Decentralized Control Synthesis in IBR-Dominated Power Systems: A Block Diagonal Dominance Based Approach
Pudong Ge, Muhammad Sharjeel Javaid, Xiaoyu Tan, Jianli Gao, David Angeli, Janusz Bialek, Balarko Chaudhuri
Abstract
Integrating inverter-based resources (IBRs) from multiple vendors into power systems is challenging because their controllers are typically designed independently, with little coordination. To address this problem, this paper proposes a decentralized control synthesis framework for IBRs based on block-diagonal dominance (BDD) theory, which ensures the small-signal stability of multi-IBR power systems. By leveraging the grid frequency response, this approach enables a decentralized multi-input multi-output (MIMO) control design. Furthermore, the BDD-constrained design integrates a guaranteed minimum decay rate and defines a novel numerical metric to quantify the conservatism inherent in the decentralized stability certificate. The proposed control design with BDD constraints and minimum decay rate implementation is validated through a case study of the IEEE 9-bus test system.
Create a lesson
Related papers
Leader-Follower Formation Control with Prescribed Convergence Rates under Bearing Persistence of Excitation
Tarek Bouazza, Zhiqi Tang, Soulaimane Berkane et al.
On asymptotic stability of the time-varying Kalman filter for unstabilizable linear systems: an optimization perspective
James B. Rawlings, Titus Quah, Matthias A. Müller
Designing Grid-Aware Dynamic Specifications for Large Data Center Loads
Ashutossh Gupta, Vassilis Kekatos
Time-Optimal Operation of a Load-Hoisting Gantry Crane
Eric Mountain, Tarunraj Singh
Learning to Solve Two-Stage Stochastic Unit Commitment Problems with Quality Guarantees
Andrea Fusco, Andrea Lodi, Lavanya Marla
Towards Interaction Regulation from Human Feedback via Free Energy Minimization
Maria Paula Diaz Monfort, Cinzia Tomaselli, Michael Richardson et al.