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Preclinical study demonstrates that robot-assisted microinjection enhances cell distribution and reduces tissue injury in animal models, indicating potential for improved neurodegenerative therapies.
Cell transplantation is a promising approach for addressing neurodegenerative conditions. In this study, we developed a robot-assisted stereotactic microinjection system for transplanting cells. We evaluated the factors that affect cellular graft viability and other properties, including the gauge of the syringe needle and the injection rate. We systematically compared the synchronous withdrawal injection (SWI) and fixed-point injection (FPI) procedures in agarose and rat brain models. In vitro assessments revealed superior dye dispersion with SWI compared to FPI, and in vivo analyses confirmed that SWI reduced the tissue injury and improved cell distribution in the striatum. We applied this robot-assisted technique to evaluate the accuracy and safety of cell transplantation in canine models. Overall, this strategy enhances the accuracy and safety of graft delivery, potentially improving outcomes and advancing therapeutic strategies for the clinical treatment of neurodegenerative disorders.
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Han et al. (2025) studied this question.
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