Human cranium biomechanical simulation

Author(s):  
P Perestrelo ◽  
P Bártolo ◽  
M Torres ◽  
P Noritomi ◽  
J Silva
2010 ◽  
Vol 40 (5) ◽  
pp. 525-532 ◽  
Author(s):  
Heng-Li Huang ◽  
Jui-Ting Hsu ◽  
Lih-Jyh Fuh ◽  
Dan-Jae Lin ◽  
Michael Y.C. Chen

Author(s):  
Amir H. Abdi ◽  
Pramit Saha ◽  
Venkata Praneeth Srungarapu ◽  
Sidney Fels

2019 ◽  
Vol 2019 ◽  
pp. 1-9 ◽  
Author(s):  
Jianping Shi ◽  
Huixin Liang ◽  
Jie Jiang ◽  
Wenlai Tang ◽  
Jiquan Yang

Implant parts prepared by traditional design and manufacturing methods generally have problems of high stiffness and heavy self-weight, which may cause stress shielding effect between the implanted part and the host bone, and eventually cause loosening of the implanted part. Based on the implicit surface function equations, several porous implant models with controlled pore structure were designed. By adjusting the parameters, the apparent elastic modulus of the porous implant model can be regulated. The biomechanical simulation experiment was performed using CAE software to simulate the stress and elastic modulus of the designed models. The experimental results show that the apparent elastic modulus of the porous structure scaffold is close to that of the bone tissue, which can effectively reduce the stress shielding effect. In addition, the osseointegration status between the implant and the host bone was analyzed by implant experiment. The pushout test results show that the designed porous structures have a good osseointegration effect.


Author(s):  
Motofumi Sogo ◽  
Sadami Tsutsumi ◽  
Yoshinobu Maeda ◽  
Masanori Oka

Author(s):  
Jörg Miehling ◽  
Jürgen Schuhhardt ◽  
Florian Paulus-Rohmer ◽  
Sandro Wartzack

Computer aided ergonomics and particularly biomechanical simulations hold high potential for the implementation of the virtual product development paradigm in the field of human-centric design. Unfortunately, the relation between efforts to be invested to the insights gained by musculoskeletal simulations is still not sufficient for a widespread industrial application. This contribution shows how parametric biomechanical simulations can be used to gain specific indications on how interaction points of human-centric products are to be designed to meet the competencies of a given target user. This is demonstrated using cycling and rowing as two exemplary activities involving the entire human body. These activities are empirically well studied and electromyographic as well as force measurements are available. The comparison of the biomechanical simulations to the real-world scenario permits the validation of the proposed parametric approach as well as the applied models. This is a prerequisite for its application along the product engineering process.


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