2006
DOI: 10.1016/j.aquaculture.2005.08.011
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Biochemical compositions and digestive enzyme activities during the embryonic development of prawn, Macrobrachium rosenbergii

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Cited by 50 publications
(43 citation statements)
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“…A combination of enriched ARA and LOA in diets may have facilitated the accumulations of other important fatty acids, especially DHA, in eggs and larvae despite the lower n-3 lcPUFA available in diets. Having adequate energy required by these energetically expensive life stages, especially from fertilized eggs (containing mainly yolk) to advanced embryo and larvae (involving organ formation) (Habashy, Sharshar & Hassan, 2012; Yao et al, 2006) may allow for efficient utilization of n3-PUFA, especially DHA, required for tissue and organ formation in embryos and larvae. Larvae will continue to rely on yolk for nutrients during the first larval stage, after which they will need an external food source (Anger, 2001).…”
Section: Discussionmentioning
confidence: 99%
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“…A combination of enriched ARA and LOA in diets may have facilitated the accumulations of other important fatty acids, especially DHA, in eggs and larvae despite the lower n-3 lcPUFA available in diets. Having adequate energy required by these energetically expensive life stages, especially from fertilized eggs (containing mainly yolk) to advanced embryo and larvae (involving organ formation) (Habashy, Sharshar & Hassan, 2012; Yao et al, 2006) may allow for efficient utilization of n3-PUFA, especially DHA, required for tissue and organ formation in embryos and larvae. Larvae will continue to rely on yolk for nutrients during the first larval stage, after which they will need an external food source (Anger, 2001).…”
Section: Discussionmentioning
confidence: 99%
“…The dominance of these fatty acid classes in muscle, ovarian and egg tissues were similar to those observed in wild and farmed M. rosenbergii (wild prawn: Cavalli et al, 2001 (muscle, ovaries and egg); farmed prawn: Balamurugan, Mariappan & Balasundaram, 2015 (ovaries and egg), Li, Sinclair & Li, 2011 (muscle), Bragagnolo & Rodriguez-Amaya, 2001 (muscle), Cavalli, Lavens & Sorgeloos, 1999 (muscle, ovaries and egg), Chanmugam et al, 1983 (muscle)) and other marine shrimp species ( P. monodon, Huang et al, 2008) (ovaries and egg, farmed shrimp), (O’Leary & Matthews, 1990) (muscle, wild and farmed shrimp); P. chinensis , Ji & Xu, 1992; L. vannamei , Wouter et al, 2001; other wild shrimp species, Li, Sinclair & Li, 2011) although ovarian tissue of farmed M. rosenbergii analyzed in this and other studies tended to contain higher proportions of these fatty acid classes compared to those of marine shrimp. These classes of fatty acids usually serve as a main source of energy for growth (Wehrtmann & Graeve, 1998), ovarian development (Harrison, 1990), embryogenesis (Clarke, Brown & Holmes, 1990; Yao et al, 2006) and early larval development (Roustaian et al, 1999; Yao et al, 2006) as they are typically preferred substrates for b-oxidation reactions (Henderson, 1996). …”
Section: Discussionmentioning
confidence: 99%
“…It should however be noted that the total metabolic cost most likely is higher, since neither lipids nor carbohydrates were quantified in the present study. In other crustaceans, such as European lobster Homarus gammarus and the prawn Macrobrachium rosenbergii, lipids are important energy substrates (Rosa et al 2005, Yao et al 2006. It is not known at present if salmon lice can actively absorb organic matter from seawater, as can many other marine invertebrates (Manahan et al 1982), but any such uptake would also contribute to the energy budget.…”
Section: Discussionmentioning
confidence: 99%
“…This egg growth pattern is common in Malacostracans (Müller et al, 2004;Sudhakar et al, 2014). It is associated with an increase in the water content of the egg (Yao et al, 2006;Habashy et al, 2012), and with an increase in the size of the developing embryo (Anderson, 1982;Lourdes and Cuvin-Aralar, 2014).…”
Section: Inmentioning
confidence: 99%