建筑能源医生:基于SPC和卡尔曼滤波的故障检测

B. Sun, P. Luh, Zheng O’Neill, Fangting Song
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引用次数: 13

摘要

世界各地的建筑占全球能源消耗的近40%。建筑中最大的能源消耗者是供暖、通风和空调(HVAC)系统。暖通空调在租户投诉数量方面也排名第一。因此,通过早期故障检测来保持暖通空调系统处于良好状态是一个关键问题。然而,由于暖通空调系统规模大,由许多耦合子系统组成,依赖于建筑和设备,并且在不确定的条件下运行,因此问题很困难。本文提出了一种基于模型和数据驱动的鲁棒系统级故障检测方法,具有大规模实现的潜力。它是(1)用于测量和分析变化的统计过程控制(SPC)的协同集成;(2)基于灰盒模型的卡尔曼滤波提供预测并确定SPC控制限;(3)系统分析,分析故障传播。该方法已经在一个420米高的建筑物的模拟模型上进行了测试。它既能检测突发故障,也能检测逐渐退化,并能区分子系统内的故障或从其他地方传播过来的故障。此外,该方法简单通用,具有良好的可复制性和可扩展性。
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Building energy doctors: SPC and Kalman filter-based fault detection
Buildings worldwide account for nearly 40% of global energy consumption. The biggest energy consumer in buildings is the Heating, Ventilation and Air Conditioning (HVAC) systems. HVAC also ranks top in terms of number of complaints by tenants. Maintaining HVAC systems in good conditions through early fault detection is thus a critical issue. The problem, however, is difficult since HVAC systems are large in scale, consisting of many coupling subsystems, building and equipment dependent, and operating under uncertain conditions. In this paper, a model-based and data-driven method is presented for robust system-level fault detection with potential for large-scale implementation. It is a synergistic integration of (1) Statistical Process Control (SPC) for measuring and analyzing variations; (2) Kalman filtering based on gray-box models to provide predictions and determine SPC control limits; and (3) system analysis for analyzing fault propagation. The method has been tested against a simulation model of a 420-meter-high building. It detects both sudden faults and gradual degradation, and differentiates faults within a subsystem or propagated from elsewhere. Furthermore, the method is simple and generic, and should have good replicability and scalability.
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