FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W2758908768> ?p ?o ?g. }

• W2758908768 endingPage "145" @default.
• W2758908768 startingPage "137" @default.
• W2758908768 abstract "The severe to complete mortality that occurs during the larviculture of Atlantic bluefin tuna (ABFT; Thunnus thynnus) may be due, in part, to sub-optimal neural and eye development. The adult and larval ABFT eyes are rich in docosahexaenoic acid (DHA; 22:6n-3), which facilitates key intra-membrane reactions in the photoreceptors of the retina. Another critical nutrient is taurine, which plays vital roles that include bile salt conjugation as well as development and function of visual, neural and muscular systems. The objectives of the present study were to (1) determine the pattern of conservation and loss of fatty acid groups and their constituent fatty acids during egg and pre-larval development as well as in food deprivation. (2) Determine the effect of rotifer (Brachionus rotundiformis) DHA on hunting success, growth, and retinal opsin abundance in 2–14 dph ABFT larvae. (3) Evaluate the effect of supplemented taurine in rotifers enriched on the most effective DHA level from objective (2) on larval survival and growth. During the egg and yolk sac larval stages, there was a significant decrease (P < 0.05) in SAT, MONO and PUFA that can be expressed as 46.7%, 50.3% and 57.1%, respectively. Similarly, the levels of DHA, EPA, and ArA were markedly (P < 0.05) reduced that can be expressed as 59.8%, 52.5% and 59.5%, respectively. In the DHA study, there was a rotifer DHA dose dependent (P < 0.05) effect on prey consumption by 3–7 dph ABFT larvae where the highest DHA level (11 mg g− 1 DW rotifer) elicited significantly (P < 0.05) higher rotifer consumption compared to the control and moderate DHA diets (2 mg g− 1 DW and 5 mg g− 1 DW rotifer, respectively). Moreover, larvae with the highest DHA level (7.01 mg g− 1 DW) exhibited a significantly (P < 0.05) higher opsin protein concentration (25.27 unit area− 1) compared to the 2.83 mg DHA g− 1 DW and 1.26 mg DHA g− 1 DW fish (20.32 and 16.33 opsin protein unit area− 1, respectively). Although there was a significant (P < 0.05) taurine modulated increase in larval length in 10 dph fish, there was a non-significant (P > 0.05) growth advantage, in terms of dry weight, as a result of moderate dietary taurine supplementation at the end of the study. Nevertheless, the moderate 6.44 mg taurine g− 1 DW larvae exhibited markedly (P = 0.024) better survival and > 4 times higher (P = 0.0018) average tank biomass (273.6 mg) than the low (1.97 mg g− 1 DW) and high (12.62 mg g− 1 DW) taurine fish (62.14 and 56.90 mg, respectively). Overall, the data suggests that supplementing effective levels of DHA and taurine contributes to an array of physiological processes resulting in enhanced vision and prey acquisition to markedly improve ABFT larval performance during early development." @default.
• W2758908768 created "2017-10-06" @default.
• W2758908768 creator A5009275956 @default.
• W2758908768 creator A5023030667 @default.
• W2758908768 creator A5043109295 @default.
• W2758908768 creator A5048215046 @default.
• W2758908768 creator A5048616396 @default.
• W2758908768 creator A5048956592 @default.
• W2758908768 creator A5058543562 @default.
• W2758908768 creator A5071060347 @default.
• W2758908768 creator A5072719949 @default.
• W2758908768 creator A5079394379 @default.
• W2758908768 creator A5080292032 @default.
• W2758908768 date "2018-01-01" @default.
• W2758908768 modified "2023-10-05" @default.
• W2758908768 title "The effect of dietary DHA and taurine on rotifer capture success, growth, survival and vision in the larvae of Atlantic bluefin tuna ( Thunnus thynnus )" @default.
• W2758908768 cites W1785828994 @default.
• W2758908768 cites W1964643951 @default.
• W2758908768 cites W1967380750 @default.
• W2758908768 cites W1968488417 @default.
• W2758908768 cites W1970301025 @default.
• W2758908768 cites W1970332007 @default.
• W2758908768 cites W1970334754 @default.
• W2758908768 cites W1972705358 @default.
• W2758908768 cites W1974559193 @default.
• W2758908768 cites W1974633080 @default.
• W2758908768 cites W1977073203 @default.
• W2758908768 cites W1979244381 @default.
• W2758908768 cites W1979485739 @default.
• W2758908768 cites W1979705433 @default.
• W2758908768 cites W1982754271 @default.
• W2758908768 cites W1986643230 @default.
• W2758908768 cites W1988274016 @default.
• W2758908768 cites W1988634559 @default.
• W2758908768 cites W1989360281 @default.
• W2758908768 cites W1991165453 @default.
• W2758908768 cites W1992718584 @default.
• W2758908768 cites W1994993004 @default.
• W2758908768 cites W1995768585 @default.
• W2758908768 cites W1998732178 @default.
• W2758908768 cites W2000138491 @default.
• W2758908768 cites W2002354443 @default.
• W2758908768 cites W2003789696 @default.
• W2758908768 cites W2004254908 @default.
• W2758908768 cites W2004614906 @default.
• W2758908768 cites W2005573535 @default.
• W2758908768 cites W2006439957 @default.
• W2758908768 cites W2011807716 @default.
• W2758908768 cites W2012007076 @default.
• W2758908768 cites W2015121128 @default.
• W2758908768 cites W2019742616 @default.
• W2758908768 cites W2022458681 @default.
• W2758908768 cites W2026225989 @default.
• W2758908768 cites W2029598860 @default.
• W2758908768 cites W2036903951 @default.
• W2758908768 cites W2041200489 @default.
• W2758908768 cites W2041220317 @default.
• W2758908768 cites W2044783219 @default.
• W2758908768 cites W2046186534 @default.
• W2758908768 cites W2051872243 @default.
• W2758908768 cites W2058550306 @default.
• W2758908768 cites W2058868635 @default.
• W2758908768 cites W2064828087 @default.
• W2758908768 cites W2067281368 @default.
• W2758908768 cites W2080622533 @default.
• W2758908768 cites W2085221389 @default.
• W2758908768 cites W2087927964 @default.
• W2758908768 cites W2088017235 @default.
• W2758908768 cites W2088686366 @default.
• W2758908768 cites W2093107160 @default.
• W2758908768 cites W2093816332 @default.
• W2758908768 cites W209529457 @default.
• W2758908768 cites W2095584893 @default.
• W2758908768 cites W2109111259 @default.
• W2758908768 cites W2113183595 @default.
• W2758908768 cites W2114070345 @default.
• W2758908768 cites W2119232833 @default.
• W2758908768 cites W2124035137 @default.
• W2758908768 cites W2127238287 @default.
• W2758908768 cites W2134063763 @default.
• W2758908768 cites W2153687216 @default.
• W2758908768 cites W2168526937 @default.
• W2758908768 cites W2169559026 @default.
• W2758908768 cites W2170322992 @default.
• W2758908768 cites W2177909750 @default.
• W2758908768 cites W2315257893 @default.
• W2758908768 cites W2341967996 @default.
• W2758908768 cites W236085816 @default.
• W2758908768 cites W3124911220 @default.
• W2758908768 doi "https://doi.org/10.1016/j.aquaculture.2017.09.039" @default.
• W2758908768 hasPublicationYear "2018" @default.
• W2758908768 type Work @default.
• W2758908768 sameAs 2758908768 @default.
• W2758908768 citedByCount "21" @default.
• W2758908768 countsByYear W27589087682017 @default.
• W2758908768 countsByYear W27589087682018 @default.
• W2758908768 countsByYear W27589087682019 @default.
• W2758908768 countsByYear W27589087682020 @default.

• next