A view on future building system modeling and simulation

M. Wetter
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引用次数: 55

Abstract

This chapter presents what a future environment for building system modeling and simulation may look like. As buildings continue to require increased performance and better comfort, their energy and control systems are becoming more integrated and complex. We therefore focus in this chapter on the modeling, simulation and analysis of building energy and control systems. Such systems can be classified as heterogeneous systems because they involve multiple domains, such as thermodynamics, fluid dynamics, heat and mass transfer, electrical systems, control systems and communication systems. Also, they typically involve multiple temporal and spatial scales, and their evolution can be described by coupled differential equations, discrete equations and events. Modeling and simulating such systems requires a higher level of abstraction and modularisation to manage the increased complexity compared to what is used in today's building simulation programs. Therefore, the trend towards more integrated building systems is likely to be a driving force for changing the status quo of today's building simulation programs. Thischapter discusses evolving modeling requirements and outlines a path toward a future environment for modeling and simulation of heterogeneous building systems.A range of topics that would require many additional pages of discussion has been omitted. Examples include computational fluid dynamicsmore » for air and particle flow in and around buildings, people movement, daylight simulation, uncertainty propagation and optimisation methods for building design and controls. For different discussions and perspectives on the future of building modeling and simulation, we refer to Sahlin (2000), Augenbroe (2001) and Malkawi and Augenbroe (2004).« less
对未来建筑系统建模与仿真的展望
本章展示了未来构建系统建模和仿真的环境。随着建筑物对性能和舒适度的要求不断提高,其能源和控制系统变得更加集成和复杂。因此,我们在本章中着重于建筑能源和控制系统的建模、仿真和分析。这些系统可以被归类为异构系统,因为它们涉及多个领域,如热力学、流体动力学、传热传质、电气系统、控制系统和通信系统。此外,它们通常涉及多个时空尺度,其演变可以通过耦合微分方程、离散方程和事件来描述。与今天的建筑模拟程序相比,建模和模拟这样的系统需要更高层次的抽象和模块化来管理日益增加的复杂性。因此,朝着更加集成的建筑系统发展的趋势很可能成为改变当今建筑模拟程序现状的驱动力。本章讨论了不断发展的建模需求,并概述了通往异构建筑系统建模和仿真的未来环境的路径。删去了需要增加许多页讨论的一系列主题。例子包括用于建筑物内外空气和颗粒流动的计算流体动力学,人员运动,日光模拟,不确定性传播以及用于建筑物设计和控制的优化方法。对于未来建筑建模和仿真的不同讨论和观点,我们参考了Sahlin (2000), Augenbroe(2001)和Malkawi和Augenbroe(2004)。«少
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