Enhancing TSO-DSO coordination: a machine learning approach for efficient operations planning

This paper explores Machine Learning-Guided Optimization (MLGO) as a framework for integrating Distribution System Operator (DSO) network-connected energy storages into Transmission System Operator (TSO) market models. The framework first simulates storage bidding behaviour under grid constraints using a mixed-integer programming model, then trains a neural network to learn the complex bidding patterns. The trained model is reformulated into linear constraints and embedded within a Quadratically Constrained AC Optimal Power Flow problem. The case study considers complex bidding strategies for storage assets in New York Independent System Operator's (NYISO) energy and ancillary services markets, focusing on the Southeast New York region with high renewable penetration. The results show that MLGO can reduce computation time by 50% compared to traditional optimization approaches while maintaining solution quality, making it particularly valuable for day-ahead market clearing with distributed energy resources.

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Publication Details

Journal
IET conference proceedings.
Published
2025-10-14
DOI
https://doi.org/10.1049/icp.2025.1516
Primary Topic
Business Process Modeling and Analysis
Type
article
Field-Weighted Citation Impact
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article

Enhancing TSO-DSO coordination: a machine learning approach for efficient operations planning

Chenghong Gu, Xiaomei Pei, Ali Z. Banatwala
IET conference proceedings.
Business Process Modeling and Analysis
article

Enhancing TSO-DSO coordination: a machine learning approach for efficient operations planning

Chenghong Gu, Xiaomei Pei, Ali Z. Banatwala
article en

Abstract

This paper explores Machine Learning-Guided Optimization (MLGO) as a framework for integrating Distribution System Operator (DSO) network-connected energy storages into Transmission System Operator (TSO) market models. The framework first simulates storage bidding behaviour under grid constraints using a mixed-integer programming model, then trains a neural network to learn the complex bidding patterns. The trained model is reformulated into linear constraints and embedded within a Quadratically Constrained AC Optimal Power Flow problem. The case study considers complex bidding strategies for storage assets in New York Independent System Operator's (NYISO) energy and ancillary services markets, focusing on the Southeast New York region with high renewable penetration. The results show that MLGO can reduce computation time by 50% compared to traditional optimization approaches while maintaining solution quality, making it particularly valuable for day-ahead market clearing with distributed energy resources.

IET conference proceedings.Vol. 2025(14)
University of Bath (GB)
Openalex Percentile: Top 53%
Business Process Modeling and Analysis
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