2006 · 52 citations · 12 references
EngineeringComputer ScienceSystems EngineeringComputer NetworksCritical Infrastructure ProtectionSystem DynamicsCriticalityNetworked Systems ModelingPower Grid AnalysisPower System ReliabilityPower System StabilityBlackout PreventionCascading FailuresElectric Power System ModelingElectrical Power SystemsPower System ModellingPower System Reliability ModelingSelf-organized CriticalitySelf-organized Structures
Based on the essence of self-organized criticality and optimal power flow (OPF), this paper develops a model to capture the cascading failures and blackouts in power systems, which avoids some shortcomings of existent blackout models. The proposed model contains two dynamics, one is the fast dynamics which simulates the serial blackouts in power system, and the other is the slow dynamics which reflects the growth of the power system. Simulations in IEEE-30 bus system with the proposed model show that, the processing of the cascading and blackout can be captured by the fast dynamics, together with the self-organized criticality property of fast dynamic respect to the micro-scale. Besides, the macro-scale of self-organized criticality of power system can be revealed from the viewpoint of total load demand vs. the total network transfer capability. Furthermore, improving the transmission ability of network could effectively prevent blackout and reduce its risk.
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Classes of small-world networks
Luı́s A. Nunes Amaral, Antonio Scala, Marc Barthélemy et al. · Proceedings of the National Academy of Sciences · 2000 · 3.1K citations · Full text
B. A. Carreras, V. E. Lynch, Ian Dobson et al. · Chaos An Interdisciplinary Journal of Nonlinear Science · 2002 · 544 citations · Full text
Engineering, Electrical Engineering, Systems Engineering +16