An AI-Assisted Digital Workflow for Clinical Planning and Guide Fabrication in Miniscrew-Assisted Rapid Palatal Expansion

Purpose: This article introduces a digital workflow for creating a miniscrew-assisted rapid palatal expander (MARPE) guide, to virtually determine the proper MARPE position and to precisely transfer it into the reality. Materials and Methods: A digital workflow was established by the following steps: (1) generating a digital model with palatal soft tissue from the digital scan, (2) isolating teeth on the digital model from the CBCT file for band size try-in using AI software (DentalSegmentator), (3) constructing a model with four parallel cylinders simulating the MARPE screws’ pathways, (4) superimposing the three models to determine the proper MARPE position, (5) 3D printing the model with cylinders guide and separated teeth for band try-in, (6) fitting the band and MARPE on the digital model, and sending it to the dental laboratory for soldering the MARPE extension arm with band. Conclusion: The MARPE guide helps clinicians achieve three key objectives: (1) Precise MARPE and minisrew positioning, and screw length decision to reduce the MARPE failure rate; (2) Reduce clinical visit frequency of patient and reduce the try-in fitness problem of MARPE for saving chair time; (3) Achieve 3D communication between doctor and dental technician.

Authors

Publication Details

Journal
Chǐʼèjiǎozhèng xuéhuì zázhì/Journal of Taiwan Association of Orthodontists
Published
2026-03-08
DOI
https://doi.org/10.38209/2708-2636.1381
Primary Topic
Dental Research and COVID-19
Type
article
Field-Weighted Citation Impact
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article

An AI-Assisted Digital Workflow for Clinical Planning and Guide Fabrication in Miniscrew-Assisted Rapid Palatal Expansion

Szu-Ching Lee, Ting-Fen Chang, Tzu-Ying Wu, Shu-Cheng Lin et al.
Chǐʼèjiǎozhèng xuéhuì zázhì/Journal of Taiwan Association of Orthodontists
Dental Research and COVID-19
article

An AI-Assisted Digital Workflow for Clinical Planning and Guide Fabrication in Miniscrew-Assisted Rapid Palatal Expansion

Szu-Ching Lee, Ting-Fen Chang, Tzu-Ying Wu, Shu-Cheng Lin, Yu-Chiang Chen, Wei-Lun Chang
article en

Abstract

Purpose: This article introduces a digital workflow for creating a miniscrew-assisted rapid palatal expander (MARPE) guide, to virtually determine the proper MARPE position and to precisely transfer it into the reality. Materials and Methods: A digital workflow was established by the following steps: (1) generating a digital model with palatal soft tissue from the digital scan, (2) isolating teeth on the digital model from the CBCT file for band size try-in using AI software (DentalSegmentator), (3) constructing a model with four parallel cylinders simulating the MARPE screws’ pathways, (4) superimposing the three models to determine the proper MARPE position, (5) 3D printing the model with cylinders guide and separated teeth for band try-in, (6) fitting the band and MARPE on the digital model, and sending it to the dental laboratory for soldering the MARPE extension arm with band. Conclusion: The MARPE guide helps clinicians achieve three key objectives: (1) Precise MARPE and minisrew positioning, and screw length decision to reduce the MARPE failure rate; (2) Reduce clinical visit frequency of patient and reduce the try-in fitness problem of MARPE for saving chair time; (3) Achieve 3D communication between doctor and dental technician.

Chǐʼèjiǎozhèng xuéhuì zázhì/Journal of Taiwan Association of OrthodontistsVol. 37(3)
Openalex Percentile: Top 29%
Dental Research and COVID-19
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