Research Sub-Theme
This sub-theme focuses on fortifying electrical grids against dynamic disturbances and voltage collapse, particularly under the stress of modern load demands, intermittent renewable generation, distributed generation (DG), and the integration of High-Voltage Direct Current (HVDC) systems. To address these challenges, our specific research initiatives include:
- Adaptive Load Shedding: Developing dynamic under-voltage and under-frequency load shedding (UVLS/UFLS) schemes by incorporating advanced models for composite loads, DG, and HVDC systems.
- Voltage Regulation: Designing robust reactive power control strategies to mitigate under-voltage and over-voltage anomalies across the network.
- Stability Analysis: Executing advanced trajectory sensitivity and modal analyses to comprehensively assess and enhance long-term voltage stability.
We leverage state-of-the-art AI and hybrid metaheuristic algorithms to solve highly complex, non-linear optimization challenges within modern power networks. To achieve optimal network performance, our core research activities include:
- Intelligent Algorithms: Developing advanced computational methods and novel hybrid approaches to solve optimal power flow (OPF) alongside other critical grid challenges, such as alleviating transmission congestion, optimizing reactive power compensation, and managing energy dispatch in highly variable networks.
- Strategic Asset Allocation: Optimizing the sizing, placement, and coordination of DG, photovoltaic arrays, and capacitor banks to maximize grid efficiency and reduce system losses.
Smart Grid Management: Developing intelligent dispatching frameworks and optimal reactive power flow controllers to enhance real-time operational decision-making
This research area is dedicated to overcoming the technical and operational barriers associated with seamlessly incorporating diverse, clean energy sources into existing electrical infrastructures. To facilitate this energy transition, our focused research efforts include:
- Multi-Source Integration: Evaluating the stability impacts and operational limits of integrating wind power plants, solar photovoltaics, and fuel cell systems into the main grid.
- Intermittency Mitigation: Formulating strategic models to effectively manage and mitigate the fluctuation effects of renewable generation, with a specialized focus on wind power integration.
Microgrid Development: Planning and optimizing hybrid renewable energy microgrids to ensure reliable, self-sustaining, and equitable access to clean energy in isolated or rural areas
Road Map
