Matches in SemOpenAlex for { <https://semopenalex.org/work/W3034858022> ?p ?o ?g. }
- W3034858022 endingPage "114574" @default.
- W3034858022 startingPage "114574" @default.
- W3034858022 abstract "Tolerance of Japanese quail to different dietary fat peroxidation values (PV) in combination with supplementation of antioxidants was investigated. In total 1200 Japanese quail were divided into 16 treatment groups in a 4 × 4 factorial design. The diets were supplemented with 4 % soybean oil differing in peroxidation values (2.06, 45.18, 101.99 and 146.03 (meq/kg) and the antioxidant treatment including: no antioxidant, Rosemary powder, Aloe Vera gel powder, and commercial antioxidant. Dietary inclusion of high PV oil decreased body weight gain (BWG) and feed intake (FI) of quails at all period. Feed conversion ratio (FCR) was increased during the whole period by dietary inclusion of high PV oil (P < 0.05). The supplementation of Rosemary and Aloe Vera increased BWG at 22−35 and 7−35 days (P < 0.05). Different PV oils had a significant effect on the carcass yield, abdominal fat, and intestine weight (P < 0.05). Rosemary and Aloe Vera gel supplementation decreased abdominal fat and increased intestine weight in quail (P < 0.05). Higher PV oil decreased blood glucose, total protein, IgM and IgG also increased blood cholesterol, triglyceride, and LDL. Rosemary and Aloe Vera gel supplementation increased blood glucose (P < 0.05). Blood AST, ALT, and MDA were increased in the quails fed higher PV oil but higher PV oil decreased the levels of SOD and GPx activity (P < 0.05). The blood AST and MDA concentrations of quails declined with antioxidants supplementation, Furthermore Rosemary and commercial antioxidant increased SOD activity (P < 0.05). Dietary inclusion of higher PV oils in diets decreased villus height of quails (P < 0.05). Higher PV oils increased PV and thiobarbituric acid in meat in quails when compared to lower PV oil. Furthermore, PV and thiobarbituric acid in meat was lower in antioxidants supplementation when compared to the non-supplementation group (P < 0.05). Quails fed highly PV oil showed lower PUFA and higher SFA in meat compared with those fed low PV oil. The use of antioxidants in this study increased PUFA and decreased SFA in meat (P < 0.05). Significant interaction effects were observed between antioxidants and different PV oils on blood AST and MDA activity and PV in meat. These results suggest that diet PV oil over 2.06 PV meq/kg reduced the growth performance of quails. Furthermore, the use of antioxidants improved the growth performance, however, no significant interaction effects between different PV oil and antioxidants were found on growth performance. Therefore antioxidants could not prevent the negative effects of high PV oil." @default.
- W3034858022 created "2020-06-19" @default.
- W3034858022 creator A5009868343 @default.
- W3034858022 creator A5020308161 @default.
- W3034858022 creator A5043615481 @default.
- W3034858022 creator A5045897310 @default.
- W3034858022 creator A5051791358 @default.
- W3034858022 creator A5054572145 @default.
- W3034858022 creator A5058069222 @default.
- W3034858022 creator A5085308242 @default.
- W3034858022 creator A5086968923 @default.
- W3034858022 date "2020-09-01" @default.
- W3034858022 modified "2023-10-04" @default.
- W3034858022 title "Determining tolerance of Japanese quail to different dietary fat peroxidation values by supplementation with Rosemary and Aloe Vera on performance and meat quality" @default.
- W3034858022 cites W1571856980 @default.
- W3034858022 cites W1907106561 @default.
- W3034858022 cites W1967109681 @default.
- W3034858022 cites W1968620097 @default.
- W3034858022 cites W1969356593 @default.
- W3034858022 cites W1973520293 @default.
- W3034858022 cites W1982587018 @default.
- W3034858022 cites W1982635838 @default.
- W3034858022 cites W2000010644 @default.
- W3034858022 cites W2001899245 @default.
- W3034858022 cites W2009670660 @default.
- W3034858022 cites W2010535667 @default.
- W3034858022 cites W2012140230 @default.
- W3034858022 cites W2015406392 @default.
- W3034858022 cites W2018722273 @default.
- W3034858022 cites W2026871851 @default.
- W3034858022 cites W2028991834 @default.
- W3034858022 cites W2034724278 @default.
- W3034858022 cites W2037376820 @default.
- W3034858022 cites W2042207502 @default.
- W3034858022 cites W2051480116 @default.
- W3034858022 cites W2059867572 @default.
- W3034858022 cites W2064993241 @default.
- W3034858022 cites W2069126054 @default.
- W3034858022 cites W2071548919 @default.
- W3034858022 cites W2074214051 @default.
- W3034858022 cites W2097268162 @default.
- W3034858022 cites W2107310274 @default.
- W3034858022 cites W2117149549 @default.
- W3034858022 cites W2135796934 @default.
- W3034858022 cites W2136312830 @default.
- W3034858022 cites W2139385689 @default.
- W3034858022 cites W2149433261 @default.
- W3034858022 cites W2152971804 @default.
- W3034858022 cites W2154205500 @default.
- W3034858022 cites W2155605035 @default.
- W3034858022 cites W2156812409 @default.
- W3034858022 cites W2161225477 @default.
- W3034858022 cites W2163148953 @default.
- W3034858022 cites W2163163080 @default.
- W3034858022 cites W2171347142 @default.
- W3034858022 cites W2185654336 @default.
- W3034858022 cites W2283426730 @default.
- W3034858022 cites W2547519597 @default.
- W3034858022 cites W2554259477 @default.
- W3034858022 cites W2759761142 @default.
- W3034858022 cites W2793194354 @default.
- W3034858022 cites W2886100005 @default.
- W3034858022 cites W2905042913 @default.
- W3034858022 cites W2946645496 @default.
- W3034858022 cites W2954999398 @default.
- W3034858022 cites W2963718554 @default.
- W3034858022 cites W2986345346 @default.
- W3034858022 cites W4312967486 @default.
- W3034858022 doi "https://doi.org/10.1016/j.anifeedsci.2020.114574" @default.
- W3034858022 hasPublicationYear "2020" @default.
- W3034858022 type Work @default.
- W3034858022 sameAs 3034858022 @default.
- W3034858022 citedByCount "10" @default.
- W3034858022 countsByYear W30348580222021 @default.
- W3034858022 countsByYear W30348580222022 @default.
- W3034858022 countsByYear W30348580222023 @default.
- W3034858022 crossrefType "journal-article" @default.
- W3034858022 hasAuthorship W3034858022A5009868343 @default.
- W3034858022 hasAuthorship W3034858022A5020308161 @default.
- W3034858022 hasAuthorship W3034858022A5043615481 @default.
- W3034858022 hasAuthorship W3034858022A5045897310 @default.
- W3034858022 hasAuthorship W3034858022A5051791358 @default.
- W3034858022 hasAuthorship W3034858022A5054572145 @default.
- W3034858022 hasAuthorship W3034858022A5058069222 @default.
- W3034858022 hasAuthorship W3034858022A5085308242 @default.
- W3034858022 hasAuthorship W3034858022A5086968923 @default.
- W3034858022 hasConcept C134018914 @default.
- W3034858022 hasConcept C140793950 @default.
- W3034858022 hasConcept C147583825 @default.
- W3034858022 hasConcept C185592680 @default.
- W3034858022 hasConcept C22830521 @default.
- W3034858022 hasConcept C2777882087 @default.
- W3034858022 hasConcept C2778004101 @default.
- W3034858022 hasConcept C2778163477 @default.
- W3034858022 hasConcept C2778401633 @default.
- W3034858022 hasConcept C2778913445 @default.
- W3034858022 hasConcept C2779404486 @default.
- W3034858022 hasConcept C2780829032 @default.