Matches in SemOpenAlex for { <https://semopenalex.org/work/W3154307173> ?p ?o ?g. }
- W3154307173 endingPage "7844" @default.
- W3154307173 startingPage "7830" @default.
- W3154307173 abstract "The aim of this study was to evaluate the effects of incorporating rice straw and orange leaves into the diets for goats. Ten Murciano-Granadina goats at mid lactation weighing 45 ± 0.3 kg were used in a crossover design. Two isoproteic and isoenergetic diets (180 g/kg DM and 17 MJ/kg DM, respectively) with alfalfa hay as forage source (33% of DM) were fed. A control diet (CON) incorporated barley as energy source and soy hulls as fiber component. The experimental diet (ORG) replaced barley and soy hulls with orange leaves (19% on DM basis), rice straw (12%, on DM basis) and soya oil (2%). Peas and horsebeans were the protein source in both diets. Each goat received the 2 treatments in 2 periods. Goats were fed the experimental diets and after 14 d on their respective treatments moved to individual metabolism cages for another 7 d. Subsequently, feed intake, total fecal and urine output and milk yield were recorded daily over the first 5 d. During the next 2 d ruminal fluid and blood samples were collected, and then individual gas-exchange measurements were recorded by a mobile open-circuit indirect calorimetry system using a head box. No differences in dry matter intake were detected, and apparent total-tract digestibility was greater in CON than ORG. Efficiency of metabolizable energy intake for milk and maintenance also was lower in response to ORG (0.65 vs. 0.63), with energy balance being negative (-12 kJ/kg of BW0.75) due to mobilization of fat (-16 g/animal vs. 68 g/animal for ORG and CON, respectively). Although actual milk yield was lower in goats fed ORG (2.32 vs. 2.06 kg/d, respectively), energy-corrected milk did not differ (2.81 kg/d on average). In terms of milk quality, milk fat content, and concentrations of monounsaturated (18.54 vs. 11.55 g/100 g milk fat) and polyunsaturated fatty acids (5.75 vs. 3.99 g/100 g milk fat) were greater in goats fed ORG. Based on various indices, the milk produced by ORG would be less atherogenic and thrombogenic than CON milk. Compared with CON, enteric CH4 emission was lower due to feeding ORG (reduction of 38 g CH4/kg milk fat). Data suggest that greater fat mobilization in goats fed ORG might have been due to the apparent lack of synchrony between degradable protein and carbohydrate and the lipogenic nutrients associated with the lower cereal content of the ORG diet. Thus, goats fed ORG seemed to rely more on fat depots to help meet energy requirements and reach optimal performance. As such, the lower content of glucogenic nutrients in ORG did not favor body fat deposition and partitioning of ME into body tissue. Overall, responses in terms of CH4 emissions and milk quality suggest that inclusion of rice straw and orange leaves in diets for small ruminants could be a valuable alternative to reuse, recycle and revalue agricultural by-products." @default.
- W3154307173 created "2021-04-26" @default.
- W3154307173 creator A5002300868 @default.
- W3154307173 creator A5013313470 @default.
- W3154307173 creator A5033262926 @default.
- W3154307173 creator A5072505257 @default.
- W3154307173 creator A5078504589 @default.
- W3154307173 creator A5089173878 @default.
- W3154307173 date "2021-07-01" @default.
- W3154307173 modified "2023-10-16" @default.
- W3154307173 title "Energy, nitrogen partitioning, and methane emissions in dairy goats differ when an isoenergetic and isoproteic diet contained orange leaves and rice straw crop residues" @default.
- W3154307173 cites W1532393824 @default.
- W3154307173 cites W1612847038 @default.
- W3154307173 cites W1837026033 @default.
- W3154307173 cites W1965830311 @default.
- W3154307173 cites W1968793382 @default.
- W3154307173 cites W1969802817 @default.
- W3154307173 cites W1971218627 @default.
- W3154307173 cites W1973520293 @default.
- W3154307173 cites W1975224467 @default.
- W3154307173 cites W1980148018 @default.
- W3154307173 cites W1982664502 @default.
- W3154307173 cites W1987821866 @default.
- W3154307173 cites W1999260619 @default.
- W3154307173 cites W2000549289 @default.
- W3154307173 cites W2003029279 @default.
- W3154307173 cites W2005441966 @default.
- W3154307173 cites W2011098213 @default.
- W3154307173 cites W2014043260 @default.
- W3154307173 cites W2021043426 @default.
- W3154307173 cites W2024783318 @default.
- W3154307173 cites W2039764894 @default.
- W3154307173 cites W2041585355 @default.
- W3154307173 cites W2043377088 @default.
- W3154307173 cites W2052828365 @default.
- W3154307173 cites W2057469323 @default.
- W3154307173 cites W2075327350 @default.
- W3154307173 cites W2088868843 @default.
- W3154307173 cites W2089919345 @default.
- W3154307173 cites W2092994614 @default.
- W3154307173 cites W2094571978 @default.
- W3154307173 cites W2095068389 @default.
- W3154307173 cites W2098072559 @default.
- W3154307173 cites W2102956009 @default.
- W3154307173 cites W2127116922 @default.
- W3154307173 cites W2128394183 @default.
- W3154307173 cites W2144230978 @default.
- W3154307173 cites W2151268927 @default.
- W3154307173 cites W2151734113 @default.
- W3154307173 cites W2152740078 @default.
- W3154307173 cites W2153220691 @default.
- W3154307173 cites W2159794005 @default.
- W3154307173 cites W2170650336 @default.
- W3154307173 cites W2172120066 @default.
- W3154307173 cites W2256186791 @default.
- W3154307173 cites W2263825340 @default.
- W3154307173 cites W2310901994 @default.
- W3154307173 cites W2580024651 @default.
- W3154307173 cites W2588752814 @default.
- W3154307173 cites W2591641642 @default.
- W3154307173 cites W2797907223 @default.
- W3154307173 cites W2900469510 @default.
- W3154307173 cites W2904501740 @default.
- W3154307173 cites W2950442749 @default.
- W3154307173 cites W2954206878 @default.
- W3154307173 cites W3000453683 @default.
- W3154307173 cites W3007784158 @default.
- W3154307173 cites W3025085454 @default.
- W3154307173 doi "https://doi.org/10.3168/jds.2020-19953" @default.
- W3154307173 hasPubMedId "https://pubmed.ncbi.nlm.nih.gov/33865581" @default.
- W3154307173 hasPublicationYear "2021" @default.
- W3154307173 type Work @default.
- W3154307173 sameAs 3154307173 @default.
- W3154307173 citedByCount "6" @default.
- W3154307173 countsByYear W31543071732022 @default.
- W3154307173 countsByYear W31543071732023 @default.
- W3154307173 crossrefType "journal-article" @default.
- W3154307173 hasAuthorship W3154307173A5002300868 @default.
- W3154307173 hasAuthorship W3154307173A5013313470 @default.
- W3154307173 hasAuthorship W3154307173A5033262926 @default.
- W3154307173 hasAuthorship W3154307173A5072505257 @default.
- W3154307173 hasAuthorship W3154307173A5078504589 @default.
- W3154307173 hasAuthorship W3154307173A5089173878 @default.
- W3154307173 hasBestOaLocation W31543071731 @default.
- W3154307173 hasConcept C100544194 @default.
- W3154307173 hasConcept C106191032 @default.
- W3154307173 hasConcept C118518473 @default.
- W3154307173 hasConcept C140793950 @default.
- W3154307173 hasConcept C178790620 @default.
- W3154307173 hasConcept C183889291 @default.
- W3154307173 hasConcept C185592680 @default.
- W3154307173 hasConcept C18903297 @default.
- W3154307173 hasConcept C22641795 @default.
- W3154307173 hasConcept C2776659692 @default.
- W3154307173 hasConcept C2777942232 @default.
- W3154307173 hasConcept C2779039770 @default.
- W3154307173 hasConcept C2779234561 @default.
- W3154307173 hasConcept C2779587293 @default.