The Department of Electrical and Electronic Engineering at Stellenbosch University is leading the way in humanoid robotics with a cutting-edge research platform. The humanoid robot stands at full height with a functional torso, an operable right arm and hand, and a nearly completed left arm. Equipped with a webcam and advanced software, it can track and mimic human movements in real-time. โ€œOur system performs inverse kinematics, allowing it to follow human motions,โ€ says Dr William Duckitt. โ€œThis enables theoretical teleoperation from anywhere, demonstrating its potential for remote operation.โ€ Screenshot from @stellenboschuni / Instagram

A humanoid robot has been welcomed into the campus of Stellenbosch University, thanks to the Department of Electrical and Electronic Engineering.

The robot was developed to serve as a research material to advance robotics technology at the university.

As described by Engineering News, it features a functional torso and a fully operable right arm and hand, although the left part is still under development. Designed to show how robotics can mimic human-like movements, it's expected to pave the way for future developments in the field.

To make it more human-like, the robot comes with a webcam for vision tracking, which works alongside advanced software that enables it to analyze and mimic human movements in real time. Known as inverse kinematics, this allows the robot to follow the motions of a human operator.

In the same report, Dr. William Duckitt, a lecturer in the said department at SU, stated that the integrated technology makes it capable of remote operation. In fact, the platform can be theoretically controlled from anywhere in the world.

Robotic Development from Stellenbosch University

For now, the next stage of research for the robot will focus on developing actuators for its legs to achieve bipedal walking. This is a major step to make the robot fully mobile so it can fully mirror human motion. With this ability, it will help the robot interact more realistically since it will be able to act beyond basic arm and hand movement.

Students, to add, will also be involved in the robotic projects. Undergraduate SU students on their final-year projects will now design and develop custom actuators as well as the other developments planned for the robot. Through hands-on experience, it will help a new generation of engineers to deepen their contributions to robotics research.

Aside from the physical development, a master's student will also work on the virtual robotics simulations to achieve sim-to-real transition where simulations are applied to real-world prototypes. Previously used in particle accelerator control systems will allow the team to handle complex tasks with ease.