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BioengineeringAdvanced Materials
Peer-reviewed journal article

A low-cost, open-source 3D printer for multimaterial and high-throughput direct ink writing of soft and living materials

Jonathan D. WeissiD, Alana M. Mermin-BunnelliD, Fredrik Samdal SolbergiD, Tony TamiD, Luca RosaliaiD, Amit ShaririD, Dominic RütscheiD, Soham SinhaiD, Perry Seo ChoiiD, Masafumi ShibataiD, Yellappa PalaganiiD, Riya NilkantiD, Kiruthika Paulvannan, Michael MaiD, Mark A. Skylar‐ScottiD

Abstract

Direct ink writing is a 3D printing method that is compatible with a wide range of structural, elastomeric, electronic, and living materials, and it continues to expand its uses into physics, engineering, and biology laboratories. However, the large footprint, closed hardware and software ecosystems, and expense of commercial systems often hamper widespread adoption. Here, we present a compact, simple-to-build, low-cost, multimaterial, and high-throughput direct ink writing 3D printer platform with detailed assembly files and instructions provided freely online. In contrast to existing low-cost 3D printers and bioprinters, which typically modify off-the-shelf plastic 3D printers, this system is built from scratch, offering a lower cost and full customizability. Despite its low cost, we demonstrate advanced active mixing and multimaterial multinozzle 3D (MM3D) printing methods, which previously have relied on expensive and custom motion control platforms. We finally introduce embedded multinozzle and 3D gradient nozzle designs that offer high throughput and graded 3D parts. This powerful, easy-to-build, and customizable printing platform can help stimulate a vibrant biomaker community of engineers, biologists, and educators.

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Citations
52
FWCI
11.07
Field percentile
top 1%

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