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Description: Book cover
Sludge Minimization Technologies- Doing more to get Less
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Description: Book cover
Sludge Minimization Technologies- Doing more to get Less

Sludge Minimization Technologies- Doing more to get Less

Sludge Minimization Technologies- Doing more to get Less

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Description: Book cover
Sludge Minimization Technologies- Doing more to get Less
Abstract
Sludge minimization technologies have been available for several decades; however recent developments have brought some sludge minimization technologies to the forefront. All of the technologies utilize one or more of three basic approaches to minimize the amount of waste activated sludge produced by an activated sludge process: cell lysis, cyclic oxic environments, and long solids retention time. This paper will discuss the three basic mechanisms, will review the development of several sludge minimization technologies, and will report on the current viability of each technology as well as current research needs for each.Sludge minimization refers generally to the optimum reduction of the mass of sludge or biosolids produced at a wastewater treatment facility. The sludge minimization technologies that have emerged perform their main solids reduction mechanisms within the activated sludge process, prior to sludge stabilization and conversion to a biosolid. These are the technologies that are of interest in this paper. A fundamental understanding of the basic mechanisms available to minimize sludge production is needed prior to evaluating the various sludge minimization technologies that are emerging onto the market. From that understanding, each technology can be evaluated.Early attempts at sludge minimization focused on long solids retention times within the activated sludge process, and the reduced sludge production was seen as a benefit of extended aeration plants. Ultrasonic cell lysis was first developed through laboratory-scale research in the 1960s, but was initially uneconomical due to limitations of the ultrasound equipment available at that time. Advances in ultrasound technology in the last decade have enabled commercial application of the technology for wastewater applications. Ultrasound can be used for sludge minimization in the activated sludge process or in digestion. The Cannibal™ process has shown recent success, and is marketed by Siemens USFilter. IDI has developed a competing process, know as Biolysis® ‘O’. Both of these technologies emphasize cyclic alternation between aerobic, anoxic and anaerobic environments. The MicroSludge™ homogenization process is another recent development for sludge minimization, relying on chemical pretreatment and mechanical shear forces to lyse bacterial cells.Each of the technologies discussed briefly above, will be more fully described with information on the history of the technology development, the basic mechanisms of sludge reduction, installations and performance information, economic considerations, and the identification of research needs for each technology. Other technologies in earlier stages of development will also be identified.
Sludge minimization technologies have been available for several decades; however recent developments have brought some sludge minimization technologies to the forefront. All of the technologies utilize one or more of three basic approaches to minimize the amount of waste activated sludge produced by an activated sludge process: cell lysis, cyclic oxic environments, and long solids retention time....
Author(s)
Ruth RoxburghRon SiegerBruce JohnsonBarry RabinowitzSteve GoodwinGeorge CrawfordGlen Daigger
SourceProceedings of the Water Environment Federation
SubjectSession 7: Residuals and Biosolids Management: Innovative Processes to Enhance Digestion and Dewaterability
Document typeConference Paper
PublisherWater Environment Federation
Print publication date Jan, 2006
ISSN1938-6478
SICI1938-6478(20060101)2006:13L.506;1-
DOI10.2175/193864706783710839
Volume / Issue2006 / 13
Content sourceWEFTEC
First / last page(s)506 - 525
Copyright2006
Word count394

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Description: Book cover
Sludge Minimization Technologies- Doing more to get Less
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Description: Book cover
Sludge Minimization Technologies- Doing more to get Less
Abstract
Sludge minimization technologies have been available for several decades; however recent developments have brought some sludge minimization technologies to the forefront. All of the technologies utilize one or more of three basic approaches to minimize the amount of waste activated sludge produced by an activated sludge process: cell lysis, cyclic oxic environments, and long solids retention time. This paper will discuss the three basic mechanisms, will review the development of several sludge minimization technologies, and will report on the current viability of each technology as well as current research needs for each.Sludge minimization refers generally to the optimum reduction of the mass of sludge or biosolids produced at a wastewater treatment facility. The sludge minimization technologies that have emerged perform their main solids reduction mechanisms within the activated sludge process, prior to sludge stabilization and conversion to a biosolid. These are the technologies that are of interest in this paper. A fundamental understanding of the basic mechanisms available to minimize sludge production is needed prior to evaluating the various sludge minimization technologies that are emerging onto the market. From that understanding, each technology can be evaluated.Early attempts at sludge minimization focused on long solids retention times within the activated sludge process, and the reduced sludge production was seen as a benefit of extended aeration plants. Ultrasonic cell lysis was first developed through laboratory-scale research in the 1960s, but was initially uneconomical due to limitations of the ultrasound equipment available at that time. Advances in ultrasound technology in the last decade have enabled commercial application of the technology for wastewater applications. Ultrasound can be used for sludge minimization in the activated sludge process or in digestion. The Cannibal™ process has shown recent success, and is marketed by Siemens USFilter. IDI has developed a competing process, know as Biolysis® ‘O’. Both of these technologies emphasize cyclic alternation between aerobic, anoxic and anaerobic environments. The MicroSludge™ homogenization process is another recent development for sludge minimization, relying on chemical pretreatment and mechanical shear forces to lyse bacterial cells.Each of the technologies discussed briefly above, will be more fully described with information on the history of the technology development, the basic mechanisms of sludge reduction, installations and performance information, economic considerations, and the identification of research needs for each technology. Other technologies in earlier stages of development will also be identified.
Sludge minimization technologies have been available for several decades; however recent developments have brought some sludge minimization technologies to the forefront. All of the technologies utilize one or more of three basic approaches to minimize the amount of waste activated sludge produced by an activated sludge process: cell lysis, cyclic oxic environments, and long solids retention time....
Author(s)
Ruth RoxburghRon SiegerBruce JohnsonBarry RabinowitzSteve GoodwinGeorge CrawfordGlen Daigger
SourceProceedings of the Water Environment Federation
SubjectSession 7: Residuals and Biosolids Management: Innovative Processes to Enhance Digestion and Dewaterability
Document typeConference Paper
PublisherWater Environment Federation
Print publication date Jan, 2006
ISSN1938-6478
SICI1938-6478(20060101)2006:13L.506;1-
DOI10.2175/193864706783710839
Volume / Issue2006 / 13
Content sourceWEFTEC
First / last page(s)506 - 525
Copyright2006
Word count394

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Ruth Roxburgh# Ron Sieger# Bruce Johnson# Barry Rabinowitz# Steve Goodwin# George Crawford# Glen Daigger. Sludge Minimization Technologies- Doing more to get Less. Alexandria, VA 22314-1994, USA: Water Environment Federation, 2018. Web. 22 Oct. 2025. <https://www.accesswater.org?id=-292959CITANCHOR>.
Ruth Roxburgh# Ron Sieger# Bruce Johnson# Barry Rabinowitz# Steve Goodwin# George Crawford# Glen Daigger. Sludge Minimization Technologies- Doing more to get Less. Alexandria, VA 22314-1994, USA: Water Environment Federation, 2018. Accessed October 22, 2025. https://www.accesswater.org/?id=-292959CITANCHOR.
Ruth Roxburgh# Ron Sieger# Bruce Johnson# Barry Rabinowitz# Steve Goodwin# George Crawford# Glen Daigger
Sludge Minimization Technologies- Doing more to get Less
Access Water
Water Environment Federation
December 22, 2018
October 22, 2025
https://www.accesswater.org/?id=-292959CITANCHOR