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MAKING METHANE: CO-DIGESTION OF ORGANIC WASTE WITH WASTEWATER SOLIDS
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Description: Book cover
MAKING METHANE: CO-DIGESTION OF ORGANIC WASTE WITH WASTEWATER SOLIDS

MAKING METHANE: CO-DIGESTION OF ORGANIC WASTE WITH WASTEWATER SOLIDS

MAKING METHANE: CO-DIGESTION OF ORGANIC WASTE WITH WASTEWATER SOLIDS

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Description: Book cover
MAKING METHANE: CO-DIGESTION OF ORGANIC WASTE WITH WASTEWATER SOLIDS
Abstract
Commingling of organic waste products with wastewater solids in a co-digestion process is an emerging practice that promises substantial benefit to wastewater treatment plants, producers of industrial, agricultural and commercial organic wastes, and the environment in general. For wastewater processors it promises an increase in biogas production, a reduction in electrical demand, and an offset of natural gas purchases through use of locally generated biogas. Further, because co-digestion of industrial waste with wastewater solids uses existing infrastructure, implementation does not require significant expenditures for capital improvements. For industrial and commercial producers of organic wastes, co-digestion promises a reliable and cost-effective way to dispose of byproducts that are typically either landfilled or pretreated and added to wastewater plant influent. Finally, co-digestion promises global ecological benefits through reduced greenhouse gas production as biogas generated by the co-digestion process is captured and beneficially used instead of being released into the atmosphere at landfills.Implementation of co-digestion at wastewater plants is increasing; however, implementation should not come at the expense of anaerobic digestion process stability. Anaerobic digestion operation and performance measures are based upon years of empirical data gained from operation of digesters fed solely wastewater solids. These data are not sufficient to be applied to feedstocks composed of a portfolio of other organic wastes. CDM is currently performing applied research to address this existing knowledge gap. To that end, the specific objectives of this research are to develop a practical procedure to assess the potential impacts of a particular organic waste in a co-digestion feedstock on an anaerobic digestion system; to identify major obstacles and design solutions to these challenges to facilitate the handling, mixing, and feeding of commingled wastes to anaerobic digesters; to develop the empirical data necessary to support digester design and establish operational stability parameters; and finally, to develop an economic model to assess the viability of co-digestion.The approach to meeting the research objectives is composed of four sequential research steps, the first of which is waste characterization analyses, followed by laboratory analyses, pilot scale operations, and full scale demonstrations. The research is being conducted by a diverse team consisting of municipal agencies, university researchers, and consulting engineers who will develop reproducible test protocols accessible to wastewater plant operators.Experiments and full-scale installations have previously shown that co-digesting organic wastes such as fat, oil, and grease (FOG), slaughterhouse wastes, and food processing wastes with wastewater solids can increase methane gas production as much as 100 percent. Similarly, biodegradability (as measured by volatile solids destruction) of wastewater solids has been shown to be improved by co-digesting with FOG. Results of a literature search on co-digestion research will be summarized in a table of feedstock characteristics, and associated experimental results. Data from full-scale operations will be presented. Feedstocks are varied and include food processing wastes such as corn squeezing and cheese whey, FOG, and others. The variables characterized include chemical oxygen demand (COD), total suspended solids (TSS%), volatile suspended solids (VSS%), volatile fatty acids (VFA), total nitrogen, and total phosphate.This project is part of the Water Environment Research Foundation (WERF) Optimization of Wastewater and Solids Operations (OWSO) Challenge, which had its kickoff meeting at WEFTEC in San Diego, October 2007. Team members have developed the waste characterization and laboratory protocols and have conducted a literature review. Waste characterization along with lab scale analysis of different co-digestion feedstocks are in progress. Subsequent phases of the work will present pilot plant results and full scale operations. This presentation will describe progress to date on the co-digestion literature search and the laboratory research, together the first phase of the OWSO Challenge. The knowledge to be gained from the research is essential to making co-digestion an efficient process that can be successfully implemented by wastewater treatment plants across North America.
Commingling of organic waste products with wastewater solids in a co-digestion process is an emerging practice that promises substantial benefit to wastewater treatment plants, producers of industrial, agricultural and commercial organic wastes, and the environment in general. For wastewater processors it promises an increase in biogas production, a reduction in electrical demand, and an offset of...
Author(s)
David L. ParryScott VandenburghMichael Salerno
SourceProceedings of the Water Environment Federation
SubjectSession 15: Renewables: Developing an Energy Source
Document typeConference Paper
PublisherWater Environment Federation
Print publication date Jan, 2008
ISSN1938-6478
SICI1938-6478(20080101)2008:6L.1045;1-
DOI10.2175/193864708790894430
Volume / Issue2008 / 6
Content sourceSustainability Conference
First / last page(s)1045 - 1062
Copyright2008
Word count633

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Description: Book cover
MAKING METHANE: CO-DIGESTION OF ORGANIC WASTE WITH WASTEWATER SOLIDS
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Description: Book cover
MAKING METHANE: CO-DIGESTION OF ORGANIC WASTE WITH WASTEWATER SOLIDS
Abstract
Commingling of organic waste products with wastewater solids in a co-digestion process is an emerging practice that promises substantial benefit to wastewater treatment plants, producers of industrial, agricultural and commercial organic wastes, and the environment in general. For wastewater processors it promises an increase in biogas production, a reduction in electrical demand, and an offset of natural gas purchases through use of locally generated biogas. Further, because co-digestion of industrial waste with wastewater solids uses existing infrastructure, implementation does not require significant expenditures for capital improvements. For industrial and commercial producers of organic wastes, co-digestion promises a reliable and cost-effective way to dispose of byproducts that are typically either landfilled or pretreated and added to wastewater plant influent. Finally, co-digestion promises global ecological benefits through reduced greenhouse gas production as biogas generated by the co-digestion process is captured and beneficially used instead of being released into the atmosphere at landfills.Implementation of co-digestion at wastewater plants is increasing; however, implementation should not come at the expense of anaerobic digestion process stability. Anaerobic digestion operation and performance measures are based upon years of empirical data gained from operation of digesters fed solely wastewater solids. These data are not sufficient to be applied to feedstocks composed of a portfolio of other organic wastes. CDM is currently performing applied research to address this existing knowledge gap. To that end, the specific objectives of this research are to develop a practical procedure to assess the potential impacts of a particular organic waste in a co-digestion feedstock on an anaerobic digestion system; to identify major obstacles and design solutions to these challenges to facilitate the handling, mixing, and feeding of commingled wastes to anaerobic digesters; to develop the empirical data necessary to support digester design and establish operational stability parameters; and finally, to develop an economic model to assess the viability of co-digestion.The approach to meeting the research objectives is composed of four sequential research steps, the first of which is waste characterization analyses, followed by laboratory analyses, pilot scale operations, and full scale demonstrations. The research is being conducted by a diverse team consisting of municipal agencies, university researchers, and consulting engineers who will develop reproducible test protocols accessible to wastewater plant operators.Experiments and full-scale installations have previously shown that co-digesting organic wastes such as fat, oil, and grease (FOG), slaughterhouse wastes, and food processing wastes with wastewater solids can increase methane gas production as much as 100 percent. Similarly, biodegradability (as measured by volatile solids destruction) of wastewater solids has been shown to be improved by co-digesting with FOG. Results of a literature search on co-digestion research will be summarized in a table of feedstock characteristics, and associated experimental results. Data from full-scale operations will be presented. Feedstocks are varied and include food processing wastes such as corn squeezing and cheese whey, FOG, and others. The variables characterized include chemical oxygen demand (COD), total suspended solids (TSS%), volatile suspended solids (VSS%), volatile fatty acids (VFA), total nitrogen, and total phosphate.This project is part of the Water Environment Research Foundation (WERF) Optimization of Wastewater and Solids Operations (OWSO) Challenge, which had its kickoff meeting at WEFTEC in San Diego, October 2007. Team members have developed the waste characterization and laboratory protocols and have conducted a literature review. Waste characterization along with lab scale analysis of different co-digestion feedstocks are in progress. Subsequent phases of the work will present pilot plant results and full scale operations. This presentation will describe progress to date on the co-digestion literature search and the laboratory research, together the first phase of the OWSO Challenge. The knowledge to be gained from the research is essential to making co-digestion an efficient process that can be successfully implemented by wastewater treatment plants across North America.
Commingling of organic waste products with wastewater solids in a co-digestion process is an emerging practice that promises substantial benefit to wastewater treatment plants, producers of industrial, agricultural and commercial organic wastes, and the environment in general. For wastewater processors it promises an increase in biogas production, a reduction in electrical demand, and an offset of...
Author(s)
David L. ParryScott VandenburghMichael Salerno
SourceProceedings of the Water Environment Federation
SubjectSession 15: Renewables: Developing an Energy Source
Document typeConference Paper
PublisherWater Environment Federation
Print publication date Jan, 2008
ISSN1938-6478
SICI1938-6478(20080101)2008:6L.1045;1-
DOI10.2175/193864708790894430
Volume / Issue2008 / 6
Content sourceSustainability Conference
First / last page(s)1045 - 1062
Copyright2008
Word count633

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David L. Parry# Scott Vandenburgh# Michael Salerno. MAKING METHANE: CO-DIGESTION OF ORGANIC WASTE WITH WASTEWATER SOLIDS. Alexandria, VA 22314-1994, USA: Water Environment Federation, 2018. Web. 3 Jun. 2025. <https://www.accesswater.org?id=-295766CITANCHOR>.
David L. Parry# Scott Vandenburgh# Michael Salerno. MAKING METHANE: CO-DIGESTION OF ORGANIC WASTE WITH WASTEWATER SOLIDS. Alexandria, VA 22314-1994, USA: Water Environment Federation, 2018. Accessed June 3, 2025. https://www.accesswater.org/?id=-295766CITANCHOR.
David L. Parry# Scott Vandenburgh# Michael Salerno
MAKING METHANE: CO-DIGESTION OF ORGANIC WASTE WITH WASTEWATER SOLIDS
Access Water
Water Environment Federation
December 22, 2018
June 3, 2025
https://www.accesswater.org/?id=-295766CITANCHOR