Abstract:
Inflatable airbag cushions often have modular components attached to them after the main airbag has been manufactured. Such modular components can include external tethers, mounting tabs, mounting assemblies, and fill tubes. Often, these modular components are positioned at predetermined locations on the airbag. Further, the modular components typically have a predetermined orientation. Employing an alignment aperture and at least one landmark on the airbag can allow a modular component to be positioned correctly along at least one axis of the airbag. Landmarks can include seams, edges, folds, and marks, such as ink from printing. Additional apertures, landmarks and/or hardware can be used to assure proper orientation of the modular component on the airbag. The modular component can be coupled to the airbag by stitching.
Abstract:
An airbag assembly, airbag mounting assembly, and method of assembling an airbag mounting assembly are disclosed. The airbag assembly comprises an airbag and an airbag mounting assembly. In one embodiment, the airbag mounting assembly comprises a mounting bracket, a connecting member, and a wrapping member.
Abstract:
Inflatable curtain airbags can be attached to an inflator at a throat portion of the airbag. The attachment of the inflator to the throat portion may be mediated by an inflator mounting bracket. An extended portion of the inflator mounting bracket can protrude through an aperture in the throat portion to provide an anti-rotation function as well as a retention function.
Abstract:
Inflatable airbag cushions often have modular components attached to them after the main airbag has been manufactured. Such modular components can include external tethers, mounting tabs, mounting assemblies, and fill tubes. Often, these modular components are positioned at predetermined locations on the airbag. Further, the modular components typically have a predetermined orientation. Employing an alignment aperture and at least one landmark on the airbag can allow a modular component to be positioned correctly along at least one axis of the airbag. Landmarks can include seams, edges, folds, and marks, such as ink from printing. Additional apertures, landmarks and/or hardware can be used to assure proper orientation of the modular component on the airbag. The modular component can be coupled to the airbag by stitching.
Abstract:
Inflatable curtain airbags can be attached to an inflator at a throat portion of the airbag. The attachment of the inflator to the throat portion may be mediated by an inflator mounting bracket. An extended portion of the inflator mounting bracket can protrude through an aperture in the throat portion to provide an anti-rotation function as well as a retention function.
Abstract:
Mounting assemblies can be used to retain an inflatable curtain airbag in a packaged configuration and attach the inflatable curtain airbag to a vehicle structure. The mounting assemblies can have a mounting structure and a wrapper that are both coupled to inflatable curtain airbag. The mounting structure is attached to a vehicle structure and the wrapper wraps and retains the inflatable curtain airbag in a packaged configuration. During airbag deployment, the wrapper releases the airbag so that the airbag can adopt a deployed configuration, wherein the mounting structure continues to anchor the inflatable curtain airbag to the vehicle structure.
Abstract:
An airbag assembly, airbag mounting assembly, and method of assembling an airbag mounting assembly are disclosed. The airbag assembly comprises an airbag and an airbag mounting assembly. In one embodiment, the airbag mounting assembly comprises a mounting bracket, a connecting member, and a wrapping member.
Abstract:
Mounting assemblies can be used to retain an inflatable curtain airbag in a packaged configuration and attach the inflatable curtain airbag to a vehicle structure. The mounting assemblies can have a mounting structure and a wrapper that are both coupled to inflatable curtain airbag. The mounting structure is attached to a vehicle structure and the wrapper wraps and retains the inflatable curtain airbag in a packaged configuration. During airbag deployment, the wrapper releases the airbag so that the airbag can adopt a deployed configuration, wherein the mounting structure continues to anchor the inflatable curtain airbag to the vehicle structure.
Abstract:
An airbag module has a rigid cushion with an integrated inflator. The cushion has a rear cushion panel and the inflator may have a front inflator plate attached to the rear cushion panel. A rear inflator plate is optionally provided and may be positioned within the cushion or outside the cushion. A pyrotechnic may be disposed within the space between the front inflator plate and the rear cushion panel and/or the rear inflator plate. An initiator may be seated in the rear inflator plate and/or the rear cushion panel to initiate combustion of the pyrotechnic. Instead of the front inflator plate, the inflator may have an expanse of tape that secures the pyrotechnic and/or the initiator to the interior of the cushion. The pyrotechnic may be sealed by the tape or by a foil pouch. The initiator may be secured by the tape or by a rear inflator plate.
Abstract:
A pointing device for use with computers and other electronic systems incorporates an array of resistive strain gauges on the surface of a substrate. The strain gauges exhibit resistance changes in response to stress or strain applied to the substrate by the movement of a joystick attached to the substrate, the resistance changes being proportional to the extent of movement of the joystick The strain gauges are electrically connected to control circuitry that successively establishes a series of voltage dividers across different ones of the strain gauges to measure the resistance of each of the strain gauges. From those measurements the position of the pointing device may be determined by comparing the measured resistances with known resistance values that correspond to a neutral stick position. The control circuitry establishes the voltage dividers by applying a known voltage across successive pairs of the strain gauges, and then detecting the voltage at the midpoint between the strain gauges that form each strain gauge pair to which the voltage is applied.