Abstract: Presented are battery assemblies with integrated fuel tanks, methods for making/using such battery assemblies, and fuel cell electric vehicles having rechargeable traction battery packs with integrated fiber-composite hydrogen fuel tanks. A rechargeable energy storage system (RESS) assembly includes a battery pack housing with an internal battery module compartment located between two tank mounting cavities. Each mounting cavity is recessed into a respective lateral side of the battery pack housing. Multiple rechargeable battery modules are electrically interconnected with one another and mounted inside the battery module compartment. Each battery module contains multiple battery cells, such as a stack of series-connected lithium-ion pouch cells. A fuel tank is mounted in each of the tank mounting cavities on the lateral sides of the battery pack housing.

Abstract: Presented are battery assemblies with integrated fuel tanks, methods for making/using such battery assemblies, and fuel cell electric vehicles having rechargeable traction battery packs with integrated fiber-composite hydrogen fuel tanks. A rechargeable energy storage system (RESS) assembly includes a battery pack housing with an internal battery module compartment located between two tank mounting cavities. Each mounting cavity is recessed into a respective lateral side of the battery pack housing. Multiple rechargeable battery modules are electrically interconnected with one another and mounted inside the battery module compartment. Each battery module contains multiple battery cells, such as a stack of series-connected lithium-ion pouch cells. A fuel tank is mounted in each of the tank mounting cavities on the lateral sides of the battery pack housing.

Abstract: A vehicle battery coolant system includes a first battery module including a first plurality of cells and a second battery module including a second plurality of cells. A coolant plate is disposed between the first and second battery modules and in heat transfer relationship with the first and second battery modules, wherein the coolant plate has fluid passages therein.

Abstract: A vehicle battery coolant system includes a first battery module including a first plurality of cells and a second battery module including a second plurality of cells. A coolant plate is disposed between the first and second battery modules and in heat transfer relationship with the first and second battery modules, wherein the coolant plate has fluid passages therein.

Abstract: An automotive battery pack enclosure, assembly and method of housing battery pack cells within an enclosure. The enclosure includes a tray that defines a mounting surface for the various individual battery cells, as well as an upstanding wall, while the assembly further includes numerous individual battery cells aligned along a stacking axis within the enclosure. The wall is made from a continuous extruded preform with periodically-spaced miters that permit bending such that the wall can assume any shape defined by the various panels. The panels cooperative with the peripheral edges of the tray to define a battery container with a footprint shape generally similar to that of the tray. By being formed from a substantially one-piece preform, all of the corners—save the one formed where wall ends are brought into adjacent cooperation with one another—define a continuous structural seal without the need for sealants, welds or other supplemental closure approaches.

Abstract: Provided herein is a heat exchange assembly for conducting air flow through an air cooled vehicle battery, including: a housing enclosing a battery pack having a plurality of cells; and a manifold operably connected to the housing, wherein the manifold includes an inlet for receiving air flow into the battery pack and an outlet for exhausting air flow out of the battery pack, wherein the inlet and the outlet form a single heat exchange duct that passes through a single opening on a face of the housing. Also provided herein is a vehicle incorporating the disclosed heat exchange assembly and a method of conducting air flow through an air cooled battery in a vehicle.

Abstract: An automotive battery pack enclosure, assembly and method of housing battery pack cells within an enclosure. The enclosure includes a tray that defines a mounting surface for the various individual battery cells, as well as an upstanding wall, while the assembly further includes numerous individual battery cells aligned along a stacking axis within the enclosure. The wall is made from a continuous extruded preform with periodically-spaced miters that permit bending such that the wall can assume any shape defined by the various panels. The panels cooperative with the peripheral edges of the tray to define a battery container with a footprint shape generally similar to that of the tray. By being formed from a substantially one-piece preform, all of the corners—save the one formed where wall ends are brought into adjacent cooperation with one another—define a continuous structural seal without the need for sealants, welds or other supplemental closure approaches.

Abstract: Provided herein is a heat exchange assembly for conducting air flow through an air cooled vehicle battery, including: a housing enclosing a battery pack having a plurality of cells; and a manifold operably connected to the housing, wherein the manifold includes an inlet for receiving air flow into the battery pack and an outlet for exhausting air flow out of the battery pack, wherein the inlet and the outlet form a single heat exchange duct that passes through a single opening on a face of the housing. Also provided herein is a vehicle incorporating the disclosed heat exchange assembly and a method of conducting air flow through an air cooled battery in a vehicle.

Abstract: A modular battery pack and method of making a battery pack. Prismatic battery cells are aligned within the enclosure such that reconfigurable adjusting of the enclosure and its components may take place without having to redesign either. In this way, battery packs containing a different number of successively smaller battery modules or battery cells may be placed within the common enclosure. Slidably mountable features of at least some of the components within the enclosure help promote this modularity. The enclosure includes a tray that defines a substantially constant section along a mounting surface that corresponds to a stacking axis of the aligned prismatic cells or modules. Numerous brackets that can help secure the batteries, their electrical leads or components are disposed along a portion of the mounting surface such that the cooperation between the brackets and the mounting surface of the tray is invariant, regardless of where along the elongate dimension the cooperation occurs.