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Resistance and uptake of heavy metals by Vorticella microstoma and its potential use in industrial wastewater treatment

The ciliate, Vorticella microstoma, showed tolerance against Cd2+ (22 μg/mL), Cu2+ (22 μg/mL), Ni2+ (17 μg/mL), and Hg2+ (16 μg/mL). The metal ions slowed down the growth of the ciliate as compared to the culture grown without metal stress. The decrease in cell population was 60% for Cd2+, 49% for C...

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Published in:Environmental progress 2010-12, Vol.29 (4), p.481-486
Main Authors: Rehman, A., Shakoori, Farah R., Shakoori, A.R.
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description The ciliate, Vorticella microstoma, showed tolerance against Cd2+ (22 μg/mL), Cu2+ (22 μg/mL), Ni2+ (17 μg/mL), and Hg2+ (16 μg/mL). The metal ions slowed down the growth of the ciliate as compared to the culture grown without metal stress. The decrease in cell population was 60% for Cd2+, 49% for Cu2+, 35% for Ni2+, and 49% for Hg2+ after 8 days of metal stress. The order of resistance to heavy metal, in terms of reduction in the cellular population, was Ni2+ < Hg2+ = Cu2+ < Cd2+. Metal‐uptake capability of the ciliate was worked out for its potential use as bioremediator of wastewater. V. microstoma decreased 72% of Cd2+, 82% of Cu2+, 80% of Ni2+, and 74% of Hg2+ from the medium after 96 h of incubation. V. microstoma was also able to remove 73% of Cd2+, 80% of Cu2+, 83% of Ni2+, and 76% of Hg2+ from the industrial wastewater after 6 days of incubation at room temperature. The multiple heavy metal uptake ability of V. microstoma can be exploited for metal detoxification and environmental clean‐up operations. © 2010 American Institute of Chemical Engineers Environ Prog, 2010
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source Wiley-Blackwell Read & Publish Collection
subjects Applied sciences
bioremediation
Exact sciences and technology
General purification processes
heavy-metal resistance
metal uptake
Microstoma
Pollution
Vorticella microstoma
Wastewaters
Water treatment and pollution
title Resistance and uptake of heavy metals by Vorticella microstoma and its potential use in industrial wastewater treatment
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