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Heat mitigation technologies can improve sustainability in cities. An holistic experimental and numerical impact assessment of urban overheating and related heat mitigation strategies on energy consumption, indoor comfort, vulnerability and heat-related mortality and morbidity in cities

机译:热缓解技术可以提高城市的可持续性。城市过热的整体实验和数值影响评估,城市过热,室内舒适,脆弱性和热相关死亡率和城市发病率的策略

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摘要

Urban overheating affects the energy, health, power, survivability and environmental quality of cities. We calculated the magnitude of overheating in Sydney, Australia, at close to 9 degrees C, which causes a cooling penalty of up to 16% and an increase in the indoor overheating levels of up to 56%. We developed and evaluated eight heat mitigation scenarios based on the use of reflective surfaces, additional greenery, an increase in the evapotranspiration rate and several combinations of these factors. We estimated that mitigation can decrease the peak ambient temperature by up to 2.9 degrees C, reduce the maximum annual cooling consumption by up to 1.5 TWh, decrease the CO2 emissions by as much as 1.21 MT CO2, reduce indoor overheating by up to 80%, decrease the heat-related morbidity by 1.07-1.49, and decrease the heat-related mortality anomaly by as much as 1.39 per 100,000 citizens. We estimated the associated water penalty range to be between 80 and 100 Gl/year or between 13 and 16.7% of the water consumption in Sydney. (C) 2020 Elsevier B.V. All rights reserved.
机译:城市过热影响了城市的能源,健康,力量,生存能力和环境质量。我们计算了澳大利亚悉尼,接近9摄氏度的含量过热,导致冷却罚款高达16%,室内过热水平高达56%。我们基于使用反射表面,额外的绿叶,蒸散率的增加以及这些因素的几种组合来开发和评估了八种热缓解场景。我们估计减缓可以将峰值环境温度降低至2.9摄氏度,将最高年度冷却消耗降低至1.5 TWH,将二氧化碳排放量降低多达1.21吨二氧化碳,减少高达80%的室内过热,通过1.07-1.49降低热相关的发病率,并通过每10万名公民的1.39减少热相关的死亡率异常。我们估计相关的水资源罚款范围为80%至100 GL /年或悉尼耗水量的13至16.7%。 (c)2020 Elsevier B.v.保留所有权利。

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  • 来源
    《Energy and Buildings》 |2020年第6期|110002.1-110002.15|共15页
  • 作者单位

    Univ New South Wales Fac Built Environm High Performance Architecture Sydney NSW Australia;

    Univ New South Wales Fac Built Environm High Performance Architecture Sydney NSW Australia;

    Univ New South Wales Fac Built Environm High Performance Architecture Sydney NSW Australia;

    Univ New South Wales Fac Built Environm High Performance Architecture Sydney NSW Australia;

    Univ New South Wales Fac Built Environm High Performance Architecture Sydney NSW Australia;

    Univ New South Wales Fac Built Environm High Performance Architecture Sydney NSW Australia;

    Univ New South Wales Fac Built Environm High Performance Architecture Sydney NSW Australia;

    Univ New South Wales Fac Built Environm High Performance Architecture Sydney NSW Australia;

    Univ New South Wales Fac Built Environm High Performance Architecture Sydney NSW Australia;

    Univ New South Wales Fac Built Environm High Performance Architecture Sydney NSW Australia;

    Univ New South Wales Fac Built Environm High Performance Architecture Sydney NSW Australia;

    Univ Athens Phys Dept Athens Greece;

    Univ Athens Phys Dept Athens Greece;

    Univ Athens Phys Dept Athens Greece;

    Univ Athens Phys Dept Athens Greece;

    Univ Athens Phys Dept Athens Greece;

  • 收录信息 美国《科学引文索引》(SCI);美国《工程索引》(EI);
  • 原文格式 PDF
  • 正文语种 eng
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