Belinda Matebese
Papers
5
Total Citations
18
H-Index
3
About
Belinda Matebese’s research lies at the intersection of optimal control theory and mobile robotics, with a focused expertise in applying the Leapfrog method to solve complex path planning problems. Her work addresses the fundamental challenge of enabling robots to navigate real-world environments efficiently and safely, particularly in the presence of static obstacles. Matebese’s major contributions include pioneering the adaptation of the Leapfrog algorithm—a numerical method for nonlinear optimal control—to generate collision-free, energy-minimizing trajectories for mobile robots and manipulators. Her 2014 paper, "Application of the Leapfrog method to robot path planning," with 6 citations, established the foundation for this approach. She further refined the technique by integrating modified Newton’s method and Gaussian repulsive potential functions for obstacle avoidance, as demonstrated in her 2016 and 2018 works. Notably, her 2019 study extended the method to mobile manipulators, deriving optimality conditions via Pontryagin’s minimum principle. Though her citation counts are modest, Matebese’s work represents a specialized, rigorous contribution to optimal motion planning, offering a computationally elegant alternative to heuristic methods. Her research is particularly valuable for students and engineers interested in the mathematical underpinnings of autonomous navigation.
Research Focus
Key Achievements
Top Papers
- 1Application of the Leapfrog method to robot path planning6 citations · 2014
- 2
- 3Path planning with the Leapfrog method in the presence of obstacles3 citations · 2016
- 4Optimal Paths for a Mobile Manipulator using the Leapfrog Method3 citations · 2019
- 5Initialization of the leapfrog algorithm for mobile robot path planning2 citations · 2016