Projects List
- Soft nonholonomic constraints: Theory and applications to optimal control
- Design and Modeling of a Novel Single-Actuator Differentially Driven Robot
- Depth estimation from edge and blur estimation
- Occlusion detection & handling in monocular SLAM
- Autonomous Underwater Vehicle for Monitoring of Maritime Pollution
- Teleoperation of UAV with Haptic Feedback
- Advanced Control Strategies for Unmanned Aerial Vehicles
- Ground Vehicles Driver Assistance and Active Safety Control Systems
- Pedestrian Detection
- Towards Fully Autonomous Self-Supervised Free Space Estimation
- Object-Oriented Structure from Motion
- Humanoid Fall Avoidance
Towards Fully Autonomous Self-Supervised Free Space Estimation
Fully autonomous free space estimation is considered one of the holy grails of robotics research. Despite an abundance of algorithms tackling this problem, it is still considered an unsolved problem mainly due to the particularity of proposed algorithms to certain environments. This phenomenon is much more prominent in environments where the properties of free space vary, whether the variation was spatially or temporally. Algorithms tailored specifically to a certain environment are expected to perform rather poorly when the properties of the environment change. This project aims to solve this problem through developing a sustainable system able to reliably navigate harsh dynamic environments for a long time.
By: Ali Harakeh
Work continued by: Mahmoud Hamandi