Dynamic Line Rating Models and Their Potential for a Cost‐Effective Transition to Carbon‐Neutral Power Systems

ABSTRACT Most transmission system operators (TSOs) currently use seasonally steady‐state models considering limiting weather conditions that serve as reference to compute the transmission capacity of overhead power lines. The use of dynamic line rating (DLR) models can avoid the construction of new lines, market splitting, false congestions, and the degradation of lines in a cost‐effective way. DLR can also be used in the long run in grid extension and new power capacity planning. In the short run, it should be used to help operate power systems with congested lines. The operation of the power systems is planned to have the market trading into account; thus, it computes transactions hours ahead of real‐time operation, using power flow forecasts affected by large errors. In the near future, within a “smart grid” environment, in real‐time operation conditions, TSOs should be able to rapidly compute the capacity rating of overhead lines using DLR models and the most reliable weather information, forecasts, and line measurements, avoiding the current steady‐state approach that, in many circumstances, assumes ampacities above the thermal limits of the lines. This work presents a review of the line rating methodologies in several European countries and the United States. Furthermore, it presents the results of pilot projects and studies considering the application of DLR in overhead power lines, obtaining significant reductions in the congestion of internal networks and cross‐border transmission lines.

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Publication Details

Journal
Wiley Interdisciplinary Reviews Energy and Environment
Published
2025-03-01
DOI
https://doi.org/10.1002/wene.70002
Citations
3
Primary Topic
Thermal Analysis in Power Transmission
Type
article
Field-Weighted Citation Impact
3.64
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article

Dynamic Line Rating Models and Their Potential for a Cost‐Effective Transition to Carbon‐Neutral Power Systems

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3 citations
Wiley Interdisciplinary Reviews Energy and Environment
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3.64
article

Dynamic Line Rating Models and Their Potential for a Cost‐Effective Transition to Carbon‐Neutral Power Systems

Jake Gentle, Danny Pudjianto, António Couto, Sergio Ponsá, Roman Bolgaryn, Zachary Priest, Ana Estanqueiro, Hugo Algarvio, Alexander W. Abboud, Jan Dobschinski, S M Shafiul Alam, Andrea Michiorri, Thomas Kanefendt, Per Hägglund
article en
3 citations

Abstract

ABSTRACT Most transmission system operators (TSOs) currently use seasonally steady‐state models considering limiting weather conditions that serve as reference to compute the transmission capacity of overhead power lines. The use of dynamic line rating (DLR) models can avoid the construction of new lines, market splitting, false congestions, and the degradation of lines in a cost‐effective way. DLR can also be used in the long run in grid extension and new power capacity planning. In the short run, it should be used to help operate power systems with congested lines. The operation of the power systems is planned to have the market trading into account; thus, it computes transactions hours ahead of real‐time operation, using power flow forecasts affected by large errors. In the near future, within a “smart grid” environment, in real‐time operation conditions, TSOs should be able to rapidly compute the capacity rating of overhead lines using DLR models and the most reliable weather information, forecasts, and line measurements, avoiding the current steady‐state approach that, in many circumstances, assumes ampacities above the thermal limits of the lines. This work presents a review of the line rating methodologies in several European countries and the United States. Furthermore, it presents the results of pilot projects and studies considering the application of DLR in overhead power lines, obtaining significant reductions in the congestion of internal networks and cross‐border transmission lines.

Wiley Interdisciplinary Reviews Energy and EnvironmentVol. 14(1)
Idaho National Laboratory (US), National Laboratory of Energy and Geology (PT), Centre Procédés, Energies Renouvelables et Systèmes Energétiques (FR), Fraunhofer Institute for Energy Economics and Energy System Technology (DE), Imperial College London (GB)
Openalex Percentile: Top 8%
Thermal Analysis in Power Transmission
3.64
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