Inhibition of sulfate-reducing and methanogenic activities of anaerobic sewer biofilms by ferric iron dosing

Ferric iron is commonly used for sulfide precipitation in sewers, thus achieving corrosion and odour control. Its impact on the activities of sulfate-reducing bacteria and methanogens in anaerobic sewer biofilms is investigated in this study. Two lab-scale rising main sewer systems fed with real sew...

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Veröffentlicht in:Water research (Oxford) 2009-09, Vol.43 (17), p.4123-4132
Hauptverfasser: Zhang, Lishan, Keller, Jürg, Yuan, Zhiguo
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Keller, Jürg
Yuan, Zhiguo
description Ferric iron is commonly used for sulfide precipitation in sewers, thus achieving corrosion and odour control. Its impact on the activities of sulfate-reducing bacteria and methanogens in anaerobic sewer biofilms is investigated in this study. Two lab-scale rising main sewer systems fed with real sewage were operated for 8 months. One received Fe 3+ dosage (experimental system) and the other was used as a control. In addition to precipitating sulfide from bulk water, Fe 3+ dosage was found to significantly inhibit sulfate reduction and methane production by sewer biofilms. The experimental reactor discharged an effluent containing a higher concentration of sulfate and a lower concentration of methane in comparison with the reference reactor. Batch experiments showed that the addition of ferric ions reduced the sulfate reduction and methane production rates of the sewer biofilms by 60% and 80%, respectively. The batch experiments further showed that Fe 3+ dosage changed the final products of sulfate reduction with sulfide accounting for only 54% of the sulfate reduced. The other products could not be confirmed, but were not dissolved inorganic sulfur species such as sulfite or thiosulfate. The results suggest the addition of Fe 3+ at upstream locations would minimize the ferric salts required for achieving the same level of sulfide removal. Fe 3+ dosing could also substantially reduce the formation of methane, a potent greenhouse gas, in sewers.
doi_str_mv 10.1016/j.watres.2009.06.013
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Its impact on the activities of sulfate-reducing bacteria and methanogens in anaerobic sewer biofilms is investigated in this study. Two lab-scale rising main sewer systems fed with real sewage were operated for 8 months. One received Fe 3+ dosage (experimental system) and the other was used as a control. In addition to precipitating sulfide from bulk water, Fe 3+ dosage was found to significantly inhibit sulfate reduction and methane production by sewer biofilms. The experimental reactor discharged an effluent containing a higher concentration of sulfate and a lower concentration of methane in comparison with the reference reactor. Batch experiments showed that the addition of ferric ions reduced the sulfate reduction and methane production rates of the sewer biofilms by 60% and 80%, respectively. The batch experiments further showed that Fe 3+ dosage changed the final products of sulfate reduction with sulfide accounting for only 54% of the sulfate reduced. The other products could not be confirmed, but were not dissolved inorganic sulfur species such as sulfite or thiosulfate. The results suggest the addition of Fe 3+ at upstream locations would minimize the ferric salts required for achieving the same level of sulfide removal. 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Its impact on the activities of sulfate-reducing bacteria and methanogens in anaerobic sewer biofilms is investigated in this study. Two lab-scale rising main sewer systems fed with real sewage were operated for 8 months. One received Fe 3+ dosage (experimental system) and the other was used as a control. In addition to precipitating sulfide from bulk water, Fe 3+ dosage was found to significantly inhibit sulfate reduction and methane production by sewer biofilms. The experimental reactor discharged an effluent containing a higher concentration of sulfate and a lower concentration of methane in comparison with the reference reactor. Batch experiments showed that the addition of ferric ions reduced the sulfate reduction and methane production rates of the sewer biofilms by 60% and 80%, respectively. The batch experiments further showed that Fe 3+ dosage changed the final products of sulfate reduction with sulfide accounting for only 54% of the sulfate reduced. 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subjects anaerobic conditions
Anaerobiosis
Applied sciences
Bacteria
Bacterial corrosion
biofilm
Biofilms
Chemical Precipitation
dose response
Exact sciences and technology
Ferric
Ferric Compounds - chemistry
Inhibition
iron
Methane
Methane - metabolism
methane production
Methanogens
microbial activity
odor control
Other industrial wastes. Sewage sludge
Pollution
Reduction
Rising main
Sewage
sewage treatment
Sewer
Sewers
Sulfate-reducing bacteria
Sulfates
Sulfates - metabolism
Sulfide
Sulfides
Wastes
Water treatment and pollution
title Inhibition of sulfate-reducing and methanogenic activities of anaerobic sewer biofilms by ferric iron dosing
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