The severity of occupant injuries sustained during automotive collisions can increase when an occupant is out‐of‐position prior to the crash. Several studies have shown that muscle activation significantly affects human kinematics in low severity impacts or pre‐crash car movements. As such, it is important to quantify the influence of this behaviour to effectively design safety systems. Reactive behaviour can be simulated with a recently developed computer human model that stabilises to a predefined position. The objective of this study was to adapt this model to simulate realistic bracing behaviour during braking. A new neck model was developed as well as a new arm model. In an anterior‐posterior frequency perturbation test the new neck mo...
Human body models (HBMs) are virtual human surrogates used to predict kinematic and injury responses...
Integration of pre-crash and in-crash safety systems has a potential to further reduce car occupant ...
The Total HUman Model for Safety (THUMS), developed by Toyota, is a numerical finite element model o...
Human Body Models (HBMs) have been used in crash safety research for some time, and are now emerging...
Human Body Models (HBMs) have been used in crash safety research for some time, and are now emerging...
Real‐world occupant protection includes the influence of active safety technologies, such as autobra...
Traffic injuries are an important public health issue. To prevent, diagnose and treat injuriesit is ...
Objective: The aim of this study is to model occupant kinematics in an autonomous braking event by u...
Fatalities and injuries to car occupants in motor vehicle crashes continue to be aserious global soc...
BACKGROUND: Today, human body models (HBM) are recognized as important tools within traffic safety r...
The development of automotive safety systems is moving towards an integration of systems thatare act...
Over 30 000 fatalities related to the road transport system are reported anually in Europe. Of these...
In far-side impacts, the time span between the car-to-car impact and the occupant interaction with t...
Vehicle crashes may be preceded by evasive manoeuvres, executed by the driver or automatically. This...
Numerical human body models that can predict occupant head and neck responses are essential for the ...
Human body models (HBMs) are virtual human surrogates used to predict kinematic and injury responses...
Integration of pre-crash and in-crash safety systems has a potential to further reduce car occupant ...
The Total HUman Model for Safety (THUMS), developed by Toyota, is a numerical finite element model o...
Human Body Models (HBMs) have been used in crash safety research for some time, and are now emerging...
Human Body Models (HBMs) have been used in crash safety research for some time, and are now emerging...
Real‐world occupant protection includes the influence of active safety technologies, such as autobra...
Traffic injuries are an important public health issue. To prevent, diagnose and treat injuriesit is ...
Objective: The aim of this study is to model occupant kinematics in an autonomous braking event by u...
Fatalities and injuries to car occupants in motor vehicle crashes continue to be aserious global soc...
BACKGROUND: Today, human body models (HBM) are recognized as important tools within traffic safety r...
The development of automotive safety systems is moving towards an integration of systems thatare act...
Over 30 000 fatalities related to the road transport system are reported anually in Europe. Of these...
In far-side impacts, the time span between the car-to-car impact and the occupant interaction with t...
Vehicle crashes may be preceded by evasive manoeuvres, executed by the driver or automatically. This...
Numerical human body models that can predict occupant head and neck responses are essential for the ...
Human body models (HBMs) are virtual human surrogates used to predict kinematic and injury responses...
Integration of pre-crash and in-crash safety systems has a potential to further reduce car occupant ...
The Total HUman Model for Safety (THUMS), developed by Toyota, is a numerical finite element model o...