In recent years, the adverse impacts of climate change have become increasingly evident, with hot dry climate regions being particularly vulnerable. The energy consumption of buildings in such areas plays a significant role in contributing to environmental degradation and exacerbating climate change. To address these challenges, this research highlights the potential benefits of incorporating morphing climate data into energy simulation processes to enhance building performance and aid in climate change mitigation efforts. By integrating morphing climate data, which involves the dynamic adjustment of climate variables based on anticipated changes in weather patterns, building energy simulation models can better capture the evolving climate conditions. This approach enables a more accurate assessment of the building's energy needs, allowing for the identification of potential efficiency improvements and effective adaptation strategies. The research aims to investigate whether integrating morphing climate data into energy simulation processes will provide an opportunity to enhance building performance and mitigate the effects of climate change in hot dry climatic regions by accurately representing evolving climatic conditions and enabling the evaluation of energy-saving technologies, The study is carried out by an advanced computer package, IESve® software which can address different types of climatic data for the same place.

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Optimizing Building Performance and Climate Resilience in Arid Climates Through Dynamic Climate Data Modelling: A Morphing Approach for Climate Change Mitigation in Hot Dry Areas

  • Mohamed M. Abdelaziz Farid,
  • Abdelhamed Ezzat Abdelhamed

摘要

In recent years, the adverse impacts of climate change have become increasingly evident, with hot dry climate regions being particularly vulnerable. The energy consumption of buildings in such areas plays a significant role in contributing to environmental degradation and exacerbating climate change. To address these challenges, this research highlights the potential benefits of incorporating morphing climate data into energy simulation processes to enhance building performance and aid in climate change mitigation efforts. By integrating morphing climate data, which involves the dynamic adjustment of climate variables based on anticipated changes in weather patterns, building energy simulation models can better capture the evolving climate conditions. This approach enables a more accurate assessment of the building's energy needs, allowing for the identification of potential efficiency improvements and effective adaptation strategies. The research aims to investigate whether integrating morphing climate data into energy simulation processes will provide an opportunity to enhance building performance and mitigate the effects of climate change in hot dry climatic regions by accurately representing evolving climatic conditions and enabling the evaluation of energy-saving technologies, The study is carried out by an advanced computer package, IESve® software which can address different types of climatic data for the same place.