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Networking of microgrids can provide the operational flexibility needed forthe increasing number of DERs deployed at the distribution level and supportingend-use demand when there is loss of the bulk power system. But, networkedmicrogrids are vulnerable to cyber-physical attacks and faults due to thecomplex interconnections. As such, it is necessary to design resilient controlsystems to support the operations of networked microgrids in responses tocyber-physical attacks and faults. This paper introduces a resilientcommunication scheme for interconnecting multiple microgrids to supportcritical demand, in which the interconnection decision can be madedistributedly by each microgrid controller even in the presence of cyberattacksto some communication links or microgrid controllers. This scheme blends arandomized peer-to-peer communication network for exchanging information amongcontrollers and resilient consensus algorithms for achieving reliableinterconnection agreement. The network of 6 microgrids divided from a modified123-node test distribution feeder is used to demonstrate the effectiveness ofthe proposed resilient communication scheme.

Resilient Communication Scheme for Distributed Decision of InterconnectingNetworks of Microgrids