High-Biofidelity Biomodel Generated from Three-Dimensional Imaging (Cone-Beam Computed Tomography): A Methodological...

Area of Science:

• Biomedical Engineering
• Computational Biology
• Dental Research

Background:

• Experimental research on living subjects faces ethical and practical challenges.
• Computational modeling offers a viable alternative for studying anatomical structures.
• Existing methods may lack the precision required for detailed biomechanical analysis.

Purpose of the Study:

• To develop a novel methodology for generating high-biofidelity biomodels.
• To validate the biomodel through biomechanical simulation.
• To demonstrate the applicability of computational modeling in medical and dental research.

Main Methods:

• Utilized a novel imagenological technique combined with CAM/CAD software for precise biomodel creation.
• Developed a biomodel of a lower molar with accurate morphological specifications.
• Applied the finite element method for basic chewing simulations.

Main Results:

• Successfully created a high-fidelity biomodel of a lower molar.
• The biomodel demonstrated viability for biomechanical analysis and simulations.
• The finite element method simulation provided initial insights into molar biomechanics.

Conclusions:

• The proposed methodology enables the creation of accurate, high-fidelity biomodels regardless of anatomical complexity.
• These biomodels are suitable for various simulations, including biomechanical analysis and pathological condition studies.
• This approach can significantly advance medical and dental research by integrating engineering tools for problem-solving.