Robert Wittmann
Papers
20
Total Citations
300
H-Index
11
About
Robert Wittmann is a prominent robotics researcher whose work centers on humanoid and bipedal robot locomotion, autonomous navigation, and real-time motion planning. His research addresses some of the most demanding challenges in making humanoid robots practical in unstructured, real-world environments — from dynamic obstacle avoidance to disturbance rejection and robust walking stabilization. Among his most significant contributions is a suite of real-time planning frameworks that enable bipedal robots to navigate unknown environments autonomously. His 2017 paper on real-time path planning in unknown environments for bipedal robots has garnered 42 citations, while his work on autonomous robotic frameworks for logistics applications leads his portfolio with 47 citations, reflecting broad cross-disciplinary relevance. His foundational contributions to state estimation, footstep optimization using nonlinear model predictive control, and vision-based 3D environment modeling have collectively shaped modern humanoid locomotion research, accumulating over 230 citations across his top works. Wittmann's research uniquely bridges perception, control, and planning — integrating sensor fusion, Kalman filtering, and computer vision into cohesive systems deployable on physical robots. His body of work represents a comprehensive and technically rigorous roadmap toward truly autonomous humanoid navigation.
Research Focus
Key Achievements
Top Papers
- 1An Autonomous and Flexible Robotic Framework for Logistics Applications47 citations · 2017
- 2Real-Time Path Planning in Unknown Environments for Bipedal Robots42 citations · 2017
- 3State estimation for biped robots using multibody dynamics23 citations · 2015
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- 5Real-time pattern generation among obstacles for biped robots20 citations · 2015
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- 8Real-time nonlinear model predictive footstep optimization for biped robots16 citations · 2015
- 9Model-based predictive bipedal walking stabilization15 citations · 2016
- 10An estimation model for footstep modifications of biped robots11 citations · 2014