A multi-time scale grid scheduling optimization method considering demand-side resources

Abstract This research introduces a pioneering strategy for optimizing power grid scheduling across various time scales, addressing a previously unmet need in the field of energy regulation. Initially, we amassed and categorized tunable resources on the demand side into three distinct temporal categories—long-term, short-term, and immediate—reflecting their respective response attributes. This taxonomy informed the development of a cohesive scheduling framework, encompassing pre-emptive, daily, and instantaneous sub-models, designed to facilitate precise control over grid operations. The deployment of this framework has led to marked enhancements in both the efficiency and dependability of power grid management. The merits of this methodology were exemplified through its application to the IEEE33 network model, showcasing its proficiency in the acquisition of optimized scheduling parameters. This multi-tiered modeling and optimization technique offers an innovative pathway for the dynamic and effective management of smart grids.

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Publication Details

Journal
Journal of Physics Conference Series
Published
2024-11-01
DOI
https://doi.org/10.1088/1742-6596/2876/1/012026
Primary Topic
Distributed and Parallel Computing Systems
Type
article
Field-Weighted Citation Impact
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article

A multi-time scale grid scheduling optimization method considering demand-side resources

Huajiang Yan, Chi Jiang, Chunguang Lu, Chaoliang Wang
Journal of Physics Conference Series
Distributed and Parallel Computing Systems
article

A multi-time scale grid scheduling optimization method considering demand-side resources

Huajiang Yan, Chi Jiang, Chunguang Lu, Chaoliang Wang
article en

Abstract

Abstract This research introduces a pioneering strategy for optimizing power grid scheduling across various time scales, addressing a previously unmet need in the field of energy regulation. Initially, we amassed and categorized tunable resources on the demand side into three distinct temporal categories—long-term, short-term, and immediate—reflecting their respective response attributes. This taxonomy informed the development of a cohesive scheduling framework, encompassing pre-emptive, daily, and instantaneous sub-models, designed to facilitate precise control over grid operations. The deployment of this framework has led to marked enhancements in both the efficiency and dependability of power grid management. The merits of this methodology were exemplified through its application to the IEEE33 network model, showcasing its proficiency in the acquisition of optimized scheduling parameters. This multi-tiered modeling and optimization technique offers an innovative pathway for the dynamic and effective management of smart grids.

Journal of Physics Conference SeriesVol. 2876(1)
Affordable and clean energy
Openalex Percentile: Top 78%
Distributed and Parallel Computing Systems
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