arXiv:2505.06289cs.LGeess.SP2025-05

针对地中海地区用电特征,打造轻量边缘部署的智能电表分项监测系统。

Edge-Optimized Deep Learning & Pattern Recognition Techniques for Non-Intrusive Load Monitoring of Energy Time Series

  • 构建跨平台数据采集框架,推出聚焦地中海地区的Plegma数据集。
  • 采用深度神经网络与模型压缩技术,在边缘设备实现高效能耗分解。
  • 适合关注能源可持续性、边缘AI落地的研究者与工程师。

全球能源需求增长与可持续性挑战亟需提升能效。尽管已有先进节能系统,但用户参与度不足限制了效果。提供用电行为反馈是推动可持续实践的关键。非侵入式负荷监测(NILM)通过解析智能电表记录的总用电量,还原各电器级数据,帮助用户优化用电。人工智能、物联网及智能电表普及进一步提升了NILM潜力。然而,实际部署面临两大挑战:现有数据集多集中于美英地区,地中海等区域代表性不足,难以捕捉空调、电热水器等高耗能设备的使用模式;此外,传统深度学习模型计算开销大,依赖云端服务,导致成本上升、隐私风险增加,且在低网速环境下难推广。本文提出可互操作的数据采集框架,发布专攻地中海用电模式的Plegma数据集,并探索先进的深度神经网络与模型压缩技术,以实现边缘端高效部署。该研究推动了理论创新与实际需求的结合,助力NILM在全球范围内的可扩展、高效率与适应性发展。

原文摘要 · Abstract (English)

The growing global energy demand and the urgent need for sustainability call for innovative ways to boost energy efficiency. While advanced energy-saving systems exist, they often fall short without user engagement. Providing feedback on energy consumption behavior is key to promoting sustainable practices. Non-Intrusive Load Monitoring (NILM) offers a promising solution by disaggregating total household energy usage, recorded by a central smart meter, into appliance-level data. This empowers users to optimize consumption. Advances in AI, IoT, and smart meter adoption have further enhanced NILM's potential. Despite this promise, real-world NILM deployment faces major challenges. First, existing datasets mainly represent regions like the USA and UK, leaving places like the Mediterranean underrepresented. This limits understanding of regional consumption patterns, such as heavy use of air conditioners and electric water heaters. Second, deep learning models used in NILM require high computational power, often relying on cloud services. This increases costs, raises privacy concerns, and limits scalability, especially for households with poor connectivity. This thesis tackles these issues with key contributions. It presents an interoperable data collection framework and introduces the Plegma Dataset, focused on underrepresented Mediterranean energy patterns. It also explores advanced deep neural networks and model compression techniques for efficient edge deployment. By bridging theoretical advances with practical needs, this work aims to make NILM scalable, efficient, and adaptable for global energy sustainability.

NILM边缘计算能源监测数据集

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