Proceedings of the Institution of Mechanical Engineers Part D Journal of Automobile Engineering · 2010 · 15 citations · 10 references
Mechanical DurabilityEngineeringLithium-ion Polymer BatteriesMechanical EngineeringHybrid Electric VehicleElectrical DurabilityElectric VehiclesEnergy Storage DeviceElectronic PackagingElectrical EngineeringEnergy HarvestingAluminium-laminated Packaging StructureLithium-ion BatteryLithium-ion BatteriesMechanical BatteriesEnergy StorageEnergy Storage SystemHybrid VehicleElectric BatteryBatteriesElectrical DurabilitiesElectrical Insulation
Lithium-ion polymer batteries of aluminium-laminated packaging structure have advantages in terms of thermal characteristics and safety but have a weak configuration with respect to external forces compared with other types of cells such as cylindrical and prismatic cells. Thus it is important to protect the batteries of the aluminium-laminated packaging structure under the severe conditions encountered in vehicle operation where excessive mechanical impacts and vibrations may affect the battery system. In this work, an energy storage system for a hybrid electric vehicle (HEV) has been developed using lithium-ion polymer battery cells with an aluminium-laminated packaging structure and has been tested for structural and electrical durabilities. The test results of combined accelerated vibration and charge discharge cycling are presented to prove that the battery pack has the durability to satisfy vehicle standards. Three different types of test method have been applied to evaluate the mechanical and electrical durabilities. It was observed that the HEV battery pack satisfied the durability standards required for vehicle applications. The results imply that an aluminium-laminated cell packaging structure can be a competitive option for physical configuration of cells for vehicle applications.
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Vibration analysis for electronic equipment
W. Redman-White · Journal of Sound and Vibration · 1990 · 427 citations