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Quasi-adaptive fuzzy heating control of solar buildings

机译:太阳能建筑物的准自适应模糊加热控制

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Significant progress has been made on maximising passive solar heat gains to building spaces in winter. Control of the space heating in these applications is complicated due to the lagging influence of the useful solar heat gain coupled with the wide range of construction materials and heating system choices. Additionally, and in common with most building control applications, there is a need to develop control solutions that permit simple and transparent set-up and commissioning procedures. This paper addresses the development and testing of a quasi-adaptive fuzzy logic control method that addresses these issues. The controller is developed in two steps. A feed-forward neural network is used to predict the internal air temperature, in which a singular value decomposition (SVD) algorithm is used to remove the highly correlated data from the inputs of the neural network to reduce the network structure. The fuzzy controller is then designed to have two inputs: the first input being the error between the set-point temperature and the internal air temperature and the second the predicted future internal air temperature. The controller was implemented in real-time using a test cell with controlled ventilation and a modulating electric heating system. Results, compared with validated simulations of conventionally controlled heating, confirm that the proposed controller achieves superior tracking and reduced overheating when compared with the conventional method of control.
机译:在最大限度地利用冬季建筑物的被动式太阳能热量获取方面取得了重大进展。在这些应用中,由于有用的太阳热能的滞后影响以及广泛的建筑材料和加热系统选择,对空间供暖的控制非常复杂。另外,与大多数建筑物控制应用程序一样,需要开发一种控制解决方案,以允许简单透明的设置和调试过程。本文讨论了解决这些问题的准自适应模糊逻辑控制方法的开发和测试。控制器分为两个步骤开发。前馈神经网络用于预测内部空气温度,其中奇异值分解(SVD)算法用于从神经网络的输入中删除高度相关的数据以减少网络结构。然后将模糊控制器设计为具有两个输入:第一个输入是设定点温度和内部空气温度之间的误差,第二个是预测的未来内部空气温度。该控制器是使用带有受控通风和调节电加热系统的测试单元实时实现的。与常规控制加热的经过验证的仿真结果相比,结果证实了与常规控制方法相比,该控制器可实现出色的跟踪并减少了过热现象。

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