Natural attenuation processes for remediation of arsenic contaminated soils and groundwater - Wang, Suiling; Mulligan, Catherine N. (Journal of hazardous materials, 2006)
Keywords: Applied sciences; Arsenic; Arsenic - chemistry; Arsenic - metabolism; Biodegradation, Environmental; Biotransformation; Chemical engineering; Decontamination. Miscellaneous; Enhanced natural attenuation; Exact sciences and technology; Groundwaters; Hyperaccumulation; Immobilization; In situ remediation; Natural water pollution; Oxidation-Reduction; Pollution; Safety; Soil and sediments pollution; Soil Pollutants - chemistry; Soil Pollutants - metabolism; Water Pollutants, Chemical - chemistry; Water Pollutants, Chemical - metabolism; Water treatment and pollution; Immobilization; Hyperaccumulation; Arsenic; Enhanced natural attenuation; Biotransformation; In situ remediation; Microbial activity; Organic matter; In situ; Mobility; Soil pollution; Aquifers; Transport process; Decontamination; Selfpurification; pH; Bioremediation; Mathematical model; Hazard; Speciation; Ground water; Pollutant behavior; Sediments; Long term; Contamination; Phytoremediation; Sorption; Surveillance; Redox potential