Advances in Power System Optimization and Control

The field of power system research is moving towards the development of more efficient and sustainable energy systems. Recent studies have focused on optimizing energy storage configuration, demand flexibility, and power grid control. The use of machine learning and artificial intelligence techniques is becoming increasingly prevalent, with applications in power system security assessment, fault detection, and load forecasting. Researchers are also exploring new approaches to power grid operation, including the use of diffusion models and reinforcement learning. Notably, the 'Leveraging Multi-Task Learning for Multi-Label Power System Security Assessment' paper introduces a novel approach to power system security assessment using multi-task learning, while the 'Deep Reinforcement Learning for Power Grid Multi-Stage Cascading Failure Mitigation' paper develops a simulation environment to mitigate multi-stage cascading failures. Overall, the field is advancing towards more efficient, sustainable, and resilient power systems.

Sources

Economic Analysis and Optimization of Energy Storage Configuration for Park Power Systems Based on Random Forest and Genetic Algorithm

On the Potential of Electrified Supply Chains to Provide Long Duration Demand Flexibility

Shortlisting Protection Configurations for HVDC Grids and Electrical Energy Hubs

Leveraging Multi-Task Learning for Multi-Label Power System Security Assessment

Benchmarking Traditional Machine Learning and Deep Learning Models for Fault Detection in Power Transformers

Development of Reduced Feeder and Load Models Using Practical Topological and Loading Data

Diffusion-assisted Model Predictive Control Optimization for Power System Real-Time Operation

Deep Reinforcement Learning for Power Grid Multi-Stage Cascading Failure Mitigation

Equilibrio de carga para transformadores de distribuci\'on el\'ectrica mejorando la calidad de servicio en fin de l\'inea

Measuring Flexibility through Reduction Potential

Offline Reinforcement Learning for Microgrid Voltage Regulation

Improving Power Systems Controllability via Edge Centrality Measures

Built with on top of