Grant: Advancing Climate Change Science in Canada
Concordia University
$108,000.00
Assessment and mitigation of summertime overheating conditions in vulnerable buildings of urban agglomerations
FY 2020-21
Summary
Overheating of building interior spaces as may arise from climate change and extreme heat events has been
identified as a major concern to the comfort and health of building occupants particularly of the vulnerable
people such as the elderly, children, the physically challenged or the sick. To ensure the resiliency of Canadian
buildings against overheating, and protect Canadians' health from a changing climate, the proposed research
focuses on assessing summertime overheating risks during heat waves in buildings housing vulnerable
populations through field measurements under the current climate, and providing mitigation solutions using
validated computer models under predicted future climates. The research activities are organized as follows: 1).
Field monitoring: Indoor thermal conditions of 11 selected buildings and exterior climatic conditions will be
monitored to assess risks of summertime overheating. 2). Simulations: Development of urban-scale
microclimate model and building-scale overheating model. The urban-scale model will be to simulate the
surrounding microclimate effects on specific buildings to be applied to detailed whole building simulations to
predict indoor thermal conditions under extreme heat events. 3). Mitigations: Development of mitigation
strategies by considering urban-scale microclimate and climate change for different Canadian climatic zones.
4). Guidelines: Development of design guidelines to support the ongoing NRC projects under the "Climate
Resilience Buildings and Core Public Infrastructure" program to develop guidelines and changes to building
codes for climate resilience design of commercial and residential buildings. In close collaborations with NRC,
ECCC and HC, the project will produce significant outcomes including 1). Forecasting computer models and
design guidelines for assessing and mitigating summertime overheating; 2). Support for the development of
climate adaptive building codes and standards; 3). Information necessary to municipal and provincial heath
authorities to help mitigate the effects of overheating in buildings, and 4). Training the next generation HQPs
ready for solving climate change related building design issues.
Program
Advancing Climate Change Science in Canada
Recipient
Location
Quebec, Canada
Recipient Type
Academia
Type
Grant
Source
NSERC's Awards Data
As published
Application id
535986-2018
Name nom
Wang, Liangzhu
Department département
Building, Civil and Environmental Engineering
Organization id
70
Institution établissement
Concordia University
Province en
Québec
Province fr
Québec
Country en
CANADA
Country fr
CANADA
Fiscal year exercice financier
2020
Competition year année de concours
2018
Award amount
108000
Program id
ACCPJ
Program name en
Advancing Climate Change Science in Canada
Program name fr
Avancement de la recherche sur les changements climatiques au Canada
Group en
Research partnerships programs
Group fr
Programmes de partenariat
Committee code
1613
Committee name en
Advancing Climate Change Science
Committee name fr
Avancement de la recherche sur les changements climatiques
Area of application code
603
Area of application group en
Construction, urban and rural planning
Area of application group fr
Construction, urbanisme et aménagement rural
Area of application en
Construction methods
Area of application fr
Méthodes de construction
Research subject code
1000
Research subject group en
Civil engineering
Research subject group fr
Génie civil
Research subject en
Civil engineering
Research subject fr
Génie civil
Installment
inst:3 - 3
Partie
1
Nb partie
3
Application title
Assessment and mitigation of summertime overheating conditions in vulnerable buildings of urban agglomerations
Keyword
NSERC
Application summary
Overheating of building interior spaces as may arise from climate change and extreme heat events has been
identified as a major concern to the comfort and health of building occupants particularly of the vulnerable
people such as the elderly, children, the physically challenged or the sick. To ensure the resiliency of Canadian
buildings against overheating, and protect Canadians' health from a changing climate, the proposed research
focuses on assessing summertime overheating risks during heat waves in buildings housing vulnerable
populations through field measurements under the current climate, and providing mitigation solutions using
validated computer models under predicted future climates. The research activities are organized as follows: 1).
Field monitoring: Indoor thermal conditions of 11 selected buildings and exterior climatic conditions will be
monitored to assess risks of summertime overheating. 2). Simulations: Development of urban-scale
microclimate model and building-scale overheating model. The urban-scale model will be to simulate the
surrounding microclimate effects on specific buildings to be applied to detailed whole building simulations to
predict indoor thermal conditions under extreme heat events. 3). Mitigations: Development of mitigation
strategies by considering urban-scale microclimate and climate change for different Canadian climatic zones.
4). Guidelines: Development of design guidelines to support the ongoing NRC projects under the "Climate
Resilience Buildings and Core Public Infrastructure" program to develop guidelines and changes to building
codes for climate resilience design of commercial and residential buildings. In close collaborations with NRC,
ECCC and HC, the project will produce significant outcomes including 1). Forecasting computer models and
design guidelines for assessing and mitigating summertime overheating; 2). Support for the development of
climate adaptive building codes and standards; 3). Information necessary to municipal and provincial heath
authorities to help mitigate the effects of overheating in buildings, and 4). Training the next generation HQPs
ready for solving climate change related building design issues.