Abstract: Sealed busbar assemblies are provided for use within traction battery packs. An exemplary sealed busbar assembly may be configured to electrically connect a first battery array and a second battery array of the traction battery pack. Primary seals and secondary seals of the sealed busbar assembly may cooperate to seal high voltage connections relative to both the first battery array and the second battery array. The high voltage connections may be established by the busbar, a pair of fasteners, and high voltage array busbars of both the first battery array and the second battery array.

Abstract: A battery component includes a header body and a frame secured to the header body. The frame includes an electromagnetic shield portion. The electromagnetic shield portion defines at least one electrical connection port. The electrical connection port is configured to receive an electrically conductive object. The electromagnetic shield portion is configured to dissipate electromagnetic radiation from the electrically conductive object.

Abstract: Busbar systems are provided for use within traction battery packs. The busbar systems may include one or more integrated thermal barriers for mitigating the effects of battery thermal events. The thermal barriers may be integrated as part of an outer housing of the busbar system, as part of a fuse area of a busbar of the busbar system, or both.

Abstract: A battery pack, comprising: a first battery array; a second battery array; and an electrical joint assembly having an electrical joint and a plurality of non-conductive fasteners, the second battery array coupled to the first battery array via the electrical joint assembly with the plurality of non-conductive fasteners.

Abstract: Retention systems are provided for positioning and retaining bus bars relative to battery array terminals within a traction battery pack. The retention systems may include features for urging a bus bar into contact with an array terminal of a battery system. The retention systems may additionally incorporate features for preventing exposure to high voltage areas of the battery system and for directing vent gases toward pack-level venting systems. In some implementations, the bus bar retention features are provided by a combination of a thermal barrier structure and a terminal clip of the retention system.

Abstract: Busbar systems are provided for use within traction battery packs. The busbar systems may include one or more integrated thermal barriers for mitigating the effects of battery thermal events. The thermal barriers may be integrated as part of an outer housing of the busbar system, as part of a fuse area of a busbar of the busbar system, or both.

Abstract: A battery component includes a header body and a frame secured to the header body. The frame includes an electromagnetic shield portion. The electromagnetic shield portion defines at least one electrical connection port. The electrical connection port is configured to receive an electrically conductive object. The electromagnetic shield portion is configured to dissipate electromagnetic radiation from the electrically conductive object.

Abstract: A battery pack system includes first and second battery arrays of a traction battery pack, and a thermal barrier assembly disposed at least partially between the first and second battery arrays. The thermal barrier assembly is configured to block thermal energy movement from the first battery array to the second battery array, and from the second battery array to the first battery array. The system further includes a busbar interfacing directly with a portion of the thermal barrier assembly.

Abstract: Microfluidic devices and methods of quantifying fatty acids and/or specialized pro-resolving mediators and/or fatty acid metabolites present in a fluid sample on a microfluidic device are described herein. The methods include extracting fatty acid esters containing fatty acids from the fluid sample, combining the extracted fatty acid esters with a hydrolyzing agent to cleave the fatty acids from the extracted fatty acid esters and form free fatty acids, and quantifying the free fatty acids by performing a bioassay specific to the free fatty acids. Microfluidic devices and methods of quantifying fatty acid metabolites present in a fluid sample on a microfluidic device are also described herein.

Abstract: This disclosure relates to a battery assembly with an aluminum (Al) alloy, ceramic coated header plate. An example battery assembly includes a plate, which may be referred to as a header plate, configured to support an electrical connector. The plate includes aluminum (Al) alloy and is coated with a layer of ceramic material.

Abstract: This disclosure relates to a battery assembly with an aluminum (Al) alloy, ceramic coated header plate. An example battery assembly includes a plate, which may be referred to as a header plate, configured to support an electrical connector. The plate includes aluminum (Al) alloy and is coated with a layer of ceramic material.

Abstract: A battery assembly according to a non-limiting aspect of the present disclosure includes, among other things, a busbar, an array of battery cells including an electrical terminal, and a quick connect assembly mechanically and electrically coupling the busbar to the electrical terminal.

Abstract: A battery assembly according to a non-limiting aspect of the present disclosure includes, among other things, a busbar, an array of battery cells including an electrical terminal, and a quick connect assembly mechanically and electrically coupling the busbar to the electrical terminal.

Abstract: A method and an apparatus take software source code to synthesize a hardware platform for running the software. The method determines which processor is suitable for running the code and meeting the performance parameters determined by the user. The method also determines which hardware devices are accessed by software. If the hardware target is a semiconductor chip, the invention selects the appropriate IP and creates an HDL description of the chip. If the hardware target is a printed circuit board, the invention creates a schematic or netlist that includes the appropriate microprocessor, the various semiconductor chips, and the necessary interconnections.

Abstract: A method and an apparatus take software source code to synthesize a hardware platform for running the software. The method determines which processor is suitable for running the code and meeting the performance parameters determined by the user. The method also determines which hardware devices are accessed by software. If the hardware target is a semiconductor chip, the invention selects the appropriate IP and creates an HDL description of the chip. If the hardware target is a printed circuit board, the invention creates a schematic or netlist that includes the appropriate microprocessor, the various semiconductor chips, and the necessary interconnections.

Abstract: A method and an apparatus take software source code to synthesize a hardware platform for running the software. The method determines which processor is suitable for running the code and meeting the performance parameters determined by the user. The method also determines which hardware devices are accessed by software. If the hardware target is a semiconductor chip, the invention selects the appropriate IP and creates an HDL description of the chip. If the hardware target is a printed circuit board, the invention creates a schematic or netlist that includes the appropriate microprocessor, the various semiconductor chips, and the necessary interconnections.

Abstract: A method and an apparatus take software source code to synthesize a hardware platform for running the software. The method determines which processor is suitable for running the code and meeting the performance parameters determined by the user. The method also determines which hardware devices are accessed by software. If the hardware target is a semiconductor chip, the invention selects the appropriate IP and creates an HDL description of the chip. If the hardware target is a printed circuit board, the invention creates a schematic or netlist that includes the appropriate microprocessor, the various semiconductor chips, and the necessary interconnections.

Abstract: A method and an apparatus take software source code to synthesize a hardware platform for running the software. The method determines which processor is suitable for running the code and meeting the performance parameters determined by the user. The method also determines which hardware devices are accessed by software. If the hardware target is a semiconductor chip, the invention selects the appropriate IP and creates an HDL description of the chip. If the hardware target is a printed circuit board, the invention creates a schematic or netlist that includes the appropriate microprocessor, the various semiconductor chips, and the necessary interconnections.

Abstract: Disclosed are a low vibration cryocooler and a method of reducing vibration in a cryocooler. The cryocooler can be a Stirling class cryocooler includes at least one motor that drives a mass, the motor having a main drive winding and a separate trim winding. A motor controller outputs a main drive signal that is coupled to the main drive winding and a separate vibration reducing signal that is coupled to the trim winding.

Abstract: A method for identifying shared resources in multiple tasks in a multitasking system and for automatically inserting code to protect these shared resources from race conditions due to access by more than one task.