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energy saving --- energy efficiency --- regional aspects of power engineering --- power engineering --- energy systems and networks --- industrial safety
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energy --- renewable sources --- energy storage --- power system --- energy saving --- Energy industries --- Power resources --- Power resources. --- Energy industries. --- Industries --- Energy --- Energy resources --- Power supply --- Natural resources --- Energy harvesting
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The use of renewable energies and energy saving and efficiency are needs of global society and universities. Universities have a large responsibility and social impact, as they are an example and engine of social change. Universities, in the European context, must be at the forefront of ESA processes, seeking to be at the same level as, and preferably higher than, the rest of society, seeking a goal of 20% renewable energy for 2020 and, in the longer term, greater energy efficiency based on a diverse use of renewable energy and studying the feasibility of other energy processes (cogeneration, trigeneration, etc.). The application of renewable energies and energy efficiency allow universities to make significant savings in their costs and contribute to sustainable development and the fight against climate change. Actions in pursuit of these goals in addition to the objective of energy saving should promote research and form an example for the university community. This book aims to advance the contribution of energy saving and the use of renewable energies in order to achieve more sustainable universities.
bibliometrics --- community detection --- energy --- law --- sustainability --- smart contracts --- building information modeling (BIM) --- legal aspects --- bibliometric --- clustering --- renewable energy --- wind turbine --- pitch control --- electric generation --- universities --- university environmental impact --- urban planning --- sustainability assessment --- covenant of Mayors --- DC microgrid --- energy management system --- photovoltaic (PV) system --- energy storage system --- constant power load --- power generation control --- benchmark --- campus energy consumption --- heating and cooling degree-days --- energy model --- occupancy rate --- loquat seed --- biomass boiler --- greenhouse gases --- UNAM --- energy saving --- Mexico --- photovoltaic system (PVS) --- zapote seed --- energy consumption --- higher education institution --- energy efficiency indicators --- green campus --- social responsibility --- Spain --- zero-energy buildings --- energy efficiency --- bioclimatic architecture --- sustainable transport --- photovoltaic --- energy saving in laboratories --- energy saving in data processing centres
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Climate change is increasing due to the anthropogenic emission of greenhouse gases. The majority of these are due to the production and consumption of energy. According to the latest estimates, global energy demand could triple by 2050, and by then, 70% of the world’s population will live in cities. The challenge for future cities is the implementation of a mechanism that minimizes the need for injection of new energy resources in them, so that a high level of self-sufficiency can be achieved through the concept of circular economy, thus partially mitigating the impacts of climate change. Using solar energy today is considered to be one of the best solutions that can be installed in buildings to help with this issue. This book addresses several relevant aspects related to energy saving at cities, including a deep survey of research topics and scientific collaborations in energy saving. The main research topics carried out are related to sustainability, solar energy, the use of rooftops for energy generation, energy conversion from urban biomass or residues, wind energy, and public and private urban energy saving.
energy-saving --- energy conservation --- energy utilization --- energy efficiency --- scientific collaboration --- wind farm --- thermal power plants --- peak electricity demand --- Gulf of Mexico --- bike sharing --- energy saving --- system rebalancing --- Weibull function --- scale parameter --- shape parameter --- wind power density --- seasons --- optimal tilt angle --- PV system --- solar photovoltaic --- solar radiation --- PVGIS --- PVWatts --- Palestine --- pyrolysis --- solid tire wastes --- PCB --- TPO --- Pyro-Gas --- industrial scale --- local climate policy --- municipal authorities --- municipal energy planning --- local GHG emissions --- multilevel governance --- renewable energy --- zero-energy buildings --- sustainability --- sustainable transport --- PV --- energy saving in data processing centers
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697 --- Heating, ventilation and air conditioning of buildings --- 697 Heating, ventilation and air conditioning of buildings --- Buildings. --- Energy conservation. --- Energy saving in buildings(Symposium) --- Buildings(Thermal insulation) --- Insulation of buildings(Thermal-) --- Cost effectiveness --- Savings
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Climate change is increasing due to the anthropogenic emission of greenhouse gases. The majority of these are due to the production and consumption of energy. According to the latest estimates, global energy demand could triple by 2050, and by then, 70% of the world’s population will live in cities. The challenge for future cities is the implementation of a mechanism that minimizes the need for injection of new energy resources in them, so that a high level of self-sufficiency can be achieved through the concept of circular economy, thus partially mitigating the impacts of climate change. Using solar energy today is considered to be one of the best solutions that can be installed in buildings to help with this issue. This book addresses several relevant aspects related to energy saving at cities, including a deep survey of research topics and scientific collaborations in energy saving. The main research topics carried out are related to sustainability, solar energy, the use of rooftops for energy generation, energy conversion from urban biomass or residues, wind energy, and public and private urban energy saving.
Research & information: general --- energy-saving --- energy conservation --- energy utilization --- energy efficiency --- scientific collaboration --- wind farm --- thermal power plants --- peak electricity demand --- Gulf of Mexico --- bike sharing --- energy saving --- system rebalancing --- Weibull function --- scale parameter --- shape parameter --- wind power density --- seasons --- optimal tilt angle --- PV system --- solar photovoltaic --- solar radiation --- PVGIS --- PVWatts --- Palestine --- pyrolysis --- solid tire wastes --- PCB --- TPO --- Pyro-Gas --- industrial scale --- local climate policy --- municipal authorities --- municipal energy planning --- local GHG emissions --- multilevel governance --- renewable energy --- zero-energy buildings --- sustainability --- sustainable transport --- PV --- energy saving in data processing centers --- energy-saving --- energy conservation --- energy utilization --- energy efficiency --- scientific collaboration --- wind farm --- thermal power plants --- peak electricity demand --- Gulf of Mexico --- bike sharing --- energy saving --- system rebalancing --- Weibull function --- scale parameter --- shape parameter --- wind power density --- seasons --- optimal tilt angle --- PV system --- solar photovoltaic --- solar radiation --- PVGIS --- PVWatts --- Palestine --- pyrolysis --- solid tire wastes --- PCB --- TPO --- Pyro-Gas --- industrial scale --- local climate policy --- municipal authorities --- municipal energy planning --- local GHG emissions --- multilevel governance --- renewable energy --- zero-energy buildings --- sustainability --- sustainable transport --- PV --- energy saving in data processing centers
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The use of renewable energies and energy saving and efficiency are needs of global society and universities. Universities have a large responsibility and social impact, as they are an example and engine of social change. Universities, in the European context, must be at the forefront of ESA processes, seeking to be at the same level as, and preferably higher than, the rest of society, seeking a goal of 20% renewable energy for 2020 and, in the longer term, greater energy efficiency based on a diverse use of renewable energy and studying the feasibility of other energy processes (cogeneration, trigeneration, etc.). The application of renewable energies and energy efficiency allow universities to make significant savings in their costs and contribute to sustainable development and the fight against climate change. Actions in pursuit of these goals in addition to the objective of energy saving should promote research and form an example for the university community. This book aims to advance the contribution of energy saving and the use of renewable energies in order to achieve more sustainable universities.
History of engineering & technology --- bibliometrics --- community detection --- energy --- law --- sustainability --- smart contracts --- building information modeling (BIM) --- legal aspects --- bibliometric --- clustering --- renewable energy --- wind turbine --- pitch control --- electric generation --- universities --- university environmental impact --- urban planning --- sustainability assessment --- covenant of Mayors --- DC microgrid --- energy management system --- photovoltaic (PV) system --- energy storage system --- constant power load --- power generation control --- benchmark --- campus energy consumption --- heating and cooling degree-days --- energy model --- occupancy rate --- loquat seed --- biomass boiler --- greenhouse gases --- UNAM --- energy saving --- Mexico --- photovoltaic system (PVS) --- zapote seed --- energy consumption --- higher education institution --- energy efficiency indicators --- green campus --- social responsibility --- Spain --- zero-energy buildings --- energy efficiency --- bioclimatic architecture --- sustainable transport --- photovoltaic --- energy saving in laboratories --- energy saving in data processing centres --- bibliometrics --- community detection --- energy --- law --- sustainability --- smart contracts --- building information modeling (BIM) --- legal aspects --- bibliometric --- clustering --- renewable energy --- wind turbine --- pitch control --- electric generation --- universities --- university environmental impact --- urban planning --- sustainability assessment --- covenant of Mayors --- DC microgrid --- energy management system --- photovoltaic (PV) system --- energy storage system --- constant power load --- power generation control --- benchmark --- campus energy consumption --- heating and cooling degree-days --- energy model --- occupancy rate --- loquat seed --- biomass boiler --- greenhouse gases --- UNAM --- energy saving --- Mexico --- photovoltaic system (PVS) --- zapote seed --- energy consumption --- higher education institution --- energy efficiency indicators --- green campus --- social responsibility --- Spain --- zero-energy buildings --- energy efficiency --- bioclimatic architecture --- sustainable transport --- photovoltaic --- energy saving in laboratories --- energy saving in data processing centres
Choose an application
The use of renewable energies and energy saving and efficiency are needs of global society and universities. Universities have a large responsibility and social impact, as they are an example and engine of social change. Universities, in the European context, must be at the forefront of ESA processes, seeking to be at the same level as, and preferably higher than, the rest of society, seeking a goal of 20% renewable energy for 2020 and, in the longer term, greater energy efficiency based on a diverse use of renewable energy and studying the feasibility of other energy processes (cogeneration, trigeneration, etc.). The application of renewable energies and energy efficiency allow universities to make significant savings in their costs and contribute to sustainable development and the fight against climate change. Actions in pursuit of these goals in addition to the objective of energy saving should promote research and form an example for the university community. This book aims to advance the contribution of energy saving and the use of renewable energies in order to achieve more sustainable universities.
History of engineering & technology --- bibliometrics --- community detection --- energy --- law --- sustainability --- smart contracts --- building information modeling (BIM) --- legal aspects --- bibliometric --- clustering --- renewable energy --- wind turbine --- pitch control --- electric generation --- universities --- university environmental impact --- urban planning --- sustainability assessment --- covenant of Mayors --- DC microgrid --- energy management system --- photovoltaic (PV) system --- energy storage system --- constant power load --- power generation control --- benchmark --- campus energy consumption --- heating and cooling degree-days --- energy model --- occupancy rate --- loquat seed --- biomass boiler --- greenhouse gases --- UNAM --- energy saving --- Mexico --- photovoltaic system (PVS) --- zapote seed --- energy consumption --- higher education institution --- energy efficiency indicators --- green campus --- social responsibility --- Spain --- zero-energy buildings --- energy efficiency --- bioclimatic architecture --- sustainable transport --- photovoltaic --- energy saving in laboratories --- energy saving in data processing centres
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The main objective of this book is to evaluate alternative energy systems in buildings, regardless of their location and climatic conditions. Over the past few years, the use of passive cooling and heating technologies has become more common for reducing the energy consumption of buildings. However, for some building systems, these technologies are not used very often. Buildings intended for children or the elderly are often climatized to improve indoor thermal conditions. In this Special Issue, a cost reduction in climatization based on passive systems is expected to be conducted. Building site optimization is expected to be performed, to improve thermal behavior. To achieve this, computational fluid dynamics tools are expected to be used. These reductions are expected to be studied for conventional and renewable energy systems, showing that passive systems provide better thermal comfort and reduce the initial investment and energy consumption, making low-cost buildings feasible.
Research & information: general --- renewables --- energy saving and generation --- built environments --- transparent concentrators --- luminescent concentrators --- solar windows --- advanced glazings --- photovoltaics --- PV --- BIPV --- LVDC --- DC/DC module-level converters --- wind energy --- photovoltaic --- complementarity --- grid integration --- building integrated wind turbine --- savonius --- ERA5 --- anemometer --- calibration --- air conditioning --- borehole heat exchanger --- desiccant dehumidification --- enthalpy recovery --- heat pump --- system evaluation --- experimental --- renewables --- energy saving and generation --- built environments --- transparent concentrators --- luminescent concentrators --- solar windows --- advanced glazings --- photovoltaics --- PV --- BIPV --- LVDC --- DC/DC module-level converters --- wind energy --- photovoltaic --- complementarity --- grid integration --- building integrated wind turbine --- savonius --- ERA5 --- anemometer --- calibration --- air conditioning --- borehole heat exchanger --- desiccant dehumidification --- enthalpy recovery --- heat pump --- system evaluation --- experimental
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Renewable energy sources --- Renewable energy sources. --- renewable energy storage --- sustainable fuel production --- energy saving --- Alternate energy sources --- Alternative energy sources --- Energy sources, Renewable --- Sustainable energy sources --- Power resources --- Renewable natural resources --- Agriculture and energy --- Relation between energy and economics --- Environmental protection. Environmental technology
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