Author/Authors :
Eliceiri, Kevin W. Laboratory for Optical and Computational Instrumentation - University of Wisconsin –Madison - Observatory Drive - Madison - WI , USA , Cox, Benjamin L. Laboratory for Optical and Computational Instrumentation - University of Wisconsin –Madison - Observatory Drive - Madison - WI , USA , Schumacher, Nathan Laboratory for Optical and Computational Instrumentation - University of Wisconsin –Madison - Observatory Drive - Madison - WI , USA , Konieczny, John Laboratory for Optical and Computational Instrumentation - University of Wisconsin –Madison - Observatory Drive - Madison - WI , USA , Reifschneider, Issac Laboratory for Optical and Computational Instrumentation - University of Wisconsin –Madison - Observatory Drive - Madison - WI , USA , Mackie, Thomas R. Laboratory for Optical and Computational Instrumentation - University of Wisconsin –Madison - Observatory Drive - Madison - WI , USA , Otegui, Marisa S. Laboratory for Optical and Computational Instrumentation - University of Wisconsin –Madison - Observatory Drive - Madison - WI , USA
Abstract :
Three-dimensional (3D) printing has become a useful method of fabrication for many clinical
applications. It is also a technique that is becoming increasingly accessible, as the price of the necessary tools
and supplies decline. One emerging, and unreported, application for 3D printing is to aid in the visualization of
3D imaging data by creating physical models of select structures of interest.
Methods: Presented here are three physical models that were fabricated from three different 3D microscopy
datasets. Different methods of fabrication and imaging techniques were used in each case.
Results: Each model is presented in detail. This includes the imaging modality used to capture the raw data, the
software used to create any computer models and the 3D printing tools used to create each model. Despite the
differences in their creation, these examples follow a simple common workflow that is also detailed.
Conclusions: Following these approaches, one can easily make 3D printed models from 3D microscopy datasets
utilizing off the shelf commercially available software and hardware.
Keywords :
3D-visualization , Instructional models , 3D-imaging , Microscopy , 3D-printing
