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Finite Element Modeling and Mechanical Analysis of Orthodontics

치아교정의 역학적 해석을 의한 유한요소 모델링 및 치아의 거동해석

  • Published : 2000.04.01

Abstract

The movement of teeth and initial stress associated with the treatment of orthodontics have been successfully studied using the finite element method. To reduce the effort in preprocessing of finite element analysis, we developed two types of three-dimensional finite element models based on the standard teeth model. Individual malocclusions were incorporated in the finite element The movement of teeth and initial stress associated with the treatment of orthodontics have been successfully studied using the finite element method. To reduce the effort in preprocessing of finite element analysis, we developed two types of three-dimensional finite element models based on the standard teeth model. Individual malocclusions were incorporated in the finite element models by considering the measuring factors such as angulation, crown inclination, rotation and translations. The finite element analysis for the wire activation with a T-loop arch wire was carried out. Mechanical behavior on the movement and the initial stress for the malocclusion finite element model was shown to agree with the objectives of the actual treatment. Finite element models and procedures of analysis developed in this study would be suitably utilized for the design of initial shape of the wire and determination of activation displacements.

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References

  1. Begg, D. R., 1956, 'Differential Force in Orthodontic Treatment,' Am. J. Orthod., Vol. 42, pp. 481-510 https://doi.org/10.1016/0002-9416(56)90175-0
  2. Nikolai, R. J., 1975, 'On Optimum Orthodontic Force Theory as Applied to Xannine Retraction,' Am. J. Orthod.., Vol, 68, pp. 290-302
  3. Moss, M. L. Skalak, R., Patel, H., Sen, K., Moss-Salentijn, L., Shinozuka, M. and Vilmann, H., 1985, 'Finite Element Method Modeling of Craniofacial Growth,' Am. J. Orthod.., Vol. 87, pp. 453-472 https://doi.org/10.1016/0002-9416(85)90084-3
  4. Tanne, K., Sakuda, M. and Burstone, C. J., 1987, 'Three-dimensional Finite Element Analysis for Stress in the Periodontal Tissue by Orthodontic Forces,' Am J. Orthod., Vol. 92, pp. 499-505 https://doi.org/10.1016/0889-5406(87)90232-0
  5. Cobo, J., Sicilia, A., Arguelles, J., Suarez, D. and Vijande, M, 1996, 'Dentoalveolar Stress From bodily Tooth Movement at Different Level of Bone Loss,' Am J. Orthod., Vol. 110, pp. 256-262 https://doi.org/10.1016/S0889-5406(96)80008-4
  6. Wilson, A. N., Middleton. J., Jones, M. L. and McGuinness, 1994, 'The finite Element Analysis of Stress in the Periodontal Ligament when Subject to Vertical Orthodontic Forces,' Brit. J. Orthod., Vol. 21, No. 2, pp. 161-167
  7. Puente, M. I., Galban, L. and Cobo, J. M., 1996, 'Initial Stress Difference between Tipping and Torque Movement. A Three-dimensional Finite Element Analysis,' Europ. J. Orthod., Vol. 18, pp. 329-339 https://doi.org/10.1093/ejo/18.1.329
  8. 최유경, 김태우, 서정훈, 1998, '대구치 직립 스프링 적용시 반작용에 관한 삼차원 유한요소법적 연구,' 대한치과교정학회지, 제28권, 제1호, pp. 61-74
  9. Ash, M. M, 1993, Wheeler's Dental Anatomy, Physiology and Occlusion, 7th ed., W. B. Saunders, pp. 1-307
  10. Coo;idge, E. D., 1937, 'The Thickness of the Human Periodontal Membrane,' J. Am. Dent. Assoc., Vol. 24, pp. 1260-1270
  11. Andersen, K. L., Pedersen, E. H. and Melsen, B., 1991, 'Material Parameters and Stress Profiles within the Periodontal Ligament,' Am. J. Orthod., Vol. 99, pp. 427-440 https://doi.org/10.1016/S0889-5406(05)81576-8
  12. Gjessing, P., 1985, 'Biomechanical Design and Clinical Evaluation of a New Canine-retraction Spring,' Am. J. Orthod., Vol. 87, pp.353-362 https://doi.org/10.1016/0002-9416(85)90195-2