Non‐Invasive Quality Control of Organoid Cultures Using Mesofluidic CSTR Bioreactors and High‐Content Imaging

Human brain organoids produce anatomically relevant cellular structures and recapitulate key aspects of <i>in vivo</i> brain function, which holds great potential to model neurological diseases and screen therapeutics. However, the long growth time of 3D systems complicates the culturing of brain organoids and results in heterogeneity across samples hampering their applications. We developed an integrated platform to enable robust and long-term culturing of 3D brain organoids. We designed a mesofluidic bioreactor device based on a reaction-diffusion scaling theory, which achieves robust media exchange for sufficient nutrient delivery in long-term culture. We integrated this device with longitudinal tracking and machine learning-based classification tools to enable non-invasive quality control of live organoids. This integrated platform allows for sample pre-selection for downstream molecular analysis. Transcriptome analyses of organoids revealed that our mesofluidic bioreactor promoted organoid development while reducing cell death. Our platform thus offers a generalizable tool to establish reproducible culture standards for 3D cellular systems for a variety of applications beyond brain organoids.

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Publication Details

Journal
Advanced Materials Technologies
Published
2024-08-31
DOI
https://doi.org/10.1002/admt.202400473
Citations
13
Primary Topic
3D Printing in Biomedical Research
Type
article
Field-Weighted Citation Impact
2.40

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article

Non‐Invasive Quality Control of Organoid Cultures Using Mesofluidic CSTR Bioreactors and High‐Content Imaging

Seleipiri Charles, Hang Lu, Zhexing Wen, Melissa Lambeth Kemp et al.
13 citations
Advanced Materials Technologies
3D Printing in Biomedical Research
2.40
article

Non‐Invasive Quality Control of Organoid Cultures Using Mesofluidic CSTR Bioreactors and High‐Content Imaging

Seleipiri Charles, Hang Lu, Zhexing Wen, Melissa Lambeth Kemp, Emily Jackson‐Holmes, Arina Nikitina, Benjamin Siciliano, Weibo Niu, Ying Zhou, Haejun Han, Gongchen Sun
article en
13 citations

Abstract

Human brain organoids produce anatomically relevant cellular structures and recapitulate key aspects of <i>in vivo</i> brain function, which holds great potential to model neurological diseases and screen therapeutics. However, the long growth time of 3D systems complicates the culturing of brain organoids and results in heterogeneity across samples hampering their applications. We developed an integrated platform to enable robust and long-term culturing of 3D brain organoids. We designed a mesofluidic bioreactor device based on a reaction-diffusion scaling theory, which achieves robust media exchange for sufficient nutrient delivery in long-term culture. We integrated this device with longitudinal tracking and machine learning-based classification tools to enable non-invasive quality control of live organoids. This integrated platform allows for sample pre-selection for downstream molecular analysis. Transcriptome analyses of organoids revealed that our mesofluidic bioreactor promoted organoid development while reducing cell death. Our platform thus offers a generalizable tool to establish reproducible culture standards for 3D cellular systems for a variety of applications beyond brain organoids.

Advanced Materials TechnologiesVol. 10(3)
Georgia Institute of Technology (US), Emory University (US), The Wallace H. Coulter Department of Biomedical Engineering (US)
National Science Foundation, Foundation for the National Institutes of Health, Simons Foundation, Marcus Foundation, National Institutes of Health
Openalex Percentile: Top 11%
3D Printing in Biomedical Research
2.40
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