Additively Manufactured Bioreactors for Scaffold-Coupled Electrical Stimulation

Electrical stimulation (ES) modulates diverse cellular processes, yet <i>in vitro</i> platforms often lack precision, scalability, and compatibility with 3D bioscaffolds. We present a modular bioreactor system that delivers low-voltage, bioscaffold-coupled ES via conductive graphene foam, enabling real-time waveform monitoring and live cell imaging. Components were fabricated using low-cost stereolithography with BioMed Clear resin and validated through mechanical, chemical, and cytocompatibility analyses. Printed parts exhibited high dimensional accuracy, retained mechanical integrity post-sterilization, and supported >90% cell viability. Electrical measurements confirmed ohmic behavior and signal fidelity under physiological conditions. Calcium imaging revealed a >230% fluorescence increase during stimulation, indicating a robust cellular response. This platform provides a reproducible, accessible tool for probing ES-driven behavior in electroactive 3D microenvironments.

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Publication Details

Journal
ACS Applied Bio Materials
Published
2026-01-02
DOI
https://doi.org/10.1021/acsabm.5c01381
Primary Topic
Neuroscience and Neural Engineering
Type
article
Field-Weighted Citation Impact
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article

Additively Manufactured Bioreactors for Scaffold-Coupled Electrical Stimulation

Olivia O. Maryon, Brian J. Jaques, Miranda L. Nelson, Michael Eppel et al.
ACS Applied Bio Materials
Neuroscience and Neural Engineering
article

Additively Manufactured Bioreactors for Scaffold-Coupled Electrical Stimulation

Olivia O. Maryon, Brian J. Jaques, Miranda L. Nelson, Michael Eppel, Olivia Nielson, Allyssa Bateman, Flyn White, Mone’t Sawyer, Raquel Montenegro-Brown, Josh Eixenberger, Mike Hurley, David Estrada, Hailey Burgoyne, Enrique Lopez
article en

Abstract

Electrical stimulation (ES) modulates diverse cellular processes, yet <i>in vitro</i> platforms often lack precision, scalability, and compatibility with 3D bioscaffolds. We present a modular bioreactor system that delivers low-voltage, bioscaffold-coupled ES via conductive graphene foam, enabling real-time waveform monitoring and live cell imaging. Components were fabricated using low-cost stereolithography with BioMed Clear resin and validated through mechanical, chemical, and cytocompatibility analyses. Printed parts exhibited high dimensional accuracy, retained mechanical integrity post-sterilization, and supported >90% cell viability. Electrical measurements confirmed ohmic behavior and signal fidelity under physiological conditions. Calcium imaging revealed a >230% fluorescence increase during stimulation, indicating a robust cellular response. This platform provides a reproducible, accessible tool for probing ES-driven behavior in electroactive 3D microenvironments.

ACS Applied Bio MaterialsVol. 9(2)
Boise State University (US), University of Idaho (US), Idaho National Laboratory (US), Micron Biomedical (United States) (US), Center for Advanced Energy Studies (US), Division of Materials Science and Engineering (AU), Micron (Italy) (IT), College of Idaho (US)
Openalex Percentile: Top 98%
Neuroscience and Neural Engineering
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Additively Manufactured Bioreactors for Scaffold-Coupled Electrical Stimulation — Olivia O. Maryon, Brian J. Jaques, et al. · ACS Applied Bio Materials (2026) | TGRS Research Map | TGRS