Abstract: Multifunctional cross-member beams are provided for use within traction battery packs. An exemplary cross-member beam may include features for interfacing with and supporting various subcomponents (e.g., battery cells, cell tab terminals, bus bars, thermal barriers, etc.) of a cell stack of the traction battery pack. The cross-member beam may further incorporate features for facilitating the venting of battery cell vent byproducts during battery thermal events.

Abstract: A battery pack venting assembly includes a first beam establishing a first side of a passageway and a second beam establishing an opposite, second side of the passageway. The passageway is configured to communicate battery cell vent byproducts. A method of establishing a vent path within a traction battery pack includes, within an enclosure assembly of a battery pack, providing a cross-member assembly having a first beam and a second beam; and communicating battery cell vent byproducts through at least one opening in the first beam into a passageway having a perimeter that is at least partially provided by the first beam and the second beam.

Abstract: Battery thermal suppression systems may be provided for battery arrays and/or traction battery packs. Exemplary thermal suppression systems may include one or more aerosol devices that are adapted to release aerosol particles that may be distributed over and/or around battery cells/battery arrays during battery thermal events, thereby mitigating thermal propagation. The aerosol devices may be active or passive devices and can be implanted at the battery array level, the traction battery pack level, or both.

Abstract: Battery thermal suppression systems may be provided for battery arrays and/or traction battery packs. Exemplary thermal suppression systems may include one or more aerosol devices that are adapted to release aerosol particles that may be distributed over and/or around battery cells/battery arrays during battery thermal events, thereby mitigating thermal propagation. The aerosol devices may be active or passive devices and can be implanted at the battery array level, the traction battery pack level, or both.

Abstract: An exemplary battery assembly includes a first terminal holder, and a terminal at least partially surrounded by the first terminal holder. The first terminal holder includes a locating feature to position the first terminal holder relative to a second terminal holder.

Abstract: An exemplary electrified vehicle assembly includes, among other things, a lower wall of a battery enclosure and an upper wall of the battery enclosure. The upper wall includes an upper wall deformation area that is configured to deform in response to a load applied to the battery enclosure prior to other areas of the upper wall.

Abstract: An electric vehicle battery assembly according to an exemplary aspect of the present disclosure includes, among other things, a battery cell, a rail securing the cell, and a terminal holder in direct contact with the rail.

Abstract: A battery assembly according to an exemplary aspect of the present disclosure includes, among other things, an array frame including a frame body and a slot formed through the frame body. A heat exchanger is received within the slot.

Abstract: An exemplary battery assembly includes a first terminal holder, and a terminal at least partially surrounded by the first terminal holder. The first terminal holder includes a locating feature to position the first terminal holder relative to a second terminal holder.

Abstract: An electric vehicle battery assembly according to an exemplary aspect of the present disclosure includes, among other things, a battery cell, a rail securing the cell, and a terminal holder in direct contact with the rail.

Abstract: A system for an engine includes an engine block having a cylinder, an oil delivery system including an oil reservoir at least partially enclosing an oil emulsion and providing lubricating oil to at least one cylinder, and a controller configured to adjust the heat delivered to the engine via a heat adjustment mechanism in response to a concentration of water in the oil emulsion.

Abstract: A system for an engine includes an engine block having a cylinder, an oil delivery system including an oil reservoir at least partially enclosing an oil emulsion and providing lubricating oil to at least one cylinder, and a controller configured to adjust the heat delivered to the engine via a heat adjustment mechanism in response to a concentration of water in the oil emulsion.

Abstract: A system for an engine includes an engine block having a cylinder, an oil delivery system including an oil reservoir at least partially enclosing an oil emulsion and providing lubricating oil to at least one cylinder, and a controller configured to adjust the heat delivered to the engine via a heat adjustment mechanism in response to a concentration of water in the oil emulsion.

Abstract: A system for internal combustion engine including an engine block having a cylinder, an oil delivery system coupled to the engine block including an oil reservoir at least partially enclosing an oil emulsion, the oil delivery system providing lubricating oil to at least one cylinder in the engine, a heat adjustment mechanism coupled to the engine, and a controller configured to adjust the heat delivered to the engine, via the heat adjustment mechanism, in response to a concentration of water in the oil emulsion.

Abstract: A hydrogen-powered hybrid powertrain system includes a hydrogen-fuelled internal combustion engine operating at a lean air/fuel mixture, and a supercharger for boosting a primary drive torque produced by the engine primarily over a high operating speed range. An electric motor/generator generates a secondary drive torque for the vehicle, such that the secondary drive torque complements the boosted primary drive torque over at least a low operating speed range of the powertrain. A disconnect clutch disposed between the engine and the motor/generator engages and disengages the engine from the motor/generator, and serves to transfer the boosted primary driver torque through the motor/generator and to a power transmission system. The input at the power transmission is thus a combination of the boosted primary drive torque and the secondary drive torque having an enhanced torque characteristic over at least the low operating speed range.

Abstract: A hydrogen-powered hybrid powertrain system includes a hydrogen-fuelled internal combustion engine operating at a lean air/fuel mixture, and a supercharger for boosting a primary drive torque produced by the engine primarily over a high operating speed range. An electric motor/generator generates a secondary drive torque for the vehicle, such that the secondary drive torque complements the boosted primary drive torque over at least a low operating speed range of the powertrain. A disconnect clutch disposed between the engine and the motor/generator engages and disengages the engine from the motor/generator, and serves to transfer the boosted primary driver torque through the motor/generator and to a power transmission system. The input at the power transmission is thus a combination of the boosted primary drive torque and the secondary drive torque having an enhanced torque characteristic over at least the low operating speed range.