| Project Detail |
"Computer vision, leveraging deep learning in the last decade, has achieved unprecedented progress. However, it is largely relying on datasets of still images, thus using ""passive vision"". On the contrary, biological vision is a fundamentally active process of exploration to disambiguate objects, and yet, the potential of active vision for robotics remains underexplored.
The ENDEAVOR project seeks to redefine traditional static image analysis within fast online robotic applications.
This project integrates the computational models of Sensorimotor Contingency Theory (ORegan and Noe, 2001) with event-driven perception and neuromorphic computing. Sensorimotor contingency represents the dynamic relationship between an agents sensory inputs and motor actions in the environment.
Active sensory data generation naturally aligns with event-driven perception, tracking moving objects via agent-generated events, while neuromorphic computing minimises latency and energy use.
The humanoid robot iCub will hold objects and examine them from various perspectives through eye and wrist movements. The project capitalises on bioinspired hardware and software solutions, ultimately aiming to reduce computational demands, power consumption, and latency in intelligent systems.
ENDEAVOR offers three significant contributions to computer vision and robotics: (1) It introduces active vision strategies that enhance object perception. (2) It integrates event-based visual sensing with rapid and efficient parallel computation, leveraging neuromorphic computing principles. (3) The project establishes a benchmark that allows for both qualitative and quantitative evaluations, fostering comparisons among various approaches, including frame-based, event-based, and spiking-based systems.
The importance of this approach lies in the effort to reduce the storage of massive amounts of data while aiming for mW of power consumption." |
