RadioMatrix™

RadioMatrix™ for Radiopaque Medical Models

Technical Overview

RadioMatrix™ is a specialized radiopaque 3D printing material that enables the creation of medical models visible under standard imaging modalities like CT and X-ray. Designed for the Stratasys Digital Anatomy Printer, it support DICOM images into tangible, anatomically precise parts. The key differentiator is its ability to produce models with density levels that realistically mimic human tissue, providing critical visual feedback in clinical environments.

Performance: Superior Visibility in Medical Imaging

Parts printed with RadioMatrix™ exhibit consistent, high-contrast visibility when scanned. This radiopacity makes the material ideal for validating new medical devices, planning complex surgical procedures, and training clinical staff. The ability to see models and devices clearly within a clinically relevant imaging workflow helps improve procedural accuracy and confidence.

Performance: Realistic Tissue Simulation

Engineered to simulate a wide range of Hounsfield Unit (HU) values, RadioMatrix™ allows for the replication of specific tissue densities within a single, multi-material print. This capability enables the creation of highly realistic phantoms and patient-specific models where the contrast between different anatomical structures appears as it would in a real-world scan.

Design and Processing

RadioMatrix™ is optimized for use with the Stratasys Digital Anatomy Printer and is compatible with standard PolyJet gel-like support materials. This combination allows for complete geometric freedom, enabling the production of intricate internal structures and complex anatomical regions that are impossible to create with traditional manufacturing.

Lifecycle: From Device Testing to Surgical Rehearsal

This material supports the entire clinical innovation lifecycle. In the early stages, it is used to develop reliable testbeds for R&D and validate new imaging equipment. For practitioners, it serves as a critical tool for pre-surgical rehearsal and patient education, bridging the gap between digital imaging and hands-on procedural planning.