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OCHRE: The Object-oriented, Controllable, High-resolution Residential Energy Model for Dynamic Integration Studies

机译:赭石:用于动态整合研究的面向对象,可控,高分辨率的住宅能源模型

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Electrification and the growth of distributed energy resources (DERs), including flexible loads, are changing the energy landscape of electric distribution systems and creating new challenges and opportunities for electric utilities. Changes in demand profiles require improvements in distribution system load models, which have not historically accounted for device controllability or impacts on customer comfort. Although building modeling research has focused on these features, there is a need to incorporate them into distribution load models that include DERs and can be used to study grid-interactive buildings. In this paper, we present the Object-oriented, Controllable, High-resolution Residential Energy (OCHRE) model. OCHRE is a controllable thermal-electric residential energy model that captures building thermal dynamics, integrates grid-dependent electrical behavior, contains models for common DERs and end-use loads, and simulates at a time resolution down to 1 minute. It includes models for space heaters, air conditioners, water heaters, electric vehicles, photovoltaics, and batteries that are externally controllable and integrated in a co-simulation framework. Using a proposed zero energy ready community in Colorado, we co-simulate a distribution grid and 498 all-electric homes with a diverse set of efficiency levels and equipment properties. We show that controllable devices can reduce peak demand within a neighborhood by up to 73% during a critical peak period without sacrificing occupant comfort. We also demonstrate the importance of modeling load diversity at a high time resolution when quantifying power and voltage fluctuations across a distribution system.
机译:电气化和分布式能源(DERS)的生长,包括柔性负载,正在改变配电系统的能量景观,并为电力公司创造新的挑战和机遇。需求概况的变化需要改进分配系统负载模型,这些装载模型尚未历史上占设备可控性或对客户舒适的影响。虽然构建建模研究专注于这些功能,但需要将它们纳入其中包括DER的分配负载模型,并且可用于研究网格交互式建筑物。在本文中,我们介绍了面向对象,可控,高分辨率的住宅能量(赭石)模型。 Ocher是一种可控的热电住宅能源模型,捕获构建热动态,集成了网格依赖的电气行为,包含用于公共DER和最终使用负载的模型,并以下降到1分钟的时间分辨率模拟。它包括空间加热器,空调,热水器,电动车辆,光伏和电池的模型,可在外部控制和集成在共模框架中。在科罗拉多州使用建议的零能量现成社区,我们共同模拟了一种具有多样化效率水平和设备性能的分配网格和498个全电室。我们表明,可控设备可以在危急高峰期内将邻域内的峰值需求降低至73%,而不会牺牲乘员舒适性。我们还展示了在分配系统上量化电源和电压波动时在高时分辨率下建模负载分集的重要性。

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