Projects

This research project explores a personalized nanofiber-based strategy for diabetic wound care, focusing on delivering adaptable formulations to match the dynamic wound microenvironment. It aims to provide a diabetes-specific therapeutic strategy, enhancing healing with custom-designed, dynamic wound dressings. Read more

This research project focuses on creating bio-sourced, biodegradable polyester films as eco-friendly substitutes for polyolefins. It aims to develop bioplastics with smart barrier features for high-value applications, including hygienic packaging and biomedical tapes, supporting carbon neutrality goals. Read more

This project introduces a cost-effective prosthetic foot enhancing mobility via biomechanics analysis, material characterization, and a leaf spring system. It examines 3D geometrical changes and biomechanical parameters, focusing on improving dynamic activities for unilateral transtibial amputees. Read more

This research project investigates poly(ester amide)s nanofibers as wound dressing materials, focusing on using arginine metabolism for sequential modulation of the wound microenvironment. The goal is to enhance healing across various wound stages through adaptable and bioactive materials, facilitating effective recovery. Read more

This project focuses on enhancing the anisotropic textile brace for adolescent scoliosis, aiming to prevent spinal curvature progression. By evaluating its short- and long-term effects, the project seeks to improve design and comfort for those unable to adapt to rigid braces. Read more

This project develops a framework using foot biomechanics, dynamic 3D scanning, and material properties to design orthotic insoles, offering precise pressure control and advancing footwear design for better health. Read more

This multi-disciplinary project combines computer science, orthopaedics, materials science, garment technology, engineering, and biomechanics to develop an AI-designed flexible scoliotic brace. It utilizes patient datasets to train machine learning models, aiming to enhance brace design for scoliosis patients. Read more

This project develops a posture correction girdle for adolescent scoliosis, offering daily support and sensor-equipped monitoring. It aims to minimize the need for braces or surgery, enhancing comfort and treatment compliance. Read more

This project reviews textile-based fiber optic sensors for health monitoring, focusing on their development, wear comfort, and force-strain relationships. It aims to create pressure monitoring garments for AIS patients and devise a biomechanical model to simulate brace pressure effects on the spine. Read more

This project targets the knowledge gaps in pressure therapy garments, aiming to control pressure accurately and reduce hypertrophic scarring, ultimately enhancing burn injury management and improving treatment outcomes. Read more