PGES is dedicated to promoting the systematic integration and innovative application of multidisciplinary theories in power grid scenarios. The journal aims to address complex challenges in engineering science and technology, construct a comprehensive knowledge system spanning engineering science–engineering technology–engineering practice, and create a premier academic exchange platform that bridges fundamental science with engineering practice.

Scope: PGES focuses on publishing interdisciplinary research outcomes that tackle fundamental scientific issues and complex engineering challenges in power systems. The journal features original research articles with clear potential for practical application, comprehensive review papers, and insightful perspectives.

Topics of interest include, but are not limited to:

（1）Power-Electronics-Dominated Power Systems

• Static and dynamic stability analysis of power-electronics-dominated power systems

• Simulation of power-electronics-dominated power systems

• Reliability assessment and planning of modern power systems

• Operation and control of power-electronics-dominated power systems

• Security and protection of power-electronics-dominated power systems

• Resilience and robustness of power-electronics-dominated power systems

• Power electronic devices and system integration for power systems

• Grid-following and grid-forming technologies and Devices

（2）Renewable Energy and Advanced Energy Storage

• Modeling, analysis and optimization methods for renewable energy and advanced energy storage

• Renewable energy and advanced energy storage technologies

• Renewable energy and advanced energy storage planning and grid integration

• Operational analysis and control of renewable energy and energy storage systems

• Integrated multi-energy systems and complementary technologies

• Safety and application of energy storage systems

（3）Intelligent Distribution Systems and Microgrids

• Modeling, analysis and optimization methods for modern distribution systems

• Advanced technologies and equipment for modern distribution systems

• Planning and operation of active distribution networks

• Security and resilience enhancement of distribution networks

• Distributed energy resources and integration into active distribution systems

• Microgrids and and multi-microgrids

• Grid–load–storage interaction, coordination and demand response

• End-use electrification and low-carbon energy utilization

• Transmission–distribution interface and TSO-DSO coordination

（4）Extra-High-Voltage and Ultra-High-Voltage AC/DC Power Grids

• Planning and design of AC/DC power grids with high renewable energy penetration

• Coordinated operation and control of large-scale AC/DC power grids

• Security and stability control of AC/DC power grids with high power electronics penetration

• Multi-terminal HVDC (MTDC) and DC grids

• High-voltage, high-capacity power conversion and flexible AC transmission systems (FACTS)

• Simulation, modeling, and protection of large-scale AC/DC power grids

• Engineering application and verification of UHV AC/DC power grids

（5）Advanced Materials and High Voltage

• Eco-friendly and low-carbon HV equipment

• Advanced electrical insulating materials

• Intelligent operation and maintenance and condition sensing

• Discharge theory and insulation design

• Equipment manufacturing and nondestructive testing

• Pulsed power and discharge applications

（6）AI and Digital Transformation in Power Systems

• Machine Learning and Deep Learning for Power Systems

• Large AI Models and LLM Agents for Power Systems

• Power-Computing Co-Design and Co-Optimization

• Energy Internet of Things (EIoT) and Digital Twins for Power Systems

• Big Data Analytics and Intelligent Scientific Computing in Power Systems

• Quantum Computing for Power Systems

• Intelligent Dispatch and Control Systems

• Intelligent Sensing and Measurement Technologies

• Industrial Control Software, Edge Hardware, and Dedicated Chips for Power Systems

• Cybersecurity and Blockchain Applications in Power Systems

• Advanced Communication Technologies for Power Systems

（7）Electricity Market and Electricity-Carbon Market Coupling

• Low-carbon energy and electricity policies

• Carbon assessment of power systems

• Coordinated planning and operation of electricity-carbon systems

• Synergy and optimization of carbon neutrality pathways

• Electricity-carbon economics and markets

• Theory and methodology for Construction and Operation of Electricity Markets

• Operation Monitoring and Supervision of Electricity and Carbon Markets

Editorial Board