Building technology that moves people forward.
Our projects span four connected themes — from body-worn devices to the robots and neuromuscular science behind recovery.
Wearables & Prosthetics
Body-worn sensing and actuation — smart insoles, exo-devices, and prosthetic interfaces that measure movement and give support where people need it most.
INSTRUMENTED INSOLE A low-cost instrumented insole that reads gait in real time to help control lower-limb exoskeletons.
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PERL A personalized ankle exoskeleton giving children with cerebral palsy adaptive gait assistance.
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OPEN-ARMS An open-source, lightweight pediatric arm exoskeleton offering assist-as-needed shoulder and elbow support.
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FLORA A semi-active ankle orthosis that tunes joint stiffness to assist walking without restricting it.
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TENS PROSTHESIS Non-invasive nerve stimulation that restores proprioceptive feedback to a robotic hand prosthesis.
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TENTACLE ROBOT A soft, myoelectric tentacle prosthesis that coils to grasp objects of many shapes and sizes.
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INSTRUMENTED CRUTCH An instrumented smart crutch that senses load and intent to inform exoskeleton control.
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CARE A compact, high-torque cycloidal actuator designed for wearable robotic exoskeletons.
View projectRehabilitation Robots
Robotic and haptic platforms that guide, resist, and adapt to a patient’s effort — retraining reaching, grasping, and gait through precise, repeatable therapy.
ROBOREHAB-6D Adaptive assist-as-needed control that tailors robotic upper-limb therapy to each patient’s effort.
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ROBOREHAB-2D A low-cost, open-source planar robot for motivating, game-based upper-limb rehabilitation.
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HAPTIC3D A reproducible, affordable 3-DOF haptic robot for pediatric upper-limb rehabilitation.
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HAPTICMASTER A 3-DOF arm-support mechanism that adds wrist motion to the HapticMaster rehab robot.
View projectNeuromuscular Control
Understanding how the nervous system drives movement — combining biomechanics, EMG, and modelling to decode and restore neuromotor control.
POSTURAL CONTROL VISION Modelling how vision drives human balance using VR perturbations and system identification.
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POSTURAL CONTROL INTERACTIONS Quantifying how vision and proprioception interact in human postural control.
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ANKLE-DYNAMICS A 3D-printed interface for accurate identification of dynamic ankle-joint stiffness.
View projectAssistive Technologies
Human-centred devices that extend independence in daily life — from EMG-driven assistive robots to tools co-designed with patients and clinicians.