High-rate anaerobic treatment of domestic wastewater at ambient operating temperatures: A review on benefits and drawbacks

This paper reviews the current knowledge on high-rate anaerobic sewage treatment at ambient operating temperatures while presenting the benefits and drawbacks. Since domestic sewage is reported as the main point-source pollutant on a global scale, its treatment deserves ample research. In most of th...

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Published in:Journal of environmental science and health. Part A, Toxic/hazardous substances & environmental engineering Vol. 45; no. 10; pp. 1169 - 1184
Main Author: Gomec, Cigdem Yangin
Format: Journal Article
Language:English
Published: Philadelphia, PA Taylor & Francis Group 01-08-2010
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Abstract This paper reviews the current knowledge on high-rate anaerobic sewage treatment at ambient operating temperatures while presenting the benefits and drawbacks. Since domestic sewage is reported as the main point-source pollutant on a global scale, its treatment deserves ample research. In most of the cities and towns of some developing countries, wastewater produced in households is still discharged into the nearest water body without subjected any treatment. Therefore, simple, affordable, and effective sewage treatment systems are required. Anaerobic digestion of wastewater is reported as a sustainable alternative as recovery of energy is provided while nutrients are preserved for reuse. Anaerobic sewage treatment is certainly not limited to regions of hot climates but it also offers treatment potential in sub-tropical and even in moderate climatic regions due to their favorable temperature conditions. Since many sewage-like dilute wastewaters are discharged at low ambient temperatures especially under moderate climate conditions (15 to 20°C), heating the wastewater to maintain mesophilic conditions (35°C) for anaerobic treatment necessitates high energy and certainly high operating costs. Thus, the development of anaerobic treatment systems operated at ambient temperatures without doubt will have a great ecological and economic impact. High-rate anaerobic treatment systems, especially upflow anaerobic sludge blanket (UASB) reactors, have been occupying a noticeable position for sewage treatment in several tropical countries where artificial heating can be eliminated. However, in spite of their undeniable advantages, there are certain drawbacks of anaerobic sewage treatment at low operating temperatures which should be clarified. Among them, the main concern for anaerobic treatment application is its producing effluents that barely comply with the standarts for reuse in agriculture or discharge to the environment. Therefore, the effluents from anaerobic reactors usually necessitate a post-treatment step as a mean to protect the receiving water bodies. However, anaerobic sewage treatment when combined with a proper post-treatment, provides a sustainable, appropriate, and affordable method especially for developing countries.
AbstractList This paper reviews the current knowledge on high-rate anaerobic sewage treatment at ambient operating temperatures while presenting the benefits and drawbacks. Since domestic sewage is reported as the main point-source pollutant on a global scale, its treatment deserves ample research. In most of the cities and towns of some developing countries, wastewater produced in households is still discharged into the nearest water body without subjected any treatment. Therefore, simple, affordable, and effective sewage treatment systems are required. Anaerobic digestion of wastewater is reported as a sustainable alternative as recovery of energy is provided while nutrients are preserved for reuse. Anaerobic sewage treatment is certainly not limited to regions of hot climates but it also offers treatment potential in sub-tropical and even in moderate climatic regions due to their favorable temperature conditions. Since many sewage-like dilute wastewaters are discharged at low ambient temperatures especially under moderate climate conditions (15 to 20 degrees C), heating the wastewater to maintain mesophilic conditions (35 degrees C) for anaerobic treatment necessitates high energy and certainly high operating costs. Thus, the development of anaerobic treatment systems operated at ambient temperatures without doubt will have a great ecological and economic impact. High-rate anaerobic treatment systems, especially upflow anaerobic sludge blanket (UASB) reactors, have been occupying a noticeable position for sewage treatment in several tropical countries where artificial heating can be eliminated. However, in spite of their undeniable advantages, there are certain drawbacks of anaerobic sewage treatment at low operating temperatures which should be clarified. Among them, the main concern for anaerobic treatment application is its producing effluents that barely comply with the standarts for reuse in agriculture or discharge to the environment. Therefore, the effluents from anaerobic reactors usually necessitate a post-treatment step as a mean to protect the receiving water bodies. However, anaerobic sewage treatment when combined with a proper post-treatment, provides a sustainable, appropriate, and affordable method especially for developing countries.
This paper reviews the current knowledge on high-rate anaerobic sewage treatment at ambient operating temperatures while presenting the benefits and drawbacks. Since domestic sewage is reported as the main point-source pollutant on a global scale, its treatment deserves ample research. In most of the cities and towns of some developing countries, wastewater produced in households is still discharged into the nearest water body without subjected any treatment. Therefore, simple, affordable, and effective sewage treatment systems are required. Anaerobic digestion of wastewater is reported as a sustainable alternative as recovery of energy is provided while nutrients are preserved for reuse. Anaerobic sewage treatment is certainly not limited to regions of hot climates but it also offers treatment potential in sub-tropical and even in moderate climatic regions due to their favorable temperature conditions. Since many sewage-like dilute wastewaters are discharged at low ambient temperatures especially under moderate climate conditions (15 to 20...), heating the wastewater to maintain mesophilic conditions (35...) for anaerobic treatment necessitates high energy and certainly high operating costs. Thus, the development of anaerobic treatment systems operated at ambient temperatures without doubt will have a great ecological and economic impact. High-rate anaerobic treatment systems, especially upflow anaerobic sludge blanket (UASB) reactors, have been occupying a noticeable position for sewage treatment in several tropical countries where artificial heating can be eliminated. However, in spite of their undeniable advantages, there are certain drawbacks of anaerobic sewage treatment at low operating temperatures which should be clarified. Among them, the main concern for anaerobic treatment application is its producing effluents that barely comply with the standarts for reuse in agriculture or discharge to the environment. Therefore, the effluents from anaerobic reactors usually necessitate a post-treatment step as a mean to protect the receiving water bodies. However, anaerobic sewage treatment when combined with a proper post-treatment, provides a sustainable, appropriate, and affordable method especially for developing countries. (ProQuest: ... denotes formulae/symbols omitted.)
This paper reviews the current knowledge on high-rate anaerobic sewage treatment at ambient operating temperatures while presenting the benefits and drawbacks. Since domestic sewage is reported as the main point-source pollutant on a global scale, its treatment deserves ample research. In most of the cities and towns of some developing countries, wastewater produced in households is still discharged into the nearest water body without subjected any treatment. Therefore, simple, affordable, and effective sewage treatment systems are required. Anaerobic digestion of wastewater is reported as a sustainable alternative as recovery of energy is provided while nutrients are preserved for reuse. Anaerobic sewage treatment is certainly not limited to regions of hot climates but it also offers treatment potential in sub-tropical and even in moderate climatic regions due to their favorable temperature conditions. Since many sewage-like dilute wastewaters are discharged at low ambient temperatures especially under moderate climate conditions (15 to 20C), heating the wastewater to maintain mesophilic conditions (35C) for anaerobic treatment necessitates high energy and certainly high operating costs. Thus, the development of anaerobic treatment systems operated at ambient temperatures without doubt will have a great ecological and economic impact. High-rate anaerobic treatment systems, especially upflow anaerobic sludge blanket (UASB) reactors, have been occupying a noticeable position for sewage treatment in several tropical countries where artificial heating can be eliminated. However, in spite of their undeniable advantages, there are certain drawbacks of anaerobic sewage treatment at low operating temperatures which should be clarified. Among them, the main concern for anaerobic treatment application is its producing effluents that barely comply with the standarts for reuse in agriculture or discharge to the environment. Therefore, the effluents from anaerobic reactors usually necessitate a post-treatment step as a mean to protect the receiving water bodies. However, anaerobic sewage treatment when combined with a proper post-treatment, provides a sustainable, appropriate, and affordable method especially for developing countries.
This paper reviews the current knowledge on high-rate anaerobic sewage treatment at ambient operating temperatures while presenting the benefits and drawbacks. Since domestic sewage is reported as the main point-source pollutant on a global scale, its treatment deserves ample research. In most of the cities and towns of some developing countries, wastewater produced in households is still discharged into the nearest water body without subjected any treatment. Therefore, simple, affordable, and effective sewage treatment systems are required. Anaerobic digestion of wastewater is reported as a sustainable alternative as recovery of energy is provided while nutrients are preserved for reuse. Anaerobic sewage treatment is certainly not limited to regions of hot climates but it also offers treatment potential in sub-tropical and even in moderate climatic regions due to their favorable temperature conditions. Since many sewage-like dilute wastewaters are discharged at low ambient temperatures especially under moderate climate conditions (15 to 20°C), heating the wastewater to maintain mesophilic conditions (35°C) for anaerobic treatment necessitates high energy and certainly high operating costs. Thus, the development of anaerobic treatment systems operated at ambient temperatures without doubt will have a great ecological and economic impact. High-rate anaerobic treatment systems, especially upflow anaerobic sludge blanket (UASB) reactors, have been occupying a noticeable position for sewage treatment in several tropical countries where artificial heating can be eliminated. However, in spite of their undeniable advantages, there are certain drawbacks of anaerobic sewage treatment at low operating temperatures which should be clarified. Among them, the main concern for anaerobic treatment application is its producing effluents that barely comply with the standarts for reuse in agriculture or discharge to the environment. Therefore, the effluents from anaerobic reactors usually necessitate a post-treatment step as a mean to protect the receiving water bodies. However, anaerobic sewage treatment when combined with a proper post-treatment, provides a sustainable, appropriate, and affordable method especially for developing countries.
Author Gomec, Cigdem Yangin
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Issue 10
Keywords benefits
Tropical zone
Upflow anaerobic sludge blanket reactor
drawbacks
Urban area
Anaerobic digestion
Waste water
Hot climate
Anaerobe
review
Planetary scale
Agriculture
Point source
anaerobic treatment
Ambient operating temperature
Upward flow
Reuse
Operating cost
Domestic waste water
Pollutant
Heating
Mesophily
Economic impact
Waste water purification
high-rate reactors
sewage
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PublicationTitle Journal of environmental science and health. Part A, Toxic/hazardous substances & environmental engineering
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Snippet This paper reviews the current knowledge on high-rate anaerobic sewage treatment at ambient operating temperatures while presenting the benefits and drawbacks....
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SubjectTerms Ambient operating temperature
Ambient temperature
Anaerobic treatment
Anaerobiosis
Applied sciences
benefits
Bioreactors - microbiology
Discharge
drawbacks
Economic impact
Effluents
Environmental science
Exact sciences and technology
General purification processes
Heating
high-rate reactors
Operating temperature
Pollution
review
sewage
Sewage treatment
Sewage treatment plants
Slurry reactors
Temperature
Temperature effects
Waste Disposal, Fluid - methods
Waste water
Wastewaters
Water treatment
Water treatment and pollution
Title High-rate anaerobic treatment of domestic wastewater at ambient operating temperatures: A review on benefits and drawbacks
URI https://www.tandfonline.com/doi/abs/10.1080/10934529.2010.493774
https://www.ncbi.nlm.nih.gov/pubmed/20563911
https://www.proquest.com/docview/759646328
https://search.proquest.com/docview/1777116873
https://search.proquest.com/docview/733332224
https://search.proquest.com/docview/807283208
https://search.proquest.com/docview/807291933
Volume 45
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