Resilient Power Synchronization in Tactical Military Bases Using Caro Tuned Enhanced Tid Controller

Energy security is inevitably crucial for modern military sites to prevent grid failures and cyberattacks. Microgrids, which combine essential facilities, energy storage, and renewable resources, have been put into place to address this. With a focus on standardized communication, dynamic reconfiguration, and strong cybersecurity, the Tactical Microgrid Standard, such as MIL-STD-3071, offers a framework designed to meet military requirements. Using Chaotic Artificial Rabbit Optimization (CARO), this work set up a sophisticated TIDA1 controller that is optimized for automatic load frequency management and power synchronization in military microgrid facilities. The microgrid model incorporates renewable energy sources from solar and wind energy systems as well as biodiesel and biogas units with the help of multiple energy storage systems. Instead, military electric vehicles are used for hybrid propulsion and energy consumption. The study assesses the range of TID controller variants tuned with different algorithms, including Particle Swarm Optimization, Artificial Rabbit Optimization, and Artificial Hummingbird Algorithm, together with CARO. The study demonstrates the comparative performance of traditional PID controllers and advanced TID controllers (TID, TIDA, and TIDA1) with aim to offer tactical military microgrids stability and resilience.