Dwelling performance and adaptive summer comfort in low-income Australian households

Moore, T; Ridley, I; Strengers, Y; Maller, C and Horne, R (2017) Dwelling performance and adaptive summer comfort in low-income Australian households. Building Research & Information, 45(4), pp. 443-456. ISSN 0961-3218

Abstract

Increasing reliance on air-conditioning to improve summertime comfort in dwellings results in higher energy bills, peak electricity demand and environmental issues. In pursuit of social equity, society needs to develop ways of improving cooling that are less reliant on air-conditioning. Designing homes to emphasize adaptive thermal comfort can reduce this reliance, particularly when combined with improved dwelling thermal performance. A multi-method evaluation of 10 low-income dwellings in the state of Victoria in Australia is presented, including low-energy and 'standard-performance' houses. The combination of performance monitoring and householder interviews reveals new insights for achieving summertime comfort. The low-energy houses without air-conditioning were both measured and perceived as more comfortable than the 'standard-performance' houses with air-conditioning. The low-energy households achieved improved personal thermal comfort through a combination of improved fabric performance augmented with adaptive comfort activities (e.g., opening/closing windows). This outcome reduces reliance on air-conditioning, reduces living costs and energy consumption, and improves environmental outcomes. There is a need to integrate lessons from adaptive thermal comfort theory and strategies into minimum building performance requirements and standards, as well as wider design strategies. It is evident that adaptive comfort has a role to play in a transition to a low-carbon housing future.;Increasing reliance on air-conditioning to improve summertime comfort in dwellings results in higher energy bills, peak electricity demand and environmental issues. In pursuit of social equity, society needs to develop ways of improving cooling that are less reliant on air-conditioning. Designing homes to emphasize adaptive thermal comfort can reduce this reliance, particularly when combined with improved dwelling thermal performance. A multi-method evaluation of 10 low-income dwellings in the state of Victoria in Australia is presented, including low-energy and 'standard-performance' houses. The combination of performance monitoring and householder interviews reveals new insights for achieving summertime comfort. The low-energy houses without air-conditioning were both measured and perceived as more comfortable than the 'standard-performance' houses with air-conditioning. The low-energy households achieved improved personal thermal comfort through a combination of improved fabric performance augmented with adaptive comfort activities (e.g., opening/closing windows). This outcome reduces reliance on air-conditioning, reduces living costs and energy consumption, and improves environmental outcomes. There is a need to integrate lessons from adaptive thermal comfort theory and strategies into minimum building performance requirements and standards, as well as wider design strategies. It is evident that adaptive comfort has a role to play in a transition to a low-carbon housing future.;Increasing reliance on air-conditioning to improve summertime comfort in dwellings results in higher energy bills, peak electricity demand and environmental issues. In pursuit of social equity, society needs to develop ways of improving cooling that are less reliant on air-conditioning. Designing homes to emphasize adaptive thermal comfort can reduce this reliance, particularly when combined with improved dwelling thermal performance. A multi-method evaluation of 10 low-income dwellings in the state of Victoriain Australia is presented, including low-energy and standard-performance' houses. The combination of performance monitoring and householder interviews reveals new insights for achieving summertime comfort. The low-energy houses without air-conditioning were both measured and perceived as more comfortable than the standard-performance' houses with air-conditioning. The low-energy households achieved improved personal thermal comfort through a combination of improved fabric performance augmented with adaptive comfort activities (e.g., opening/closing win ows). This outcome reduces reliance on air-conditioning, reduces living costs and energy consumption, and improves environmental outcomes. There is a need to integrate lessons from adaptive thermal comfort theory and strategies into minimum building performance requirements and standards, as well as wider design strategies. It is evident that adaptive comfort has a role to play in a transition to a low-carbon housing future.;

Item Type: Article
Uncontrolled Keywords: fuel poverty; overheating; adaptive comfort; cooling; occupant satisfaction; low-energy buildings; adaptation; air-conditioning; thermal comfort; housing performance; environment; sustainability; energy-consumption; houses; challenges; construction & building technology; monitored performance; health; air conditioning; low income groups; energy consumption; households; peak load; electricity consumption; energy measurement; electric power demand; income; energy costs; energy policy; housing; residential areas; low energy; energy; design standards; environmental monitoring; air conditioners; residential energy; dwellings
Index terms: adaptation, Australia, monitored performance, Victoria, low energy, low-energy building, energy measurement, adaptive comfort, electricity consumption, thermal comfort, occupant satisfaction, comfort, summer, residential area, income, energy consumption, low-income group, household, peak load, energy policy, residential energy, building performance, overheating, performance monitoring, strategy, society, building technology, energy cost, design standard, design strategy, environmental issue, low-energy house, interview, fuel poverty, housing performance, electric power demand, air conditioning, electricity demand, housing, consumption, environmental monitoring, thermal performance, window
Subjects: environmental issues, zoning, consumer economics, environmental impact, engineering systems, design methods, climate science, construction type, data collection methods, user-centered design, user focus, human factors, energy systems, regions and continents, economic analysis, technical documentation, public policy, Geography, performance measurement, management, energy efficiency, architectural elements, monitoring and control systems, communities and social development, thermal systems, environmental engineering, quality assurance, cost management, occupational health and safety management, demography
Topics: Quality Management, Design Practice, Urban Studies, Construction Technology, Sustainability, Governance, Stakeholder Management, Research Practice, Geographical Context, Engineering Principles, Business Strategy, Health and Safety
Descriptive scope: 3 PCE

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