![Picture13.png](https://images.squarespace-cdn.com/content/v1/5c341e193e2d09426b42e326/1547409299052-UMG5DZU6A06DXMA53G3D/Picture13.png)
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![MIT 2-lens Projection Stereolithography application slide 2.jpg](https://images.squarespace-cdn.com/content/v1/5c341e193e2d09426b42e326/1547409172039-JJXC1DMOAT741SYMF6TZ/MIT+2-lens+Projection+Stereolithography+application+slide+2.jpg)
![XYZStage-1.jpg](https://images.squarespace-cdn.com/content/v1/5c341e193e2d09426b42e326/1547409153487-W88GL2NCQVQHF8CV9JNC/XYZStage-1.jpg)
cambridge, ma
In projection micro-stereolithography, UV light passing through a modified digital projector is focused down to a tiny region. The resulting sub-micron resolution suits this technology well for biological applications. The system we designed and built was used at MIT to create vascularized scaffolds for liver cells growth.
In projection micro-stereolithography, UV light passing through a modified digital projector is focused down to a tiny region. The resulting sub-micron resolution suits this technology well for biological applications. The system we designed and built was used at MIT to create vascularized scaffolds for liver cells growth.