A single transistor can mimic the neural and synaptic behaviours of the human brain, bringing biologically inspired computing closer to reality.

Bringing non-linearity into the light, a new photonic accelerator allows AI to compute and respond entirely in the optical domain.

Soft, robust miniature robots powered by fluid kinetic energy can traverse tricky terrains at impressive speeds, offering a valuable new tool for search and rescue operations.

Driven by a differential series elastic actuator, a novel back-support exoskeleton aids users during lifting tasks, easing strain without adding muscle activation to the back and legs.

Soft robots with human-like perception can anticipate sensory inputs, detect contact and adapt dynamically, paving the way for applications in autonomous exploration and precision-driven medical procedures.

A fast-adaptive estimator for robust flight control draws from the best of both deep-learning techniques and conventional control algorithms to improve drone performance.

By improving how unmanned ground vehicles see and navigate complex, cluttered construction sites, automation is set to transform tasks like site mapping and monitoring.

By integrating building information with indoor spatial data, robots are equipped with the capability to navigate and map complex indoor spaces more efficiently, advancing how industries capture the digital representation of the built environment.

Modelled on the neural control systems of animals, a new layered control framework enables legged robots to navigate complex terrains with greater agility and precision.

Designing safe, reliable and human-centric robots is a growing priority as they become an integral part of daily life.

The new Centre for Environment and Ageing Well at the College of Design and Engineering transforms how societies approach ageing-related challenges through research-driven solutions — ensuring an inclusive future in ageing.

By integrating triboelectric and visuotactile sensing, a novel bionic electro-mechanosensory finger achieves both remote control and tactile perception, mimicking the platypus’s ability to sense electronical signals in murky waters and respond to physical stimuli.