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Anaerobic digestion of the organic fraction of municipal solid waste as such or together with food waste, press water or patatoes sludge was investigated to equilibrate methane production within a day or over the weekend, when no OFMSW was available. A stable co-digestion process could be achieved with COD degradation between 60 and 80 %. The max. organic loading rates were 28 kg COD/L,d. For stable methane production the OLR during Co-digestion should not excede 22,5 kg/L,d.
Food waste --- Potatoes sludge --- Organic fraction of municipal solid waste --- Methane production --- Anaerobic digestion --- Co-digestion --- Press water
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The decarbonization of all sectors is essential in addressing the global challenge of climate change. Bioenergy can contribute to replacing our current dependence on fossil fuels and offers significant possibilities in many conventional and advanced applications, from power to heating and cooling installations. Energy systems in the building and industrial sectors can convert biomass to other usable forms of energy and improve energy performance. Moreover, bioenergy sustainability means energy can be managed for an extended period of time. Further research is needed to develop better green energy production methods and new procedures to evaluate and valorize biomass in a circular economy context. Some of the most critical bottlenecks to increase the use of bioenergy are energy conversion and management from resource to final energy. The countries where this source is strengthened can achieve security of energy supply and energy independence. In addition, biomass boilers and biomass district heating systems are interesting options to achieve nearly zero-energy buildings, contributing the needed biomass harvesting to rural development and to improve resource planning and distribution. The aim of this book is to present a comprehensive overview and in-depth technical research papers addressing recent progress in biomass-based systems and innovative applications.
green tide --- parameter optimization --- pyrolysis kinetics --- Shuffled Complex Evolution --- Kissinger method --- clean technology --- renewable energy --- life cycle assessment --- zero discharge --- waste treatment --- sustainability --- bibliometric analysis --- analysis of science mapping --- SciMAT --- systematic literature review --- municipal solid waste --- organic fraction --- biomass --- olive waste --- energetic densification --- pretreatment --- torrefaction --- energy conversion --- energy management --- technology --- thermal system --- biogas --- energy transition --- water hyacinth --- anaerobic digestion --- optimisation --- sustainable cities --- particle emission --- biomass combustion --- biomass cooking stoves --- domestic heating --- local circularity --- decentralized biowaste management --- circular economy --- resource recovery
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The decarbonization of all sectors is essential in addressing the global challenge of climate change. Bioenergy can contribute to replacing our current dependence on fossil fuels and offers significant possibilities in many conventional and advanced applications, from power to heating and cooling installations. Energy systems in the building and industrial sectors can convert biomass to other usable forms of energy and improve energy performance. Moreover, bioenergy sustainability means energy can be managed for an extended period of time. Further research is needed to develop better green energy production methods and new procedures to evaluate and valorize biomass in a circular economy context. Some of the most critical bottlenecks to increase the use of bioenergy are energy conversion and management from resource to final energy. The countries where this source is strengthened can achieve security of energy supply and energy independence. In addition, biomass boilers and biomass district heating systems are interesting options to achieve nearly zero-energy buildings, contributing the needed biomass harvesting to rural development and to improve resource planning and distribution. The aim of this book is to present a comprehensive overview and in-depth technical research papers addressing recent progress in biomass-based systems and innovative applications.
Technology: general issues --- History of engineering & technology --- green tide --- parameter optimization --- pyrolysis kinetics --- Shuffled Complex Evolution --- Kissinger method --- clean technology --- renewable energy --- life cycle assessment --- zero discharge --- waste treatment --- sustainability --- bibliometric analysis --- analysis of science mapping --- SciMAT --- systematic literature review --- municipal solid waste --- organic fraction --- biomass --- olive waste --- energetic densification --- pretreatment --- torrefaction --- energy conversion --- energy management --- technology --- thermal system --- biogas --- energy transition --- water hyacinth --- anaerobic digestion --- optimisation --- sustainable cities --- particle emission --- biomass combustion --- biomass cooking stoves --- domestic heating --- local circularity --- decentralized biowaste management --- circular economy --- resource recovery
Choose an application
The decarbonization of all sectors is essential in addressing the global challenge of climate change. Bioenergy can contribute to replacing our current dependence on fossil fuels and offers significant possibilities in many conventional and advanced applications, from power to heating and cooling installations. Energy systems in the building and industrial sectors can convert biomass to other usable forms of energy and improve energy performance. Moreover, bioenergy sustainability means energy can be managed for an extended period of time. Further research is needed to develop better green energy production methods and new procedures to evaluate and valorize biomass in a circular economy context. Some of the most critical bottlenecks to increase the use of bioenergy are energy conversion and management from resource to final energy. The countries where this source is strengthened can achieve security of energy supply and energy independence. In addition, biomass boilers and biomass district heating systems are interesting options to achieve nearly zero-energy buildings, contributing the needed biomass harvesting to rural development and to improve resource planning and distribution. The aim of this book is to present a comprehensive overview and in-depth technical research papers addressing recent progress in biomass-based systems and innovative applications.
Technology: general issues --- History of engineering & technology --- green tide --- parameter optimization --- pyrolysis kinetics --- Shuffled Complex Evolution --- Kissinger method --- clean technology --- renewable energy --- life cycle assessment --- zero discharge --- waste treatment --- sustainability --- bibliometric analysis --- analysis of science mapping --- SciMAT --- systematic literature review --- municipal solid waste --- organic fraction --- biomass --- olive waste --- energetic densification --- pretreatment --- torrefaction --- energy conversion --- energy management --- technology --- thermal system --- biogas --- energy transition --- water hyacinth --- anaerobic digestion --- optimisation --- sustainable cities --- particle emission --- biomass combustion --- biomass cooking stoves --- domestic heating --- local circularity --- decentralized biowaste management --- circular economy --- resource recovery
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