Accurate 3D Prediction of Missing Teeth in Diverse Patterns for Precise
Dental Implant Planning
- URL: http://arxiv.org/abs/2307.07953v1
- Date: Sun, 16 Jul 2023 05:52:37 GMT
- Title: Accurate 3D Prediction of Missing Teeth in Diverse Patterns for Precise
Dental Implant Planning
- Authors: Lei Ma, Peng Xue, Yuning Gu, Yue Zhao, Min Zhu, Zhongxiang Ding,
Dinggang Shen
- Abstract summary: This study presents a novel framework for accurate prediction of missing teeth in different patterns, facilitating digital implant planning.
The proposed framework begins by estimating point-to-point correspondence among a dataset of dental mesh models reconstructed from CBCT images of healthy subjects.
tooth dictionaries are constructed for each tooth type, encoding their position and shape information based on the established point-to-point correspondence.
- Score: 44.20366627432732
- License: http://arxiv.org/licenses/nonexclusive-distrib/1.0/
- Abstract: In recent years, the demand for dental implants has surged, driven by their
high success rates and esthetic advantages. However, accurate prediction of
missing teeth for precise digital implant planning remains a challenge due to
the intricate nature of dental structures and the variability in tooth loss
patterns. This study presents a novel framework for accurate prediction of
missing teeth in different patterns, facilitating digital implant planning. The
proposed framework begins by estimating point-to-point correspondence among a
dataset of dental mesh models reconstructed from CBCT images of healthy
subjects. Subsequently, tooth dictionaries are constructed for each tooth type,
encoding their position and shape information based on the established
point-to-point correspondence. To predict missing teeth in a given dental mesh
model, sparse coefficients are learned by sparsely representing adjacent teeth
of the missing teeth using the corresponding tooth dictionaries. These
coefficients are then applied to the dictionaries of the missing teeth to
generate accurate predictions of their positions and shapes. The evaluation
results on real subjects shows that our proposed framework achieves an average
prediction error of 1.04mm for predictions of single missing tooth and an
average prediction error of 1.33mm for the prediction of 14 missing teeth,
which demonstrates its capability of accurately predicting missing teeth in
various patterns. By accurately predicting missing teeth, dental professionals
can improve the planning and placement of dental implants, leading to better
esthetic and functional outcomes for patients undergoing dental implant
procedures.
Related papers
- Differentiable Collision-Supervised Tooth Arrangement Network with a Decoupling Perspective [10.293207903989053]
Existing learning-based methods use hidden teeth features to directly regress teeth motions.
We propose DTAN, a differentiable collision-supervised tooth arrangement network.
We construct three different tooth arrangement datasets and achieve drastically improved performance on accuracy and speed.
arXiv Detail & Related papers (2024-09-18T12:52:54Z) - Automatic Tooth Arrangement with Joint Features of Point and Mesh
Representations via Diffusion Probabilistic Models [33.75061391364549]
Tooth arrangement is a crucial step in orthodontics treatment, in which aligning teeth could improve overall well-being, enhance facial aesthetics, and boost self-confidence.
To improve the efficiency of tooth arrangement and minimize errors associated with unreasonable designs by inexperienced practitioners, some deep learning-based tooth arrangement methods have been proposed.
arXiv Detail & Related papers (2023-12-23T02:27:15Z) - 3D Structure-guided Network for Tooth Alignment in 2D Photograph [47.51314162367702]
A 2D photograph depicting aligned teeth prior to orthodontic treatment is crucial for effective dentist-patient communication.
We propose a 3D structure-guided tooth alignment network that takes 2D photographs as input and aligns the teeth within the 2D image space.
We evaluate our network on various facial photographs, demonstrating its exceptional performance and strong applicability within the orthodontic industry.
arXiv Detail & Related papers (2023-10-17T09:44:30Z) - YOLOrtho -- A Unified Framework for Teeth Enumeration and Dental Disease
Detection [4.136033167469768]
YOLOrtho is a unified framework for teeth enumeration and dental disease detection.
We develop our model on Dentex Challenge 2023 data, which consists of three distinct types of annotated data.
To fully utilize the data and learn both teeth detection and disease identification simultaneously, we formulate diseases as attributes attached to their corresponding teeth.
arXiv Detail & Related papers (2023-08-11T06:54:55Z) - Construction of unbiased dental template and parametric dental model for
precision digital dentistry [46.459289444783956]
We develop an unbiased dental template by constructing an accurate dental atlas from CBCT images with guidance of teeth segmentation.
A total of 159 CBCT images of real subjects are collected to perform the constructions.
arXiv Detail & Related papers (2023-04-07T09:39:03Z) - An Implicit Parametric Morphable Dental Model [79.29420177904022]
We present the first parametric 3D morphable dental model for both teeth and gum.
It is based on a component-wise representation for each tooth and the gum, together with a learnable latent code for each of such components.
Our reconstruction quality is on par with the most advanced global implicit representations while enabling novel applications.
arXiv Detail & Related papers (2022-11-21T12:23:54Z) - OdontoAI: A human-in-the-loop labeled data set and an online platform to
boost research on dental panoramic radiographs [53.67409169790872]
This study addresses the construction of a public data set of dental panoramic radiographs.
We benefit from the human-in-the-loop (HITL) concept to expedite the labeling procedure.
Results demonstrate a 51% labeling time reduction using HITL, saving us more than 390 continuous working hours.
arXiv Detail & Related papers (2022-03-29T18:57:23Z) - Dense Representative Tooth Landmark/axis Detection Network on 3D Model [32.81858923141152]
We propose a deep learning approach with a labeled dataset by professional dentists to the tooth landmark/axis detection on tooth model.
Our method can extract not only tooth landmarks in the form of point (e.g. cusps) but also axes that measure the tooth angulation and inclination.
The proposed network takes as input a 3D tooth model and predicts various types of the tooth landmarks and axes.
arXiv Detail & Related papers (2021-11-08T00:42:22Z) - Two-Stage Mesh Deep Learning for Automated Tooth Segmentation and
Landmark Localization on 3D Intraoral Scans [56.55092443401416]
emphiMeshSegNet in the first stage of TS-MDL reached an averaged Dice similarity coefficient (DSC) at 0.953pm0.076$, significantly outperforming the original MeshSegNet.
PointNet-Reg achieved a mean absolute error (MAE) of $0.623pm0.718, mm$ in distances between the prediction and ground truth for $44$ landmarks, which is superior compared with other networks for landmark detection.
arXiv Detail & Related papers (2021-09-24T13:00:26Z)
This list is automatically generated from the titles and abstracts of the papers in this site.
This site does not guarantee the quality of this site (including all information) and is not responsible for any consequences.