Power generation configuration based on hybrid user model self-learning algorithm

This article delves into the optimization of electricity production configuration using user-centric models and advanced forecasting techniques. By integrating user behavior, economic dynamics, climate variables, and market trends, a sophisticated and responsive approach to electricity management is proposed. Addressing the limitations of current forecasting technologies, a novel power generation configuration model is introduced, providing a comprehensive overview of the configuration process and its implications. A detailed case study exemplifies the practical application of this methodology, highlighting the pivotal role of intelligent power control strategies in preempting potential capacity constraints and ensuring the seamless distribution of electricity. Validation through a combination of simulations and realworld implementations demonstrates the effectiveness of this user-focused approach in enhancing operational efficiency, adaptability, and grid reliability. By leveraging insights from user behavior and external factors, the proposed model offers a holistic perspective on electricity production configuration, enabling utilities to make informed decisions and optimize resource allocation. The integration of advanced forecasting techniques and user-centric models represents a significant advancement in the field of electricity management, paving the way for more sustainable and efficient energy practices.

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Publication Details

Published
2025-05-07
DOI
https://doi.org/10.1117/12.3060102
Primary Topic
Human Mobility and Location-Based Analysis
Type
article
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Power generation configuration based on hybrid user model self-learning algorithm

Jiajun Song, Cui Zhiwen, Zhen Qin, Lifu Zhou et al.
Human Mobility and Location-Based Analysis
article

Power generation configuration based on hybrid user model self-learning algorithm

Jiajun Song, Cui Zhiwen, Zhen Qin, Lifu Zhou, Wei Chen, Jianqi Li, Y. Yang
article en

Abstract

This article delves into the optimization of electricity production configuration using user-centric models and advanced forecasting techniques. By integrating user behavior, economic dynamics, climate variables, and market trends, a sophisticated and responsive approach to electricity management is proposed. Addressing the limitations of current forecasting technologies, a novel power generation configuration model is introduced, providing a comprehensive overview of the configuration process and its implications. A detailed case study exemplifies the practical application of this methodology, highlighting the pivotal role of intelligent power control strategies in preempting potential capacity constraints and ensuring the seamless distribution of electricity. Validation through a combination of simulations and realworld implementations demonstrates the effectiveness of this user-focused approach in enhancing operational efficiency, adaptability, and grid reliability. By leveraging insights from user behavior and external factors, the proposed model offers a holistic perspective on electricity production configuration, enabling utilities to make informed decisions and optimize resource allocation. The integration of advanced forecasting techniques and user-centric models represents a significant advancement in the field of electricity management, paving the way for more sustainable and efficient energy practices.

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Human Mobility and Location-Based Analysis
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