The increase in urbanization and anthropogenic activities has led to the extensive construction of more heat retentive surfaces, and a generation of waste heat in metropolitan and urban areas. This has resulted in the intensification of Urban Heat Island (UHI) effects - where the ambient temperatures rise and remain higher than surrounding areas. Combined with global warming and climate change, UHI will exacerbate the rise in local temperatures and increase the frequency and intensity of extreme heatwave events in urban areas. Singapore, as a densely populated city state in the tropics, is highly susceptible to the adverse effects from climate change and the UHI effect. Their associated issues will lead to chronic heat stress, vector-borne diseases and short and long term physiological, social and economic impacts.
At NUS, we adopt a complex systems approach to formulate integrated solutions that respond to increasing stressors of climate change, including heat and air pollution, across multiple interlinked systems and physical scales. We integrate our research strengths in
We also conduct technological proof-of-concept testbeds in our campus living lab environment, best practices and guidelines design, physiological interventions and social analysis, cross-sectoral consultations, and workshops with government agencies, industry partners and other social and economic actors to translate our research into scalable, implementable and cost-effective solutions to promulgate to cities globally.
Being a densely populated city in the tropics, Singapore, its residents and its workers, are particularly vulnerable to the impacts of increasing temperatures. These are confounded by the Urban Heat Island effect. NUS explores solutions to mitigate the impacts of increasing temperatures.
Jason Lee Kai WeiEmail Website
Wong Nyuk HienEmail Website
Professor, Vice Dean Research, School of Design and Environment
Learn more about the research we conduct in the area of Sustainability and Urban Solutions
New materials may provide the answer to harvesting and converting carbon dioxide from flue gas
A Novel Vibrating QQ-Anerobic Membrane Bioreactor.
Developing policy-relevant science to inform nature-based climate solutions.
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