3D printing models of biomolecules: Difference between revisions

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Creating 3D models of biomolecules has a huge potential for structural biology research and life science teaching. Currently, biomolecules are mostly visualized flat in only 2 dimensions. This limits spatial understanding. Even the occasionally employed 3D computer representations don't have the same immediate impact of a model that you can touch and turn. We are collecting protocols here on how to best print 3D models of biomolecules. Do contribute.
Creating 3D models of biomolecules has a huge potential for structural research and life science teaching. Currently, biomolecules are mostly visualized flat in only 2 dimensions. This limits spatial understanding. Even the occasionally employed 3D computer representations don't have the same immediate impact of a model that you can touch and turn. We are collecting protocols here on how to best print 3D models of biomolecules. Do contribute.
 
== See also ==
* [http://3dprint.nih.gov/ NIH 3D print exchange]
* [http://www.thingiverse.com/ Thingiverse model repository]
* [https://www.youmagine.com/ YouMagine model repository]
* [[3D printing in the life sciences]]

Revision as of 08:34, 15 April 2016

Creating 3D models of biomolecules has a huge potential for structural research and life science teaching. Currently, biomolecules are mostly visualized flat in only 2 dimensions. This limits spatial understanding. Even the occasionally employed 3D computer representations don't have the same immediate impact of a model that you can touch and turn. We are collecting protocols here on how to best print 3D models of biomolecules. Do contribute.

See also