of different diets by

Penaeus setiferus and Penaeus aztecus. Fisheries Bulletin, 70, 1281-1292.

Cuzon, G., Hew, M., Cognie, D., 1982. Time lag effect feeding on growth of juvenile shrimp, Penaeus

japonicus. Aquaculture 29, 33-44.

Dall, W., 1986. Estimation of routine metabolic rate in a Penaeid prawn, Penaeus esculetus Haswell. Journal

of Experimental Marine Biology Ecology 96, 57-74.

Davis, D. A., Arnold, C. R., 2000. Replacement of fish meal in practical diets for the Pacific white shrimp,

Litopenaeus vannamei. Aquaculture 185, 291-298.

Divakaran, S., Velasco, M., 1999. Effect of proteolytic enzyme addition to a practical feed on growth of the

Pacific white shrimp, Litopenaeus vannamei (Boone). Aquaculture Research 30 (5), 335-339.

Fenuccie, J. L., Fenucci A. C., Lawrence, A. L., Zein-Eldin, Z. P., 1982. The assimilation of protein and

carbohydrate from prepared diets by the shrimp Penaeus stylirostris. Journal of World Mariculture

Society 13, 134-145.

Forster, J. R. M., Gabbott, P. A., 1971. The assimilation of nutrients from compounded diets by the prawns

Palaemon serratus and Pandalus platyceros. Journal of Marine Biology Association of UK, 51, 943-

Griffith, D. R. W., Wigglesworth, J. M., 1993. Growth rhythms in the shrimp Penaeus vannamei and P.

schmitti. Marine Biology 115 (2), 295-299.

Lee, P. G., Lawrence, A. L., 1985. Effect of diet and size on growth, feed digestibility and digestive enzyme

activities of the marine shrimp Penaeus setiferus Linnaeus. Journal of World Mariculture Society 16,

-287.

Lim. C, Ako, H., Brown, C. L., Hahn, K., 1997. Growth response and fatty acid composition of juvenile

Penaeus vannamei fed different sources of dietary lipid. Aquaculutre 151, 143-153.

Machiels, M. A. M., Henken, A. M., 1986. A dynamic simulation model for growth of African Catfish,

Clarias gariepinus (Burchell 1822) I. Effect of Feeding level on Growth and Energy Metabolism.

Aquaculture 56, 29-52.

Machiels, M. A. M., 1987. A dyanamic simulation model for growth of African catfish, Clarias gariepinus

(Burchell 1822). Ph.D. Thesis, Wageningen Agricultural University, Wageningen.

Maguire, G. B., Leedow, M., 1983. A study of the optimum stocking density and feed rate for school prawns

Metapenaeus macleayi (Haswell) in some Australian brackish water farming ponds. Aquaculture 30,

-297.

Martinez-Cordova, L. R., Calderon-Perez, J. A., 1998. Evaluation of three feeding practices on the winter

culture of yellow leg shrimp, Penaeus californiensis (Holmes), in low water exchange ponds.

Aquaculture Research 29, 573-578.

Mohan, C. V., 1998. Coastal aquaculture: Issues and Options for Integrated Coastal Zone Management. In:

Radhakrishnana, K.V. (Ed.), Proceedings of the Workshop on Integrated Coastal Management, 23-25

November. College of Fisheries, Mangalore, India, pp.5-13.

Montoya, R. A., Lawrence, A. L., Grant, W. E., Velaso, M., 1999. Simulation of nitrogen dynamics and

shrimp culture system: effects of feed and feeding parameters. Ecological modelling 122, 81-95.

Piedrahita, R. H., 1988. Intoduction to Computer modelling of aquaculture pond ecosystems. Aquaculture and

Fisheries Management 19, 1-12.

Reymond, H., Lagardere, J. P., 1990. Feeding rhythms and food of Penaeus japonicus Bate (crustacean,

Penaeidae) in salt marsh ponds: role of halophilic entomofauna. Aquaculture 84,125-143.

Robertson, L., Lawrence, A. L., Castille, F. L., 1993. Effect of feeding frequency and feeding time on growth

of Penaeus vannamei (Boone). Aquaculture and Fisheries Management 24, 1-6.

Rosas, C., Sanchez, A., 1996. Effect of Dietary Protein Level on Apparent Heat Increament and Post-

Parandial Nitrogen Excretion of Penaeus schmitti, Penaeus setiferus, Penaeus duorarum and

Penaeus notialis postlarvae. Journal of the World Aquaculture Society 27, 92-102.

Sarac, H. Z., McMeniman, N. P., Thaggard, M., Gravel, M., Tabrett, S., Saunders, J., 1994. Relationship

between the weight and chemical composition of exuvia and whole body of the black tiger prawn,

Penaeus monodon. Aquaculture 119, 249-258.

Sedgwick, R. W., 1979a. Influence of dietary protein and energy on growth, food consumption and food

conversion efficiency in Penaeus merguiensis (De Man). Aquaculture 16, 7-30.

Sedgwick, R. W., 1979b. Effect of ration size and feeding frequency on the growth and food conversion of

juvenile Penaeus merguiensis de Man. Aquaculture 16, 279-298.

Shetty, H. P. C., 1998. Fisheries prespectives in integrated coastal management beyond 2000AD. In:

Radhakrishnana, K.V. (Ed.), Proceedings of the Workshop on Integrated Coastal Management, 23-25

November. College of Fisheries, Mangalore, India, pp.26-35.

Smith, L. L., Lee, P. G., Lawrence, A. L., Strawn, K., 1985. Growth and digestibility by three size of Penaeus

vannamei Boone: Effects of dietary protein level and protein source. Aquaculture 46, 85-96.

Smith, D. M., 1999. The dietary linoleic and linolenic fatty acids requirements of the prawn Penaeus

monodon. Aquaculture Nutrition 5 (1), 53-63.

Sudaryono, A., Tsvetnenko, E., Evans, L. H., 1996. Digestibility studies on fisheries by-product based diets

for Penaeus monodon. Aquaculture 143, 331-340.

Sudaryono, A., Tsvetnenko, E., Hutabarat, J., Supriharyono, Evans, L. H., 1999. Lupin ingredients in shrimp

(Penaeus monodon) diets: influence of lupin species and types of meals. Aquaculture 171, 121-133.

Talbot, C., 1994. Time to feed. Fish Farmer July/August: 49-50

Travis, D. E., 1960. Matrix and mineral deposition in skeletal structure of decapod crustacean (Phylum

arthropoda). In: Sognnaes, R.F. (Eds), Calcification in biological systems. American Association of

Advanced Science 64, 57-116.

van Dam, A. A., Penning de Vries, F. W. T., 1995. Parameterization and calibration of a model to simulate

effects of feeding level and feed composition on growth of Oreochromis niloticus (L.) and

Oncorhynchus mykiss (Walbaum). Aquaculture Research 26, 415-425.

Van Dam, A. A., 1995. Modelling Studies of Fish Production in Integrated Agriculture- Aquaculture

Systems. Ph.D. Thesis, Wageningen Agricultural University, Wageningen.

Villalon, J. R., 1991. Practical manual for semi-intensive commercial production of marine shrimp. Texas A

& M University Sea Grant Program. TAMU-SG-91-501. College Station, TX, pp. 104.

Welinder, B. S., 1975. The crustacean cuticle. I. Studies on the composition of the cuticle. Comparative

Biochemistry and Physiology 47A, 779-787.

Descargas

Cómo citar

Mishra, A. K., Verdegem, M., & van Dam, A. (2019). A Dynamic Simulation Model for Growth of Penaeid shrimps. Avances En Nutrición Acuicola. Recuperado a partir de https://nutricionacuicola.uanl.mx/index.php/acu/article/view/250