
ALT A) (i) Photograph of trabecular bone structure and (ii) fluorescence micrograph of auxetic patch fabricated through CLEAR. Scale bars, 10 mm. (B) Multimaterial CLEAR printing through the switching of liquid resins and visualized with different fluorescent tracers (yellow and gray). Fluorescence micrographs of a multimaterial hydrogel in the shape of (i) a lattice (z direction) and (ii) an axial patch (xy direction). Scale bars, 5 mm. (C) Photograph of stiff hydrogels processed into porous, flexible patches that (i) conform to an underlying curved substrate and (ii and iii) are extensible. Scale bars, 30 mm. Shape recovery without permanent deformation demonstrated through (D) (i to iv) compression of auxetic octet-truss lattice and (E) (i to iv) stretching of 3D coil. Scale bars, 10 (D) and 5 mm (E).

ALT MSc, MRes or PGDip Regenerative Medicine. An interdisciplinary field where scientists work towards the repair of diseased or damaged tissues using biological or cell-based technologies. Learn from experts in stem cell biology, cellular regeneration, biomaterials, and tissue engineering. Apply these concepts to problems in human health and the development of novel regenerative technologies. Receive advanced technical training through lab-based research projects in state-of-the-art research facilities. Delivered jointly by our Faculty of Medicine and Dentistry and School of Engineering and Materials Science. Open to graduates of a range of biological, physical sciences, medicine or dentistry degrees. Open for Sep 2024.























