Enterprise power emission reduction technology based on the LSTM–SVM model

Abstract With the increasing emphasis on environmental protection in various regions, reducing electricity emissions for enterprises has become a popular development trend. The research aims to design a machine learning-based power data warning method to assist enterprises in reducing emissions and controlling costs. In terms of research methods, load type analysis is first conducted for industrial enterprises, followed by the introduction of long short-term memory (LSTM) networks to build a basic model for power data prediction. Support vector machines are used to optimize the model’s large sample requirements, and the two models are integrated to improve accuracy. Key research has found that the proposed model performed excellently. The minimum relative prediction error was 0.20%, the maximum error fluctuation was 0.78%, the accuracy was 12.85% higher than the LSTM model, and the recall was 11.60% higher. On 220 kV, the testing time was 17.5% faster than the data prediction model and 36.0% faster than the multi-task learning model, and the accuracy was always the best. Simulation experiments showed that after data warning, carbon emissions could be reduced by up to 48.26%, and electricity costs could be reduced by up to 60.48%. The machine learning-based power data warning method proposed in this study has important practical application value and can effectively help enterprises achieve emission reduction and cost control goals.

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Publication Details

Journal
Nonlinear Engineering
Published
2025-01-01
DOI
https://doi.org/10.1515/nleng-2025-0165
Primary Topic
Energy Load and Power Forecasting
Type
article
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Enterprise power emission reduction technology based on the LSTM–SVM model

Meng Su, Ke Li, Bin Zhang, Qiang Liu
Nonlinear Engineering
Energy Load and Power Forecasting
article

Enterprise power emission reduction technology based on the LSTM–SVM model

Meng Su, Ke Li, Bin Zhang, Qiang Liu
article en

Abstract

Abstract With the increasing emphasis on environmental protection in various regions, reducing electricity emissions for enterprises has become a popular development trend. The research aims to design a machine learning-based power data warning method to assist enterprises in reducing emissions and controlling costs. In terms of research methods, load type analysis is first conducted for industrial enterprises, followed by the introduction of long short-term memory (LSTM) networks to build a basic model for power data prediction. Support vector machines are used to optimize the model’s large sample requirements, and the two models are integrated to improve accuracy. Key research has found that the proposed model performed excellently. The minimum relative prediction error was 0.20%, the maximum error fluctuation was 0.78%, the accuracy was 12.85% higher than the LSTM model, and the recall was 11.60% higher. On 220 kV, the testing time was 17.5% faster than the data prediction model and 36.0% faster than the multi-task learning model, and the accuracy was always the best. Simulation experiments showed that after data warning, carbon emissions could be reduced by up to 48.26%, and electricity costs could be reduced by up to 60.48%. The machine learning-based power data warning method proposed in this study has important practical application value and can effectively help enterprises achieve emission reduction and cost control goals.

Nonlinear EngineeringVol. 14(1)
State Grid Corporation of China (China) (CN), Xingtai University (CN)
Openalex Percentile: Top 82%
Energy Load and Power Forecasting
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Enterprise power emission reduction technology based on the LSTM–SVM model — Meng Su, Ke Li, et al. · Nonlinear Engineering (2025) | TGRS Research Map | TGRS