Computer vision–guided rapid and precise automated cranial microsurgeries in mice

A common procedure that allows interfacing with the brain is cranial microsurgery, wherein small to large craniotomies are performed on the overlying skull for insertion of neural interfaces or implantation of optically clear windows for long-term cranial observation. Performing craniotomies requires skill, time, and precision to avoid damaging the brain and dura. Here, we present a computer vision-guided craniotomy robot (CV-Craniobot) that uses machine learning to accurately estimate the dorsal skull anatomy from optical coherence tomography images. Instantaneous information of skull morphology is used by a robotic mill to rapidly and precisely remove the skull from a desired craniotomy location. We show that the CV-Craniobot can perform small (2- to 4-millimeter diameter) craniotomies with near 100% success rates within 2 minutes and large craniotomies encompassing most of the dorsal cortex in less than 10 minutes. Thus, the CV-Craniobot enables rapid and precise craniotomies, reducing surgery time compared to human practitioners and eliminating the need for long training.

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Publication Details

Journal
Science Advances
Published
2025-04-09
DOI
https://doi.org/10.1126/sciadv.adt9693
Citations
3
Primary Topic
Optical Coherence Tomography Applications
Type
article
Field-Weighted Citation Impact
2.02
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article

Computer vision–guided rapid and precise automated cranial microsurgeries in mice

Zahra S. Navabi, Eunsong Ko, Beatrice R. Gulner, Ryan M. Peters et al.
3 citations
Science Advances
Optical Coherence Tomography Applications
2.02
article

Computer vision–guided rapid and precise automated cranial microsurgeries in mice

Zahra S. Navabi, Eunsong Ko, Beatrice R. Gulner, Ryan M. Peters, Suhasa B. Kodandaramaiah, Arun Cherkkil, Jacob O. Brien, Farnoosh Dadashi, Michael Feldkamp
article en
3 citations

Abstract

A common procedure that allows interfacing with the brain is cranial microsurgery, wherein small to large craniotomies are performed on the overlying skull for insertion of neural interfaces or implantation of optically clear windows for long-term cranial observation. Performing craniotomies requires skill, time, and precision to avoid damaging the brain and dura. Here, we present a computer vision-guided craniotomy robot (CV-Craniobot) that uses machine learning to accurately estimate the dorsal skull anatomy from optical coherence tomography images. Instantaneous information of skull morphology is used by a robotic mill to rapidly and precisely remove the skull from a desired craniotomy location. We show that the CV-Craniobot can perform small (2- to 4-millimeter diameter) craniotomies with near 100% success rates within 2 minutes and large craniotomies encompassing most of the dorsal cortex in less than 10 minutes. Thus, the CV-Craniobot enables rapid and precise craniotomies, reducing surgery time compared to human practitioners and eliminating the need for long training.

Science AdvancesVol. 11(15)
University of Minnesota (US), Twin Cities Orthopedics (US)
Openalex Percentile: Top 15%
Optical Coherence Tomography Applications
2.02
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Computer vision–guided rapid and precise automated cranial microsurgeries in mice — Zahra S. Navabi, Eunsong Ko, et al. · Science Advances (2025) | TGRS Research Map | TGRS