![person put on the orthosis](https://www.uni-weimar.de/b-a-d.cloud/media/pages/digitale-orthetik/3974e03c1e-1717889146/bauhaus-art-design-cloud-005-1000x-q80.webp)
![person put on the orthosis](https://www.uni-weimar.de/b-a-d.cloud/media/pages/digitale-orthetik/3974e03c1e-1717889146/bauhaus-art-design-cloud-005-1000x-q80.webp)
![rendering of the toe part](https://www.uni-weimar.de/b-a-d.cloud/media/pages/digitale-orthetik/f4aa5e0cee-1717889146/bauhaus-art-design-cloud-011-1000x-q80.webp)
![rendering of the toe part with a closing machanism](https://www.uni-weimar.de/b-a-d.cloud/media/pages/digitale-orthetik/fc2a978f0f-1717889145/bauhaus-art-design-cloud-012-1000x-q80.webp)
![hand showcasing the flexibility of the material](https://www.uni-weimar.de/b-a-d.cloud/media/pages/digitale-orthetik/deabf9c21a-1717889145/bauhaus-art-design-cloud-010-1000x-q80.webp)
![](https://www.uni-weimar.de/b-a-d.cloud/media/pages/digitale-orthetik/e87f88f819-1717889145/bauhaus-art-design-cloud-014-1000x-q80.webp)
![screenshot, CAD-Programme Rhino3D and Grasshopper](https://www.uni-weimar.de/b-a-d.cloud/media/pages/digitale-orthetik/aa5b4ae338-1717889144/bauhaus-art-design-cloud-006-1000x-q80.webp)
![analyzing the precision by using a colored scale for reference](https://www.uni-weimar.de/b-a-d.cloud/media/pages/digitale-orthetik/fbd632700c-1717889144/bauhaus-art-design-cloud-007-1000x-q80.webp)
![screenshot displaying cells of the geometry](https://www.uni-weimar.de/b-a-d.cloud/media/pages/digitale-orthetik/ec2875a1e6-1717889145/bauhaus-art-design-cloud-004-1000x-q80.webp)
![rocky pieces in a container](https://www.uni-weimar.de/b-a-d.cloud/media/pages/digitale-orthetik/34c71bc31d-1717889147/bauhaus-art-design-cloud-003-1000x-q80.webp)
![individual sitting in front of a notebook programming geometry](https://www.uni-weimar.de/b-a-d.cloud/media/pages/digitale-orthetik/76cefeca0e-1717889149/bauhaus-art-design-cloud-008-1000x-q80.webp)
The aim of the ‘Digital Orthotics’ research project is to explore the potential of novel, digital design and manufacturing processes in the field of orthotics. The focus of the development and investigation is the foot/ankle area and, in particular, diabetic foot syndrome, which is to be treated using specific 3D-printed orthoses, including outsoles.
For this purpose, the body part is precisely captured with 3D scanning and the data obtained is computer-processed in a virtual design environment. The resulting components are individually adapted to the patient and manufactured using MJF 3D printing technology. Together with the practice partner "Rosenkranz Scherer GmbH", a continuous digital process chain is being developed in this way, which provides for both basic procedures and interfaces as well as corresponding possible applications in the field of innovative orthotic care.
Practice Partner: Rosenkranz Scherer GmbH
Funding: Freistaat Thüringen, Ministerium für Wirtschaft, Wissenschaft und Digitale Gesellschaft, Research Programme ProDigital