This research improves combination vaccines by addressing antigen competition using injectable hydrogels that slowly release antigens. This approach produces balanced immune responses to multiple diseases, unlike traditional vaccines. The innovation could reduce the number of shots required, improve global vaccine access, and ensure more effective immunization, particularly in underserved populations.

This research improves neural implants for vision restoration by reproducing natural brain activity patterns. Using a two-way stimulation approach in the retina, electrical signals are optimized to activate neurons precisely. This enables more accurate visual perception, moving beyond crude light flashes toward meaningful vision, with potential to restore recognition of familiar faces.

This research shows that children born without a hand can generate complex muscle signals by imagining movements, enabling control of advanced prosthetics. Their abilities develop similarly to typical motor patterns, challenging assumptions and expanding access to sophisticated prosthetic technology for paediatric patients.

This research develops realistic surgical simulation models using 3D printing to improve training for complex procedures. By enabling repeated practice in a safe environment, the models enhance skill, confidence, and performance. The work aims to make advanced surgical training more accessible while reducing errors and improving patient outcomes.

This research shows that pulse oximeters are less accurate for darker skin tones due to biased design. By developing sensors that account for skin pigmentation, accuracy improves significantly across populations. The work highlights the need to embed equity into medical device design to ensure fair and reliable healthcare for all.

Despite major advances in medicine, wound care has changed little in a century. This research explores how natural electrical signals in injured skin guide healing. By developing devices that mimic these signals, scientists aim to accelerate recovery and improve treatment for chronic wounds through bioelectric control of cellular behaviour.

This research develops an inhalable treatment for lung infections using nanocrystalline silver with both antimicrobial and anti-inflammatory properties. By adapting proven skin-based technology for respiratory delivery via nebulization, it targets both pathogens and harmful inflammation, addressing a major gap in lung disease treatment affecting over a billion people worldwide.

This research develops injectable, enzyme-coated gel beads to treat bone fractures non-invasively. Using lab-on-a-chip technology, the beads trigger clot formation at injury sites, supporting natural healing while providing structural stability. This approach could reduce reliance on surgery, improve recovery outcomes, and address non-healing fractures affecting millions annually.

This research develops a bio-inspired zirconia composite for dental crowns by incorporating a polymer “mortar” to improve fracture toughness and reduce hardness. Using freeze casting, the material mimics nacre structure, preventing crack propagation and minimizing tooth wear, offering a more durable and biologically compatible alternative to conventional zirconia crowns.

This research examines stroke risk in sickle cell disease by modelling blood flow in the Circle of Willis. While ultrasound predicts risk in children, it fails in adults. Using MRI-based, patient-specific simulations, the study identifies major differences in blood flow patterns, offering a non-invasive, more reliable method for adult stroke prediction.