Papers
19
Total Citations
211
H-Index
9
About
Tyler Summers is a robotics and control systems researcher whose work sits at the intersection of robust autonomy, motion planning under uncertainty, and cyber-physical security. His most recognized contribution is the development of distributionally robust sampling-based motion planning, most notably DR-RRT (2018, 42 citations), which challenged the prevailing assumption of Gaussian uncertainty distributions by instead leveraging moment-based ambiguity sets — a more realistic and flexible framework for real-world robotic deployment. Building on this foundation, Summers has advanced a family of risk-aware planning architectures, including RANS-RRT* and integrated perception-control pipelines, that tightly couple probabilistic uncertainty with nonlinear dynamics to produce provably safer robot behavior. Beyond motion planning, Summers has made notable contributions to cybersecurity in multi-robot systems, developing spoof-resilient coordination frameworks that protect distributed robotic networks from identity-based attacks (2017, 27 citations). His work on policy iteration for linear quadratic games (2020, 23 citations) bridges adversarial machine learning and classical robust control theory, offering rigorous foundations for safe reinforcement learning. Across his portfolio — spanning aerial swarms, formation control, series elastic actuators, and game-theoretic control — Summers consistently addresses the challenge of making autonomous systems reliably safe and trustworthy in uncertain, adversarial environments.
Research Focus
Key Achievements
Top Papers
- 1Distributionally Robust Sampling-Based Motion Planning Under Uncertainty42 citations · 2018
- 2Spoof resilient coordination for distributed multi-robot systems27 citations · 2017
- 3Policy Iteration for Linear Quadratic Games With Stochastic Parameters23 citations · 2020
- 4
- 5
- 6Spoof Resilient Coordination in Distributed and Robust Robotic Networks14 citations · 2021
- 7Minimax Iterative Dynamic Game: Application to Nonlinear Robot Control Tasks13 citations · 2018
- 8
- 9
- 10