Could the rhizoplane biofilm of wetland plants lead to rhizospheric heavy metal precipitation and iron-sulfur cycle termination? - Li, Yuanyuan; Feng, Wenling; Chi, Haochun; Huang, Yunxi; Ruan, Dishen; Chao, Yuanqing; Qiu, Rongliang; Wang, Shizhong (Journal of soils and sediments, 2019)
Keywords: aerobes; Aerobic bacteria; anaerobes; Anaerobic bacteria; Atmospheric precipitations; Bacteria; biofilm; Biofilms; Bioremediation; Diffusion; Diffusion barriers; Diffusion layers; Earth and Environmental Science; Environment; Environmental Physics; Ferric ions; Heavy metals; Iron; Iron sulfides; Iron-oxidizing bacteria; Iron-reducing bacteria; Metal ions; Metal sulfides; Microflora; Mine tailings; Mine wastes; mining; Oxidation; Oxides; Oxygen; Phytoremediation; Plants (botany); ponds; Precipitates; Precipitation; protons; Rain; Rainfall; Rhizoplane; Rhizosphere; rhizosphere bacteria; Sec 3 • Remediation and Management of Contaminated or Degraded Lands • Research Article; Soil; Soil contamination; Soil Science & Conservation; Soils; Structure-function relationships; subtropics; Sulfate reduction; Sulfate-reducing bacteria; sulfates; Sulfides; Sulfur; Sulfur cycle; Sulphate reduction; Sulphides; Sulphur; Survival; Tropical climate; Tropical environment; Tropical environments; wetland plants; Wetlands; Iron-sulfur cycle; Iron plaque; Wetland; Rhizoplane biofilm; Heavy metal