An air bag device has an air bag body, a retainer, a lid member. The retainer has an inner space and a flange portion. The lid member has a base portion and a door portion. An opening portion has a shape with a pair of opposite sides which are facing each other. A dimension in the parallel direction to the opposite side is larger than a dimension in the orthogonal direction to the opposite side. The flange portion has longer side portions and shorter side portions. The longer side portions are fixed on the lid member with a fastening and fixing member in a fastened and fixed portion. The shorter side portions are positioned at the lid member in an engaging portion. The engaging portion has an engaging member, and an engaging hole into which the engaging member is inserted and engaged.

A seat includes a seatback having an exterior panel. The seat includes a first member and a second member each being inflatable to an inflated position and defining an inflation chamber, the inflation chambers spaced from each other. The exterior panel extends between and is secured to the first member and the second member external to the inflation chambers in the inflated position.

An air bag device has an air bag body, a retainer, a lid member. The retainer has an inner space and a flange portion. The lid member has a base portion and a door portion. An opening portion has a shape with a pair of opposite sides which are facing each other. A dimension in the parallel direction to the opposite side is larger than a dimension in the orthogonal direction to the opposite side. The flange portion has longer side portions and shorter side portions. The longer side portions are fixed on the lid member with a fastening and fixing member in a fastened and fixed portion. The shorter side portions are positioned at the lid member in an engaging portion. The engaging portion has an engaging member, and an engaging hole into which the engaging member is inserted and engaged.

A seat includes a seatback having an exterior panel. The seat includes a first member and a second member each being inflatable to an inflated position and defining an inflation chamber, the inflation chambers spaced from each other. The exterior panel extends between and is secured to the first member and the second member external to the inflation chambers in the inflated position.

A curtain airbag for a vehicle is configured to prevent a driver's neck from being broken by preventing a driver's head from being excessively rotated upon a crash of the vehicle in a state in which the driver's head contacts an airbag tube. The curtain airbag is also configured to prevent the driver's head from slipping through or between the curtain airbag and a driver airbag by removing a gap between the curtain airbag and the driver airbag when the driver's head moves forward during a crash of the vehicle.

A curtain airbag for a vehicle is configured to prevent a driver's neck from being broken by preventing a driver's head from being excessively rotated upon a crash of the vehicle in a state in which the driver's head contacts an airbag tube. The curtain airbag is also configured to prevent the driver's head from slipping through or between the curtain airbag and a driver airbag by removing a gap between the curtain airbag and the driver airbag when the driver's head moves forward during a crash of the vehicle.

The invention relates to a mounting device (10) for a vehicle interior lining (95) for mounting to a vehicle body (90). According to the invention, the mounting device (10) comprises a mounting slide (20) that is configured for mounting a tether (60) of an airbag (85), wherein the mounting slide (20) can be actuated by the tether (60).

A hybrid expandable restraint volume enclosure system incorporating at least one deployable semi-rigid human body reaction surface is provided. One or more walls of the expanding volume are substantially pliable, attaching at one end to a mounting base that is attachable to a structural member of a vehicle and another end attached to a semi-rigid deployable reaction surface. The energy absorbing expansion member may be thin walled or membrane-like and comprised of pliable rubber, plastic or a woven fabric. Methods of attaching a flexible expansion member to either a semi-rigid contact surface or a semi-rigid expansion wall of the enclosure include providing a mechanical attachment by capturing an expansion member edge between a frame and semi-rigid member. Material from a molded semi-rigid member may flow over or into geometries provided in a flexible expansion member for joining. An interface may be defined by blend-molding to transition different material stiffness.