This innovative scaffold technology combines alginate, aloe, and honey to create 3D printed structures that promote skin repair and regeneration while reducing microbial growth and inflammation. Ideal for wound healing applications, it customizes scaffold size and geometry.
This advanced scaffold technology leverages the unique properties of alginate, aloe, and honey to create a 3D printed solution for skin repair and regeneration. The combination is designed to promote healing by providing a supportive structure that fosters cell growth and reduces inflammation and microbial presence. The use of 3D printing allows for precise customization of scaffold geometry to match specific wound shapes and sizes, enhancing the effectiveness of the treatment.
Key features:
The current technology readiness level is assessed at 3, indicating that active research is ongoing to optimize the concentration of components and validate biocompatibility and anti-inflammatory effects through cellular assays.
Lawrence Technological University is a private STEM- and design-focused university of a few thousand students with a hands-on, industry-centric culture. Based in Southfield within the Detroit metro manufacturing and mobility hub, LTU connects companies to faculty expertise, student talent, and shared prototyping spaces for rapid development. A structured co-op and internship model, plus professional studios and capstone collaborations, streamlines applied engagements and recruiting. Research is supported by competitive federal and state funding, including National Science Foundation awards and industry contracts. A dedicated technology transfer office supports IP strategy, prototyping, supplier introductions, and commercialization.