This inventor holds 1 USPTO granted patent. Top assignees: North China Electric Power University, State Grid Shanxi Changzhi Power Supply Company. Active years: 2017.
Company Filing History:
1 out of 106 
1 out of 1 Years Active: 2017
Title: Xiaoli Shen: Innovator in Power System Analysis
Introduction
Xiaoli Shen is a notable inventor based in Shanxi, China. He has made significant contributions to the field of power system analysis, particularly in the context of ultra-high-voltage power transmission. His innovative approach combines various grid models to enhance the understanding of substation operations.
Latest Patents
Xiaoli Shen holds a patent titled "Method for analyzing operation state of substation by combining whole grid model with local grid model." This patent addresses the intersection of ultra-high-voltage power transmission and power system simulation. The method involves performing a load flow calculation for the provincial grid associated with an ultra-high-voltage line. It utilizes a grid model in E format for national power grid dispatching control centers. The process includes making an equivalent transformation for the model, forming an island independent of the provincial grid, and conducting a load flow calculation for the island to obtain data on node voltages and line transmission power. He has 1 patent to his name.
Career Highlights
Xiaoli Shen has worked at prominent institutions, including North China Electric Power University and State Grid Shanxi Changzhi Power Supply Company. His experience in these organizations has allowed him to apply his innovative methods in real-world scenarios, contributing to advancements in power system analysis.
Collaborations
Xiaoli has collaborated with notable colleagues, including Lei Dong and Ye Li. Their joint efforts have furthered research and development in the field of power systems.
Conclusion
Xiaoli Shen's contributions to power system analysis through his innovative patent demonstrate his expertise and commitment to advancing the field. His work continues to influence the understanding of substation operations in the context of ultra-high-voltage power transmission.