We present a computational design method that optimizes the reinforcement of dental prostheses and increases the durability and fracture resistance of dentures. Our approach optimally places reinforcement, which could be implemented by modern multi-material, three-dimensional printers. The study focuses on reducing deformation by identifying regions within the structure that require reinforcement (E-glass material). Our method is applied to a three-dimensional removable lower jaw dental prosthesis and aims to improve the living quality of denture patients and pretend fracture of dental reinforcement in clinical studies. To do this, we compare the deformation results of a non-reinforced denture and a reinforced denture that has two materials. The results indicate the maximum deformation is lower and node-based displacement distribution demonstrates that the average displacement distribution is much better in the reinforced denture.
翻译:我们提出了一种计算设计方法,用于优化牙科修复体的加强效果,并提高义齿的耐用性和抗断裂性。我们的方法通过现代多材料三维打印技术,能够最佳地布置加强结构。本研究通过识别结构中需要加强的区域(采用E-玻璃材料),重点关注减少变形。该方法应用于三维可拆卸下颌义齿,旨在改善义齿佩戴者的生活质量,并预防临床研究中义齿加强结构的断裂。为此,我们比较了未加强义齿与双材料加强义齿的变形结果。结果表明,加强义齿的最大变形更低,且基于节点的位移分布显示,加强义齿的平均位移分布显著更优。