TOM.D:利用小气候数据进行城市建筑能源建模

IF 13 Q1 ENERGY & FUELS
Thomas R. Dougherty, Rishee K. Jain
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引用次数: 1

摘要

城市建筑能源模型(UBEM)为城市尺度的脱碳决策提供了一个框架。然而,现有的UBEM系统通常忽略了小气候对建筑能耗的影响,这可能导致主要的误差来源。在这项工作中,我们试图通过提出大规模收集遥感和气候建模数据来改善现有系统的能力,从而解决这些误差来源。我们探讨了遥感最有价值的情况,特别是在无法获得高质量气象站数据的情况下。我们表明,缺乏获取气象站数据的途径不太可能导致能源模型中的现有错误,因为大多数建筑物可能离得足够近,可以收集高质量的数据。我们还强调了Landsat8的热仪器的重要性,通过特征重要性可视化来捕捉建筑物的相关温度。然后,我们的分析描述了用于能源预测的小气候数据的季节性效益。Landsat8被发现提供了一个潜在的好处,即在纽约市的春季和夏季减少8%的电力预测误差。相比之下,NOAA RTMA可以将冬季和春季的天然气预测误差降低2.5%。最后,我们探讨了遥感的潜力,以提高能源预测的质量,在一个邻里水平。我们展示了单个建筑的效益转化为区域层面,因为我们可以实现对建筑群的改进预测。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
TOM.D: Taking advantage of microclimate data for urban building energy modeling

Urban Building Energy Modeling (UBEM) provides a framework for decarbonization decision-making on an urban scale. However, existing UBEM systems routinely neglect microclimate effects on building energy consumption, potentially leading to major sources of error. In this work, we attempt to address these sources of error by proposing the large scale collection of remote sensing and climate modeling data to improve the capabilities of existing systems. We explore situations when remote sensing might be most valuable, particularly when high quality weather station data might not be available. We show that lack of access to weather station data is unlikely to be driving existing errors in energy models, as most buildings are likely to be close enough to collect high quality data. We also highlight the significance of Landsat8’s thermal instrumentation to capture pertinent temperatures for the buildings through feature importance visualizations. Our analysis then characterizes the seasonal benefits of microclimate data for energy prediction. Landsat8 is found to provide a potential benefit of an 8% reduction in electricity prediction error in the spring and summertime of New York City. In contrast, NOAA RTMA may provide a benefit of a 2.5% reduction in natural gas prediction error in the winter and spring. Finally, we explore the potential of remote sensing to enhance the quality of energy predictions at a neighborhood level. We show that benefits for individual buildings translates to the regional level, as we can achieve improved predictions for groups of buildings.

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来源期刊
Advances in Applied Energy
Advances in Applied Energy Energy-General Energy
CiteScore
23.90
自引率
0.00%
发文量
36
审稿时长
21 days
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