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The clean energy transition is the transition from the use of nonrenewable energy sources to renewable sources and is part of the wider transition to sustainable economies through the use of renewable energy, the adoption of energy-saving measures, and sustainable development techniques. The clean energy transition is a long and complex process that will lead to an epochal change, and it will allow safeguarding the health of the environment in the long term. For its success, it necessitates contribution from everyone, from the individual citizen to large multinationals, passing through SMEs; national and international policies play a key role in paving the way to this process. This Special Issue is focused on technical, financial, and policy-related aspects linked to the transition of industrial and service sectors towards energy saving and decarbonization. These different aspects are interrelated and, as such, they have been analyzed with an interdisciplinary approach, for example, by combining economic and technical information. The collected papers focus on energy efficiency and clean-energy key technologies, renewable sources, energy management and monitoring systems, energy policies and regulations, and economic and financial aspects.
Technology: general issues --- History of engineering & technology --- anomaly detection --- principal component analysis --- Monte Carlo simulation --- PV cell production line --- predictive maintenance --- energy audits (EAs) --- energy management systems --- energy performance improved actions (EPIAs) --- energy efficiency --- manufacturing industry --- tertiary sector --- EES systems --- greenhouse gas --- load leveling --- best-mix solution --- optimal operation algorithm --- optimization --- organic rankine cycle --- steam rankine cycle --- energy analysis --- economic analysis --- environmental analysis --- clean energy technologies --- European Green Deal --- fit for 55 --- patent family --- rarity index --- revealed technological advantages --- technological sovereignty --- energy performance indicators (EnPI) --- specific energy consumption (SEC) --- energy management --- industry --- cement --- energy transition --- energy-saving technologies --- foundry manufacturing plant --- Italian overview --- energy efficiency improvements --- waste heat recovery --- waste heat survey --- dairy industry --- oil refining --- refineries --- EnPIs --- health sector --- energy audit --- energy efficiency in economic sectors --- clean-energy technologies --- energy policies and regulations --- financial instruments --- decarbonisation --- renewable energy sources
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The book “Building Energy Audits-Diagnosis and Retrofitting” is a collection of twelve papers that focus on the built environment in order to systematically collect and analyze relevant data for the energy use profile of buildings and extended for the sustainability assessment of the built environment. The contributions address historic buildings, baselines for non-residential buildings from energy performance audits, and from in-situ measurements, monitoring, and analysis of data, and verification of energy saving and model calibration for various building types. The works report on how to diagnose existing problems and identify priorities, assess, and quantify the opportunities and measures that improve the overall building performance and the environmental quality and well-being of occupants in non-residential buildings and houses. Several case studies and lessons learned from the field are presented to help the readers identify, quantify, and prioritize effective energy conservation and efficiency measures. Finally, a new urban sustainability audit and rating method of the built environment addresses the complexities of the various issues involved, providing practical tools that can be adapted to match local priorities in order to diagnose and evaluate the current state and future scenarios towards meeting specific sustainable development goals and local priorities.
Research & information: general --- feature selection --- prediction of energy consumption --- electricity consumption --- machine learning --- non-residential buildings --- sustainability --- buildings --- neighbourhoods --- decision-making process --- key performance indicators --- KPIs --- built environment --- audit --- assessment tools --- brick 1 --- moisture 2 --- heat flow 3 --- energetic rehabilitation 4 --- non-destructive test 5 --- energy community (EC) --- renewable energy sources (RESs) --- citizen involvement --- co-ownership in renewable energies --- nonresidential buildings --- baselines --- EUI --- energy use intensities --- carbon emission intensities --- EPCs --- energy performance certificates --- building energy simulation --- school building --- field measurements --- validation --- airing --- windows and door opening --- occupancy behaviour --- energy efficiency measures --- retrofitting --- thermo-modernization --- final energy --- primary energy --- energy consumption --- home energy management system --- human comfort factor --- thermal comfort --- visual comfort --- demand response --- energy performance --- energy audits --- school buildings --- indoor climate --- HeLLo --- energy retrofit --- non-destructive test --- in situ --- hygrothermal measurement --- dynamic conditions --- hygrothermal simulation --- historic wall --- daylight --- lighting control --- lighting --- occupant preferences --- occupant satisfaction --- photosensor --- post-occupancy evaluation --- survey --- single-family houses --- embodied energy --- operational energy --- benchmarks --- renovations --- energy use intensity (EUI) --- embodied energy intensity (EEI) --- energy recovery time
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The book “Building Energy Audits-Diagnosis and Retrofitting” is a collection of twelve papers that focus on the built environment in order to systematically collect and analyze relevant data for the energy use profile of buildings and extended for the sustainability assessment of the built environment. The contributions address historic buildings, baselines for non-residential buildings from energy performance audits, and from in-situ measurements, monitoring, and analysis of data, and verification of energy saving and model calibration for various building types. The works report on how to diagnose existing problems and identify priorities, assess, and quantify the opportunities and measures that improve the overall building performance and the environmental quality and well-being of occupants in non-residential buildings and houses. Several case studies and lessons learned from the field are presented to help the readers identify, quantify, and prioritize effective energy conservation and efficiency measures. Finally, a new urban sustainability audit and rating method of the built environment addresses the complexities of the various issues involved, providing practical tools that can be adapted to match local priorities in order to diagnose and evaluate the current state and future scenarios towards meeting specific sustainable development goals and local priorities.
feature selection --- prediction of energy consumption --- electricity consumption --- machine learning --- non-residential buildings --- sustainability --- buildings --- neighbourhoods --- decision-making process --- key performance indicators --- KPIs --- built environment --- audit --- assessment tools --- brick 1 --- moisture 2 --- heat flow 3 --- energetic rehabilitation 4 --- non-destructive test 5 --- energy community (EC) --- renewable energy sources (RESs) --- citizen involvement --- co-ownership in renewable energies --- nonresidential buildings --- baselines --- EUI --- energy use intensities --- carbon emission intensities --- EPCs --- energy performance certificates --- building energy simulation --- school building --- field measurements --- validation --- airing --- windows and door opening --- occupancy behaviour --- energy efficiency measures --- retrofitting --- thermo-modernization --- final energy --- primary energy --- energy consumption --- home energy management system --- human comfort factor --- thermal comfort --- visual comfort --- demand response --- energy performance --- energy audits --- school buildings --- indoor climate --- HeLLo --- energy retrofit --- non-destructive test --- in situ --- hygrothermal measurement --- dynamic conditions --- hygrothermal simulation --- historic wall --- daylight --- lighting control --- lighting --- occupant preferences --- occupant satisfaction --- photosensor --- post-occupancy evaluation --- survey --- single-family houses --- embodied energy --- operational energy --- benchmarks --- renovations --- energy use intensity (EUI) --- embodied energy intensity (EEI) --- energy recovery time
Choose an application
The book “Building Energy Audits-Diagnosis and Retrofitting” is a collection of twelve papers that focus on the built environment in order to systematically collect and analyze relevant data for the energy use profile of buildings and extended for the sustainability assessment of the built environment. The contributions address historic buildings, baselines for non-residential buildings from energy performance audits, and from in-situ measurements, monitoring, and analysis of data, and verification of energy saving and model calibration for various building types. The works report on how to diagnose existing problems and identify priorities, assess, and quantify the opportunities and measures that improve the overall building performance and the environmental quality and well-being of occupants in non-residential buildings and houses. Several case studies and lessons learned from the field are presented to help the readers identify, quantify, and prioritize effective energy conservation and efficiency measures. Finally, a new urban sustainability audit and rating method of the built environment addresses the complexities of the various issues involved, providing practical tools that can be adapted to match local priorities in order to diagnose and evaluate the current state and future scenarios towards meeting specific sustainable development goals and local priorities.
Research & information: general --- feature selection --- prediction of energy consumption --- electricity consumption --- machine learning --- non-residential buildings --- sustainability --- buildings --- neighbourhoods --- decision-making process --- key performance indicators --- KPIs --- built environment --- audit --- assessment tools --- brick 1 --- moisture 2 --- heat flow 3 --- energetic rehabilitation 4 --- non-destructive test 5 --- energy community (EC) --- renewable energy sources (RESs) --- citizen involvement --- co-ownership in renewable energies --- nonresidential buildings --- baselines --- EUI --- energy use intensities --- carbon emission intensities --- EPCs --- energy performance certificates --- building energy simulation --- school building --- field measurements --- validation --- airing --- windows and door opening --- occupancy behaviour --- energy efficiency measures --- retrofitting --- thermo-modernization --- final energy --- primary energy --- energy consumption --- home energy management system --- human comfort factor --- thermal comfort --- visual comfort --- demand response --- energy performance --- energy audits --- school buildings --- indoor climate --- HeLLo --- energy retrofit --- non-destructive test --- in situ --- hygrothermal measurement --- dynamic conditions --- hygrothermal simulation --- historic wall --- daylight --- lighting control --- lighting --- occupant preferences --- occupant satisfaction --- photosensor --- post-occupancy evaluation --- survey --- single-family houses --- embodied energy --- operational energy --- benchmarks --- renovations --- energy use intensity (EUI) --- embodied energy intensity (EEI) --- energy recovery time
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