دستنامه برهم کنش های فلز-میکروبی و زیست پالایی ۲۰۱۷
Handbook of Metal-microbe Interactions and Bioremediation 2017

Chapter 32: Microbial Transformations of Arsenic: From Metabolism to Bioremediation — Chapter 33: Efficacy of Lead-Resistant Microorganisms for Bioremediation of Lead-Contaminated Sites — Chapter 34: Cadmium and Lead Tolerance Mechanisms in Bacteria and the Role of Halotolerant and Moderately Halophilic Bacteria in Their Remediation — Chapter 35: Elucidation of Cadmium Resistance Gene of Cd resistant Bacteria involved in Cd Bioremediation — Chapter 36: Bioremediation of Copper and Other Heavy Metals Using Microbial Biomass — Chapter 37: Toxicity of Copper and Remediation Approaches — Chapter 38: Suitability of Nickel-Resistant Microbes for Use in Enhanced Nickel Bioremediation — Chapter 39: Sulfate-Reducing Bacteria: Applications to Metals Bioremediation and Biorecovery — Chapter 40: Microorganism-Mediated Sequestration of Ferric and Ferrous Ion from the Environment — Chapter 41: Zinc Biosorption by Microbial Species for Biotreatment Processes — Chapter 42: Hexavalent Chromium (VI) Removal by Aspergillus niger — Chapter 43: Microbial Remediation of Chromium-Contaminated Wastes — Chapter 44: Bacteria- and Algae-Mediated Remediation of Chromium — Chapter 45: Bacterial Interactions with Chromium and Strategies for the Remediation of Hexavalent Chromium Pollution — Chapter 46: Uranium Sequestration by Marine Cyanobacteria and its Metabolites: An Insight into Metabolism- Dependent and Metabolism-Independent Interactions — Chapter 47: Bioremediation: A Promising Technology for Radionuclides and Explosive Compounds — Chapter 48: Magnetically Responsive Microbial Cells for Metal Ions Removal and Detection — Chapter 49: Detoxification of Mercury: Bioremediation to Chemical Degradation — Chapter 50: Assessment of the Diversity and Bioremediation Potential of Mercury- Resistant Marine Bacteria in the Bay of Bengal, Odisha, India