BioprintingExtrusionFRESHCurated metadata

Large volume syringe pump extruder for desktop 3D printers

Enables higher-volume extrusion/embedded printing with low-cost hardware; bridges DIY + FRESH.

Open-sourcemedium skillmoderate docsCrossrefOpenAlex
Publication data

Crossref and OpenAlex

Publication record

Matched by title · retrieved 2026-07-21

Abstract

Syringe pump extruders are required for a wide range of 3D printing applications, including bioprinting, embedded printing, and food printing. However, the mass of the syringe becomes a major challenge for most printing platforms, requiring compromises in speed, resolution and/or volume. To address these issues, we have designed a syringe pump large volume extruder (LVE) that is compatible with low-cost, open source 3D printers, and herein demonstrate its performance on a PrintrBot Simple Metal. Key aspects of the LVE include: (1) it is open source and compatible with open source hardware and software, making it inexpensive and widely accessible to the 3D printing community, (2) it utilizes a standard 60 mL syringe as its ink reservoir, effectively increasing print volume of the average bioprinter, (3) it is capable of retraction and high speed movements, and (4) it can print fluids using nozzle diameters as small as 100 µm, enabling the printing of complex shapes/objects when used in conjunction with the freeform reversible embedding of suspended hydrogels (FRESH) 3D printing method. Printing performance of the LVE is demonstrated by utilizing alginate as a model biomaterial ink to fabricate parametric CAD models and standard calibration objects.

Bibliographic details

Published
2018-02-12
Journal/source
HardwareX
Publisher
Elsevier BV
DOI
10.1016/j.ohx.2018.02.001
Type
journal-article
Language
en
Volume / issue
3
Pages
49-61
ISSN
2468-0672

Access and metrics

Open access
Yes
OA status
gold
License
cc-by
Version
publishedVersion
Cited by
137
References
8
Retracted
No

Authors and affiliations

  1. Kira M. PuschCarnegie Mellon University
  2. Thomas J. HintonCarnegie Mellon University
  3. Adam W. FeinbergCorresponding authorCarnegie Mellon University

Topics and keywords

3D Printing in Biomedical ResearchAdditive Manufacturing and 3D Printing TechnologiesInnovative Microfluidic and Catalytic Techniques InnovationSyringe driver3D printingSyringeVolume (thermodynamics)Plastics extrusionComputer sciencePeristaltic pumpComputer hardwareMaterials scienceMechanical engineeringEngineering

Funding

  • National Institutes of Health · DP2HL117750
  • National Science Foundation · 1454248