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M. Costa, A. Gama-Rodrigues, F. Zaia, E. Gama-Rodrigues (2014)
Leguminous trees to recovery of degraded pastures in northern Rio de Janeiro, Brazil.Scientia Forestalis, 42
Lujun Li, D. Zeng, Zhan-yuan Yu, Z. Fan, Dan Yang, Yun-xia Liu (2011)
Impact of litter quality and soil nutrient availability on leaf decomposition rate in a semi-arid grassland of Northeast ChinaJournal of Arid Environments, 75
H. Castro, A. Classen, E. Austin, R. Norby, C. Schadt (2009)
Soil Microbial Community Responses to Multiple Experimental Climate Change DriversApplied and Environmental Microbiology, 76
J. Freire, J. Júnior, M. Lira, R. Ferreira, M. Santos, E. Freitas (2010)
Decomposição de serrapilheira em bosque de sabiá na Zona da Mata de PernambucoRevista Brasileira De Zootecnia, 39
K. Treseder, J. Lennon (2015)
Fungal Traits That Drive Ecosystem Dynamics on LandMicrobiology and Molecular Biology Reviews, 79
J. Halvorson, Michael Schmidt, A. Hagerman, Javier Gonzalez, M. Liebig (2016)
Reduction of soluble nitrogen and mobilization of plant nutrients in soils from U.S northern Great Plains agroecosystems by phenolic compoundsSoil Biology & Biochemistry, 94
V. Apolinário, J. Dubeux, M. Lira, R. Ferreira, A. Mello, D. Coêlho, J. Muir, E. Sampaio (2016)
Decomposition of Arboreal Legume Fractions in a Silvopastoral SystemCrop Science, 56
(2017)
Tannic substances present in parts of ( Mimosa caesalpiniifolia ) in commercial plantation of 5 years
Vicentin RP (2013) Soil litter stock and fertility after planting leguminous shrubs and forage trees on degraded signal grass pasture
G. Licitra, T. Hernández, P. Soest (1996)
Standardization of procedures for nitrogen fractionation of ruminant feedsAnimal Feed Science and Technology, 57
S. Chauhan, Shawinder Singh, Sandeep Sharma, Bharat, B. Vashist, Rajni Sharma, H. Saralch (2018)
Soil health (physical, chemical and biological) status under short rotation tree plantations on riverain soils
D. Xavier, Francisco Lédo, D. Paciullo, S. Urquiaga, B. Alves, R. Boddey (2014)
Nitrogen cycling in a Brachiaria-based silvopastoral system in the Atlantic forest region of Minas Gerais, BrazilNutrient Cycling in Agroecosystems, 99
J. Talbot, K. Treseder (2012)
Interactions among lignin, cellulose, and nitrogen drive litter chemistry-decay relationships.Ecology, 93 2
S. Jose, Jeanne Dollinger (2019)
Silvopasture: a sustainable livestock production systemAgroforestry Systems, 93
(2020)
Management Strategies for Sustainable Cattle Production in Southern Pastures
Montagnini, Ibrahim, M. Restrepo (2013)
Silvopastoral systems and climate change mitigation in Latin America
V. Apolinário, J. Dubeux, M. Lira, R. Ferreira, A. Mello, M. Santos, E. Sampaio, J. Muir (2015)
Tree Legumes Provide Marketable Wood and Add Nitrogen in Warm‐Climate Silvopasture SystemsAgronomy Journal, 107
H. Maluf, E.B.A. Soares, I. Silva, J. Neves, Lucas Silva (2015)
DECOMPOSIÇÃO DE RESÍDUOS DE CULTURAS E MINERALIZAÇÃO DE NUTRIENTES EM SOLO COM DIFERENTES TEXTURASRevista Brasileira De Ciencia Do Solo, 39
J. Dubeux, L. Sollenberger, S. Interrante, J. Vendramini, R. Stewart (2006)
Litter Decomposition and Mineralization in Bahiagrass Pastures Managed at Different IntensitiesCrop Science, 46
I. Molina-Botero, Julian Arroyave-Jaramillo, S. Valencia-Salazar, R. Barahona-Rosales, C. Aguilar-Pérez, Armín Burgos, J. Arango, J. Ku-Vera (2019)
Effects of tannins and saponins contained in foliage of Gliricidia sepium and pods of Enterolobium cyclocarpum on fermentation, methane emissions and rumen microbial population in crossbred heifersAnimal Feed Science and Technology
T. Pereira, E. Modesto, D. Nepomuceno, O. Oliveira, Rafaela Freitas, J. Muir, J. Júnior, J. Almeida (2018)
Characterization and biological activity of condensed tannins from tropical forage legumesPesquisa Agropecuária Brasileira
T. Pereira, Elisa Modesto, D. Nepomuceno, Osniel Oliveira, Rafaela Freitas, J. Muir, José Júnior, J. Almeida (2018)
Caracterização e atividade biológica de taninos condensados de leguminosas forrageiras tropicaisPesquisa Agropecuaria Brasileira, 53
(2010)
Litter decomposition under a sabiá canopy in the Forest Zone in Pernambuco
W. Horwitz, G. Latimer (2010)
Official methods of analysis of AOAC International
V. Suseela, N. Tharayil, B. Xing, J. Dukes (2013)
Labile compounds in plant litter reduce the sensitivity of decomposition to warming and altered precipitation.The New phytologist, 200 1
H. Silva, J. Dubeux, M. Santos, M. Lira, J. Muir (2012)
Signal Grass Litter Decomposition Rate Increases with Inclusion of CalopoCrop Science, 52
L. Sollenberger, John Moore, V. Allen, C. Pedreira (2005)
Reporting Forage Allowance in Grazing ExperimentsCrop Science, 45
S. Jose, Dusty Walter, B. Kumar (2017)
Ecological considerations in sustainable silvopasture design and managementAgroforestry Systems, 93
M. Kohmann, L. Sollenberger, J. Dubeux, M. Silveira, L. Moreno (2019)
Legume Proportion in Grassland Litter Affects Decomposition Dynamics and Nutrient MineralizationAgronomy Journal
S. Chauhan, A. Singh, S. Sikka, U. Tiwana, R. Sharma, H. Saralch (2014)
Yield and quality assessment of annual and perennial fodder intercrops in Leucaena alley farming systemRange Management and Agroforestry, 35
M. Bradford, B. Berg, D. Maynard, W. Wieder, S. Wood (2016)
Understanding the dominant controls on litter decompositionJournal of Ecology, 104
Van Soest, J. Peter (1973)
Collaborative Study of Acid-Detergent Fiber and LigninJournal of AOAC International, 56
P. Wojtkowski (2018)
Temporal Dynamics
R. Wider, G. Lang (1982)
A Critique of the Analytical Methods Used in Examining Decomposition Data Obtained From Litter BagsEcology, 63
(2015)
Crop residue decomposition and nutrient mineralization in soil with different textures
B. Waring (2012)
A Meta-analysis of Climatic and Chemical Controls on Leaf Litter Decay Rates in Tropical ForestsEcosystems, 15
(2019)
Ku-Vera JC (2019) Effects of tannins and saponins
De Araújo, A. Leite (2010)
Relatório de Impacto Ambiental
M. Cotrufo, M. Wallenstein, C. Boot, K. Denef, E. Paul (2013)
The Microbial Efficiency‐Matrix Stabilization (MEMS) framework integrates plant litter decomposition with soil organic matter stabilization: do labile plant inputs form stable soil organic matter?Global Change Biology, 19
M. Peel, B. Finlayson, T. McMahon (2007)
Updated world map of the Köppen-Geiger climate classificationHydrology and Earth System Sciences, 11
T. Klotzbücher, K. Kaiser, G. Guggenberger, Christiane Gatzek, K. Kalbitz (2011)
A new conceptual model for the fate of lignin in decomposing plant litter.Ecology, 92 5
M. Krishna, M. Mohan (2017)
Litter decomposition in forest ecosystems: a reviewEnergy, Ecology and Environment, 2
Kirtika Padalia, R. Parihaar, Nidhi Bhakuni, Bhawana Kapkoti (2015)
Leaf Litter Decomposition of Two Central Himalayan OaksCurrent World Environment, 10
S. Manzoni, G. Piñeiro, R. Jackson, E. Jobbágy, John Kim, A. Porporato (2012)
Analytical models of soil and litter decomposition: Solutions for mass loss and time-dependent decay ratesSoil Biology & Biochemistry, 50
P. Paula, E. Campello, J. Guerra, G. Santos, A. Resende (2015)
DECOMPOSIÇÃO DAS PODAS DAS LEGUMINOSAS ARBÓREAS Gliricidia sepium E Acacia angustissima EM UM SISTEMA AGROFLORESTALCiencia Florestal, 25
E. Murgueitio, J. Chará, Rolando Barahona, J. Rivera (2009)
Development of sustainable cattle rearing in silvopastoral systems in Latin AmericaCuban Journal of Agricultural Science, 53
(2019)
Leguminous forage shrubs : the underutilized canopy
V. Apolinário, J. Dubeux, A. Mello, J. Vendramini, M. Lira, M. Santos, J. Muir (2014)
Litter Decomposition of Signalgrass Grazed with Different Stocking Rates and Nitrogen Fertilizer LevelsAgronomy Journal, 106
Florencia Montagnini, M. Ibrahim, Enrique Restrepo (2013)
Systèmes silvopastoraux et atténuation du changement climatique en Amérique latineBois Et Forets Des Tropiques, 316
M. Gessner, C. Swan, C. Dang, B. Mckie, R. Bardgett, D. Wall, S. Hättenschwiler (2010)
Diversity meets decomposition.Trends in ecology & evolution, 25 6
S. Bray, K. Kitajima, M. Mack (2012)
Temporal dynamics of microbial communities on decomposing leaf litter of 10 plant species in relation to decomposition rateSoil Biology & Biochemistry, 49
J. Dubeux, L. Sollenberger (2020)
Nutrient cycling in grazed pasturesManagement Strategies for Sustainable Cattle Production in Southern Pastures
(1952)
The desing , conduct , and interpretation of grazing trials on cultivated and improved pastures
(2018)
Decomposition in different species of legumes ( Fabaceae )
A. Silva, M. Junior, J. Júnior, M. Figueiredo, Rayssa Vicentin (2013)
Estoque de serapilheira e fertilidade do solo em pastagem degradada de Brachiaria decumbens após implantação de leguminosas arbustivas e arbóreas forrageirasRevista Brasileira De Ciencia Do Solo, 37
Tatiane Azevêdo, Márcia Cardoso, Debora Campos, D. Souza, Lucas Nunes, J. Gomes, Anderson Carnaval, G. Silva (2018)
SUBSTÂNCIAS TÂNICAS PRESENTES EM PARTES DA ÁRVORE SABIÁ (Mimosa caesalpiniifolia Benth.) EM PLANTIO COMERCIAL DE 5 ANOS, 9
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The presence of arboreal legumes in silvopastoral systems (SPS) may affect litter production and quality, and the characteristics and distribution of soil organic matter (OM). Senescent leaves from two tree legumes [Gliricidia sepium (Jacq.) Kunth ex. Walp. (Gliricidia) and Mimosa caesalpiniifolia Benth. (Sabia)] in SPS with Urochloa decumbens Stapf. R. Webster (signalgrass), and from signalgrass pasture in monoculture (Signalgrass), were collected when still attached to the plant and incubated on the ground during 0, 4, 8, 16, 32, 64, 128, and 256 days. Response variables included the disappearance of dry matter (DM), OM, C, N, lignin, acid detergent insoluble nitrogen, and C:N and lignin:N ratio. Single negative exponential models were adjusted to estimate the relative decomposition rate (k). The decomposition rate (k) of DM, OM, and C was greater for Gliricidia and Signalgrass (P < 0.05) compared to Sabia, incorporating 801 g kg DMtotal−1, 850 g kg OMtotal−1, and between 840 and 860 g kg Ctotal−1. Gliricidia showed greater N release rate compared to Sabia and Signalgrass, with an estimated disappearance of 23, 4, and 6 mg N g DM–1 for Gliricidia, Sabia, and Signalgrass, respectively. Tree legumes showed lesser k for C:N ratio and greater for lignin concentration (P < 0.05). Gliricidia had greater release of nutrients to the soil, while Sabia had slower decomposition rates, but with the potential to form a more stable OM because of more recalcitrant compounds left behind. The k of Signalgrass was limited by the lesser N concentration and high C:N ratio in the litter, contributing to immobilization of N during litter decomposition.
Agroforestry Systems – Springer Journals
Published: Oct 1, 2020
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