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construction materials --- building sustainability --- building performance --- smart design --- building information modelling --- structural analysis
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The needs and behavior of building users often differ from the original expectations of building planners; especially in buildings with innovative building technologies. The aim of this study was to explore the design of user participation for certified office buildings, reveal influencing factors and recommend how success factors can be integrated into the German Assessment Scheme for Sustainable Buildings (BNB).
Gebäudenutzer --- Partizipation --- Nutzerzufriedenheit --- Nutzerbeteiligung --- Nachhaltigkeitsbewertung --- building sustainability rating tool --- user participation --- occupant --- user --- user satisfaction
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Le développement durable est appelé à devenir le principe directeur de l’action sociale et de l’activité économique. Dans le même temps, ses voies et moyens sont loin d’être clairs. En tant que pratique holistique, la durabilité doit combiner des stratégies techniques et matérielles, mais aussi sociales, économiques, écologiques et éthiques, qui ont des interactions multiples et complexes et, trop souvent, des objectifs et des priorités contradictoires. C’est dans l’architecture et la construction que l’on peut le mieux les observer, les aborder et les influencer. Chaque volume de “Building Better – Less – Different” détaille deux domaines fondamentaux de la durabilité et explore leurs dynamiques et interactions spécifiques. Après des aperçus introductifs, des méthodes innovantes et des développements actuels sont décrits et analysés dans des essais approfondis, des études de cas internationales et des commentaires pertinents. Les critères de durabilité que sont l’efficacité (“mieux”), la suffisance (“moins”) et la cohérence (“différent”) constituent le cadre de chaque ouvrage.
Hergebruik ; sloophout ; afvalmateriaal --- Architectuur ; design ; recupereerbare materialen --- Architectuur ; recyclage van materialen en bouwonderdelen --- Bouwconstructies ; bouwelementen ; recyclagematerialen --- Bouwmaterialen; afbraakmaterialen ; recyclagematerialen --- 72:574 --- Architectuur en ecologie ; architectuur en milieu --- Circular economy. --- Sustainable construction. --- BUILDING SUSTAINABILITY -- 72 --- 504 --- recyclage (bouwmateriaal) --- 574 --- Duurzaam bouwen --- Ecologie en bioverscheidenheid --- 691 --- Bouwmaterialen (architectuur) --- Architecture écologique --- Economie circulaire --- Développement durable --- Changement climatique --- Construction écologique --- 692 --- Constructie-elementen --- Circulair bouwen --- Circular economy --- Sustainable construction --- Architecture --- Building materials --- Économie circulaire --- Construction durable --- Construction --- Environmental aspects --- Recycling. --- Aspect de l'environnement --- Matériaux --- Recyclage --- Sustainable development. --- Climatic changes. --- Recycling (Waste, etc.) --- Économie circulaire. --- Construction durable. --- Changements climatiques. --- Recyclage (déchets, etc.) --- Civil engineering. Building industry --- circulaire economie --- duurzaamheid --- Économie circulaire. --- Recyclage (déchets, etc.) --- Relation between energy and economics --- Production management --- economics --- adaptive reuse --- recycling --- sustainable architecture --- sustainability
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This Special Issue addresses a topic of great contemporary relevance; in developed countries, most of peoples’ time is spent indoors and, depending on each person, the presence in the home ranges from 60% to 90% of the day, and 30% of that time is spent sleeping. Taking into account these data, indoor residential environments have a direct influence on human health. In addition to this, in developing countries, significant levels of indoor pollution make housing unsafe, with a detrimental impact on the health of inhabitants. Housing is therefore a key health factor for people all over the world, and various parameters such as air quality, ventilation, hygrothermal comfort, lighting, physical environment, and building efficiency, among others, can contribute to healthy architecture, and the conditions that can result from the poor application of these parameters.
Technology: general issues --- vernacular architecture --- sustainability --- energy efficiency --- history --- statistics --- society --- acoustics --- environmental quality --- learning space --- occupant comfort --- sustainable architecture --- sustainable building --- visual comfort --- thermal comfort --- ventilation comfort --- VOCs --- polymer-based items --- indoor air quality --- test emission chamber --- exposure scenario --- natural lighting --- artificial lighting --- indoor lighting design --- chronodisruption --- circadian rhythms --- daylighting --- sustainable lighting design --- LED luminaires --- indoor environment quality --- classroom lighting --- sustainable development --- desalination --- reverse osmosis --- renewable energies --- environmental impacts --- decision support systems --- types of contract --- in-vehicle air quality --- pollution model --- thermal environment --- solar radiation --- VOCs exposure --- CFD --- environmental health --- building energy simulation --- water flow glazing --- experimental validation --- schools --- heat perception --- user’s perception --- qualitative technique --- POE --- weather file management --- weather datasets --- weather stations --- sensitivity analysis of weather parameters --- thermal zone temperature --- building energy management --- unitized facade --- Water Flow Glazing --- mean radiant temperature --- final energy consumption --- Artificial Neural Network (ANN) --- Global Data Assimilation System (GDAS) --- Numerical Weather Prediction (NWP) --- photovoltaic power --- weather data --- facility management --- construction materials --- “smelly buildings” --- Belgrade --- Serbia --- Mexico --- energy simulation --- building energy model --- Open Studio --- SGSAVE --- NOM-020-ENER-2011 --- climate zoning --- traditional construction systems --- social housing --- verification method --- climate change --- global warming --- carbon footprint --- GHG emissions --- climate emergency --- hydrogen --- PEM fuel cells --- cogeneration --- building sustainability --- energy saving --- hygrothermal comfort --- indoor green --- vertical greenery --- cost-benefit-ratio --- sick leave --- absenteeism --- alternative quantification method
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This Special Issue addresses a topic of great contemporary relevance; in developed countries, most of peoples’ time is spent indoors and, depending on each person, the presence in the home ranges from 60% to 90% of the day, and 30% of that time is spent sleeping. Taking into account these data, indoor residential environments have a direct influence on human health. In addition to this, in developing countries, significant levels of indoor pollution make housing unsafe, with a detrimental impact on the health of inhabitants. Housing is therefore a key health factor for people all over the world, and various parameters such as air quality, ventilation, hygrothermal comfort, lighting, physical environment, and building efficiency, among others, can contribute to healthy architecture, and the conditions that can result from the poor application of these parameters.
vernacular architecture --- sustainability --- energy efficiency --- history --- statistics --- society --- acoustics --- environmental quality --- learning space --- occupant comfort --- sustainable architecture --- sustainable building --- visual comfort --- thermal comfort --- ventilation comfort --- VOCs --- polymer-based items --- indoor air quality --- test emission chamber --- exposure scenario --- natural lighting --- artificial lighting --- indoor lighting design --- chronodisruption --- circadian rhythms --- daylighting --- sustainable lighting design --- LED luminaires --- indoor environment quality --- classroom lighting --- sustainable development --- desalination --- reverse osmosis --- renewable energies --- environmental impacts --- decision support systems --- types of contract --- in-vehicle air quality --- pollution model --- thermal environment --- solar radiation --- VOCs exposure --- CFD --- environmental health --- building energy simulation --- water flow glazing --- experimental validation --- schools --- heat perception --- user’s perception --- qualitative technique --- POE --- weather file management --- weather datasets --- weather stations --- sensitivity analysis of weather parameters --- thermal zone temperature --- building energy management --- unitized facade --- Water Flow Glazing --- mean radiant temperature --- final energy consumption --- Artificial Neural Network (ANN) --- Global Data Assimilation System (GDAS) --- Numerical Weather Prediction (NWP) --- photovoltaic power --- weather data --- facility management --- construction materials --- “smelly buildings” --- Belgrade --- Serbia --- Mexico --- energy simulation --- building energy model --- Open Studio --- SGSAVE --- NOM-020-ENER-2011 --- climate zoning --- traditional construction systems --- social housing --- verification method --- climate change --- global warming --- carbon footprint --- GHG emissions --- climate emergency --- hydrogen --- PEM fuel cells --- cogeneration --- building sustainability --- energy saving --- hygrothermal comfort --- indoor green --- vertical greenery --- cost-benefit-ratio --- sick leave --- absenteeism --- alternative quantification method
Choose an application
This Special Issue addresses a topic of great contemporary relevance; in developed countries, most of peoples’ time is spent indoors and, depending on each person, the presence in the home ranges from 60% to 90% of the day, and 30% of that time is spent sleeping. Taking into account these data, indoor residential environments have a direct influence on human health. In addition to this, in developing countries, significant levels of indoor pollution make housing unsafe, with a detrimental impact on the health of inhabitants. Housing is therefore a key health factor for people all over the world, and various parameters such as air quality, ventilation, hygrothermal comfort, lighting, physical environment, and building efficiency, among others, can contribute to healthy architecture, and the conditions that can result from the poor application of these parameters.
Technology: general issues --- vernacular architecture --- sustainability --- energy efficiency --- history --- statistics --- society --- acoustics --- environmental quality --- learning space --- occupant comfort --- sustainable architecture --- sustainable building --- visual comfort --- thermal comfort --- ventilation comfort --- VOCs --- polymer-based items --- indoor air quality --- test emission chamber --- exposure scenario --- natural lighting --- artificial lighting --- indoor lighting design --- chronodisruption --- circadian rhythms --- daylighting --- sustainable lighting design --- LED luminaires --- indoor environment quality --- classroom lighting --- sustainable development --- desalination --- reverse osmosis --- renewable energies --- environmental impacts --- decision support systems --- types of contract --- in-vehicle air quality --- pollution model --- thermal environment --- solar radiation --- VOCs exposure --- CFD --- environmental health --- building energy simulation --- water flow glazing --- experimental validation --- schools --- heat perception --- user’s perception --- qualitative technique --- POE --- weather file management --- weather datasets --- weather stations --- sensitivity analysis of weather parameters --- thermal zone temperature --- building energy management --- unitized facade --- Water Flow Glazing --- mean radiant temperature --- final energy consumption --- Artificial Neural Network (ANN) --- Global Data Assimilation System (GDAS) --- Numerical Weather Prediction (NWP) --- photovoltaic power --- weather data --- facility management --- construction materials --- “smelly buildings” --- Belgrade --- Serbia --- Mexico --- energy simulation --- building energy model --- Open Studio --- SGSAVE --- NOM-020-ENER-2011 --- climate zoning --- traditional construction systems --- social housing --- verification method --- climate change --- global warming --- carbon footprint --- GHG emissions --- climate emergency --- hydrogen --- PEM fuel cells --- cogeneration --- building sustainability --- energy saving --- hygrothermal comfort --- indoor green --- vertical greenery --- cost-benefit-ratio --- sick leave --- absenteeism --- alternative quantification method
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