Workshop on:
“Intelligent Protection and Automation of Cyber-Physical Power Systems”
Ahmad Hafezimagham, G. B. Gharehpetian
Department of Electrical Engineering at Amirkabir University of Technology, Tehran, Iran
Abstract
The evolution of modern power systems has fundamentally transformed the design and operation of protection and automation infrastructures. The increasing deployment of distributed energy resources, inverter-based generation, digital substations, intelligent electronic devices (IEDs), wide-area monitoring systems (WAMS), phasor measurement units (PMUs), and IEC 61850-based communication architectures has created highly interconnected cyber-physical power systems with capabilities far beyond those of conventional electrical networks. While these developments have significantly enhanced system observability, controllability, and operational efficiency, they have also introduced new challenges for protection coordination, automation, cybersecurity, and system resilience that require new engineering approaches.
Traditional protection philosophies were developed for passive networks operating under relatively predictable conditions. Today's active distribution systems, however, are characterized by bidirectional power flows, rapidly changing operating conditions, extensive communication infrastructures, and increasing interactions between physical equipment and cyber components. These changes demand protection and automation strategies that are adaptive, intelligent, secure, and capable of supporting reliable system operation under continuously evolving network conditions.
This workshop provides a comprehensive and application-oriented introduction to the emerging concepts, technologies, and engineering practices that are shaping the next generation of intelligent protection and automation systems. Rather than focusing on a single technology, the workshop adopts an integrated perspective that combines modern protection engineering, automation architectures, communication technologies, operational flexibility, and cybersecurity within the unified framework of Cyber-Physical Power Systems (CPPS). Special attention is given to understanding how data-driven techniques, intelligent decision-support methods, and advanced analytics can enhance the performance of protection and automation systems without compromising engineering reliability or operational security.
The technical program covers recent developments in adaptive protection, digital substations, IEC 61850 communication systems, PMU- and WAMS-based monitoring, intelligent automation architectures, and cybersecurity for protection systems. Participants will also examine the impact of renewable energy integration, inverter-dominated networks, electric vehicles, and distributed energy resources on protection coordination and system operation. Representative intelligent techniques—including machine learning, deep learning, reinforcement learning, and data-driven fault analysis—will be introduced through practical engineering examples to illustrate where these methods provide measurable value, their implementation requirements, and their practical limitations in real-world utility applications.
A distinguishing feature of this workshop is its emphasis on connecting recent academic advances with practical industrial applications. Through carefully selected case studies, participants will explore realistic operational scenarios that demonstrate how intelligent protection and automation strategies can improve system reliability, resilience, flexibility, and situational awareness in modern cyber-physical power systems. Practical discussions will focus on engineering decision-making, system implementation, communication requirements, and lessons learned from contemporary smart grid projects, enabling participants to translate theoretical concepts into practical engineering solutions.
Designed for graduate students, researchers, utility engineers, protection specialists, and professionals working in smart grids and digital power systems, this workshop provides a structured roadmap for understanding the future evolution of intelligent protection and automation. By integrating protection engineering, intelligent automation, communication technologies, cybersecurity, operational flexibility, and data-driven decision-support techniques within a unified educational framework, participants will gain both the conceptual foundation and the practical engineering perspective needed to address the challenges of next-generation cyber-physical power systems.
Workshop on:
Leveraging Industry 4.0 and 5.0 Emerging Technologies to Address Protection and Automation Challenges in Cyber-Physical Power Systems
Hamid Reza Baghaee,
Assistant Professor, Faculty of Electrical and Computer Engineering, Tarbiat Modares University, Terhan, Iran, and
Chairperson of IEEE Iran Section Power Chapter, and Member of the board in Iran Scientific Organization of Smart Grids,
Abstract: Modern power systems, as the most complex cyber-physical systems, are undergoing a fundamental transformation. The transition from traditional grids to smart grids, and the subsequent paradigm shift from Industry 4.0 (focused on automation and digital connectivity) toward Industry 5.0 (emphasizing human-machine collaboration, resilience, and sustainability), have introduced unprecedented challenges for protection and automation. This keynote speech explores how emerging technologies can be leveraged to address these challenges. First, the gap between industrial needs and academic research in cyber-physical security will be analyzed. The role of key Industry 4.0 and 5.0 technologies in the redesign of protection and automation systems will then be elucidated. Artificial Intelligence (AI) and Machine Learning (ML) serve as the core of this transformation, enabling the detection of cyberattacks such as False Data Injection (FDI) with unprecedented accuracy. Furthermore, technologies like Digital Twins enable the simulation and validation of protection strategies in a secure environment, providing a robust platform for implementing "Adversarial Maintenance" strategies. Subsequently, the practical challenges of deploying these technologies will be addressed. The concept of "co-design of protection, communication, and cybersecurity" will be introduced as a key approach, in which security is considered an integral component of power system architecture rather than an add-on layer. Additionally, the role of next-generation communication technologies (e.g., 5G and TSN) in meeting the stringent latency and reliability requirements of IEC 61850-based protection systems, along with the integration challenges they pose, will be discussed. Finally, the future vision of power systems within the Industry 5.0 framework will be outlined. Humans, as intelligent agents and ultimate decision-makers, will collaborate with automated systems, giving rise to the concept of "Human-Cyber-Physical Systems" . By presenting a comprehensive framework for the synergy between emerging technologies and the power industry's requirements, this speech aims to pave the way for realizing resilient, secure, and sustainable power grids.