Physicalizing cardiac blood flow data via 3D printing

•Blood flow data from 4D Flow MRI can be visualized using affordable 3D printers.•Flow physicalization is a tangible alternative to digital 3D flow visualizations.•The presented physicalization framework can be applied to real medical data. [Display omitted] Blood flow data from cardiac 4D Flow MRI...

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Bibliographic Details
Published in:Computers & graphics 2019-12, Vol.85, p.42-54
Main Authors: Ang, Kathleen D., Samavati, Faramarz F., Sabokrohiyeh, Samin, Garcia, Julio, Elbaz, Mohammed S.
Format: Article
Language:English
Subjects:
3D printing
4D Flow MRI
Biomedical applications
Blood flow
Fabricability
Fields (mathematics)
Flow visualization
Fused deposition modeling
Magnetic resonance imaging
NMR
Nuclear magnetic resonance
Physical visualization
Rapid prototyping
Space perception
Three dimensional flow
Three dimensional printing
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Summary:•Blood flow data from 4D Flow MRI can be visualized using affordable 3D printers.•Flow physicalization is a tangible alternative to digital 3D flow visualizations.•The presented physicalization framework can be applied to real medical data. [Display omitted] Blood flow data from cardiac 4D Flow MRI (magnetic resonance imaging) holds much potential for research and diagnosis of flow-related diseases. However, understanding this data is quite challenging – after all, it is a volumetric vector field that changes over time. One helpful way to explore the data is by flow visualization, but most traditional flow visualizations are designed for 2D screens and thus suffer from limited depth perception and restricted screen space. We propose a novel slice-based physical model as a complementary method for visualizing the flow data. The design of this model respects the conventional method of viewing medical imagery (i.e., in cross sections) but has the added advantages of engaging one’s sense of touch, not suffering from screen space restrictions, and being easily fabricated by affordable fused deposition modelling (FDM) printers. We apply the slice-based technique to different representations of blood flow data and demonstrate that the technique is capable of transforming volumetric flow data into a tangible, easily fabricable model.
ISSN:0097-8493
1873-7684
DOI:10.1016/j.cag.2019.09.004