Biophilic photobiological adaptive envelopes for sub-Arctic buildings: Exploring impacts of window sizes and shading panels’ color, reflectance, and configuration

•Biophilic photobiological adaptive envelopes are developed for sub-Arctic climates.•The envelope model fosters positive occupants’ relationships with sub-Arctic nature.•The envelope model enables efficient biophilic window sizes for sub-Arctic climates.•Colored panels respond to photobiological lig...

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Veröffentlicht in:Solar energy 2021-05, Vol.220, p.802-827
Hauptverfasser: Parsaee, Mojtaba, Demers, Claude M.H., Potvin, André, Lalonde, Jean-François, Inanici, Mehlika, Hébert, Marc
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container_issue
container_start_page 802
container_title Solar energy
container_volume 220
creator Parsaee, Mojtaba
Demers, Claude M.H.
Potvin, André
Lalonde, Jean-François
Inanici, Mehlika
Hébert, Marc
description •Biophilic photobiological adaptive envelopes are developed for sub-Arctic climates.•The envelope model fosters positive occupants’ relationships with sub-Arctic nature.•The envelope model enables efficient biophilic window sizes for sub-Arctic climates.•Colored panels respond to photobiological lighting needs in sub-Arctic occupants. Northern building envelopes must provide efficient indoor-outdoor connections based on photobiological-psychological needs of occupants for positive relationships with the sub-Arctic nature, particularly daylighting and day/night cycles. Envelope configurations of Northern Canada’s buildings have not yet considered such requirements. Potentials of adaptive systems are also still limited. This research develops a fundamental model of adaptive multi-skin envelopes for sub-Arctic buildings based on main biophilic and photobiological indicators which characterize efficient indoor-outdoor connections. Biophilic indicators characterize the state of connections among occupants and outdoors which could stimulate biological-psychological responses. Photobiological indicators determine human-centric lighting adaptation scenarios for hourly lighting qualities and sufficient darkness in relation to local day/night cycles and daylighting. Biophilic performance of the proposed envelope was evaluated through 18 numerical models in terms of impacts of window and shading sizes on occupants’ field of views. Photobiological lighting performance was evaluated by experimental methods using 23 physical models at 1:10 scale. Surface characteristics of dynamic shading panels, including color, reflectance, orientation, and inclination, were studied for potential photobiological impacts in terms of melanopic/photopic ratios and color temperatures. Results show that the proposed envelope could (i) offer acceptable direct visual connections with the outdoor nature through efficient window sizes for biophilia, and (ii) modify daylighting qualities to address hourly/seasonal photobiological needs of sub-Arctic occupants. Challenges of the proposed envelope to implement under sub-Arctic climatic conditions are underlined especially in terms of energy issues. The research outcomes help architects and decision-makers to improve occupants’ wellbeing and healthy buildings in sub-Arctic climates.
doi_str_mv 10.1016/j.solener.2021.03.065
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Northern building envelopes must provide efficient indoor-outdoor connections based on photobiological-psychological needs of occupants for positive relationships with the sub-Arctic nature, particularly daylighting and day/night cycles. Envelope configurations of Northern Canada’s buildings have not yet considered such requirements. Potentials of adaptive systems are also still limited. This research develops a fundamental model of adaptive multi-skin envelopes for sub-Arctic buildings based on main biophilic and photobiological indicators which characterize efficient indoor-outdoor connections. Biophilic indicators characterize the state of connections among occupants and outdoors which could stimulate biological-psychological responses. Photobiological indicators determine human-centric lighting adaptation scenarios for hourly lighting qualities and sufficient darkness in relation to local day/night cycles and daylighting. 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source Elsevier ScienceDirect Journals
subjects Adaptive envelope
Adaptive systems
Arctic climate
Biophilia
Biophilic design
Building envelopes
Buildings
Climatic conditions
Color
Color temperature
Configurations
Darkness
Daylighting
Decision making
Envelopes
Experimental methods
Healthy building
Indicators
Lighting
Mathematical models
Night
Numerical models
Orientation behavior
Panels
Performance evaluation
Photobiological lighting
Reflectance
Shading
Solar energy
Surface properties
title Biophilic photobiological adaptive envelopes for sub-Arctic buildings: Exploring impacts of window sizes and shading panels’ color, reflectance, and configuration
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