Abstract: A method for conditioning an energy storage system for a vehicle located in a geographic area includes the steps of obtaining data pertaining to an external temperature of the geographic area, measuring a temperature of the energy storage system, heating the energy storage system if the temperature is less than a first predetermined threshold, and cooling the energy storage system if the temperature is greater than a second predetermined threshold. The first predetermined threshold is dependent upon the external temperature. The second predetermined threshold is also dependent upon the external temperature.

Abstract: The method for thermal management of a battery can include vehicle systems to control the thermal input to the battery and a dedicated battery thermal management system. The battery thermal management system includes transferring battery heat to coolant flowing in a circuit, if ambient air temperature is greater than the battery temperature, using an evaporator/chiller to transfer heat from the coolant to a refrigerant, using a condenser to transfer heat from the refrigerant to the coolant, and using a radiator to transfer heat from the coolant to ambient air; and if coolant can be maintained in the reference temperature range without using a heat source or refrigerant, using a radiator to transfer heat from the coolant to the ambient air.

Abstract: An electronically controlled valve assembly includes an electronically controlled linear actuator having a housing assembly and a rotor disposed within the housing assembly and controllably rotatable relative to the housing in response to a received motor control command. The rotor includes a drive shaft, and an annular bobbin circumferentially disposed about the drive shaft. The bobbin partially defines a receiving cavity between the bobbin and the drive shaft, and a first plurality of threads is disposed at an end portion of the drive shaft. The actuator further includes a stem that is rotationally stationary relative to the housing assembly, and which includes a second plurality of threads configured to cooperate with the first plurality of threads to translate the stem into the receiving cavity in response to the rotation of the rotor.

Abstract: A three-way dual seat valve having a valve body including mutually spaced apart annular first and second valve seats. Reciprocally mounted with respect to the valve body is a dual-faced valve stem gate, wherein each gate face thereof is sealingly engageable with a respective valve seat in response to reciprocal movement of the valve stem gate effected via a leadscrew drive system.

Abstract: A three-way dual seat valve having a valve body including mutually spaced apart annular first and second valve seats. Reciprocally mounted with respect to the valve body is a valve stem which carries within the valve body an annular, dual-faced valve stem gate. Each gate face thereof is sealingly engageable with a respective valve seat in response to reciprocal movement of the valve stem.

Abstract: The method for thermal management of a battery can include vehicle systems to control the thermal input to the battery and a dedicated battery thermal management system. The battery thermal management system includes transferring battery heat to coolant flowing in a circuit, if ambient air temperature is greater than the battery temperature, using an evaporator/chiller to transfer heat from the coolant to a refrigerant, using a condenser to transfer heat from the refrigerant to the coolant, and using a radiator to transfer heat from the coolant to ambient air; and if coolant can be maintained in the reference temperature range without using a heat source or refrigerant, using a radiator to transfer heat from the coolant to the ambient air.

Abstract: A method for conditioning an energy storage system for a vehicle located in a geographic area includes the steps of obtaining data pertaining to an external temperature of the geographic area, measuring a temperature of the energy storage system, heating the energy storage system if the temperature is less than a first predetermined threshold, and cooling the energy storage system if the temperature is greater than a second predetermined threshold. The first predetermined threshold is dependent upon the external temperature. The second predetermined threshold is also dependent upon the external temperature.