scholarly journals Construction of Driver's Injury Risk Prediction in Different Car Type by Using Sled Model Simulation at Frontal Crash

2013 ◽  
Vol 21 (5) ◽  
pp. 136-144
Author(s):  
Jun Hee Moon ◽  
Hyung Yun Choi
2018 ◽  
Vol 08 (05) ◽  
Author(s):  
Lukasz Oleksy ◽  
Anna Mika ◽  
Renata Kielnar ◽  
Błazej Pruszczynski

2016 ◽  
Vol 16 (2) ◽  
pp. 463-477 ◽  
Author(s):  
Ashley A. Weaver ◽  
Sarah M. Stitzel ◽  
Joel D. Stitzel

2019 ◽  
Vol 129 ◽  
pp. 84-93
Author(s):  
Tetsuya Nishimoto ◽  
Kazuhiro Kubota ◽  
Giulio Ponte

Author(s):  
Randa Radwan Samaha ◽  
Priyaranjan Prasad ◽  
Sarath Kamalakkannan ◽  
Vamsi Kommineni ◽  
Lilly Nix ◽  
...  

Occupant model environments (MADYMO) are developed for four surrogate vehicles for injury risk computation in frontal crash fleet simulations: a small passenger car, a midsize passenger car, a midsize sport utility vehicle and a full size pickup truck. This research supports the initial implementation of a novel methodology for Evaluating Fleet, i.e., self and partner, Protection (EFP) of new vehicle designs through a systems modeling approach driven by structural and occupant modeling and real world crash and full scale test data. A two part general framework for development of occupant models for fleet vehicles is established: model development (Part I) and model verification and robustness evaluation (Part II). In Part I, current generic occupant models with seat belt and airbag restraints are obtained from restraint manufacturers and then modified to reflect the interior geometry and clearances of the desired vehicle. Data from finite element structural simulations, including the occupant compartment geometry, crash pulse, and toe pan intrusions, are utilized to drive the MADYMO models. Restraint system and dummy seating changes are incorporated to achieve a realistic match for both midsize male and small female driver dummy responses from available frontal crash tests. Part II involves comparing occupant responses from simulation and test data, and assessing trends in occupant responses in selected crash configurations for application in frontal crash fleet simulations.


2009 ◽  
Vol 14 (3) ◽  
pp. 259-268 ◽  
Author(s):  
V. Tinard ◽  
C. Deck ◽  
F. Meyer ◽  
N. Bourdet ◽  
R. Willinger

Author(s):  
Keith D Button ◽  
Paige Thornton ◽  
Jerrod E Braman ◽  
Feng Wei ◽  
Roger C Haut

The rotational stiffness of footwear has been previously shown to have an effect on ankle kinematics and injury risk, but this relationship has not yet been modeled. The aim of this study was to derive equations from experimental data that were able to predict ankle kinematics under various torsional stiffness constraints and use these equations to estimate ligament strains. Three athletic tapes were tested for their ability to constrain the ankle during external rotation. Six subjects then performed a voluntary external foot rotation using the selected tape designs to constrain the ankle, as well as with no constraints. The motion of the calcaneus with respect to the tibia (tibiocalcaneal motion) from 0° to 15° of tibia rotation and predictive equations were determined to establish tibiocalcaneal rotation, eversion, and flexion as a function of gross tibia motion and tape stiffness. These predictive equations were then used to drive a computational model in which ankle ligament strains were determined at 15° of tibia rotation and for ankle constraint stiffness ranging from 0 to 30 N m/deg. The three tapes provided significantly different constraint stiffnesses during external foot rotation. There was no statistical effect of ankle constraint on the dorsiflexion response of the ankle (p = 0.461). In contrast, there was an effect of constraint stiffness on tibiocalcaneal external rotation (p < 0.001) and tibiocalcaneal eversion (p < 0.001). Results of the model simulation revealed the highest ligament strains in the anterior tibiotalar ligament and anterior tibiofibular ligament. Anterior tibiotalar ligament strain increased with increasing constraint stiffness, while there was little effect of constraint stiffness on anterior tibiofibular ligament strain. Results from this study could aid in the design of footwear, as well as the analysis of clinical injuries.


Sign in / Sign up

Export Citation Format

Share Document