Chenxi Li
Papers
1
Total Citations
7
H-Index
1
About
Chenxi Li’s research lies at the intersection of nonlinear control theory and fault-tolerant systems, with a particular focus on nonholonomic dynamic systems—a class of constrained mechanical systems that includes wheeled robots and mobile manipulators. In their most cited work, Li introduced a constructive fault-tolerant control strategy that harnesses terminal sliding mode techniques and minimal dilation degree schemes to handle actuator faults, including partial loss of effectiveness and additive actuation failures. This work, cited 7 times, provides a rigorous framework for ensuring stability and performance even under adverse conditions, a critical capability for autonomous systems operating in uncertain environments. Li’s contributions are notable for bridging theoretical control design with practical robustness, offering a systematic method to accommodate faults without sacrificing system agility. Their approach has implications for safety-critical applications in robotics and aerospace, where reliability is paramount. By advancing the understanding of how to maintain control under actuator degradation, Li has laid groundwork for more resilient autonomous platforms.
Research Focus
Key Achievements
Top Papers
- 1