Effects of bacteria on metal bioavailability, speciation, and mobility in different metal mine soils: A column study

Keyphrases

• Water-soluble 100%
• Metal Speciation 100%
• Bacterial Inoculation 100%
• Metal Bioavailability 100%
• Metal Mobility 100%
• Metal Mine 100%
• Column Study 100%
• Mine Soil 100%
• Autoclave 66%
• Inoculum 66%
• Polyvinyl Chloride 66%
• Extractability 66%
• Peat 66%
• China 33%
• Control Method 33%
• Phosphate 33%
• Soil Contamination 33%
• Phytoextraction 33%
• Inoculation 33%
• PH Value 33%
• Burkholderia Cepacia 33%
• Negative Charge 33%
• Soil Samples 33%
• Phytoremediation 33%
• Soil Treatment 33%
• Acid Phosphatase Activity 33%
• Deionized Water 33%
• Polluted Site 33%
• PH Dependence 33%
• Heavy Metal Contaminated Soil 33%
• Heavy Metal Bioavailability 33%
• Soil Microbes 33%
• Sodium Bicarbonate 33%
• Accession number 33%
• Control Soil 33%
• Air Drying 33%
• Minor Effect 33%
• Metal Adsorption 33%
• Extractable P 33%
• Elevated Concentrations 33%
• Soil Alkaline Phosphatase 33%
• Chemical Speciation 33%
• Water Soluble P 33%
• Olsen-P 33%
• Metal Release 33%
• Heavy Metal Mobility 33%
• Colloids 33%
• Single Chemical Extraction 33%
• Speciation Analysis 33%
• Metal-tolerant 33%
• Cepacia 33%
• P in Soil Solution 33%
• Biogeochemical Cycles 33%
• Rhizospheric 33%
• Metal-tolerant Bacteria 33%
• Sequential Chemical Extraction 33%
• All-metal 33%
• Soil Texture 33%
• Sequential Fractions 33%

Earth and Planetary Sciences

• Mine Soil 100%
• Heavy Metal 66%
• Phytoremediation 66%
• Polluted Soils 66%
• Polyvinyl Chloride 66%
• China 33%
• Acid Soil 33%
• Polluted Site 33%
• Soil Texture 33%