International Journal of Occupational Safety and Ergonomics · 2017 · 14 citations · 35 references
Physical ActivityEngineeringMechanical EngineeringAccelerometerWearable TechnologyVehicle DynamicMotor ControlVehicle RideMovement AnalysisKinesiologyMechanicsBiomechanicsBiodynamicsApplied PhysiologyBiostatisticsHuman Body ResponsesKinematicsHuman Body BehaviourNonlinear VibrationStructural VibrationHealth SciencesExperimental InvestigationActive Vibration ControlDriver PerformanceMechanical SystemsWhole-body VibrationRandom VibrationBody ComfortHuman MovementVibration Control
In this study, responses of biodynamic human body models to whole-body vibration during a vehicle ride were investigated. Accelerations were acquired from three different body parts, such as the head, upper torso and lower torso, of 10 seated passengers during a car ride while two different road conditions were considered. The same multipurpose vehicle was used during all experiments. Additionally, by two widely used biodynamic models in the literature, a set of simulations were run to obtain theoretical accelerations of the models and were compared with those obtained experimentally. To sustain a quantified comparison between experimental and theoretical approaches, the root mean square acceleration and acceleration spectral density were calculated. Time and frequency responses of the models demonstrated that neither of the models showed the best prediction performance of the human body behaviour in all cases, indicating that further models are required for better prediction of the human body responses.
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Discomfort from feeling vehicle vibration
Michael J. Griffin · Vehicle System Dynamics · 2007 · 232 citations
Vibration Discomfort, Automotive Engineering, Kinesiology +14