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MILP formulation for controlled islanding of power networks

Trodden, P.A. and Bukhsh, W.A. and Grothey, A. and McKinnon, K.I.M. (2013) MILP formulation for controlled islanding of power networks. International Journal of Electrical Power and Energy Systems, 45 (1). pp. 501-508. ISSN 0142-0615

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Abstract

This paper presents a flexible optimization approach to the problem of intentionally forming islands in a power network. A mixed integer linear programming (MILP) formulation is given for the problem of deciding simultaneously on the boundaries of the islands and adjustments to generators, so as to minimize the expected load shed while ensuring no system constraints are violated. The solution of this problem is, within each island, balanced in load and generation and satisfies steady-state DC power flow equations and operating limits. Numerical tests on test networks up to 300 buses show the method is computationally efficient. A subsequent AC optimal load shedding optimization on the islanded network model provides a solution that satisfies AC power flow. Time-domain simulations using second-order models of system dynamics show that if penalties were included in the MILP to discourage disconnecting lines and generators with large flows or outputs, the actions of network splitting and load shedding did not lead to a loss of stability.