Immediate effect of Acacia mearnsii tannins on methane emissions and milk fatty acid profiles of dairy cows

被引:26
|
作者
Denninger, T. M. [1 ]
Schwarm, A. [1 ,2 ]
Birkinshaw, A. [1 ]
Terranova, M. [1 ]
Dohme-Meier, F. [3 ]
Munger, A. [3 ]
Eggerschwiler, L. [3 ]
Bapst, B. [4 ]
Wegmann, S. [4 ]
Clauss, M. [5 ]
Kreuzer, M. [1 ]
机构
[1] Swiss Fed Inst Technol, Inst Agr Sci, Univ Str 2, CH-8092 Zurich, Switzerland
[2] Norwegian Univ Life Sci, Dept Anim & Aquacultural Sci, POB 5003, N-1432 As, Norway
[3] Agroscope, Ruminant Res Unit, Route Tioleyre 4, CH-1725 Posieux, Switzerland
[4] Qualitas AG, Chamerstr 56, CH-6300 Zug, Switzerland
[5] Univ Zurich, Vetsuisse Fac, Clin Zoo Anim Exot Pet & Wildlife, Winterthurerstr 260, CH-8057 Zurich, Switzerland
关键词
Supplement; Methanogenesis; Milk fat; Rumen; Cattle; CONDENSED TANNINS; IN-VITRO; RUMEN; FERMENTATION; PREDICTION; NITROGEN; EXTRACT; SHEEP; RICH; METHANOGENESIS;
D O I
10.1016/j.anifeedsci.2019.114388
中图分类号
S8 [畜牧、 动物医学、狩猎、蚕、蜂];
学科分类号
0905 ;
摘要
The effects of dietary supplements for modifying cattle digestion and metabolism are typically measured after one or more weeks of adaptation. Consequently, how quickly the effects occur remains unknown. The long-term efficacy of Acacia mearnssii bark tannins (Acacia) on methane mitigation has been previously demonstrated. The present study, therefore, investigated the time it took for the extract to affect methane emissions and milk fatty acid profiles. Twenty lactating Brown Swiss dairy cows, categorized as 10 low- and 10 high methane emitters (average difference in methane yield: 0.10 of total), were housed in respiration chambers for 4 days. A control diet consisting of a mixed ration supplemented with grass pellets and concentrate pellets was fed initially (Day 0). The original pellets were then replaced with pellets containing 141 g Acacia/kg, providing 30 g Acacia/kg of dietary dry matter (DM) (Days 1-3). Methane emissions were measured every 10 min and gas chromatography was used to analyze individual fatty acids from daily milk samples. A significant decline in methane production was detected 20 min after starting supplementation, with methane production (g/day) and methane yield (g/kg DM intake) decreasing in a linear fashion from Day 0 to Day 3 by up to proportionately 0.18 and 0.16, respectively. Additionally, changes in proportions of various milk fatty acids occurred within 3 days of Acacia feeding. Using stepwise multiple regression analysis, several milk fatty acids were identified as being related to methane emissions. Applicable equations from the literature also showed relationships to methane emissions of high and low emitters as well as to the Acacia diet effect on methane emissions. The equations with close relationships all included minor and nondietary milk fatty acids like odd-chain fatty acids. These specific fatty acids originate from rumen microbial activity. In conclusion, A. mearnsii extract is an immediately acting methane mitigating supplement. Certain milk fatty acids are related to methane emission in dairy cows and may assist in determining whether and when tanniferous supplements will act against enteric methane formation.
引用
收藏
页数:13
相关论文
共 50 条
  • [21] Milk fatty acids estimated by mid-infrared spectroscopy and milk yield can predict methane emissions in dairy cows
    Stefanie W. Engelke
    Gürbüz Daş
    Michael Derno
    Armin Tuchscherer
    Werner Berg
    Björn Kuhla
    Cornelia C. Metges
    Agronomy for Sustainable Development, 2018, 38
  • [22] Milk fatty acids estimated by mid-infrared spectroscopy and milk yield can predict methane emissions in dairy cows
    Engelke, Stefanie W.
    Das, Gurbuz
    Derno, Michael
    Tuchscherer, Armin
    Berg, Werner
    Kuhla, Bjorn
    Metges, Cornelia C.
    AGRONOMY FOR SUSTAINABLE DEVELOPMENT, 2018, 38 (03)
  • [23] Effect of high-oleic-acid soybeans on production performance, milk fatty acid composition, and enteric methane emission in dairy cows
    Lopes, J. C.
    Harper, M. T.
    Giallongo, F.
    Oh, J.
    Smith, L.
    Ortega-Perez, A. M.
    Harper, S. A.
    Melgar, A.
    Kniffen, D. M.
    Fabin, R. A.
    Hristov, A. N.
    JOURNAL OF DAIRY SCIENCE, 2017, 100 (02) : 1122 - 1135
  • [24] Predicting enteric methane emission of dairy cows with milk Fourier-transform infrared spectra and gas chromatography-based milk fatty acid profiles
    van Gastelen, S.
    Mollenhorst, H.
    Antunes-Fernandes, E. C.
    Hettinga, K. A.
    van Burgsteden, G. G.
    Dijkstra, J.
    Rademaker, J. L. W.
    JOURNAL OF DAIRY SCIENCE, 2018, 101 (06) : 5582 - 5598
  • [25] Effect of feeding flax meal on milk fatty acids profiles and performance of Holstein dairy cows
    Vlaicu, Petru Alexandru
    Turcu, Raluca Paula
    Panaite, Tatiana Dumitra
    Olteanu, Margareta
    INDIAN JOURNAL OF ANIMAL SCIENCES, 2020, 90 (05): : 744 - 748
  • [26] Linseed supplementation of dairy cows: Effects on performances, methane emissions, milk composition and dairy products
    Brunschwig, P.
    Hurtaud, C.
    Chilliard, Y.
    Glasser, F.
    PRODUCTIONS ANIMALES, 2010, 23 (04): : 307 - 317
  • [27] Effect of method of diet delivery to dairy cows on enteric methane emissions, digestion and milk performance.
    Benchaar, C.
    Hassanat, F.
    JOURNAL OF DAIRY SCIENCE, 2019, 102 : 375 - 376
  • [28] Effect of the inclusion of quebracho tannins in a diet rich in linoleic acid on milk fatty acid composition in dairy ewes
    Toral, P. G.
    Hervas, G.
    Belenguer, A.
    Bichi, E.
    Frutos, P.
    JOURNAL OF DAIRY SCIENCE, 2013, 96 (01) : 431 - 439
  • [29] Effects of grass silage and soybean meal supplementation on milk production and milk fatty acid profiles of grazing dairy cows
    Rego, O. A.
    Regalo, S. M. M.
    Rosa, H. J. D.
    Alves, S. P.
    Borba, A. E. S.
    Bessa, R. J. B.
    Cabrita, A. R. J.
    Fonseca, A. J. M.
    JOURNAL OF DAIRY SCIENCE, 2008, 91 (07) : 2736 - 2743
  • [30] Plasma and Follicular Fluid Fatty Acid Profiles in Dairy Cows
    Renaville, B.
    Bacciu, N.
    Comin, A.
    Motta, M.
    Poli, I.
    Vanini, G.
    Prandi, A.
    REPRODUCTION IN DOMESTIC ANIMALS, 2010, 45 (01) : 118 - 121