2020
DOI: 10.1071/an19127
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Methane emission, ruminal fermentation parameters and fatty acid profile of meat in Santa Inês lambs fed the legume macrotiloma

Abstract: Context Using legumes in ruminant production system may provide benefits such as improvement in animal performance and decrease in methane (CH4) emissions, mainly based on nutritional characteristics of these plants and the presence of tannins. Macrotiloma (Macrotyloma axillare) is a tropical legume that still lacks studies regarding its effects on animal performance and CH4 emissions. Aims The objective of this experiment was to evaluate productive performance, CH4 emission, ruminal fermentation parameters, … Show more

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Cited by 3 publications
(2 citation statements)
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References 42 publications
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“…The authors declare no conflict of interest. [20] Brazil CL CT E Dey et al [106] India Ficus infectoria (n = 3) B, B, B N, N, N Abdalla et al [107] Brazil OP, Clep B, B N, N Fernandes et al [14] Brazil Mimosa tenuiflora (n = 3) B, B, B N, N, N Francisco et al [108] Portugal CL (n = 2) CT, CT N, N Girard et al [109] Switzerland LC and OV B, B N, N Guerreiro et al [110] Portugal CL (n = 4) CT, CT, CT, CT, CT N, N, N, N, N Gruffat et al [111] France OV (n = 2) CT, CT N, N Hart et al [112] United Kingdom Pisum sativum (n = 4) CT, CT, CT, CT, CT N, N, N, N, N Hassan et al [113] Egypt Punica granatum, MI, B B, B, B N, N, N Hatami et al [114] Iran Punica granatum (n = 3) B, B N, N Jerónimo et al [115] Portugal VV (n = 2), CL (n = 2) CT, CT, CT, CT, CT E, N, E, N Jerónimo et al [116] Portugal VV (n = 2), CL (n = 2) CT, CT, CT, CT, CT E, N, E, N Kamel et al [117] Saudi Arabia QU (n = 2) CT, CT E, E Kazemi and Mokhtarpour [118] Iran Prunus amygdalus (n = 3) B, B, B N, N, N Leparmarai et al [119] Switzerland VV B E Lima et al [120] Brazil Macrotyloma axillare B N Liu et al [21] China CH (n = 2) HT, HT E, E López-Andrés et al [91] Italy QU CT E Majewska and Kowalik [121] Poland VAC, Quercus sp. B, B N, N Flores et al [122] Brazil VV (n = 3) B, B, B N, N, N Flores et al [123] Brazil VV (n = 3) B, B, B N, N, N Moghaddam et al [124] Iran Berberis vulgaris (n = 2) B, B N, N Natalello et al [18] Italy Punica granatum B N Nobre et al [125] Brazil Psidium guajava (n = 4) B, B, B, B, B N, N, N, N, N Norouzian and Ghiasi [126] Iran Pistacia vera (n = 3) B, B, B N, N, N Obeidat et al [127] Jordan Ceratonia siliqua (n = 2) CT, CT N, N Odhaib et al [128] Malaysia RO (n = 3), NS (n = 3), B (n = 3) B (n = 9) N (n = 9) Pathak et al [13] India B, B CT, CT N, N Peng et al [95] Canada Dalea purpurea CT N Po et al…”
Section: Institutional Review Board Statement: Not Applicablementioning
confidence: 99%
“…The authors declare no conflict of interest. [20] Brazil CL CT E Dey et al [106] India Ficus infectoria (n = 3) B, B, B N, N, N Abdalla et al [107] Brazil OP, Clep B, B N, N Fernandes et al [14] Brazil Mimosa tenuiflora (n = 3) B, B, B N, N, N Francisco et al [108] Portugal CL (n = 2) CT, CT N, N Girard et al [109] Switzerland LC and OV B, B N, N Guerreiro et al [110] Portugal CL (n = 4) CT, CT, CT, CT, CT N, N, N, N, N Gruffat et al [111] France OV (n = 2) CT, CT N, N Hart et al [112] United Kingdom Pisum sativum (n = 4) CT, CT, CT, CT, CT N, N, N, N, N Hassan et al [113] Egypt Punica granatum, MI, B B, B, B N, N, N Hatami et al [114] Iran Punica granatum (n = 3) B, B N, N Jerónimo et al [115] Portugal VV (n = 2), CL (n = 2) CT, CT, CT, CT, CT E, N, E, N Jerónimo et al [116] Portugal VV (n = 2), CL (n = 2) CT, CT, CT, CT, CT E, N, E, N Kamel et al [117] Saudi Arabia QU (n = 2) CT, CT E, E Kazemi and Mokhtarpour [118] Iran Prunus amygdalus (n = 3) B, B, B N, N, N Leparmarai et al [119] Switzerland VV B E Lima et al [120] Brazil Macrotyloma axillare B N Liu et al [21] China CH (n = 2) HT, HT E, E López-Andrés et al [91] Italy QU CT E Majewska and Kowalik [121] Poland VAC, Quercus sp. B, B N, N Flores et al [122] Brazil VV (n = 3) B, B, B N, N, N Flores et al [123] Brazil VV (n = 3) B, B, B N, N, N Moghaddam et al [124] Iran Berberis vulgaris (n = 2) B, B N, N Natalello et al [18] Italy Punica granatum B N Nobre et al [125] Brazil Psidium guajava (n = 4) B, B, B, B, B N, N, N, N, N Norouzian and Ghiasi [126] Iran Pistacia vera (n = 3) B, B, B N, N, N Obeidat et al [127] Jordan Ceratonia siliqua (n = 2) CT, CT N, N Odhaib et al [128] Malaysia RO (n = 3), NS (n = 3), B (n = 3) B (n = 9) N (n = 9) Pathak et al [13] India B, B CT, CT N, N Peng et al [95] Canada Dalea purpurea CT N Po et al…”
Section: Institutional Review Board Statement: Not Applicablementioning
confidence: 99%
“…Heifers offered the combinations showed the greatest body weight gains, implying reductions in the number of days to slaughter, which reduces methane emissions during the finishing process (Lagrange et al, 2020). Other legume species like Macrotyloma axillare also showed antimethanogenic potential, associated with a decrease in the relative abundance of methanogenic archaea and protozoa (Lima et al, 2018(Lima et al, , 2020. Essential oils, of which terpenes are major compounds, have been demonstrated to reduce methane production during in vitro and in vivo studies (Cobellis et al, 2016).…”
Section: Diverse Diets: Environmental Impactmentioning
confidence: 99%