Best Researcher Award
Xiaojie Qiu
The State Key Laboratory of Industrial Control Technology
| Xiaojie Qiu | |
|---|---|
| Affiliation | The State Key Laboratory of Industrial Control Technology |
| Country | China |
| Scopus ID | 57211005876 |
| Documents | 10 |
| Citations | 289 |
| h-index | 5 |
| Subject Area | Smart Grid |
| Event | Technology Scientists Awards |
| ORCID | 0000-0003-0024-7794 |
Xiaojie Qiu is a researcher associated with The State Key Laboratory of Industrial Control Technology, China, whose scholarly work focuses on smart grid systems, distributed control strategies, cyber-secure power networks, and data-driven control methodologies. Through contributions to resilient microgrid control and distributed intelligent systems, the researcher has established a measurable academic presence supported by publications, citations, and collaborative research activities within modern energy and automation domains.[1]
Abstract
Xiaojie Qiu’s research activities are centered on smart grid technologies, distributed control systems, resilient microgrids, and secure energy management frameworks. The research emphasizes data-driven control strategies, event-triggered communication mechanisms, and cyberattack-resilient operation of interconnected power systems. Published studies contribute to voltage restoration, current sharing optimization, and distributed coordination in microgrids and multi-agent networks. These contributions support the advancement of reliable, intelligent, and secure energy infrastructures while addressing practical challenges associated with distributed energy resources, communication constraints, and modern smart grid deployment requirements.[2]
Keywords
Smart Grid, DC Microgrid, Distributed Control, Data-Driven Systems, Multi-Agent Systems, Event-Triggered Control, Cybersecurity, Voltage Restoration, Current Sharing, Industrial Control Technology.
Introduction
Modern smart grids require secure, resilient, and distributed control architectures capable of maintaining stability under communication limitations and cyber threats. Xiaojie Qiu’s research addresses these challenges through innovative control methodologies for microgrids and multi-agent systems, supporting reliable energy distribution, operational security, and efficient coordination across increasingly complex power infrastructures.[2]
Research Profile
The research profile of Xiaojie Qiu demonstrates sustained engagement in smart grid control, distributed automation, and intelligent energy systems. With scholarly outputs indexed in Scopus and measurable citation impact, the researcher contributes to advancing secure control frameworks, data-driven optimization methods, and resilient operation strategies for contemporary electrical power networks.[1]
Research Contributions
Key contributions include distributed resilient control techniques for DC microgrids under deception attacks, secure voltage restoration mechanisms, adjustable current-sharing approaches, and fully distributed event-triggered control algorithms. These studies improve robustness, communication efficiency, and system stability while addressing practical implementation challenges in distributed energy and automation environments.[2][3]
Publications
- Edge-Event-Based Distributed Resilient Control of DC Microgrid Against Multipattern Deception Attacks. This study proposes resilient distributed control mechanisms that enhance microgrid security and operational stability under coordinated cyberattacks while reducing communication burden through edge-event-triggered strategies.[2]
- Distributed Data-Driven Control for Adjustable Current Sharing and Secure Voltage Restoration in DC Microgrids. The publication develops data-driven methodologies for voltage regulation and current sharing, improving distributed coordination and operational reliability in microgrid applications.[3]
- Data-driven-based Fully Distributed Event-Triggered Control for Nonlinear Multi-Agent Systems. The research introduces event-triggered distributed control approaches that reduce communication requirements while maintaining system performance and coordination across nonlinear networked agents.[4]
Research Impact
The research has contributed to the broader understanding of secure distributed energy management and intelligent control systems. Citation performance and scholarly visibility indicate relevance within smart grid and automation communities. The developed methodologies provide practical value for enhancing resilience, scalability, and operational efficiency in modern power infrastructures.[1]
Award Suitability
Xiaojie Qiu demonstrates strong alignment with the objectives of the Technology Scientists Awards through contributions to smart grid innovation, resilient microgrid control, and distributed intelligent systems. The combination of academic publications, measurable citation metrics, and practical technological relevance supports recognition within research excellence and technology advancement categories.[2]
Conclusion
The body of work associated with Xiaojie Qiu reflects a focused commitment to advancing secure, distributed, and data-driven control methodologies for smart grids and multi-agent systems. Through research addressing cybersecurity, resilience, and operational efficiency, the researcher contributes valuable knowledge supporting the development of next-generation intelligent energy networks.[1]
External Links
References
- Elsevier. (n.d.). Scopus author details: Xiaojie Qiu, Author ID 57211005876. Scopus.
https://www.scopus.com/authid/detail.uri?authorId=57211005876 - Qiu, X., et al. (2025). Edge-Event-Based Distributed Resilient Control of DC Microgrid Against Multipattern Deception Attacks. IEEE Transactions.
https://ieeexplore.ieee.org/document/11300711/ - Qiu, X., et al. (2025). Distributed Data-Driven Control for Adjustable Current Sharing and Secure Voltage Restoration in DC Microgrids. IEEE Transactions.
https://ieeexplore.ieee.org/document/11220903/ - Qiu, X., et al. (2025). Data-driven-based Fully Distributed Event-Triggered Control for Nonlinear Multi-Agent Systems. Nonlinear Analysis: Hybrid Systems.
https://linkinghub.elsevier.com/retrieve/pii/S0096300325000347
