Forecasting an electricity demand threshold to proactively trigger cost saving demand response actions

被引:6
作者
Aponte, Omar [1 ]
McConky, Katie T. [1 ]
机构
[1] Rochester Inst Technol, Kate Gleason Coll Engn, Ind & Syst Engn Dept, 81 Lomb Mem Dr, Rochester, NY 14623 USA
关键词
Peak load management; Peak electric load days; Demand side management; Peak load shaving; Machine learning;
D O I
10.1016/j.enbuild.2022.112221
中图分类号
TU [建筑科学];
学科分类号
0813 ;
摘要
This paper presents a novel methodology that empowers virtually any electricity consumer paying for peak demand charges to proactively execute demand response actions even without receiving signals or information coming from the utility, and only when necessary to effectively reduce demand charges and user inconvenience. The proposed methodology employs different arithmetic models and tree-based machine learning models to determine an efficient electricity demand threshold value before the start of a billing period. This methodology is completely model agnostic so additional models can be integrated without changing the proposed process. The threshold value produced can be used to proactively trigger peak demand shaving and other demand response actions in order to reduce demand charges. The results obtained using real data showed that regression random decision forest based models outperformed different arithmetic models and other tree-based machine learning models at determining this threshold value for an industrial, an educational with solar photovoltaic electricity generation, and a residential consumer. The results also showed that the consumers evaluated could potentially achieve between 63% to 75% of total potential demand charge reductions during a year. These results translate to US$ 159.00, US$ 23,290.00, and US$ 107,389.00 in savings for the residential, industrial, and educational consumer respectively. (C) 2022 Elsevier B.V. All rights reserved.
引用
收藏
页数:13
相关论文
共 31 条
[1]   Trees vs Neurons: Comparison between random forest and ANN for high-resolution prediction of building energy consumption [J].
Ahmad, Muhammad Waseem ;
Mourshed, Monjur ;
Rezgui, Yacine .
ENERGY AND BUILDINGS, 2017, 147 :77-89
[2]   Dynamic Pricing in Smart Grids Under Thresholding Policies [J].
Almahmoud, Zaid ;
Crandall, Jacob ;
Elbassioni, Khaled ;
Trung Thanh Nguyen ;
Roozbehani, Mardavij .
IEEE TRANSACTIONS ON SMART GRID, 2019, 10 (03) :3415-3429
[3]  
[Anonymous], 1983, CLASSIFICATION REGRE
[4]   Peak electric load days forecasting for energy cost reduction with and without behind the meter renewable electricity generation [J].
Aponte, Omar ;
McConky, Katie .
INTERNATIONAL JOURNAL OF ENERGY RESEARCH, 2021, 45 (13) :18735-18753
[5]   Optimal use of incentive and price based demand response to reduce costs and price volatility [J].
Asadinejad, Ailin ;
Tomsovic, Kevin .
ELECTRIC POWER SYSTEMS RESEARCH, 2017, 144 :215-223
[6]  
Biau G, 2012, J MACH LEARN RES, V13, P1063
[7]   Random forests [J].
Breiman, L .
MACHINE LEARNING, 2001, 45 (01) :5-32
[8]   A literature review on dynamic pricing of electricity [J].
Dutta, Goutam ;
Mitra, Krishnendranath .
JOURNAL OF THE OPERATIONAL RESEARCH SOCIETY, 2017, 68 (10) :1131-1145
[9]   Development of prediction models for next-day building energy consumption and peak power demand using data Mining techniques [J].
Fan, Cheng ;
Xiao, Fu ;
Wang, Shengwei .
APPLIED ENERGY, 2014, 127 :1-10
[10]   LOG-Means: Efficiently Estimating the Number of Clusters in Large Datasets [J].
Fritz, Manuel ;
Behringer, Michael ;
Schwarz, Holger .
PROCEEDINGS OF THE VLDB ENDOWMENT, 2020, 13 (11) :2118-2131