|A 3D-printed foot model (left) and its cross-section (right) clearly reveal the intricate internal architecture of the different bone types, as well as the surrounding soft tissue.
Steven Keating and Ahmed Hosny/Wyss Institute at Harvard University.|A 3D-printed multimaterial model of a calcified heart valve shows hard calcium deposits (white) with fine-scale gradients in mineral density that are impossible to fully capture using conventional biomedical 3D printing approaches.
James Weaver and Ahmed Hosny/Wyss Institute at Harvard University.|Three of the co-authors of the paper, left to right: Ahmed Hosny holding models of Steven Keating’s tumor, Steven Keating holding a model of his own skull, and James Weaver holding models of Keating’s MRI scan.
Wyss Institute at Harvard University.|High-throughput tissue filtering, a major feature of the approach developed by the authors of the study, can help quickly remove extraneous tissue to reveal the desired underlying structures (right) without sacrificing the resolution or intensity gradients present in the native imaging data (left and center).
James Weaver and Steven Keating/Wyss Institute at Harvard University.