A modular platform for automated organoid culture and longitudinal imaging

Organoids, 3D tissue cultures that mimic real organs, offer valuable models for research. Traditional culture methods rely on manual feeding and orbital shakers, making them labor-intensive and inconsistent. Microfluidic systems have shown their potential to improve reproducibility by controlling media exchange and culture conditions, yet most still require standard incubators, which limit continuous monitoring due to space and humidity constraints. To address this, we developed a modular platform that integrates automated feeding, real-time imaging, and environmental control, eliminating the need for a conventional incubator. A key feature is a vertically oriented PDMS/glass chip that supports precise media delivery and monitoring while preserving incubation conditions, making it ideal for morphological studies. We demonstrated the platform's ability to maintain metabolic stability and media distribution over time using cerebral organoids. This platform improves organoid research by combining microfluidics, automation, and imaging, enhancing disease modeling, drug testing, and regenerative medicine applications.

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Publication Details

Journal
Scientific Reports
Published
2026-02-18
DOI
https://doi.org/10.1038/s41598-026-40231-0
Primary Topic
3D Printing in Biomedical Research
Type
article
Field-Weighted Citation Impact
0.00

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article

A modular platform for automated organoid culture and longitudinal imaging

Stephen Hernández, Gregory A. Kaurala, Mohammed A. Mostajo-Radji, H. Schweiger et al.
Scientific Reports
3D Printing in Biomedical Research
article

A modular platform for automated organoid culture and longitudinal imaging

Stephen Hernández, Gregory A. Kaurala, Mohammed A. Mostajo-Radji, H. Schweiger, Samira Vera-Choqqueccota, Spencer T. Seiler, Sebastián Torres, Tal Sharf, Mircea Teodorescu, David Haussler
article en

Abstract

Organoids, 3D tissue cultures that mimic real organs, offer valuable models for research. Traditional culture methods rely on manual feeding and orbital shakers, making them labor-intensive and inconsistent. Microfluidic systems have shown their potential to improve reproducibility by controlling media exchange and culture conditions, yet most still require standard incubators, which limit continuous monitoring due to space and humidity constraints. To address this, we developed a modular platform that integrates automated feeding, real-time imaging, and environmental control, eliminating the need for a conventional incubator. A key feature is a vertically oriented PDMS/glass chip that supports precise media delivery and monitoring while preserving incubation conditions, making it ideal for morphological studies. We demonstrated the platform's ability to maintain metabolic stability and media distribution over time using cerebral organoids. This platform improves organoid research by combining microfluidics, automation, and imaging, enhancing disease modeling, drug testing, and regenerative medicine applications.

Scientific ReportsVol. 16(1)
University of California, Santa Cruz (US)
National Science Foundation, California Institute for Regenerative Medicine, National Institutes of Health, Office of the President, University of California, National Institute of Mental Health
Openalex Percentile: Top 54%
3D Printing in Biomedical Research
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