恢复丢失的长期(长达60天)干球温度数据,用于建筑性能监测和分析-第二部分

Junjun Hu, Oluwaseyi T. Ogunsola, Li Song, R. McPherson, Meijun Zhu, Y. Hong, Sheng Chen
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引用次数: 1

摘要

缺乏填写气候数据的标准程序可能会破坏旨在气候响应型建筑设计、性能监测和能源效率的设计、监测和控制工作。本文通过对三种空间方法(即逆距离加权(IDW)法、空间回归检验(SRT)法和最佳匹配数据替代(SSBM)法,以及两种时间方法(即时间回归检验(TRT)法和最佳匹配数据时间替代(TSBM)法)的研究,解决了干球温度数据长期缺失缺口的挑战。利用这些方法,恢复了长期缺失的干球温度数据,从1天到60天不等,用于建筑性能监测和分析。使用三个一年每小时的数据集来评估这些方法的性能。每种方法都应用于处理随机产生的代表一年中不同季节的人工间隙。对于估计值与实测值的差异,采用平均绝对误差(MAE)、均方根误差(RMSE)和偏差标准误差(BIASSTD)三个评价指标。对比结果表明,空间方法优于时间方法。通过将SRT方法应用于现有数据和缺失数据,进一步研究了SRT方法的置信水平,并检验了其性能。结果表明,SRT方法的不确定度是可以预测的,推荐使用SRT方法时至少有两个相邻台站。这是通过ASHRAE 1413研究项目(已出版)获得的第二部分研究成果,重点介绍了干球温度长期缺口的补隙方法。
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Restoration of missing dry-bulb temperature data with long-term gaps (up to 60 days) for use in building performance monitoring and analysis—Part II
The lack of standard procedures for filling climatic data has the potential to undermine design, monitoring, and control efforts aimed at climate-responsive building design, performance monitoring, and energy efficiency. This article addresses the challenge of long-term missing gaps in dry-bulb temperature data by examining three spatial methods, namely the inverse distance weighting (IDW) method, the spatial regression test (SRT) method, and the substitution with best match data (SSBM) method, as well as two temporal methods, namely the temporal regression test (TRT) method and the temporal substitution with best match data (TSBM) method. Using these methods, missing dry-bulb temperature data with long-term gaps, ranging from 1 to 60 days, are restored for use in building performance monitoring and analysis. Three one-year, hourly datasets were used to evaluate the performance of these approaches. Each method was applied to deal with artificial gaps which were generated randomly and represented different seasons of a year. In terms of the difference between estimated values and measured values, three evaluation indices, namely mean absolute error (MAE), root mean square error (RMSE), and standard error of bias (BIASSTD), were utilized. The comparison results show that spatial methods are better than temporal methods. The confidence level of the SRT method was further investigated by applying this method to existing data and missing data, and examining its performance. The results indicate that the uncertainty of the SRT method can be predicted and at least two neighboring stations are recommended when using it. This is the second part of the research results obtained through the ASHRAE 1413 research project (in press) with a focus on introducing gap-filling methods for long-term gaps in dry-bulb temperature.
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HVAC&R Research
HVAC&R Research 工程技术-工程:机械
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