Acta Scientific Microbiology (ISSN: 2581-3226)

Review Article Volume 5 Issue 9

A Review on Detoxification and Bioremediation of Antimony by Bacterial Species

Adrija Banerjee, Syed Krittika Tabassum, Debarpan Debnath, Debraj Hazra and Rajat Pal*

Department of Microbiology and Biotechnology, Sister Nivedita University, Kolkata, India

*Corresponding Author: Rajat Pal, Department of Microbiology and Biotechnology, Sister Nivedita University, Kolkata, India.

Received: June 06, 2022; Published: August 09, 2022

Abstract

Rising pollution and heavy metal contamination is one of the most vital concerns across the globe. Presently, research on antimony pollution grabs the attention due to its application in industry. Heavy metal pollution and contamination needs proper regulation and monitoring. Hence, in this article we have encompassed the significant molecular mechanisms such as the operons and efflux transporters involved as well as biochemical processes like oxidation, reduction and biomethylation mediated by As and Sb resistant bacteria that considerably help in bioremediation. This article summarizes most of the common techniques employed by bacteria to combat Sb pollution.

Keywords: Bioremediation; Heavy Metal Resistance; Detoxification; Operon

References

  1. Nies D. “Microbial heavy-metal resistance”. Applied Microbiology and Biotechnology6 (1999): 730-750.
  2. Li J., et al. “Phylogenetic and genome analyses of antimony-oxidizing bacteria isolated from antimony mined soil”. International Biodeterioration and Biodegradation 76 (2013): 76-80.
  3. Hamamura N., et al. “Identification of Antimony- and Arsenic-Oxidizing Bacteria Associated with Antimony Mine Tailing”. Microbes and Environments2 (2013): 257-263.
  4. Dovick M., et al. “Bioaccumulation trends of arsenic and antimony in a freshwater ecosystem affected by mine drainage”. Environmental Chemistry1 (2016): 149.
  5. Filella M., et al. “Antimony in the environment: a review focused on natural waters”. Earth-Science Reviews1-2 (2002): 125-176.
  6. Telford K., et al. “Bioaccumulation of antimony and arsenic in a highly contaminated stream adjacent to the Hillgrove Mine, NSW, Australia”. Environmental Chemistry2 (2009): 133.
  7. Gebel T. “Arsenic and antimony: comparative approach on mechanistic toxicology”. Chemico-Biological Interactions3 (1997): 131-144.
  8. Courtin-Nomade A., et al. “Weathering of Sb-rich mining and smelting residues: Insight in solid speciation and soil bacteria toxicity”. Geochemistry 72 (2012): 29-39.
  9. Okkenhaug G., et al. “Antimony (Sb) and lead (Pb) in contaminated shooting range soils: Sb and Pb mobility and immobilization by iron based sorbents, a field study”. Journal of Hazardous Materials 307 (2016): 336-343.
  10. Wang X., et al. “Antimony distribution and mobility in rivers around the world's largest antimony mine of Xikuangshan, Hunan Province, China”. Microchemical Journal1 (2011): 4-11.
  11. Reimann C., et al. “Antimony in the environment: Lessons from geochemical mapping”. Applied Geochemistry 2 (2010): 175-198.
  12. Guo W., et al. “Environmental geochemical and spatial/temporal behavior of total and speciation of antimony in typical contaminated aquatic environment from Xikuangshan, China”. Microchemical Journal 137 (2018): 181-189.
  13. Feng R., et al. “The uptake and detoxification of antimony by plants: A review”. Environmental And Experimental Botany 96 (2013): 28-34.
  14. Smichowski P. “Antimony in the environment as a global pollutant: A review on analytical methodologies for its determination in atmospheric aerosols”. Talanta1 (2008): 2-14.
  15. Li J., et al. “Microbial Antimony Biogeochemistry: Enzymes, Regulation, and Related Metabolic Pathways”. Applied and Environmental Microbiology18 (2016): 5482-5495.
  16. He M., et al. “Antimony speciation in the environment: Recent advances in understanding the biogeochemical processes and ecological effects”. Journal of Environmental Sciences 75 (2019): 14-39.
  17. Chen Y., et al. “Distribution and Early Diagenesis of Antimony Species in Sediments and Porewaters of Freshwater Lakes”. Environmental Science and Technology6 (2003): 1163-1168.
  18. Deng R., et al. “Microbial diversity in soils from antimony mining sites: geochemical control promotes species enrichment”. Environmental Chemistry Letters3 (2020): 911-922.
  19. Wilson, S., et al. “The chemistry and behaviour of antimony in the soil environment with comparisons to arsenic: A critical review”. Environmental Pollution5 (2010): 1169-1181.
  20. Ungureanu G., et al. “Arsenic and antimony in water and wastewater: Overview of removal techniques with special reference to latest advances in adsorption”. Journal of Environmental Management 151 (2015): 326-342.
  21. Ceriotti G and Amarasiriwardena D. “A study of antimony complexed to soil-derived humic acids and inorganic antimony species along a Massachusetts highway”. Microchemical Journal1 (2009): 85-93.
  22. Porquet A and Filella M. “Structural Evidence of the Similarity of Sb (OH)3 and As (OH)3 with Glycerol: Implications for Their Uptake”. Chemical Research in Toxicology9 (2007): 1269-1276.
  23. Sanders O., et al. “Antimonite is accumulated by the glycerol facilitator GlpF in Escherichia coli”. Journal of Bacteriology10 (1997): 3365-3367.
  24. Xu C., et al. “Metalloid Resistance Mechanisms in Prokaryotes”. Journal of Biochemistry1 (1998): 16-23.
  25. Martin P., et al. “Insights into the Structure, Solvation, and Mechanism of ArsC Arsenate Reductase, a Novel Arsenic Detoxification Enzyme”. Structure11 (2001): 1071-1081.
  26. Neyt C., et al. “Virulence and arsenic resistance in Yersiniae”. Journal of Bacteriology3 (1997) 612-619.
  27. Butcher B., et al. “The Chromosomal Arsenic Resistance Genes of Thiobacillus ferrooxidans Have an Unusual Arrangement and Confer Increased Arsenic and Antimony Resistance to Escherichia coli”. Applied and Environmental Microbiology5 (2000): 1826-1833.
  28. Chen J., et al. “ArsH is an organoarsenical oxidase that confers resistance to trivalent forms of the herbicide monosodium methylarsenate and the poultry growth promoter roxarsone”. Molecular Microbiology5 (2015): 1042-1052.
  29. Carlin A., et al. “The ars operon of Escherichia coli confers arsenical and antimonial resistance”. Journal of Bacteriology4 (1995): 981-986.
  30. Meng Y., et al. “As (III) and Sb (III) Uptake by GlpF and Efflux by ArsB in Escherichia coli”. Journal Of Biological Chemistry 18 (2004): 18334-18341.
  31. Viswanathan T., et al. “Functional and structural characterization of AntR, an Sb (III) responsive transcriptional repressor”. Molecular Microbiology2 (2021): 427-437.
  32. An L., et al. “Comamonas testosteroni antA encodes an antimonite-translocating P-type ATPase”. Science of the Total Environment 754 (2021): 142393.
  33. Shi K., et al. “Efflux Transporter ArsK Is Responsible for Bacterial Resistance to Arsenite, Antimonite, Trivalent Roxarsone, and Methylarsenite”. Applied and Environmental Microbiology24 (2018).
  34. Kashyap D., et al. “Complex Regulation of Arsenite Oxidation in Agrobacterium tumefaciens”. Journal of Bacteriology3 (2006): 1081-1088.
  35. Kashyap D., et al. “A Na+:H+ Antiporter and a Molybdate Transporter Are Essential for Arsenite Oxidation in Agrobacterium tumefaciens”. Journal of Bacteriology4 (2006): 1577-1584.
  36. Swartz T., et al. “The Mrp system: a giant among monovalent cation/proton antiporters?”. Extremophiles 5 (2005): 345-354.
  37. Lehr C., et al. “New Insights into Microbial Oxidation of Antimony and Arsenic”. Applied and Environmental Microbiology7 (2007): 2386-2389.
  38. Kruger M., et al. “Bacterial metabolism of environmental arsenic—mechanisms and biotechnological applications. Applied Microbiology and Biotechnology9 (2013): 3827-3841.
  39. Achour A., et al. “Diversity of arsenite transporter genes from arsenic-resistant soil bacteria”. Research in Microbiology2 (2007): 128-137.
  40. Maciaszczyk-Dziubinska E., et al. “Acr3p is a plasma membrane antiporter that catalyzes As (III)/H+ and Sb (III)/H+ exchange in Saccharomyces cerevisiae”. Biochimica Et Biophysica Acta (BBA) – Biomembranes7 (2011): 1855-1859.
  41. Kang Y., et al. “Involvement of the Acr3 and DctA anti-porters in arsenite oxidation in Agrobacterium tumefaciens 5A”. Environmental Microbiology6 (2014): 1950-1962.
  42. Marquis N., et al. “Modulation in aquaglyceroporin AQP1 gene transcript levels in drug-resistant Leishmania”. Molecular Microbiology6 (2005): 1690-1699.
  43. Joo J., et al. “Comparative study of biosorption of Zn2+ by Pseudomonas aeruginosa and Bacillus cereus”. International Biodeterioration and Biodegradation8 (2010): 734-741.
  44. Volesky B. “Biosorption process simulation tools”. Hydrometallurgy 71 (2003): 179-190.
  45. Shamim S. “Comparative analysis of metal resistance, accumulation, and antioxidant enzymes in Cupriavidus metallidurans CH34 and Pseudomonas putida mt2 during cadmium stress”. Ph. D. thesis. Department of Microbiology and Molecular Genetics, University of the Punjab: Pakistan (2016).
  46. Wu F., et al. “Removal of antimony (III) from aqueous solution by freshwater cyanobacteria Microcystis biomass”. Chemical Engineering Journal 183 (2012): 172-179.
  47. White P R., et al. “Integrated Solid Waste Management: A Lifecycle Inventory”. Berlin: Springer (1995).
  48. Filella M., et al. “Antimony in the environment: A review focused on natural waters. III. Microbiota relevant interactions”. Earth-Science Reviews3-4 (2007): 195-217.
  49. Han Y., et al. “Flavihumibacter stibioxidans nov., an antimony-oxidizing bacterium isolated from antimony mine soil”. International Journal of Systematic and Evolutionary Microbiology 66.11 (2016): 4676-4680.
  50. Terry L., et al. “Microbiological Oxidation of Antimony (III) with Oxygen or Nitrate by Bacteria Isolated from Contaminated Mine Sediments”. Applied and Environmental Microbiology24 (2015): 8478-8488.
  51. Lialikova NN. “Stibiobacter senarmontii: a new microorganism oxidizing antimony”. Mikrobiologiia 43 (1974): 941-943.
  52. Torma A and Gabra G. “Oxidation of stibnite by Thiobacillus ferrooxidans”. Antonie Van Leeuwenhoek1 (1977): 1-6.
  53. Luo G., et al. “Skermanella stibiiresistens nov., a highly antimony-resistant bacterium isolated from coal-mining soil, and emended description of the genus Skermanella”. International Journal of Systematic and Evolutionary Microbiology 62 (2012): 1271-1276.
  54. Shi Z., et al. “Correlation Models between Environmental Factors and Bacterial Resistance to Antimony and Copper”. Plos ONE10 (2013): e78533.
  55. Kulp T., et al. “Arsenic (III) Fuels Anoxygenic Photosynthesis in Hot Spring Biofilms from Mono Lake, California”. Science 5891 (2008): 967-970.
  56. Liu H., et al. “Global Regulator IscR Positively Contributes to Antimonite Resistance and Oxidation in Comamonas testosteroni S44”. Frontiers In Molecular Biosciences 2 (2015).
  57. Xiong J., et al. “Genome analysis and characterization of zinc efflux systems of a highly zinc-resistant bacterium, Comamonas testosteroni S44”. Research in Microbiology7 (2011): 671-679.
  58. Stolz J., et al. “Arsenic and Selenium in Microbial Metabolism”. Annual Review of Microbiology1 (2006): 107-130.
  59. Zargar K., et al. “ArxA, a new clade of arsenite oxidase within the DMSO reductase family of molybdenum oxidoreductases”. Environmental Microbiology7 (2012): 1635-1645.
  60. Silver S and Phung L. “Genes and Enzymes Involved in Bacterial Oxidation and Reduction of Inorganic Arsenic”. Applied and Environmental Microbiology, 71.2 (2005): 599-608.
  61. Wang Q., et al. “Arsenite Oxidase Also Functions as an Antimonite Oxidase”. Applied and Environmental Microbiology6 (2015): 1959-1965.
  62. Cooper W and Zika R. “Photochemical Formation of Hydrogen Peroxide in Surface and Ground Waters Exposed to Sunlight”. Science4598 (1983): 711-712.
  63. Zika R., et al. “Spatial and temporal variations of hydrogen peroxide in Gulf of Mexico waters”. Geochimica Et Cosmochimica Acta5 (1985): 1173-1184.
  64. Cooper W., et al. “Factors Affecting the Distribution of H2O2 in Surface Waters”. Advances in Chemistry (1994): 391-422.
  65. Price D., et al. “Shipboard determination of hydrogen peroxide in the western Mediterranean Sea using flow injection with chemiluminescence detection1PII of original article: S0003-2670 (98) 00322-5. This article has previously been published in 371/2-3.1”. Analytica Chimica Acta2-3 (1998): 145-155.
  66. Ma J., et al. “Bacterioferritin A Modulates Catalase A (KatA) Activity and Resistance to Hydrogen Peroxide in Pseudomonas aeruginosa”. Journal of Bacteriology12 (1999): 3730-3742.
  67. Khakimova M., et al. “The Stringent Response Controls Catalases in Pseudomonas aeruginosa and Is Required for Hydrogen Peroxide and Antibiotic Tolerance”. Journal of Bacteriology9 (2013): 2011-2020.
  68. Zhang M., et al. “Bacteria responsible for antimonite oxidation in antimony-contaminated soil revealed by DNA-SIP coupled to metagenomics”. FEMS Microbiology Ecology5 (2021).
  69. Youngblut N., et al. “SIPSim: A Modeling Toolkit to Predict Accuracy and Aid Design of DNA-SIP Experiments”. Frontiers In Microbiology 9 (2018).
  70. Loni P., et al. “Mechanism of microbial dissolution and oxidation of antimony in stibnite under ambient conditions”. Journal of Hazardous Materials 385 (2020): 121561.
  71. Cai L., et al. “Genes involved in arsenic transformation and resistance associated with different levels of arsenic-contaminated soils”. BMC Microbiology1 (2009): 4.
  72. vanden Hoven R and Santini J. “Arsenite oxidation by the heterotroph Hydrogenophaga str. NT-14: the arsenite oxidase and its physiological electron acceptor”. Biochimica Et Biophysica Acta (BBA) - Bioenergetics 1656.2-3 (2004): 148-155.
  73. Ghosh D., et al. “Diversity of arsenite oxidizing bacterial communities in arsenic-rich deltaic aquifers in West Bengal, India”. Frontiers in Microbiology 5 (2014).
  74. Fan X., et al. “Simultaneous 3-/4-Hydroxybenzoates Biodegradation and Arsenite Oxidation by Hydrogenophaga H7”. Frontiers in Microbiology 10 (2019).
  75. Li J., et al. “Regulation of antimonite oxidation and resistance by the phosphate regulator PhoB in Agrobacterium tumefaciens GW4”. Microbiological Research 226 (2019): 10-18.
  76. Li J., et al. “Proteomics and Genetics for Identification of a Bacterial Antimonite Oxidase in Agrobacterium tumefaciens”. Environmental Science and Technology10 (2015): 5980-5989.
  77. Hockmann K., et al. “Release of antimony from contaminated soil induced by redox changes”. Journal of Hazardous Materials 275 (2014): 215-221.
  78. Kulp T., et al. “Microbiological Reduction of Sb (V) in Anoxic Freshwater Sediments”. Environmental Science and Technology1 (2013): 218-226.
  79. Lai C., et al. “Autotrophic antimonate bio-reduction using hydrogen as the electron donor”. Water Research 88 (2016): 467-474.
  80. Xiao K., et al. “Facile Hydrothermal Synthesis of 〖Sb〗_2 S_3 Nanorods and Their Magnetic and Electrochemical Properties”. ECS Solid State Letters6 (2013): P51-P54.
  81. Abin C and Hollibaugh J. “Dissimilatory Antimonate Reduction and Production of Antimony Trioxide Microcrystals by a Novel Microorganism”. Environmental Science and Technology1 (2013): 681-688.
  82. Polack R., et al. “Behaviour of Sb (V) in the presence of dissolved sulfide under controlled anoxic aqueous conditions”. Chemical Geology 262 (2022): 179-185.
  83. Wang H., et al. “Removal of antimony (Sb (V)) from Sb mine drainage: Biological sulfate reduction and sulfide oxidation–precipitation”. Bioresource Technology 146 (2013): 799-802.
  84. Warashina T., et al. “Complete Genome Sequence of Geobacter Strain SVR, an Antimonate-Reducing Bacterium Isolated from Antimony-Rich Mine Soil”. Microbiology Resource Announcements 10.14 (2021).
  85. Kassa Laouar M., et al. “Antioxidative Enzyme Responses to Antimony Stress of Serratia marcescens – an Endophytic Bacteria of Hedysarum pallidum Roots”. Polish Journal of Environmental Studies1 (2019): 141-152.
  86. Li Y., et al. “Arsenic and antimony co-contamination influences on soil microbial community composition and functions: Relevance to arsenic resistance and carbon, nitrogen, and sulfur cycling”. Environment International 153 (2021): 106522.
  87. Ma Y., et al. “Plant growth promoting rhizobacteria and endophytes accelerate phytoremediation of metalliferous soils”. Biotechnology Advances2 (2011): 248-258.
  88. Rajkumar M., et al. “Perspectives of plant-associated microbes in heavy metal phytoremediation”. Biotechnology Advances6 (2012): 1562-1574.
  89. Corsini A., et al. “Characterization of As (III) oxidizing Achromobacter sp. strain N2: effects on arsenic toxicity and translocation in rice”. Annals of Microbiology5 (2018): 295-304.
  90. Das S., et al. “Arsenite-oxidizing bacteria exhibiting plant growth promoting traits isolated from the rhizosphere of Oryza sativa L.: Implications for mitigation of arsenic contamination in paddies”. Journal of Hazardous Materials 302 (2016): 10-18.
  91. Gu T., et al. “Antimony-oxidizing bacteria alleviate Sb stress in Arabidopsis by attenuating Sb toxicity and reducing Sb uptake”. Plant and Soil1-2 (2020): 397-412.
  92. Glick B. “Plant Growth-Promoting Bacteria: Mechanisms and Applications”. Scientifica (2012): 1-15.
  93. Teale W., et al. “Auxin in action: signalling, transport and the control of plant growth and development”. Nature Reviews Molecular Cell Biology11 (2006): 847-859.
  94. Jenkins R., et al. “Formation of methyl antimony species by an aerobic prokaryote: Flavobacterium sp”. Archives of Microbiology4 (2002): 274-278.
  95. Andreae M., et al. “Determination of antimony (III antimony (V and methyl antimony species in natural waters by atomic absorption spectrometry with hydride generation”. Analytical Chemistry12 (1981): 1766-1771.
  96. Hirner A., et al. “Metal (loid)organic compounds in geothermal gases and waters”. Organic Geochemistry5-7 (1998): 1765-1778.
  97. Dodd M., et al. “Antimony speciation in freshwater plant extracts by using hydride generation–gas chromatography–mass spectrometry”. The Analyst2 (1996): 223-228.
  98. Koch I., et al. “Antimony Species in Environmental Samples”. International Journal of Environmental Analytical Chemistry2 (2000): 111-131.
  99. Richardson B. “Sudden Infant Death Syndrome: a possible primary cause”. Journal of the Forensic Science Society 3 (1994): 199-204.
  100. Jenkins R., et al. “Evaluation of cot mattress inner foam as a potential site for microbial generation of toxic gases”. Human and Experimental Toxicology12 (2000): 693-702.
  101. Warnock D., et al. “Toxic gas generation from plastic mattresses and sudden infant death syndrome”. The Lancet8989 (1995): 1516-1520.
  102. Michalke K., et al. “Production of Volatile Derivatives of Metal (loid)by Microflora Involved in Anaerobic Digestion of Sewage Sludge”. Applied and Environmental Microbiology7 (2000): 2791-2796.
  103. Wehmeier S and Feldmann J. “Investigation into antimony mobility in sewage sludge fermentation”. Journal of Environmental Monitoring12 (2005): 1194.
  104. Meyer J., et al. “Volatilisation of metals and metalloids by the microbial population of an alluvial soil”. Systematic And Applied Microbiology3 (2007): 229-238.
  105. Gürleyük H., et al. “Confirmation of the Biomethylation of Antimony Compounds”. Applied Organometallic Chemistry6 (1997): 471-483.
  106. Andrewes P., et al. “Antimony biomethylation by Scopulariopsis brevicaulis: characterization of intermediates and the methyl donor”. Chemosphere11 (2000): 1717-1725.
  107. Challenger F. “Biological Methylation”. Chemical Reviews3 (1945): 315-361.
  108. ATSDR’s substance priority list, 2017, agency for toxic substances and disease registry (2017).

Citation

Citation: Rajat Pal., et al. “A Review on Detoxification and Bioremediation of Antimony by Bacterial Species". Acta Scientific Microbiology 5.9 (2022): 56-72.

Copyright

Copyright: © 2022 Rajat Pal., et al. This is an open-access article distributed under the terms of the Creative Commons Attribution License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original author and source are credited.




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