YUFEI WANG

Dr. YUFEI WANG


Research Focus & Metrics

Academic Career Length

15Years (2012-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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20 February 2019 in Journal of Modern Power Systems and Clean Energy
Verified
Journal Article
Open access
PDF file
YWYUFEI WANG
YUFEI WANG
YLYanli Liu
Yanli Liu
JLJune Li
June Li
To warn the cascading failures caused by cyberattacks (CFCAs) in real time and reduce their damage on cyber-physical power systems (CPPSs), a novel early warning method based on attack gains and cost principle (AGCP) is proposed. Firstly, according to the CFCA characteristics, the leading role of attackers in the whole evolutionary process is discussed. The breaking out of a CFCA is deduced based on the AGCP from the view of attackers, and the priority order of all CFCAs is then provided. Then, the method to calculate the probability of CFCAs is proposed, and an early warning model for CFCA is designed. Finally, to verify the effectiveness of this method, a variety of CFCAs are simulated in a local CPPS model based on the IEEE 39-bus system. The experimental results demonstrate that this method can be used as a reliable assistant analysis technology to facilitate early warning of CFCAs.

31 March 2012 in International Journal of Digital Content Technology and its Applications
Verified
Journal Article
Closed access
YLYuancheng Li
Yuancheng Li
YWYUFEI WANG
YUFEI WANG

21 February 2025 in Sensors
Verified
Journal Article
Open access
PDF file
QWQingqing Wu
Qingqing Wu
YWYUFEI WANG
YUFEI WANG
DZDI ZHAI
DI ZHAI
YLYang Lu
Yang Lu
CZCheng Zhong
Cheng Zhong
YLYuxuan Li
Yuxuan Li
The widespread application of terminal sensors in power pipe galleries (PPGs) has significantly improved our ability to monitor power equipment status. However, the difficulties in battery replacement caused by confined space and energy loss caused by communication conflicts between sensors due to existing low-power communication strategies results in a lack of reliable energy supply for terminal sensors. In this context, a low-power communication strategy for terminal sensors is proposed. Firstly, a demand analysis is conducted on the status monitoring of PPGs, and a technical framework for low-power communication of terminal sensors is proposed. Afterward, a system model for the low-power communication of terminal sensors is established based on cognitive backscatter technology. Subsequently, key technologies, such as RF energy harvesting of terminal sensors and distance–energy level coupling analysis, are proposed to achieve continuous energy supply and avoid communication conflicts in the system model. Finally, a wireless communication simulation environment for PPGs is established to simulate the status monitoring process, based on terminal sensors, in order to verify the effectiveness of the proposed method.