Design and Adaptive Control of an Ankle Exoskeleton for Children with Cerebral Palsy
In this project, a portable cost-efficient active ankle orthosis is designed and controlled through adaptive intelligent algorithms.
The system serves as the first module of the Pediatric Exoskeleton Robot for Lower-limb (PERL) which aims at assisting and facilitating the rehabilitation of children with cerebral palsy.
Design and Prototyping of a Semi-Active Variable-Mechanics Ankle Exoskeleton
Modern passive ankle-foot exoskeletons do not exhibit appropriate biomechanics during walking, and are unable to adjust their mechanics for different phases of gait and for different environments. In this project, we introduce FLORA - FLexible Orthoses for Rehabilitation of Ankle, which is a semi-active ankle-foot orthoses with customizable stiffness.
Analysis of Human Motor Adaptation during Gait Using a Lower-limb Robotic Exoskeleton
The study of motor adaptation is key to a better understanding of mechanisms underlying motor learning. In collaboration with the Motion Analysis Lab at Harvard University, the ExoRoboWalker - a 6-degree-of-freedom lower-limb overground exoskeleton - was used to test the human motor adaptation during gait. The robot is programmed to generate random perturbation with different angular orientations at the ankle.
Neuromuscular Control, Diagnostics and Rehabilitation
Identification of the Sensory Interactions between Vision and Proprioception in Human Balance Control
The main objective of this project is to develop a system identification algorithm to characterize the joint contribution of sensory modalities to human postural control through experimentation, data analysis, model development and simulations.
We use an experimental apparatus which delivers proprioception and visual perturbations using pedals and a virtual reality (VR) system, while recording responses in terms of kinematic and dynamic data as well as muscle activations (EMGs).