Modeling the mechanical behavior of the jaws and their related structures by finite element (FE) analysis

被引:165
作者
Korioth, TWP
Versluis, A
机构
[1] Minnesota Dent. Res. Ctr. B., School of Dentistry, University of Minnesota, Minneapolis, MN 55455
关键词
stress; teeth; jaw; restoration; model;
D O I
10.1177/10454411970080010501
中图分类号
R78 [口腔科学];
学科分类号
1003 ;
摘要
In this paper, we provide a review of mechanical finite element analyses applied to the maxillary and/or mandibular bone with their associated natural and restored structures. It includes a description of the principles and the relevant variables involved, and their critical application to published finite element models ranging from three-dimensional reconstructions of the jaws to detailed investigations on the behavior of natural and restored teeth, as well as basic materials science. The survey revealed that many outstanding FE approaches related to natural and restored dental structures had already been done 10-20 years ago. Several three-dimensional mandibular models are currently available, but a more realistic correlation with physiological chewing and biting tasks is needed. Many FE models lack experimentally derived material properties, sensitivity analyses, or validation attempts, and yield too much significance to their predictive, quantitative outcome. A combination of direct validation and, most importantly, the complete assessment of methodical changes in all relevant variables involved in the modeled system probably indicates a good FE modeling approach. A numerical method for addressing mechanical problems is a powerful contemporary research tool. FE analyses can provide precise insight into the complex mechanical behavior of natural and restored craniofacial structures affected by three-dimensional stress fields which are still very difficult to assess otherwise.
引用
收藏
页码:90 / 104
页数:15
相关论文
共 158 条
[21]   3-DIMENSIONAL STRESS-DISTRIBUTION AROUND A DENTAL IMPLANT AT DIFFERENT STAGES OF INTERFACE DEVELOPMENT [J].
BORCHERS, L ;
REICHART, P .
JOURNAL OF DENTAL RESEARCH, 1983, 62 (02) :155-159
[22]  
CAHOON P, 1994, P SOC PHOTO-OPT INS, V2178, P206, DOI 10.1117/12.172072
[23]   A COMPARISON OF INTRACANAL STRESSES IN A POST-RESTORED TOOTH UTILIZING THE FINITE-ELEMENT METHOD [J].
CAILLETEAU, JG ;
RIEGER, MR ;
AKIN, JE .
JOURNAL OF ENDODONTICS, 1992, 18 (11) :540-544
[24]   A FINITE-ELEMENT ANALYSIS OF THE HUMAN TEMPOROMANDIBULAR-JOINT [J].
CHEN, J ;
XU, LF .
JOURNAL OF BIOMECHANICAL ENGINEERING-TRANSACTIONS OF THE ASME, 1994, 116 (04) :401-407
[25]   MECHANICAL SIMULATION OF THE HUMAN MANDIBLE WITH AND WITHOUT AN ENDOSSEOUS IMPLANT [J].
CHEN, J ;
LU, X ;
PAYDAR, N ;
AKAY, HU ;
ROBERTS, WE .
MEDICAL ENGINEERING & PHYSICS, 1994, 16 (01) :53-61
[26]  
CHEN Y, 1993, BIOENG C BED, V24, P343
[27]  
Clelland N L, 1993, J Prosthodont, V2, P183, DOI 10.1111/j.1532-849X.1993.tb00405.x
[28]  
Clelland N L, 1991, Int J Oral Maxillofac Implants, V6, P391
[29]   THE INFLUENCE OF IMPLANT GEOMETRY ON THE STRESS-DISTRIBUTION AROUND DENTAL IMPLANTS [J].
COOK, SD ;
KLAWITTER, JJ ;
WEINSTEIN, AM .
JOURNAL OF BIOMEDICAL MATERIALS RESEARCH, 1982, 16 (04) :369-379
[30]   A MODEL FOR THE IMPLANT-BONE INTERFACE CHARACTERISTICS OF POROUS DENTAL IMPLANTS [J].
COOK, SD ;
KLAWITTER, JJ ;
WEINSTEIN, AM .
JOURNAL OF DENTAL RESEARCH, 1982, 61 (08) :1006-1009