In one example, an apparatus for helping to protect an occupant of a vehicle includes an inflatable vehicle occupant protection device having a deflated condition and an inflated condition. The protection device includes a first panel having a centerline and first and second openings. A second panel is secured to the first panel to define an inflatable volume. First and second self-adaptive vents are secured to the first panel over the first and second openings on opposite sides of the centerline for selectively releasing inflation fluid from the inflatable volume in response to penetration of the occupant into the protection device. A first reinforcing stitching extends through the first panel and around a portion of the first self-adaptive vent. A second reinforcing stitching extends through the first panel and around a portion of the second self-adaptive vent. Each of the first and second reinforcing stitchings is spaced entirely from the respective first and second self-adaptive vents.

The invention relates to a coupling device (16) for mounting an airbag module (14) to be oscillating on a steering wheel structure (12) of a vehicle steering wheel (10), comprising a mounting member (18) which includes, relative to a steering wheel axis (A), an axial bottom side (20) which in the assembled state of the vehicle steering wheel (10) faces the steering wheel structure (12) as well as an opposite axial top side (22) which in the assembled state of the vehicle steering wheel (10) faces the airbag module (14), a contact face (24) for a damping element (26) provided on the axial bottom side (20) for oscillating coupling of the mounting member (18) to the steering wheel structure (12), and comprising a locking element (28) disposed on the top side (22) of the mounting member (18) for locking with the prefabricated airbag module (14), wherein the locking element (28) is configured so that the airbag module (14) can be coupled to the mounting member (18) by a locking connection substantially in an axially fixed manner or in an axially restrictedly movable manner.

An addition-curable silicone rubber composition and an air bag are provided.

The addition-curable silicone rubber composition is characterized by comprising: (A) 100 parts by mass of an alkenyl-group-containing organopolysiloxane; (B) an organohydrogenpolysiloxane, contained in such an amount that the number of moles of silicon-atom-bonded hydrogen atoms contained in (B) component is 5 or greater per mole of the alkenyl groups contained in (A) component; (C) an addition reaction catalyst, contained in an amount of 1-500 ppm, in terms of the mass of the catalyst metal element, of the total mass of (A) and (B) components; (D) 0.1-50 parts by mass of finely powdery silica; (E) 0.1-5.0 parts by mass of an adhesion improver [a mixture comprising (E-1) an organohydrogenpolysiloxane, (E-2) an alkoxysilyl-modified isocyanurate compound, and (E-3) an organosilicon compound]; and (F) 0.1-5.0 parts by mass of a condensation catalyst.

A component for a vehicle interior is disclosed. The component may comprise a structural substrate, an airbag chute and a structure coupling the chute and structural substrate. The structure may comprise a rib injection molded onto the structural substrate; the structure may be bonded to the structural substrate. The chute may be welded to the structure and/or the structural substrate. The structural substrate may comprise a panel comprised of fibers; the structure may be comprised of resin. The structure may comprise an interface bonding the chute and structural substrate; the interface may comprise a molded feature/resin feature/mounting area on the structural substrate; a structure/material/rib injection molded on the structural substrate; a bond; an attachment; a composite or resin material; a material comprising fibers; polypropylene with fibers. The component may comprise a trim component; an instrument panel; a trim panel.

In one example, an apparatus for helping to protect an occupant of a vehicle includes an inflatable vehicle occupant protection device having a deflated condition and an inflated condition. The protection device includes a first panel having a centerline and first and second openings. A second panel is secured to the first panel to define an inflatable volume. First and second self-adaptive vents are secured to the first panel over the first and second openings on opposite sides of the centerline for selectively releasing inflation fluid from the inflatable volume in response to penetration of the occupant into the protection device. A first reinforcing stitching extends through the first panel and around a portion of the first self-adaptive vent. A second reinforcing stitching extends through the first panel and around a portion of the second self-adaptive vent. Each of the first and second reinforcing stitchings is spaced entirely from the respective first and second self-adaptive vents.

Provided is an air-bag capable of further reducing damage value to a passenger and limiting the amount of use of inflator gas by limiting an excessive increase in the internal pressure of the air-bag upon contacting the passenger while increasing the speed of deployment in a passenger protection area. The air-bag includes a main chamber and a sub-chamber that are connected via a communication portion, wherein the communication portion or a region adjacent to the communication portion is configured of a multilayer structure portion comprising three or more layers.

A heat-resistance increasing fabric sheet for an airbag is used in an airbag that is deployed and inflated by inflation gas discharged from a gas outlet portion of an inflator. The heat-resistance increasing fabric sheet is configured to increase the heat resistance of a member subjected to an increase in heat resistance. The heat-resistance increasing fabric sheet includes a base fabric sheet, a heat-resistant layer, and a top coat layer. The base fabric sheet is made of cotton fibers and arranged between the member subjected to an increase in heat resistance and the gas outlet portion. The heat-resistant layer is made of aluminum foil laminated on a surface of the base fabric sheet that faces the gas outlet portion. The top coat layer is made of a plastic film laminated on a surface of the heat-resistant layer that faces the gas outlet portion.

An impact protection device includes a cushion formed from a first material having a negative Poisson's ratio (NPR) and a second material having a positive Poisson's ratio (PPR). The first material and the second material can be layered or can be formed as a matrix of cells. The impact protection device can be an airbag with the cushion coupled to an inflation source or an expulsion source for deploying the airbag in response to an impact. The impact protection device can also be an impact vest with the cushions positioned on the vest body for absorbing impact forces to the vest body. The combination of the NPR and PPR materials improve the impact absorption of the impact protection devices compared to conventional materials.

A coupling device (16) for mounting an airbag module (14) to be oscillating on a steering wheel structure (12) of a vehicle steering wheel (10) includes a mounting member (18) which includes, relative to a steering wheel axis, an axial bottom side (20) which in the assembled state of the vehicle steering wheel (10) faces the steering wheel structure (12) as well as an opposite axial top side (22) which in the assembled state of the vehicle steering wheel (10) faces the airbag module (14), a contact face (24) for a damping element (26) provided on the axial bottom side (20) for oscillating coupling of the mounting member (18) to the steering wheel structure (12), and comprising a locking element (28) disposed on the top side (22) of the mounting member (18) for locking with the prefabricated airbag module (14), wherein the locking element (28) is configured so that the airbag module (14) can be coupled to the mounting member (18) by a locking connection substantially in an axially fixed manner or in an axially restrictedly movable manner.

An impact protection device includes a cushion formed from a first material having a negative Poisson's ratio (NPR) and a second material having a positive Poisson's ratio (PPR). The first material and the second material can be layered or can be formed as a matrix of cells. The impact protection device can be an airbag with the cushion coupled to an inflation source or an expulsion source for deploying the airbag in response to an impact. The impact protection device can also be an impact vest with the cushions positioned on the vest body for absorbing impact forces to the vest body. The combination of the NPR and PPR materials improve the impact absorption of the impact protection devices compared to conventional materials.