Philippe Nadeau

Ph.D. Student
Department: ,

I envision a future where robots will have the ability to interact intelligently and safely with their environment through perception, prior knowledge, common sense, and reasoning. My current research lies at the intersection of perception and planning, with an emphasis on efficient algorithms that make use of models to be fast enough to be deployed on real robots in human-centric environments.

 

So far, I’ve had the chance to undertake research in many incredible laboratories such as the Control and Robotics (CoRo) Laboratory at ETS with Prof. Vincent Duchaine, the Embodied Dexterity Group (EDG) at UC Berkeley with Prof. Hannah Stuart, the Orthopedics and Imaging Laboratory (LIO) at ETS with Prof. Rachid Aissaoui and the STARS Laboratory at the University of Toronto with Prof. Jonathan Kelly.

 

I earned my Bachelor degree from the École de Technologie Supérieure (ETS) in the Department of Systems Engineering. At ETS, I was enrolled in Automated Manufacturing Engineering, which focuses on industrial robotics, mechatronics and control. I then joined the University of Toronto Institute for Aerospace Studies (UTIAS) where I am currently pursuing my Ph.D. degree in robotics at the STARS Laboratory.
 

Fast Inertial Identification with Cobots


Providing cobots with the ability to quickly infer the inertial parameters of manipulated objects.

Fast Object Inertial Parameter Identification for Collaborative Robots
Philippe Nadeau, Matthew Giamou, Jonathan Kelly
International Conference on Robotics and Automation (2022)

Part Segmentation for Inertial Identification


By combining visual and force-torque measurements, we develop an inertial parameter identification algorithm that requires slow or ‘stop-and-go’ motions only, and hence is ideally tailored for use around humans.

The Sum of Its Parts: Visual Part Segmentation for Inertial Parameter Identification of Manipulated Objects
Philippe Nadeau, Matthew Giamou, Jonathan Kelly
International Conference on Robotics and Automation (2023)