This paper proposes a centralized model predictive control (MPC) strategy to manage voltage and transformer temperature in distribution systems with high solar PV penetration, minimizing PV curtailment while ensuring system reliability.
The proposed extended admittance modeling method with explicit characterization of synchronization (sync) loops can intuitively reveal the impact of diverse sync dynamics on the oscillatory stability of converter-interlinked power systems.
An event-triggered control strategy using linear and non-linear controllers is proposed to stabilize an offshore MMC-HVDC grid during asymmetrical AC faults by suppressing negative sequence currents.
A power matching-based current limitation scheme is proposed to ensure grid-forming converter synchronization while preventing overcurrents during grid faults. A dynamic virtual damping algorithm is also introduced to enhance fault isolation and maintain the grid-forming properties of the converter even under weak grid conditions.
This paper investigates the performance of grid-forming power converters and proposes supplementary power oscillation damping controllers to effectively damp electromechanical oscillations in modern power systems with increased penetration of converter-interfaced generation.
This paper explores the analysis and implementation of the Dead-Zone Virtual Oscillator Control (DZVOC) strategy for grid-forming inverters to enhance stability in isolated microgrids with increasing renewable energy penetration.
The paper proposes controllers for buses in a DC microgrid that guarantee voltage regulation and output strictly equilibrium-independent passivity (OS-EIP) of the controlled buses, even with uncertain, non-monotone loads. The asymptotic stability of the overall microgrid is ensured by interconnecting the OS-EIP clusters.
The core message of this article is to propose a systematic closed-loop approach to provide optimal dynamic ancillary services, such as fast frequency and voltage regulation, with converter-interfaced generation systems based on local power grid perception.
A novel cut-set and stability-constrained optimal power flow (CSCOPF) formulation that ensures secure, stable, and economic power system operation during active wildfires by integrating advanced contingency analysis techniques.
Dynamic complex-frequency control enhances the richness and flexibility of grid-forming converters to provide crucial dynamic frequency and voltage regulation services for future power systems.