About

Albert Wu is a leading roboticist whose research focuses on dynamic locomotion, bipedal robotics, and control theory. His major contributions center on the application of the spring-mass model to achieve highly robust running and walking in uncertain environments. Wu’s work on deadbeat control policies—demonstrated on the ATRIAS bipedal robot—has shown how theoretical models can be translated into physical machines capable of withstanding large, unexpected disturbances. His most cited paper (84 citations) reveals a time-based deadbeat control for robust running, while his experimental evaluation of ATRIAS (38 citations) validates these theories in practice. Wu also advanced kinodynamic planning with the R3T algorithm (27 citations) and developed the Axel rover (15 citations) for planetary exploration in inaccessible terrains. His recent work on real-time model predictive control using differentiable simulation (10 citations) bridges simulation-to-reality transfer. With over 330 total citations, Wu’s research has profoundly influenced the design of compliant, agile robots that operate reliably in complex, real-world environments.

Research Focus

Key Achievements

10
H-Index
11
Papers
337
Total Citations
31
Avg Citations/Paper
🏆 Most Cited Paper
The 3-D Spring–Mass Model Reveals a Time-Based Deadbeat Control for Highly Robust Running and Steering in Uncertain Environments
84 citations · 2013
📈 Most Prolific Year: 2015 (2 Papers)
🤝 Key Collaborators: 26
🏛 Institutions: Carnegie Mellon University, Massachusetts Institute of Technology, American Institute of Aeronautics and Astronautics, Stanford University

Top Papers

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    Axel
    15 citations · 2009
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Key Collaborators

Contact & Links

Available for collaboration
Content generated · 13 days ago