Analysis of the blackout risk reduction when segmenting large power systems using lines with controllable power flow
Damià Gomila, Benjamin Andres Carreras, J.M. Reynolds-Barredo, Pere Colet, Oriol Gomis‐Bellmunt
Abstract
Damià Gomila, Benjamin Andres Carreras, J.M. Reynolds-Barredo, Pere Colet, Oriol Gomis‐Bellmunt
Abstract
Large electrical transmission networks are susceptible to undergo very large blackouts due to cascading failures, with a very large associated economical cost. In this work we propose segmenting large power grids using controllable lines, such as high-voltage direct-current lines, to reduce the risk of blackouts. The method consists in modifying the power flowing through the lines interconnecting different zones during cascading failures in order to minimize the load shed. As a result, the segmented grids have a substantially lower risk of blackouts than the original network, with reductions up to 60% in some cases. The control method is shown to be specially efficient in reducing blackouts affecting more than one zone.
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Large electrical transmission networks are susceptible to undergo very large blackouts due to cascading failures, with a very large associated economical cost. In this work we propose segmenting large power grids using controllable lines, such as high-voltage direct-current lines, to reduce the risk of blackouts. The method consists in modifying the power flowing through the lines interconnecting different zones during cascading failures in order to minimize the load shed. As a result, the segmented grids have a substantially lower risk of blackouts than the original network, with reductions up to 60% in some cases. The control method is shown to be specially efficient in reducing blackouts affecting more than one zone.
Key concepts: Blackout, Electric power transmission, Cascading failure, Reliability engineering, Electric power system, Reduction (mathematics), Power (physics), Engineering