Analysis of different head and neck responses in rear-end car collisions using a new humanlike mathematical model
Lotta Jakobsson, Hans Norin, C. Jernstroem, S.e. Svensson, P. Johnsen, Irene Isaksson-Hellman, Mats Y. Svensson
Abstract
Lotta Jakobsson, Hans Norin, C. Jernstroem, S.e. Svensson, P. Johnsen, Irene Isaksson-Hellman, Mats Y. Svensson
Abstract
A study was carried out using detailed traffic accident data from rear-end car collisions involving Volvo cars. Vehicle and occupant related parameters influencing the risk of neck injury were identified. A new humanlike occupant model was developed in MADYMO-format comprising a mechanical equivalent of the complex spine. The motions of the occupant model were compared to volunteer data from a corresponding rear-end impact situation. The biofidelity of the model was found to be adequate for qualitative assessment of the influence of occupant and vehicle related parameters on the occupant response. Tensile and shear forces between adjacent vertebrae, head angular acceleration and flow of the lower cervical spine were found to best predict risk of injury in this model. For the covering abstract of the conference see IRRD 881069.
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A study was carried out using detailed traffic accident data from rear-end car collisions involving Volvo cars. Vehicle and occupant related parameters influencing the risk of neck injury were identified. A new humanlike occupant model was developed in MADYMO-format comprising a mechanical equivalent of the complex spine. The motions of the occupant model were compared to volunteer data from a corresponding rear-end impact situation. The biofidelity of the model was found to be adequate for qualitative assessment of the influence of occupant and vehicle related parameters on the occupant response. Tensile and shear forces between adjacent vertebrae, head angular acceleration and flow of the lower cervical spine were found to best predict risk of injury in this model. For the covering abstract of the conference see IRRD 881069.
Key concepts: Neck injury, Hybrid III, Whiplash, Head (geology), Cervical spine, Engineering, Simulation, Neck muscles