Papers
11
Total Citations
61
H-Index
5
About
Tiago Pereira is a robotics researcher whose work spans autonomous navigation, multi-robot coordination, and motion planning for perception tasks. His research addresses fundamental challenges in enabling robots to operate intelligently and collaboratively in real-world environments, with particular emphasis on making robotic systems more capable and efficient. Among his most recognized contributions is his work on the Pepper humanoid robot, where he developed methods to enhance autonomous navigation and personalized human-robot interaction — his most cited work with 16 citations. Pereira has also made meaningful advances in multi-robot exploration and planning, introducing innovative tools such as robot-dependent reachability maps and topological map-based coordination frameworks that allow teams of robots to divide and conquer complex environments efficiently. A distinctive thread throughout his research is the development of visibility maps — geometric representations that capture a robot's sensing and motion reach — which he extended to arbitrarily shaped robots and applied to optimal perception planning problems. His PA* algorithm elegantly balances motion and sensing costs to find optimal paths for perception tasks. With contributions spanning heterogeneous multi-agent planning and remote robot instruction sharing, Pereira's body of work reflects a broad and practically grounded vision for intelligent, cooperative robotic systems.
Research Focus
Key Achievements
Top Papers
- 1
- 2Coordination for Multi-robot Exploration Using Topological Maps9 citations · 2014
- 3Multi-robot Planning Using Robot-Dependent Reachability Maps6 citations · 2015
- 4
- 5Visibility maps for any-shape robots5 citations · 2016
- 6Multi-Robot Planning for Perception of Multiple Regions of Interest5 citations · 2017
- 7
- 8Heterogeneous multi-agent planning using actuation maps3 citations · 2018
- 9Help Me! Sharing of Instructions Between Remote and Heterogeneous Robots3 citations · 2016
- 10PA*: Optimal Path Planning for Perception Tasks3 citations · 2016