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J. Strickland, T. Parsons (1968)
A practical handbook of seawater analysis
A. Bergheim, H. Hustveit, A. Kittelsen, A. Selmer-Olsen (1982)
Estimated pollution loadings from Norwegian fish farms. II. Investigations 1980–1981Aquaculture, 36
O. Lowry, N. Rosebrough, A. Farr, R. Randall (1951)
Protein measurement with the Folin phenol reagent.The Journal of biological chemistry, 193 1
H. Daniels, C. Boyd (1989)
Chemical Budgets for Polyethylene‐lined, Brackishwater PondsJournal of The World Aquaculture Society, 20
J. Wyban, J. Sweeney, R. Kanna (1988)
Shrimp Yields and Economic Potential of Intensive Round Pond SystemsJournal of The World Aquaculture Society, 19
B. Lapointe, J. Ryther (1978)
Some aspects of the growth and yield of Gracilaria tikvahiae in cultureAquaculture, 15
A. Fast, J. Lannan (1992)
POND DYNAMIC PROCESSESDevelopments in Aquaculture and Fisheries Science, 23
Jaw-Kai Wang, A. Fast (1992)
SHRIMP POND ENGINEERING CONSIDERATIONSDevelopments in Aquaculture and Fisheries Science, 23
M. Beveridge (1984)
Cage and pen fish farming. Carrying capacity models and environmental impact
B. Hunter, G. Pruder, J. Wyban (1987)
Biochemical Composition of Pond Biota, Shrimp Ingesta, and Relative Growth of Penaeus vannamei in Earthen PondsJournal of The World Aquaculture Society, 18
M. Krom, C. Porter, H. Gordin (1985)
Nutrient budget of a marine fish pond in Eilat, IsraelAquaculture, 51
E. Sj, Bannerman Rt, Armstrong De (1975)
A simplified phosphorus analysis technique.Environmental Letters, 9
M. Krom, C. Porter, H. Gordin (1985)
Description of the water quality conditions in a semi-intensively cultured marine fish pond in Eilat, IsraelAquaculture, 49
Asian Shrimp News, 7
G. Schroeder (1987)
Carbon and nitrogen budgets in manured fish ponds on Israel's coastal plainAquaculture, 62
J. Folch, M. Lees, G. Stanley (1957)
A simple method for the isolation and purification of total lipides from animal tissues.The Journal of biological chemistry, 226 1
T. Nishio, I. Koike, A. Hattori (1983)
Estimates of Denitrification and Nitrification in Coastal and Estuarine SedimentsApplied and Environmental Microbiology, 45
C. Boyd (1985)
Chemical Budgets for Channel Catfish PondsTransactions of The American Fisheries Society, 114
D. Teichert-Coddington, M. Peralta, R. Phelps (1989)
Seepage reduction in tropical fish ponds using chicken litterAquacultural Engineering, 8
W. Bray, A. Lawrence (1992)
Reproduction of Penaeus species in captivityDevelopments in Aquaculture and Fisheries Science, 23
J. Primavera (1992)
Prawn-shrimp culture industry in the PhilippinesDevelopments in Aquaculture and Fisheries Science, 23
M. Wallin (1991)
Nutrient loading models for coastal waters
Abstract. A mass balance was constructed for nutrient flow through intensive marine shrimp ponds in which budgets for nitrogen and phosphorus were determined for a series of ponds in southern Thailand over two or three culture cycles. Ninety‐five per cent of the nitrogen and 71% of the phosphorus applied to the ponds was in the form of feed and fertilizers. Of the feed input (at a food conversion ratio of 2) only 24% of the nitrogen and 13% of the phosphorus was incorporated into the shrimp harvested, whilst the remainder was retained in the pond and ultimately exported to the surrounding environment. The effluent water contained 35% of the nitrogen and 10% of the phosphorus discharged. Of the N and P exported in this effluent, 63–67% occurred during routine water exchange and the remainder during drainage on harvest. A major portion of the nitrogen (31%) and most of the phosphorus (84%) was retained in the sediments, emphasizing the importance of the correct removal and disposal of sediments between crops. Pond age (between two and six production cycles) did not markedly affect nutrient flows, whilst increasing stocking density increased the quantity of nutrients, but not their relative proportions. The results derived from the nutrient budget provide data which may help define effective management techniques for reducing potentially harmful nutrient levels within intensive shrimp ponds, and for reducing the discharge of nutrients to the local environment. The data may also assist in determining the carrying capacity of an area for shrimp farming, and the potential impact of its development on the environment.
Aquaculture Research – Wiley
Published: Oct 1, 1994
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