Intelligent Surgery Planning of CBCT-based Autogenous Tooth Transplantation

Autogenous tooth transplantation (ATT) offers significant clinical potential as it presents the highest biocompatibility for restoration. In conventional procedures, the procedure results in a low success rate due to the increased extra-oral drying time associated with the alveolar socket preparation process. To improve this, we propose an intelligent surgery planning method for ATT using a 3D UX-Net based on centroid compensation. This approach enables precise region detection, target localization, and instance segmentation of each tooth in CBCT images. Incorporating centroid compensation allows the tri-phase network to accurately identify each tooth. We use SegResNet to extract the mandible and maxilla. Principal Component Analysis (PCA) extracts critical information from the segmented teeth. We apply morphological computations for pinpointing locations, determining long-axis orientation, and positioning the dental arch, which assists in defining the post-transplant position of the donor tooth. Additionally, we perform angle optimization based on multi-category constraints. The experiments demonstrate that our method effectively segments the mandible, the maxilla, and individual teeth, while automatically generating an optimal surgical plan that minimizes bone grinding and maximizes overlap between the recipient and donor tooth.

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Publication Details

Published
2025-05-09
DOI
https://doi.org/10.1145/3756423.3756468
Primary Topic
Dental Trauma and Treatments
Type
article
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Intelligent Surgery Planning of CBCT-based Autogenous Tooth Transplantation

Xiyan Wang, Ruoxiu Xiao, Qunwen Niu, Lanying Wang et al.
Dental Trauma and Treatments
article

Intelligent Surgery Planning of CBCT-based Autogenous Tooth Transplantation

Xiyan Wang, Ruoxiu Xiao, Qunwen Niu, Lanying Wang, Yong Yang, Lin Wang
article en

Abstract

Autogenous tooth transplantation (ATT) offers significant clinical potential as it presents the highest biocompatibility for restoration. In conventional procedures, the procedure results in a low success rate due to the increased extra-oral drying time associated with the alveolar socket preparation process. To improve this, we propose an intelligent surgery planning method for ATT using a 3D UX-Net based on centroid compensation. This approach enables precise region detection, target localization, and instance segmentation of each tooth in CBCT images. Incorporating centroid compensation allows the tri-phase network to accurately identify each tooth. We use SegResNet to extract the mandible and maxilla. Principal Component Analysis (PCA) extracts critical information from the segmented teeth. We apply morphological computations for pinpointing locations, determining long-axis orientation, and positioning the dental arch, which assists in defining the post-transplant position of the donor tooth. Additionally, we perform angle optimization based on multi-category constraints. The experiments demonstrate that our method effectively segments the mandible, the maxilla, and individual teeth, while automatically generating an optimal surgical plan that minimizes bone grinding and maximizes overlap between the recipient and donor tooth.

Chinese PLA General Hospital (CN), Chinese General Hospital College of Nursing and Liberal Arts (PH), The 309th Hospital of Chinese People's Liberation Army (CN), Changzhou University (CN), Chinese People’s Liberation Army 263 hospital (CN), University of Science and Technology Beijing (CN)
Openalex Percentile: Top 61%
Dental Trauma and Treatments
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