Liquid HandlingPumpingSupplemental record

The FAST Pump, a low-cost, easy to fabricate, SLA-3D-printed peristaltic pump for multi-channel systems in any lab

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Matched by doi · retrieved 2026-07-21

Abstract

With the increasing interest in high throughput screening and parallel assays, laboratories around the world inevitably find themselves in need of driving a multitude of fluid lines to facilitate their large scale studies. The comparatively low cost and no-fluid-contact design of peristaltic pumps make them the go-to systems for such ventures, but using commercially available pumping systems this still becomes a costly endeavor at typically $250-$1000 per pump line. Here we have developed an alternative, a peristaltic pump that can be fabricated in most research laboratories using 3D-printing and readily available off-the-shelf parts. The pump features 8 parallel channels with linear ranges spanning from 0.7 µL/min to 6 mL/min. The pump can be fabricated and assembled by anyone with access to a 3D-printer at a cost of less than $45 per channel and is driven by a stepper motor that connects directly to any computer. This device has the potential to be disruptive in areas such as drug screening and assay development, as well as lab-on-a-chip applications and cell cultivation, where it significantly reduces hardware expenses and allows for construction of more comprehensive fluidic systems at a fraction of current costs.

Bibliographic details

Published
2020-06-07
Journal/source
HardwareX
Publisher
Elsevier BV
DOI
10.1016/j.ohx.2020.e00115
Type
journal-article
Language
en
Volume / issue
8
Pages
e00115
ISSN
2468-0672

Access and metrics

Open access
Yes
OA status
gold
License
cc-by
Version
publishedVersion
Cited by
39
References
39
Retracted
No

Authors and affiliations

  1. Alexander JönssonTechnical University of Denmark
  2. Arianna ToppiTechnical University of Denmark
  3. Martin DufvaCorresponding authorTechnical University of Denmark

Topics and keywords

Microfluidic and Capillary Electrophoresis Applications3D Printing in Biomedical ResearchInnovative Microfluidic and Catalytic Techniques InnovationPeristaltic pumpComputer scienceChannel (broadcasting)Computer hardwareMicrofluidicsFluidicsThroughputProcess engineeringEmbedded systemNanotechnologyEngineeringMechanical engineering

Funding

  • H2020 Marie Skłodowska-Curie Actions
  • Innovationsfonden