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Development and Validation of a Low-Cost Gas Density Method for Measuring Biochemical Methane Potential (BMP)

doi: 10.3390/w11122431
Development and Validation of a Low-Cost Gas Density Method for Measuring Biochemical Methane Potential (BMP)
Accurate determination of biochemical methane potential (BMP) is important for both biogas research and practice. However, access to laboratory equipment limits the capacity of small laboratories or biogas plants to conduct reliable BMP assays, especially in low- and middle-income countries. This paper describes the development and validation of a new gas density-based method for measuring BMP (GD-BMP). In the GD-BMP method, biogas composition is determined from biogas density. Biogas density is based on bottle mass loss and biogas volume, and these can be accurately measured using only a standard laboratory scale, inexpensive syringes, and a simple manometer. Results from four experiments carried out in three different laboratories showed that the GD-BMP method is both accurate (no significant bias compared to gravimetric or volumetric methods with biogas analysis by gas chromatography) and precise (<3% relative standard deviation is possible). BMP values from the GD-BMP method were also comparable to those measured for the same substrates with an industry standard automated system (AMPTS II) in two independent laboratories (maximum difference 10%). Additionally, the GD-BMP method was shown to be accurate even in the presence of leakage by excluding leakage from mass loss measurements. The proposed GD-BMP method represents a significant breakthrough for both biogas research and the industry. With it, accurate BMP measurement is possible with only a minimal investment in supplies and equipment.
- Aarhus University Denmark
- Münster University of Applied Sciences Germany
- Technical University of Munich Germany
- University of Queensland Australia
- University of Southern Denmark Denmark
anaerobic digestion, 1303 Biochemistry, Inter-laboratory comparison, batch assays, inexpensive laboratory method, Digestió anaeròbia, Gravimetric determination, biogas technology, Biogas, biomethane potential, 333, 2312 Water Science and Technology, ANAEROBIC-DIGESTION, Anaerobic digestion, BIOGAS PRODUCTION, TD201-500, Planning and Development, 1104 Aquatic Science, Water supply for domestic and industrial purposes, 3305 Geography, Biogàs, Hydraulic engineering, Biogas technology, gravimetric determination, Biomethane potential, Anaerobic-Digestion, Inexpensive laboratory method, Biogas Production, inter-laboratory comparison, TC1-978, Batch assays
anaerobic digestion, 1303 Biochemistry, Inter-laboratory comparison, batch assays, inexpensive laboratory method, Digestió anaeròbia, Gravimetric determination, biogas technology, Biogas, biomethane potential, 333, 2312 Water Science and Technology, ANAEROBIC-DIGESTION, Anaerobic digestion, BIOGAS PRODUCTION, TD201-500, Planning and Development, 1104 Aquatic Science, Water supply for domestic and industrial purposes, 3305 Geography, Biogàs, Hydraulic engineering, Biogas technology, gravimetric determination, Biomethane potential, Anaerobic-Digestion, Inexpensive laboratory method, Biogas Production, inter-laboratory comparison, TC1-978, Batch assays
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