Rapid, voxel-based 3D printing with yield-stress fluid inks

Despite decades of progress, 3D printing still presents trade-offs in what materials can be printed and at what resolutions, speeds, and part volumes. We introduce direct ink additive lithography, or DIAL, to alleviate these trade-offs when printing with yield-stress, complex fluid inks used to print functional materials. DIAL combines translational photopatterning with ink sheet deposition for rapid, voxel-based 3D printing. Using model DIAL inks with kilopascal-scale yield stresses, we evaluate how ink rheology influences printing and compare DIAL against digital light processing (DLP) and direct ink writing (DIW). Since DIAL enables fast, high-throughput, support-free, and large-area printing, we showcase its broad potential for producing functional materials by printing multiscale architected, multimaterial, structural electrolyte, and hydrogel structures that are difficult if not impossible to 3D print today.

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Publication Details

Journal
Science Advances
Published
2026-11-04
DOI
https://doi.org/10.1126/sciadv.aei1146
Primary Topic
Additive Manufacturing and 3D Printing Technologies
Type
article
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article

Rapid, voxel-based 3D printing with yield-stress fluid inks

Michael E. Bayer, Pranav Kaarthik, Alexander Q. Kane, Ryan L. Truby et al.
Science Advances
Additive Manufacturing and 3D Printing Technologies
article

Rapid, voxel-based 3D printing with yield-stress fluid inks

Michael E. Bayer, Pranav Kaarthik, Alexander Q. Kane, Ryan L. Truby, EunBi Oh
article en

Abstract

Despite decades of progress, 3D printing still presents trade-offs in what materials can be printed and at what resolutions, speeds, and part volumes. We introduce direct ink additive lithography, or DIAL, to alleviate these trade-offs when printing with yield-stress, complex fluid inks used to print functional materials. DIAL combines translational photopatterning with ink sheet deposition for rapid, voxel-based 3D printing. Using model DIAL inks with kilopascal-scale yield stresses, we evaluate how ink rheology influences printing and compare DIAL against digital light processing (DLP) and direct ink writing (DIW). Since DIAL enables fast, high-throughput, support-free, and large-area printing, we showcase its broad potential for producing functional materials by printing multiscale architected, multimaterial, structural electrolyte, and hydrogel structures that are difficult if not impossible to 3D print today.

Science AdvancesVol. 12(45)
Northwestern University (US)
Openalex Percentile: Top 25%
Additive Manufacturing and 3D Printing Technologies
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