Taking the Guesswork Out of Power Plant Dispatch

Abstract Effective power plant dispatch relies on precise performance predictions, particularly for gas turbines operating in changing environmental and operational conditions. This work builds on prior efforts constructing tools for performance visualization in both simple and combined cycle systems. Previous work developed a refined digital twin modeling framework to enhance performance predictions under changing weather conditions. With a set of training data, the resulting model requires only three ambient conditions—pressure, temperature, and humidity—to predict plant heat rate and power output. The goal was to strike a balance between modeling accuracy and practical usability, which tends to be missing in traditional approaches. This project introduces several advancements in the digital twin model. Extrapolation techniques were enhanced to improve reliability in scenarios outside the original training data. Augmentation modeling was developed to account for auxiliary systems and their effects on plant performance. Additionally, dispatch optimization integrates the performance prediction models with cost and operational constraints, enabling 7-day-ahead dispatch scheduling. Improvements were tested via a case study on Chevron Pipeline and Power gas turbines—the result is a tool, Optora, supporting better management of power plant performance. Optora offers operators a clear understanding of how plants perform across diverse scenarios while accommodating uncertainties inherent to real-world operations.

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Publication Details

Published
2025-06-16
DOI
https://doi.org/10.1115/gt2025-154036
Primary Topic
Energy Efficiency and Management
Type
article
Field-Weighted Citation Impact
0.00
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article

Taking the Guesswork Out of Power Plant Dispatch

Corson Teasley, Lea Boche, Christopher Perullo, David R. Noble et al.
Energy Efficiency and Management
article

Taking the Guesswork Out of Power Plant Dispatch

Corson Teasley, Lea Boche, Christopher Perullo, David R. Noble, Andrew Gerlings
article en

Abstract

Abstract Effective power plant dispatch relies on precise performance predictions, particularly for gas turbines operating in changing environmental and operational conditions. This work builds on prior efforts constructing tools for performance visualization in both simple and combined cycle systems. Previous work developed a refined digital twin modeling framework to enhance performance predictions under changing weather conditions. With a set of training data, the resulting model requires only three ambient conditions—pressure, temperature, and humidity—to predict plant heat rate and power output. The goal was to strike a balance between modeling accuracy and practical usability, which tends to be missing in traditional approaches. This project introduces several advancements in the digital twin model. Extrapolation techniques were enhanced to improve reliability in scenarios outside the original training data. Augmentation modeling was developed to account for auxiliary systems and their effects on plant performance. Additionally, dispatch optimization integrates the performance prediction models with cost and operational constraints, enabling 7-day-ahead dispatch scheduling. Improvements were tested via a case study on Chevron Pipeline and Power gas turbines—the result is a tool, Optora, supporting better management of power plant performance. Optora offers operators a clear understanding of how plants perform across diverse scenarios while accommodating uncertainties inherent to real-world operations.

Electric Power Research Institute (US), Chevron (Netherlands) (NL), Applied Logic Laboratory (Hungary) (HU)
Openalex Percentile: Top 87%
Energy Efficiency and Management
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