Work Description

Title: A Comprehensive Patient-Specific Prediction Model for Temporomandibular Joint Osteoarthritis Progression Open Access Deposited

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Methodology
  • The data consists of imaging radiomics computed from high resolution cone-beam computed tomography (hr-CBCT) scans were acquired for all participants using the 3D Accuitomo 170 machine. The acquisition protocol included 40 × 40 mm field of view; 90 kVp, 5 mAs, 30.8 sec scanning time and a voxel size of 0.08 mm.
Description
  • Image Pre-Processing To allow reliable detection and comparison of changes between several individuals or within the same individual at different time points, before extracting the quantitative bone texture/morphometry features, all hr-CBCT scans were pre-processed using validated protocols. Extraction of Trabecular Bone Texture-based and Morphometry Imaging Features Using the “crop-volume” tool in 3D Slicer, a rectangular shaped volume of interest (VOI) was cropped from the trabecular bone in the mandibular condyles and the articular fossa. Then, using the average minimum and maximum intensity values of all VOIs, we standardized the grey level intensities of the VOIs to eliminate inaccuracies of textural features calculation and possible dependency on the global characteristics of the images. Lastly, imaging markers were extracted from the standardized VOIs using “BoneTexture” module in 3D-slicer. Measurement of the 3D Articular Joint Space To assess the progression/improvement of osteoarthritic changes in the affected individuals, we measured the 3D superior joint space. We pre-labelled two landmarks in the sagittal view of the oriented CBCT scans: on the most superior point of the condyle and on the opposing surface of the articular fossa. To avoid biasing the landmarks’ placements, pre-labelling was performed simultaneously on T1 and T2 scans, using two independent windows in ITK-SNAP. After the volumetric reconstruction of the identified landmarks, linear measurements were obtained in millimeters using the Q3DC tool in 3D Slicer. Three-dimensional Shape Analyses and Quantification of Remodeling in the Condyles SPHARM-PDM software was used to compute the correspondence across 4002 surface points among all condyles. The output point-based models displayed color-coded maps that enabled visual evaluation of consistent parametrization of all condyles. An average condyle shape for the TMJ OA and control groups was calculated through propagation of original surface point correspondences across all stages of deformations and averaging the condyle surface meshes. For visualization of the 3D qualitative changes of the average models within the same group at different time points or among different groups, semi-transparent overlays were created using 3D Slicer software. The vector differences were presented on the condyle surfaces, scaled according to the magnitude of difference, and pointing towards the direction of bone change. For quantification of remodeling in the condyles, calculation of signed distances across condyles surface meshes reflected the quantitative bone changes in the TMJ OA and control samples. To quantify regional bone changes across the lateral and anterior surfaces of the condyles, we used the Pick ‘n Paint tool in 3D Slicer to propagate regional surface points to the corresponding regions of shapes across all subjects and time points.
Creator
Depositor
  • luciacev@umich.edu
Contact information
Discipline
Funding agency
  • National Institutes of Health (NIH)
Keyword
Resource type
Last modified
  • 01/16/2024
Published
  • 01/16/2024
DOI
  • https://doi.org/10.7302/xc32-4d53
License
To Cite this Work:
Cevidanes, L. (2024). A Comprehensive Patient-Specific Prediction Model for Temporomandibular Joint Osteoarthritis Progression [Data set], University of Michigan - Deep Blue Data. https://doi.org/10.7302/xc32-4d53

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Date: 15 January, 2024 Dataset Title: A Comprehensive Patient-Specific Prediction Model for Temporomandibular Joint Osteoarthritis Progression Dataset Creators: L.H.S. Cevidanes, N. Al Turkestani, C. T. Mattos Dataset Contact: Lucia Cevidanes, luciacev@umich.edu Funding: NIDCR R01DE024550 Key Points: - We proposed an open-source predictive modeling framework, which combines feature selection, statistical and machine learning methods, allowing prediction of disease progression. - Lower values of headache, lower back pain, restless sleep, condyle high grey level-GL- run emphasis, articular fossa GL non uniformity and long run low GL emphasis, saliva levels of Osteoprotegerin and Angiogenin, and higher values of the superior joint space, mouth opening, saliva Vascular-endothelium-growth-factor and Matrix-metalloproteinase-7, serum Epithelial-neutrophil-activating-peptide and age indicate increased the probability of recovery for a specific subject. - Our multidimensional and multisource analytics tool can enhance clinicians decision-making and pinpoint risk predictors for TMJ OA progression. Research Overview: Temporomandibular joint osteoarthritis (TMJ OA) is a multifactorial degenerative disease that affects 8-16 % of the global population. It leads to chronic pain, jaw dysfunction and in advanced stages may require joint replacement. To date, no prognostic tool or single biomarker can accurately predict the course of this intricate disease. Identification of patients at risk for severe prognosis is crucial for timely intervention and reducing the need for surgical management. Hence, we prospectively acquired clinical, imaging and biological data from 106 subjects, with 74 followed over 2-3 years. We proposed an open-source predictive modeling framework, called Ensemble via Hierarchical Predictions through Nested cross-validation tool, which combines 18 feature selection, statistical and machine learning methods, allowing prediction of disease progression with accuracy of 0.87, area under ROC curve of 0.72, and F1 score of 0.82. Importantly, using the interpretable SHAP analysis method, we identified the strongest predictors for TMJ OA progression. Lower values of headache, lower back pain, restless sleep, condyle high grey level-GL- run emphasis, articular fossa GL non uniformity and long run low GL emphasis, saliva levels of Osteoprotegerin and Angiogenin, and higher values of the superior joint space, mouth opening, saliva Vascular-endothelium-growth-factor and Matrix-metalloproteinase-7, serum Epithelial-neutrophil-activating-peptide and age indicate increased the probability of recovery for a specific subject. Our multidimensional and multisource analytics tool can enhance clinicians decision-making and pinpoint risk predictors for TMJ OA progression. The EHPN integrates biological and clinical sciences to solve TMJ OA prognosis in a translational infrastructure that will transform temporomandibular disorders practice. Methodology: High resolution cone-beam computed tomography (hr-CBCT) scans were acquired for all participants using the 3D Accuitomo 170 machine. The acquisition protocol included 40 ? 40 mm field of view; 90 kVp, 5 mAs, 30.8 sec scanning time and a voxel size of 0.08 mm. Instrument and/or Software specifications: NA Files contained here: - Excel file for All_clinical_data__Aim1_Nov_2021.xlsx File Overview This Excel file contains comprehensive clinical data, compiled in November 2021, for a clinical study. The data is stored in a single sheet titled "MFSDA Jonas Clinical Full Data". Sheet Structure Sheet Name: MFSDA Jonas Clinical Full Data Content: The sheet is structured with patient data across multiple columns, each representing different clinical parameters and patient details. Columns: The sheet consists of 116 columns. Key columns include: patient ID: Unique identifier for each patient. group: Group classification of the patient. gender: Gender of the patient. age: Age of the patient. Clinical parameters such as generalHealth, General Oral Health, Pain Face JawTemple, and various specific facial pain and symptoms health metrics. Data Details The first few columns provide an overview of the patient's general health, oral health, pain experience, and all other specific TMJ health related measurements standardized in the Diagnostic Criteria for Temporomandibular disorders are listed in the other columns. Each row represents a unique patient, with comprehensive data spanning general health assessments to specific clinical measurements. -Two excel files of the radiomic features measurements of volumes of reference in the condyle lateral pole and in the lateral portion of the articular fossa. *Articular_fossa__Quantitiative_Trabecular_Bone_Changes.xlsx File Overview This Excel file presents quantitative data on trabecular bone changes in the articular fossa, an important aspect of bone health. The data is specifically focused on measurements taken at baseline and follow-up health status checks. Sheet Structure Sheet Name: AF Content: The sheet consists of detailed data for each patient, with a focus on trabecular bone changes in the articular fossa. Columns: There are 43 columns in the sheet, including: Patient: Identifier for each patient. Baseline_Health_status and Follow_up_Health_status: Health status of the patient articular fossa radiomics and morphometry at baseline and follow-up. Metrics related to trabecular bone characteristics such as Af_energy_BL, Af_entropy_BL, Af_correlation_BL, and others radiomics and morphometry measurements, both at baseline (BL) and follow-up (FU). Data Details Each row represents a unique patient, with comprehensive data comparing baseline and follow-up measurements. The data covers various aspects of articular fossa trabecular bone changes, including energy, entropy, correlation, and other specific metrics. * Condyle_Quantitiative_Trabecular_Bone_Changes.xlsx File Overview This Excel file contains a dataset focused on quantitative changes in the trabecular bone within the mandibular condyle region. The data is organized in a single sheet titled "Sheet1" and is intended for use in clinical research. Sheet Structure Sheet Name: Sheet1 Content: The sheet provides patient-specific data, capturing the changes in trabecular bone at baseline and during follow-up visits. Columns: The dataset consists of 43 columns, which include: Patient: Identifier for each patient. Baseline_Health_status and Follow-up_Health_status: Health status of the patient at baseline and follow-up. Various trabecular bone metrics at baseline (C_energy_BL, C_entropy_BL, C_correlation_BL, etc.) and follow-up (C_energy_FU, C_entropy_FU, C_correlation_FU, etc.). Data Details Each row in the dataset represents a unique patient, providing a comparison of trabecular bone characteristics between baseline and follow-up measurements. The metrics cover various aspects of trabecular bone health, such as energy, entropy, correlation, and other specific radiomics and bone morphometry measures. -The two folders contain each 148 Cone-beam CT scans for right and left condyles of 74 subjects at Baseline and Follow-up imaging. The folders contents are described below: *Baseline: 74 right and 74 left mirrored images in nrrd format. All files have consistent image orientation. Filename prefix consist of patient number_ right or left side of the Temporomandibular Joint. *Follow-up: 74 right and 74 left mirrored images in nii.gz format. All files have consistent image orientation. Filename prefix consist of patient number_ right or left side of the Temporomandibular Joint.

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