Abstract: A structural assembly for a battery structure includes a lower wall and a pair of cross members. The lower wall is configured to support a cell stack. The cross members are spaced apart from each other in a longitudinal direction of a vehicle. Each cross member supports a respective side of the cell stack and is configured to extend substantially an entire width of the battery structure. Each cross member includes an outer wall, an inner wall, and connecting members that connect the outer wall to the inner wall. The outer wall, the inner wall, and the connecting members cooperate to define an internal cavity. The inner walls of the cross members are secured to the lower wall to form a unitized structure that houses the cell stack.

Abstract: A structural assembly for a battery structure of a vehicle includes a lower wall and a pair of cross members. The lower wall is configured to support a cell stack. The pair of cross members are spaced apart from each other in a longitudinal direction of the vehicle. Each cross member provides lateral support for a respective side of the cell stack and is configured to extend substantially an entire width of a battery enclosure. Each cross member of the pair of cross members includes an outer wall, an inner wall spaced apart from the outer wall, and connecting members. The outer wall, the inner wall, and connecting members cooperate with each other to define an internal cavity. The inner walls of the pair of cross members are secured to the lower wall and slidable relative to the outer walls of the pair of cross members.

Abstract: A structural assembly for a battery structure includes a first shell, a second shell and a cold plate. The first shell includes a first cross member portion providing lateral support for a respective side of a cell stack. The second shell is secured to the first shell to define a unitized structure that houses the cell stack. The second shell includes a second cross member portion providing lateral support for a respective side of the cell stack and is spaced apart along a longitudinal direction of the vehicle relative to the first cross member portion. The cold plate is housed within the unitized structure. Each of the first and second cross member portions includes an outer wall, an inner wall spaced apart from the outer wall, and connecting members that connect the outer wall to the inner wall.

Abstract: Examples describe maintenance scheduling of printhead in an image forming device by monitoring image data processed by an image forming device, determining that the image data processed by the image forming device comprises color image data, and generating a firing signal based on a mode of the image forming device.

Abstract: A gas-powered actuator is provided. The actuator includes a housing and a piston movably positioned within the housing. A cavity is formed in the piston. The housing includes an opening formed therein. The opening is structured to permit insertion of a piston rod into the opening, then into the piston cavity.

Abstract: A gas generating system is provided including a first housing formed from a polymeric material, and a pyrotechnic gas generant material contained in the first housing. The first housing forms a combustion chamber for the gas generant. An airbag system and a vehicle occupant protection system, each incorporating a gas generating system as described herein, are also disclosed.

Abstract: A gas generating system includes a first enclosure containing a gas, and a second enclosure containing a gas generant material therein. The second enclosure is operatively coupled to the first enclosure so as to provide fluid communication between the gas and the gas generant material prior to ignition of the gas generant material. The second enclosure is also operatively coupled to the first enclosure such that the gas in the first enclosure must pass through the second enclosure prior to exiting the gas generating system.

Abstract: A gas generating system includes a housing structured to form a booster tube mounting structure therein, and a booster tube engaged with the mounting structure so as to form a gas-tight seal therebetween and so as to be movable with respect to the mounting structure, and such that the seal is maintained during movement of the tube with respect to the mounting structure, while the tube is engaged with the mounting structure.

Abstract: A gas generating system usable in an inflatable vehicle occupant protection system is provided. The system includes an outer housing having an outer diameter varying within a range of approximately 16 millimeters to approximately 20 millimeters. A vehicle occupant protection system and an airbag module including the gas generating system are also provided.

Abstract: A gas generating system includes a first enclosure containing a gas, and a second enclosure having a gas generant material contained therein. The second enclosure is operatively coupled to the first enclosure so as to enable fluid communication between the first enclosure and the second enclosure. After activation of the gas generating system, the gas in the first enclosure passes through the second enclosure prior to exiting the system.

Abstract: A gas generating system is provided including a first housing formed from a polymeric material, and a pyrotechnic gas generant material contained in the first housing. The first housing forms a combustion chamber for the gas generant. An airbag system and a vehicle occupant protection system, each incorporating a gas generating system as described herein, are also disclosed.

Abstract: A gas generating system includes a first enclosure containing a gas, and a second enclosure having a gas generant material contained therein. The second enclosure is operatively coupled to the first enclosure so as to enable fluid communication between the first enclosure and the second enclosure. After activation of the gas generating system, the gas in the first enclosure passes through the second enclosure prior to exiting the system.

Abstract: A baffle system is provided including a first end plate having at least one opening formed therein, and a second end plate having at least one opening formed therein. At least one baffle element extends between the first and second end plates. The at least one baffle element defines a chamber. The at least one first end plate opening and the at least one second end plate opening are blocked so as to prevent fluid flow from the chamber to an exterior of the chamber system through the at least one first end plate opening and through the at least one second end plate opening. In addition, the blockage of the end plate openings is such that fluid flow is enabled into the chamber from the exterior of the chamber through the at least one first end plate opening and through the at least one second end plate opening.

Abstract: A gas generating system (10) including a baffle system (42) for modifying the temperature and pressure of a gas generated by the system, and to remove particulates from the gas. The gas generating system includes a first combustion chamber (34a), a second combustion chamber (36a), and the baffle system (42) adjacent both the first and second combustion chambers so as to enable fluid communication with the combustion chambers upon activation of the gas generating system. In another aspect of the present invention, a baffle system (42) is provided including a first end plate (44) having an opening (44b) formed therein for enabling fluid communication with a first fluid source (34a), a second end plate (46) having an opening (46b) formed therein for enabling fluid communication with a second fluid source (36a), and a sequence of baffle elements (48) extending between the first and second end plates.

Abstract: A gas generating system includes a first enclosure containing a gas, and a second enclosure having a gas generant material contained therein. The second enclosure is operatively coupled to the first enclosure so as to enable fluid communication between the first enclosure and the second enclosure. After activation of the gas generating system, the gas in the first enclosure passes through the second enclosure prior to exiting the system.

Abstract: A gas generating system for use in an inflatable vehicle occupant protection system is provided wherein an end closure is coupled to an outer housing at a first end, in a metal-to-metal seal. The gas generating system may also include a baffle system having a plurality of flow orifices defining a flow path for generated gases through an interior of the gas generating system, and a plurality of particulate aggregation surfaces positioned along the flow path of the gases for changing a flow direction of gases impinging on the aggregation surfaces. Each aggregation surface of the plurality of aggregation surfaces is oriented such that a difference between a flow direction of the gases prior to impinging on the aggregation surface and a flow direction of the gases after impinging on the aggregation surface is at least approximately 90°, wherein particulates in gases impinging on the aggregation surfaces aggregate on the surfaces.

Abstract: A gas generating system for use in an inflatable vehicle occupant protection system is provided wherein an end closure is coupled to an outer housing at a first end, in a metal-to-metal seal. The gas generating system may also include a baffle system having a plurality of flow orifices defining a flow path for generated gases through an interior of the gas generating system, and a plurality of particulate aggregation surfaces positioned along the flow path of the gases for changing a flow direction of gases impinging on the aggregation surfaces. Each aggregation surface of the plurality of aggregation surfaces is oriented such that a difference between a flow direction of the gases prior to impinging on the aggregation surface and a flow direction of the gases after impinging on the aggregation surface is at least approximately 90°, wherein particulates in gases impinging on the aggregation surfaces aggregate on the surfaces.

Abstract: A vehicle occupant protection system includes a plurality of inflatable devices, at least one fluid source for supplying a pressurized fluid for the vehicle occupant protection system, and at least one gas-tight manifold coupled to the at least one fluid source for receiving pressurized fluid from the at least one fluid source. The at least one manifold is also coupled to the plurality of inflatable devices such that, upon activation of the vehicle occupant protection system, the plurality of inflatable devices receive from the at least one manifold sufficient pressurized fluid to inflate the plurality of inflatable devices.

Abstract: A vehicle occupant protection system includes a plurality of inflatable devices, at least one fluid source for supplying a pressurized fluid for the vehicle occupant protection system, and at least one gas-tight manifold coupled to the at least one fluid source for receiving pressurized fluid from the at least one fluid source. The at least one manifold is also coupled to the plurality of inflatable devices such that, upon activation of the vehicle occupant protection system, the plurality of inflatable devices receive from the at least one manifold sufficient pressurized fluid to inflate the plurality of inflatable devices.

Abstract: A gas generating system usable in an inflatable vehicle occupant protection system is provided. The system includes an outer housing having an outer diameter varying within a range of approximately 16 millimeters to approximately 20 millimeters. A vehicle occupant protection system and an airbag module including the gas generating system are also provided.