Organizer: KeLiang: https://www.keliangtek.com/
Submit Now:https://www.zmeeting.org/submission/icpst2025 and choose workshop
As global energy develops towards the direction of green and low carbon, the construction of new-type power systems is being actively accelerated. Along with high-proportioned renewable energy sources access to power grids and the wide application of power electronic converters, there are many problems appearing in new-type power systems, such as low inertia, wideband oscillations and voltage & frequency instability. Meanwhile, it also confronts various challenges like supply security, renewable energy consumption, system stability, multivariate load resilience, and system cost efficiency. Thus, the research needs for system stability analysis and control technologies of the new type of power systems have put forward new and higher requirements for modeling & simulation theories and methods of the new type of power systems.
To provide a platform for attendees to discover the cutting-edge modeling and simulation technology of new-type power systems, and to exchange the latest research findings and practical insights with notable scholars and industry experts, the workshop on Modeling and Simulation Technology for New-type Power Systems will be held at Fontaine Blanche Hotel Kunming on May 17th, 2025 by Shanghai KeLiang Information Technology Co., Ltd.
We cordially invite you to attend this technical forum, jointly exploring the key challenges and innovative pathways of the new-type power system modeling & simulation technologies in both R&D and engineering applications, having knowledge of the latest scientific research achievements and engineering projects experiences, and exchanging ideas of how to accelerate safer and more stable new type of power systems.
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Shanghai KeLiang Information Technology Co., Ltd. (“KeLiang”) is a high-tech enterprise dedicated to providing reliable simulation & test industrial software & hardware products, system-level solutions, and consultation services to global professional users in the industries of renewable energy, electric power, new energy vehicles, etc. Headquartered in Shanghai, KeLiang has 3 branches separately located in Beijing, Xi’an and Changsha.
Since its founding, KeLiang has continuously strengthened its core technological advantages in fields of power electronics and power systems. After years of accumulation, leveraging its strong full-life cycle service capabilities in modeling simulation, software development, system integration, project implementation etc., KeLiang has formed a comprehensive R&D, production, sales, and service system for simulation & test products, and bloomed into a market-leading supplier in the industry. KeLiang also has been successively recognized as a National Key “Little Giant” SMEs, Shanghai Software Core Competitiveness Enterprises, Shanghai Municipal Enterprise Technology Center, and more.
In KeLiang, we believe that every achievement we make will help to shape a better world. Every project, from design to completion, is not only the fulfillment of a system or ground-breaking ideas, but also our slight contribution to create a greener and smarter future! |
- Invited Speakers of the Workshop
Prof. Wei Yao
Huazhong University of Science and Technology, China
Speech Title: Accurate and Efficient Modeling of
New-type Power Systems in Time and Frequency Domain for SimuNPS Development
Abstract: The large-scale wind farms of the new-type power systems
contain a large number of wind turbines, with diverse operating states, and
complex topology of the collection lines. Detailed modeling and simulation
require greatly computational quantity, making it difficult to achieve accurate
and efficient simulations. It is urgent to develop accurate and efficient
simulation models that can account for the dynamic differences among wind
turbines and the dynamics of collection lines within the wind farm.
This report utilizes the structural similarity of wind turbines to propose
vector simulation technology for wind farms, which can achieve refined
time-domain modeling of wind farms with only a small number of wind turbines and
can account for the internal dynamics of wind farms, thereby significantly
improving simulation efficiency. Additionally, the report proposes a
frequency-domain accurate modeling method for the sequence immittance of new
energy power stations, considering frequency coupling as well as AC/DC side
coupling based on harmonic linearization. A rapid prototyping real-time
simulation technology for new-type power systems has been introduced, and an
autonomous and controllable new-type power systems dynamic simulation
experimental platform has been constructed. Furthermore, a national independent
and controllable new-type power systems modeling and simulation software
(SimuNPS) has been jointly developed with Shanghai KeLiang Information
Technology Co., Ltd., and a frequency-domain analysis toolbox (FlexFD) has been
further developed as well. From the perspective of mechanism model and data
driven, a complete solution has been provided for the wideband oscillation
problems, offering strong support for the stable operation of new-type power
systems.
Bio: Dr.Yaowei, a professor at Huazhong University of Science and
Technology(HUST), and Dean of the Department of Electric Power Engineering. Dr.
Yao is also a recipient of the National Natural Science Foundation for Excellent
Youth. He obtained his bachelor's and doctoral degrees from HUST in 2004 and
2010, respectively. He joined HUST as a lecturer Since Sep., 2012. His research
mainly focuses on the stability analysis and control of AC/DC power systems with
high renewable energy penetration. He has successively led more than 40 research
projects, including 5 National Natural Science Foundation projects (Youth,
General, Integrated, Excellent Youth, Joint Key) and 1 National Key Research and
Development Program project. He has published over 100 SCI papers as the
first/corresponding author (including 3 ESI hot topics and 18 highly cited
papers), and authorized over 60 invention patents. He has received numerous
prestigious awards, including the National Teaching Achievement Award (Second
Prize), the National Science and Technology Progress Award (Second Prize, ranked
5th), the China Electrotechnical Society Science and Technology Progress Award
(First Prize), the Outstanding Science and Technology Worker in China’s Electric
Power Industry, the IEEE PES (China) Outstanding Young Talent Award, and the
Innovation Figure Prize by the China Association for Invention. Since 2021, he
has been consecutively listed in the Elsevier “Highly Cited Chinese Scholars”
for three years. He also serves as an editorial board member or associate editor
for 10 SCI/EI journals.
Assoc. Prof. Qiushi Cui
Chongqing University, China
Speech Title: Research and Software Development of Cyber-Physical Power System Simulation Technology
Abstract: In today's era of rapid digitalization and intelligent development, the complexity of power system is increasing day by day. Traditional analytical methods are no longer sufficient to meet the requirements of high precision and real-time performance of current power system.
Cyber-Physical Power System (CPPS) simulation technology has emerged as a solution. It combines the physical characteristics of power system with information processing technology. By constructing virtual models, it enables real-time simulation and analysis of the operational status of power system, and provides strong decision-making support for the planning, design, operation, and maintenance of power systems.
This presentation will explore the latest advancements in CPPS simulation technology, including its theoretical foundations, key technologies, and practical engineering applications. Additionally, we will highlight the power simulation software developed based on this technology, demonstrating its significant advantages in enhancing system reliability, optimizing resource allocation, and reducing operational costs, which offers a powerful foundation for the digital transformation and sustainable development of the power industry.
Bio: Dr. Qiushi Cui is an associate professor of Chongqing University. He has been recognized with several prestigious titles, including Young Top Talent of Chongqing (2023), High-level Talent of Jiangxi Province (2023), Special Expert of Zhejiang Province Youth Thousand Plan (2021), and Shanghai Higher Education Institution Distinguished Professor (Oriental Scholar) (2021). Additionally, He is a key member of Academician Wenyuan Li's research team. He also serves as the Chair of the Web Forum Task Force of the Big Data Analytics Committee of the IEEE Power and Energy Society. He received his Ph.D. from McGill University in Canada and did his postdoctoral research at Arizona State University in the United States. His main research interests include artificial intelligence of power system, power system protection and control, integrated energy system, real-time simulation of power grids and digital twins, etc.. He was granted Postdoctoral Fund by the Natural Sciences and Engineering Research Council of Canada (NSERC) and The Fonds de recherche du Québec–Nature et technologies (FRQNT). He has won the best paper award at four international conferences and has led and participated in several North American national-level projects.
Assoc. Prof. Dong Wang
Qingdao University of Science and Technology, China
Speech Title: Traveling Wave Fault Location for Transmission Line Integrated to Offshore Wind Farm
Abstract: The clean energy AC/DC transmission system represented by offshore wind power and photovoltaic adopts hybrid transmission forms, including submarine cables, offshore bridge cables, onshore underground cables, and overhead lines. The transmission corridor environment is complex, faults are prone to occur, and it is difficult to precisely locate faults. The fault location technology based on high-frequency transient traveling wave has been widely used in overhead line or underground cable conventional transmission network. However, for complex scenarios such as hybrid offshore cable/overhead transmission lines, the attenuation and distortion characteristics of traveling waves are uncertain. The effectiveness and accuracy of traveling wave fault location theories and technologies need to be further studied.
Therefore, in response to the limitations of existing overhead/cable line mathematical models, which are only applicable to certain frequency bands or rely on external data, a full-frequency band electromagnetic transient model accounting for the line structure and medium environment has been proposed. Additionally, to address the issues of traveling wave amplitude attenuation and spectral distortion under complex medium influences, a high-precision distributed traveling wave fault location principle that accounts for the entire traveling wave propagation process has been introduced.
Bio: Dr. Dong Wang obtained his Bachelor's degree and Ph.D. from Shandong University in 2013 and 2018, respectively. Currently, he is an associate professor at Qingdao University of Science and Technology, the leader of the "Microgrid New Energy Storage Innovation Team" of Youth Innovation Team of Shandong Higher Education Institutions, a member of the Shandong Provincial Science and Technology Expert Database, and an executive director of the Power Line Protection Subcommittee of the IEEE PES Power System Protection and Control Technical Committee (China). He also serves as a Young Assistant Editor for the journals Protection and Control of Modern Power Systems and Power System Protection and Control.
He has led 1 National Natural Science Foundation of China project, 2 Shandong Provincial Natural Science Foundation projects, and 1 Ministry of Education Key Laboratory Open Project. As a core backbone, he has participated in 1 National Key Research and Development Program project and 1 Shandong Provincial Major Industrial R&D Project for Industrial Transformation. Furthermore, He has led 9 technology projects, including a Technology Challenge (Jiebang) Project from Guangdong Power Grid Corporation. He has published 25 SCI papers as the first author and has been granted 11 national invention patents as the first inventor.
Assoc. Prof. Yuhua Zhang
Shanghai University of Electric Power, China
Speech Title: Research on Simulation and Application Practice of SimuNPS
Abstract: Regarding the application and development of the new-type power systems modeling and simulation software SimuNPS, targeted work has been carried out mainly in terms of its scientific research applications and teaching applications, contributing to the localization of power simulation. In power electronics scientific research, simulation experiments were conducted respectively on the half - bridge LLC resonant converter and the LCL - LC grid - connected inverter with leading - phase compensation. And the paper "Hybrid Damping Strategy for LCL - LC Grid - connected Inverter with Leading - phase Compensation" was published. In teaching, typical experimental research was carried out for the experiments in the undergraduate course "Circuit" and the postgraduate course "Application of Power Electronics Technology in Power Systems". These research results have been well promoted and applied in teaching, achieving good results.
Bio: Zhang Yuhua, a Ph.D. and associate professor at Shanghai University of Electric Power. He is mainly engaged in the research and teaching of power quality management and integrated energy in the new power system. He has won the Second Prize of Science and Technology of the China Electrotechnical Society; the Excellent Instructor (Special Prize) of the "Challenge Cup" in Shanghai. He has also won the Special Prize and the First Prize of Teaching Achievement of the Henan Provincial Department of Education, the Second Prize of State Grid Science and Technology Award, and the First Prize in Shanghai. He is one of the main contributors to the construction of the national first-class course "Circuit" and a member of the national "Huang Danian" type teacher team.