Papers
17
Total Citations
613
H-Index
12
About
Nikolas Trawny is a robotics and autonomous systems researcher whose work spans cooperative multi-robot localization, relative pose estimation, and autonomous navigation. He is perhaps best known for his foundational contributions to cooperative localization (CL), where his investigations into observability-based consistent Extended Kalman Filter (EKF) estimators helped expose and correct systematic inconsistencies in standard approaches — work that has accumulated over 140 citations across related publications. His research on multi-robot systems under communication constraints introduced elegant MMSE and MAP estimators capable of functioning with severely quantized measurements, reflecting a deep commitment to practical, real-world deployment. Trawny also made significant contributions to 3D relative pose estimation, developing algebraic and geometric methods to determine inter-robot transformations from minimal distance measurements — work grounded in sophisticated polynomial solving techniques. Early in his career, he tackled autonomous stair climbing for tracked vehicles (118 citations), demonstrating breadth beyond localization theory. More recently, his work on NASA's ALHAT project brought his precision estimation expertise to planetary landing systems, flight-tested aboard the Morpheus rocket vehicle in 2014. Across his career, Trawny has consistently bridged rigorous mathematical theory with tangible autonomous systems applications.
Research Focus
Key Achievements
Top Papers
- 1Autonomous Stair Climbing for Tracked Vehicles118 citations · 2007
- 2
- 3Cooperative multi-robot localization under communication constraints78 citations · 2009
- 4Interrobot Transformations in 3-D61 citations · 2010
- 53D relative pose estimation from distance-only measurements38 citations · 2007
- 6Optimized motion strategies for cooperative localization of mobile robots36 citations · 2004
- 7
- 8On the consistency of multi-robot cooperative localization28 citations · 2009
- 9
- 103D relative pose estimation from six distances20 citations · 2009