A higher penetration of renewable energy resources (RERs) in network introduces
uncertainty in a grid, which causes cascading overload failures. To mitigate these issues …

Cascading overload failures occurred in power systems due to higher penetration of
renewable energy resources (RERs), which causes uncertainty in a grid. To overcome these …

Uncertainties in demand profile and lower efficiency of renewable energy resources (RERs)
make the load flow balancing (LFB) and transient stability (TS) analysis a challenging task in …

Due to random patterns of demand response from the consumer side and the unreliable
nature of renewable energy resources, load flow balancing and transient stability become …

Due to deep integration between power grids and communication networks, cascading
failure is spreading more readily in cyber–physical power systems (CPPS), even leading to …

The extensive deployment of information and communication technologies significantly
changes the characteristics of power grids. In this paper, we propose an integrated modeling …

Power grid response against high‐impact low‐probability (HILP) events could be enhanced
by (a) hardening mechanisms to boost its structural resilience and (b) corrective recovery …

Smart grid technologies are based on the integration of the cyber network and the power
grid into a cyber-physical power system (CPPS). The increasing cyber-physical …

Effective resilience improvement strategies enable the power grid to cope with disruptive
extreme events. Most power grid outages are caused by disruptions in distribution grids …

Smart grids are increasingly interactive with communication networks and have even
become interdependent networks. The majority of previous research has assumed that a …