Papers
34
Total Citations
406
H-Index
11
About
M. Velasco-Villa is a prominent researcher specializing in mobile robotics, control systems, and multi-agent systems, with particular expertise in trajectory tracking, formation control, and robust feedback design for autonomous vehicles. His work spans both wheeled and omnidirectional mobile robots, addressing real-world challenges such as network-induced transport delays, nonlinear dynamics, and vision-based positioning. Among his most influential contributions is a 2012 study on Linear Observer-Based Active Disturbance Rejection Control for omnidirectional mobile robots, which has garnered over 100 citations and established a widely referenced framework for robust output feedback in the presence of unknown nonlinearities. His early research on discrete-time sliding mode control and Smith-predictor compensation tackled the critical problem of communication delays in remotely operated robots, demonstrating both theoretical rigor and practical relevance. Velasco-Villa has also made significant strides in multi-robot coordination, developing leader-follower formation strategies for nonholonomic robots, UAV-ground robot teams, and platoon-style chain formations. His computed-torque and dynamic model-based approaches have enriched the field beyond conventional kinematic controllers. Collectively, his body of work reflects a sustained commitment to bridging advanced control theory with autonomous robotic applications, making him a valuable reference for researchers and students working in robotics and control engineering.
Research Focus
Key Achievements
Top Papers
- 1
- 2Discrete-time sliding mode path-tracking control for a wheeled mobile robot30 citations · 2006
- 3
- 4Path-Tracking Dynamic Model Based Control of an Omnidirectional Mobile Robot24 citations · 2008
- 5Smith-predictor compensator for a delayed omnidirectional mobile robot23 citations · 2007
- 6
- 7Computed-Torque Control of an Omnidirectional Mobile Robot17 citations · 2007
- 8
- 9
- 10Chain formation control for a platoon of robots using time-gap separation12 citations · 2018