Generating synthetic building electrical load profiles using machine learning based on the CRISP-ML(Q) framework

J. B. Magdaong, A. Culaba, A. Ubando, N. S. Lopez
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Abstract

This study presents a machine learning application for generating synthetic building electrical load profiles. The implementation followed the Cross Industry Standard Process for the development of Machine Learning Applications with Quality assurance methodology, or CRISP-ML(Q) framework, to ensure a systematic machine learning development process. The model training performance was evaluated using the mean absolute error (MAE), root mean squared error (RSME), and coefficient of determination (R2) which were observed to be 0.0739, 0.1119, and 0.5728, respectively. These metrics remained consistent during the model testing phase, suggesting robust model performance. During the initial simulation experiment, the MAE and RMSE of the generated synthetic load profile were found to be 0.014 and 0.016, respectively, underscoring high model accuracy. Additional evaluation experiments showed that the developed machine learning application can generate realistic building load profiles using high-level parameters such as building type, average daily load, and peak demand. This study can aid in the development of demand-side management strategies and building energy management systems by providing realistic building electrical load profiles especially when real-world data is limited. For future work, researchers can consider integrating additional model features, refining data processing methods, and developing an agile version of the CRISP-ML(Q) framework.
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利用基于 CRISP-ML(Q)框架的机器学习生成合成建筑物电力负荷曲线
本研究介绍了一种用于生成合成建筑物电力负荷曲线的机器学习应用。该应用的实施遵循了具有质量保证方法的机器学习应用开发跨行业标准流程(或 CRISP-ML(Q)框架),以确保机器学习开发流程的系统性。使用平均绝对误差(MAE)、均方根误差(RSME)和判定系数(R2)对模型训练性能进行了评估,结果分别为 0.0739、0.1119 和 0.5728。这些指标在模型测试阶段保持一致,表明模型性能稳定。在初始模拟实验中,生成的合成负载曲线的 MAE 和 RMSE 分别为 0.014 和 0.016,表明模型的准确性很高。其他评估实验表明,所开发的机器学习应用软件可以利用建筑物类型、日均负荷和峰值需求等高级参数生成真实的建筑物负荷曲线。这项研究通过提供真实的建筑电力负荷曲线,尤其是在真实世界数据有限的情况下,有助于需求侧管理策略和建筑能源管理系统的开发。在未来的工作中,研究人员可以考虑集成更多的模型功能,改进数据处理方法,并开发一个敏捷版的 CRISP-ML(Q) 框架。
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