Maximilian Stelzer

About

Maximilian Stelzer is a robotics and mechatronics researcher whose work spans bipedal locomotion, humanoid robot optimization, compliant actuation systems, and industrial robot modeling. His most influential contribution, "Towards Bipedal Jogging as a Natural Result of Optimizing Walking Speed for Passively Compliant Three-Segmented Legs" (2009, 59 citations), challenged conventional robotics wisdom by demonstrating that passive elasticity — typically suppressed in robot design — could be harnessed to produce naturalistic gaits inspired by human biomechanics. Complementing this, his work on walking speed optimization for humanoid robots, particularly in the RoboCup context (39 citations), advanced the field of autonomous, dynamically stable robot locomotion. Stelzer has also made notable contributions to industrial robotics, developing coupled models to predict tool displacement during robot-assisted milling operations (25 citations), addressing a critical accuracy limitation in flexible manufacturing. His exploration of shape memory alloy (SMA) actuators introduced scalable, lightweight alternatives to conventional robotic drives, with applications in personal assistance robots. Further work on conformal geometric algebra for inverse kinematics and biologically inspired reflex-based stabilization control underscores his interdisciplinary approach. With a cumulative citation count exceeding 170, Stelzer's research bridges theoretical biomechanics, advanced control theory, and practical robotic engineering.

Research Focus

Key Achievements

Top Papers

1. 1
   Towards Bipedal Jogging as a Natural Result of Optimizing Walking Speed for Passively Compliant Three-Segmented Legs

   59 citations · 2009
2. 2
   Efficient Walking Speed Optimization of a Humanoid Robot

   39 citations · 2009
3. 3
   Prediction of the Tool Displacement by Coupled Models of the Compliant Industrial Robot and the Milling Process

   25 citations · 2008
4. 4
   Inverse kinematics of a humanoid robot based on conformal geometric algebra using optimized code generation

   12 citations · 2008
5. 5
   Object-oriented Dynamics Modeling for Legged Robot Trajectory Optimization and Control

   10 citations · 2004
6. 6
   Biologically Inspired Reflex Based Stabilization Control of a Humanoid Robot with Artificial SMA Muscles

   8 citations · 2006
7. 7
   Comparison of Implementations of a Flexible Joint Multibody Dynamic System Model for an Industrial Robot

   5 citations · 2008
8. 8
   Design, Measurement Experiments and Application of a Macroscopic Shape Memory Alloy Actuator System

   5 citations · 2006
9. 9
   Object-oriented dynamics modeling for simulation, optimization and control of walking robots

   5 citations · 2005
10. 10
    Control approach for a novel high power-to-weight robotic actuator scalable in force and length

    4 citations · 2007

Key Collaborators

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