A programmable, open-source robot that scratches cultured tissues to investigate cell migration, healing, and tissue sculpting
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Implementation assessment
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Scores describe accessibility and implementation characteristics reported in the reviewed source. They are not a measure of scientific quality.
Resolution
N/APaper is outside the rubric's bioprinting/liquid-handling/microfabrication types.
Scalability/Throughput
N/APaper is outside the rubric's bioprinting/liquid-handling/microfabrication types.
Build and Part Sourcing Complexity
N/APaper is outside the rubric's bioprinting/liquid-handling/microfabrication types.
Skill Complexity
N/APaper is outside the rubric's bioprinting/liquid-handling/microfabrication types.
Equipment/Cosumable/Facility Requirement Accessibility
N/APaper is outside the rubric's bioprinting/liquid-handling/microfabrication types.
Application Level
N/APaper is outside the rubric's bioprinting/liquid-handling/microfabrication types.
Accessibility to documentation
N/APaper is outside the rubric's bioprinting/liquid-handling/microfabrication types.
Validation/Troubleshooting Complexity
N/APaper is outside the rubric's bioprinting/liquid-handling/microfabrication types.
Speed/Cycle Time
N/APaper is outside the rubric's bioprinting/liquid-handling/microfabrication types.
Build Time
N/APaper is outside the rubric's bioprinting/liquid-handling/microfabrication types.
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Abstract
Despite the widespread popularity of the "scratch assay," where a pipette is dragged manually through cultured tissue to create a gap to study cell migration and healing, it carries significant drawbacks. Its heavy reliance on manual technique can complicate quantification, reduce throughput, and limit the versatility and reproducibility. We present an open-source, low-cost, accessible, robotic scratching platform that addresses all of the core issues. Compatible with nearly all standard cell culture dishes and usable directly in a sterile culture hood without specialized training, our robot makes highly reproducible scratches in a variety of complex cultured tissues with high throughput. Moreover, the robot demonstrates precise removal of tissues for sculpting arbitrary tissue and wound shapes, enabling complex co-culture experiments. This system significantly improves the usefulness of the conventional scratch assay and opens up new possibilities in complex tissue engineering for realistic wound healing and migration research.
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Funding
- National Institutes of Health · R35 GM133574-06
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Supplemental record retained to make the downloaded paper corpus fully navigable.
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