4.0 Article

Urban microclimate and energy consumption: A multi-objective parametric urban design approach for dense subtropical cities

期刊

FRONTIERS OF ARCHITECTURAL RESEARCH
卷 11, 期 3, 页码 453-465

出版社

KEAI PUBLISHING LTD
DOI: 10.1016/j.foar.2022.02.001

关键词

Urban microclimate; Energy consumption; Parametric design; Urban layout optimization; Architecture; Urban planning

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Climate change in urban areas is a global crisis that cities are dealing with. It has negative consequences such as discomfort and increased energy usage in buildings. Western Sydney, Australia is particularly affected, with a significant rise in average maximum temperature in the past 30 years. This paper proposes a parametric approach to optimize design solutions based on the urban microclimate and cooling energy demand. The results show improvements in urban thermal comfort and energy use.
Climate change within the urban contexts is a crisis that cities are confronting globally. This issue poses numerous negative consequences such as thermal discomfort and increased energy usage within the building sector. This is especially the case in Western Sydney, Australia, where the average maximum temperature has risen by 7-8 degrees C within the past 30 years. This increase in temperature is highly concerning, since this region is witnessing rapid urban and infrastructural development and is proposed as the third-largest economy of Australia. Temperature changes in this region will also result in considerably increasing the electricity used for cooling purposes. This paper presents a parametric approach driven multi-objective optimization methodology to discover optimum design solution based on the urban microclimate and cooling energy demand of multi-functional buildings within this urban context. Mitigation measures including a range of design factors at both building (typology and window to wall ratio) and urban scales (aspect ratio and urban grid rotation) are further suggested for developing context sensitive optimum urban layouts. The resultant solutions indicate an improvement in urban thermal comfort, cooling and heating energy use by up to 25.85%, 72.76%, and 93.67%, respectively. (C) 2022 Higher Education Press Limited Company. Publishing services by Elsevier B.V. on behalf of KeAi Communications Co. Ltd.

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