Metabolism of Arsenite

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Acid Mine Drainage
alcaligenes
Alcaligenes Faecalis
Anoxygenic Photosyn Thesis
Ars Operons
arsenate
Arsenate Reductase
Arsenite Oxidase
Arsenite Oxidation
Assimilatory Nitrate Reductase
bacterial arsenic transformation mechanisms
bioremediation strategies
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Chloroflexus Aurantiacus
DNA Repair
Domain Iii
donor
electron
environmental microbiology
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Esp Dust
faecalis
Giant Mine
Heat Shock Protein
Hgt
microbial genomics
Mine Waste
Molybdopterin
Molybdopterin Cofactor
NF NF
operon
oxidase
oxidation
prokaryotic metabolism
redox biogeochemistry
reductase
Respiratory Arsenate Reductase
Rhodobacter Sphaeroides
Rieske Protein
SOS Chromotest
Sulfolobus Tokodaii
water contamination health risk
Wolinella Succinogenes

Product details

  • ISBN 9780415697194
  • Weight: 612g
  • Dimensions: 170 x 247mm
  • Publication Date: 20 Apr 2012
  • Publisher: Taylor & Francis Ltd
  • Publication City/Country: GB
  • Product Form: Hardback
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Up to 200 million people in 70 countries are at risk from drinking water contaminated with arsenic, which is a major cause of chronic debilitating illnesses and fatal cancers. Until recently little was known about the mobility of arsenic, and how redox transformations determined its movement into or out of water supplies. Although human activities contribute to the release of arsenic from minerals, it is now clear that bacteria are responsible for most of the redox transformation of arsenic in the environment. Bacterial oxidation of arsenite (to the less mobile arsenate) has been known since 1918, but it was not until 2000 that a bacterium was shown to gain energy from this process. Since then a wide range of arsenite-oxidizing bacteria have been isolated, including aerobes and anaerobes; heterotrophs and autotrophs; thermophiles, mesophiles and psychrophiles. This book reviews recent advances in the study of such bacteria. After a section on background—geology and health issues—the main body of the book concerns the cellular machinery of arsenite oxidation. It concludes by examining possible applications. Topics treated are:

  • The geology and cycling of arsenic
  • Arsenic and disease
  • Arsenite oxidation: physiology, enzymes, genes, and gene regulation.
  • Community genomics and functioning, and the evolution of arsenite oxidation
  • Microbial arsenite oxidation in bioremediation
  • Biosensors for arsenic in drinking water and industrial effluents
Joanne M. Santini (University College London, UK) (Edited by) ,  Seamus A. Ward (University College London, UK) (Edited by)