AI-Driven Advancements in Orthodontics for Precision and Patient Outcomes
This narrative review (Dentistry, MDPI, 2025) explores how artificial intelligence is transforming orthodontic care through personalized treatment planning. AI analyses large datasets of dental records, X-rays, and 3D scans to predict tooth movement, design custom aligners, optimize treatment duration, and enable real-time remote monitoring. AI-driven aligners and braces apply optimal forces, reducing treatment time and discomfort; tele-orthodontics and smartphone-based monitoring decrease the need for in-person visits. The review covers data collection and digital modelling, AI-based prediction of tooth movement, personalized treatment planning (including clear aligner sequencing and bracket placement), and continuous monitoring and adjustment. Applications include tooth movement prediction, custom aligner fabrication (e.g. fewer aligners per case, lower patient discomfort), treatment time optimization, and enhanced remote monitoring. Future prospects include AI with robotics, predictive orthodontics for early intervention, and 3D printing of orthodontic devices. Challenges such as data privacy, algorithmic bias, and adoption cost are discussed. The review underscores AI's transformative role in modern orthodontics and its potential for more streamlined, patient-centred care.
Introduction
Artificial intelligence (AI) is rapidly transforming orthodontic care by enabling more precise, personalized treatment planning. Traditional orthodontic planning relies on manual evaluation of dental structure and X-rays and is subject to variability in outcomes and treatment duration. This narrative review (Dentistry, MDPI, 2025) explores current applications of AI in orthodontics and its role in predicting tooth movement, fabricating custom aligners, optimizing treatment times, and offering real-time patient monitoring.
AI in orthodontic treatment
At the core of AI-powered orthodontics is data collection: high-resolution 3D scans, intraoral photographs, and X-rays create a detailed digital model of the patient's teeth and jaw. AI systems use machine learning, neural networks, and computer vision to analyse this data and predict how teeth will move in response to braces or aligners. Personalized treatment planning then tailors the design, placement, and force application of appliances to each patient. For clear aligners (e.g. Invisalign), AI generates a sequence of aligners that apply precise forces at each stage; for fixed braces, AI helps determine bracket and wire placement and the need for auxiliaries. Continuous monitoring allows comparison of real-time progress with predicted movement; patients can submit photos via apps for AI-driven progress reports, reducing in-office visits.
Applications
Key applications include prediction of tooth movement using historical treatment data and biomechanical models; custom aligner fabrication tailored to 3D scans, with reported reductions in the number of aligners per case and in patient discomfort; optimization of treatment time by simulating movement and refining plans to avoid delays; and enhanced remote monitoring and timely adjustments. Studies cited in the review report improved diagnostic accuracy, shorter treatment duration (e.g. mean reduction of about 4.3 months in one comparison), higher patient satisfaction scores, and fewer required appointments with AI-assisted planning.
Future prospects and challenges
Future directions include integration of AI with robotics for performing procedures, predictive orthodontics for early intervention, and 3D printing of orthodontic devices in real time. Challenges remain in data privacy, algorithmic bias, and the cost of adopting AI technologies. As AI continues to evolve, its capacity to revolutionise orthodontic care is likely to support more streamlined, patient-centred, and effective treatments.
Reference: Olawade DB, Leena N, Egbon E, Rai J, Mohammed APEK, Oladapo BI, Boussios S. Dent. J. 2025, 13(5), 198. https://doi.org/10.3390/dj13050198. https://www.mdpi.com/2304-6767/13/5/198
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