Rhizobial characterization in revegetated areas after bauxite mining

被引:0
|
作者
Borges, Wardsson Lustrino [1 ]
Prin, Yves [2 ]
Ducousso, Marc [2 ]
Le Roux, Christine [2 ]
de Faria, Sergio Miana [3 ]
机构
[1] Embrapa Amapa, Rodovia Juscelino Kubitschek, Macapa, AP, Brazil
[2] CIRAD, UMR 82, LSTM, Campus Int Baillarguet, Montpellier, France
[3] Embrapa Agrobiol, Seropedica, RJ, Brazil
关键词
Rhizobia; Rep-PCR; Cluster analysis; Nodules; Mining; PHASEOLUS-VULGARIS L; NATIVE NODULATING POPULATIONS; PERDOES MG-BRAZIL; GENETIC DIVERSITY; AGRONOMIC EFFICIENCY; LEGUMES; STRAINS; BACTERIA; BIODIVERSITY; SYSTEMS;
D O I
10.1016/j.bjm.2016.01.009
中图分类号
Q93 [微生物学];
学科分类号
071005 ; 100705 ;
摘要
Little is known regarding how the increased diversity of nitrogen-fixing bacteria contributes to the productivity and diversity of plants in complex communities. However, some authors have shown that the presence of a diverse group of nodulating bacteria is required for different plant species to coexist. A better understanding of the plant symbiotic organism diversity role in natural ecosystems can be extremely useful to define recovery strategies of environments that were degraded by human activities. This study used ARDRA, BOX-PCR fingerprinting and sequencing of the 16S rDNA gene to assess the diversity of root nodule nitrogen-fixing bacteria in former bauxite mining areas that were replanted in 1981, 1985, 1993, 1998, 2004 and 2006 and in a native forest. Among the 12 isolates for which the 16S rDNA gene was partially sequenced, eight, three and one isolate(s) presented similarity with sequences of the genera Bradyrhizobium, Rhizobium and Mesorhizobium, respectively. The richness, Shannon and evenness indices were the highest in the area that was replanted the earliest (1981) and the lowest in the area that was replanted most recently (2006). (C) 2016 Sociedade Brasileira de Microbiologia. Published by Elsevier Editora Ltda.
引用
收藏
页码:314 / 321
页数:8
相关论文
共 50 条
  • [41] Bauxite orebody demarcating and virtual mining for mining optimization within an underground bauxite seam, Southwest China
    Shaofeng Wang
    Xibing Li
    Environmental Earth Sciences, 2018, 77
  • [42] The Stability of Revegetated Ecosystems in Sandy Areas: An Assessment and Prediction Index
    Huang, Lei
    Zhang, Zhishan
    WATER, 2015, 7 (05) : 1969 - 1990
  • [43] Complementing seedling planting with nucleation techniques increases forest restoration potential in areas around bauxite mining
    Fonseca, Wesley da Silva
    Martins, Sebastiao Venancio
    Fioresi, Enzo Mauro
    Villa, Pedro Manuel
    LAND DEGRADATION & DEVELOPMENT, 2024, 35 (09) : 3075 - 3089
  • [44] Development of a winged tine to relieve mining-related soil compaction after bauxite mining in Western Australia
    Croton, James T.
    Ainsworth, Glen L.
    RESTORATION ECOLOGY, 2007, 15 (04) : S48 - S53
  • [45] FORESTRY DEVELOPMENT BY A BAUXITE MINING COMPANY
    SNAITH, WA
    COMMONWEALTH FORESTRY REVIEW, 1973, 52 (151): : 79 - 81
  • [46] Hydrology and bauxite mining on the Darling Plateau
    Croton, James T.
    Reed, Amanda J.
    RESTORATION ECOLOGY, 2007, 15 (04) : S40 - S47
  • [47] BAUXITE MINING AND PRODUCTION OF ALUMINA AT GOVE
    KOTTNER, A
    MITTEILUNGEN DER OSTERREICHISCHEN GEOGRAPHISCHEN GESELLSCHAFT, 1974, 116 (1-2): : 250 - 251
  • [48] Sustainable Bauxite Mining - A Global Perspective
    Wagner, Christian
    LIGHT METALS 2010, 2010, : 167 - 172
  • [49] MINING SCHEDULING AT PARAGOMINAS BAUXITE MINE
    Guimaraes, Octavio R. A.
    Santos, Henrique C.
    Zelante, Flavio
    Alves, Leonardo
    LIGHT METALS 2009, 2009, : 45 - +
  • [50] Rapid assessment of mine rehabilitation areas with airborne LiDAR and deep learning: bauxite strip mining in Queensland, Australia
    Murray, Xavier
    Apan, Armando
    Deo, Ravinesh
    Maraseni, Tek
    GEOCARTO INTERNATIONAL, 2022, 37 (26) : 11223 - 11252