Abstract:
A protection device (10) having a set (11) of protection inflatable members (15, 20, 25) including left and right inflatable lateral means (20, 25) that are suitable for co-operating respectively with the left and right shoulder straps (6, 7), said device (10) possessing an inflator (30) for inflating said protection inflatable members (15, 20, 25). The device includes a headrest (35) carrying a nape airbag (15) of said set of inflatable members (15, 20, 25), the nape airbag (15) including one passage (16, 17) per inflatable lateral means (20, 25) in order to convey fluid to each inflatable lateral means (20, 25), said headrest (35) being provided with a hollow support (40) carrying said inflator (30) and with a fluid diffusion box (50) arranged in the nape airbag (15) so as to convey a fluid from the inflator (30) to the nape airbag (15) and to the inflatable lateral means (20, 25).
Abstract:
An airbag arrangement is accommodated in an armrest between angled seats. A gas generator inflates an airbag cushion in the path of inertia of each seat occupant of an angled seat. The airbag may have a lamella structure to inflate to a cushioning curtain or wall with a stiffness that resists bending and folding. The airbag may alternatively be provided with wider channels to provide a thicker cushion.
Abstract:
The present invention relates to an aircraft (1) provided with at least one rotary element (10) provided with blades (11) liable to come into contact with a liquid surface (100) on ditching, said aircraft including a buoyancy system. The aircraft includes a fairing (15) surrounding at least part of said rotary element (10), the fairing (15) including an inflatable emergency float (20) of the buoyancy system for preventing said blades (11) from coming into contact with the liquid surface when in an inflated position.
Abstract:
Described are energy absorbers for a structure within a vehicle cabin having at least one airbag, an inflator, a control module, and an outer surface positioned adjacent the airbag. The outer surface may include a plurality of mechanical energy absorbers positioned adjacent the airbag and coupled to the outer surface, wherein the outer surface comprises a surface area that is greater than an inflated surface area of the airbag. The outer surface may also include a breakable area positioned adjacent the airbag, wherein the breakable area has a weaker coupling to the outer surface on at least a first side and a stronger coupling to the outer surface on at least a second side.
Abstract:
A crash attenuation system for an aircraft, the system having an airbag carried by the aircraft and inflatable generally adjacent an exterior of the aircraft. The airbag has at least one vent for releasing gas from the interior of the airbag. A gas source is in fluid communication with the interior of the airbag for inflating the airbag with gas generated provided by the first gas source. A vent valve is provided for controlling a flow of gas through each vent, each vent valve being selectively configurable between an open state, in which gas can pass through the associated vent from the interior of the airbag, any number of intermediate states, in which the vent is partially open, and a closed state, in which gas is retained within the interior of the airbag.
Abstract:
A system for testing a number of electronic module assemblies (EMAs) that control one or more personal restraint systems. A programmed processor with a computer system transmits signals that instruct the EMAs to perform a diagnostic self-test. The results of the self-test are received by the computer system and stored in a computer readable memory. In one embodiment, the computer system is a cabin management computer system for use on an aircraft.
Abstract:
A protective device (10) for protecting an occupant (7) of a vehicle (1), said protective device comprising an airbag (11) and inflation means (12) for inflating said airbag (11), the inflation means (12) being connected to the airbag (11) via a feed pipe (13) for feeding inflation fluid for the purpose of inflating the airbag (11) under predetermined conditions. This protective device further comprises expulsion means (20) for expelling said fluid, which expulsion means cooperate with at least one water detection means (15) so as to act when water is detected to remove said fluid resulting from inflation of the airbag (11), said airbag (11) being provided with a peripheral elastic strap (50) for optimizing the deflation of said airbag (11) when said expulsion means (20) allow said fluid to be removed from the airbag (11).
Abstract:
An air bag 4 is inflated in a shock absorption system 1 by a high pressure air cylinder 5 at the time of a collision between an aircraft and the ground that is caused by inability to fly or the like, so that a cover body 2 is unfolded to the outside from a bottom portion 11a of a fuselage 11 of the aircraft 10 and the air bag 4 is disposed inside the cover body 2. Accordingly, a sufficient shock absorption stroke is obtained, so that it may be possible to reliably absorb shock that is generated at the fuselage 11 during the collision between the aircraft and the ground caused by an inability to fly or the like. Further, the cover body 2 is unfolded from the bottom portion 11a of the fuselage 11 so as to spread out toward the rear side of the aircraft 10. Accordingly, it may be possible to make the fuselage 11 smoothly slide on the ground during the collision between the aircraft and the ground that is caused by an inability to fly or the like. Therefore, according to the shock absorption system 1, it may be possible to prevent the fuselage 11 of the aircraft 10 from being damaged during the collision between the aircraft and the ground that is caused by an inability to fly or the like.
Abstract:
Disclosed is an attenuated landing system. The landing system includes one or more inflatable structures that are mounted to the underside of a cargo platform. A terrain sensor is likewise mounted to the underside of the cargo platform and is activated upon being air-dropped. Once terrain is detected, pressurized gas vessels are pyrotechnically activated to inflate the structures. Once fully inflated, the structures effectively cushion the landing of the cargo platform and, thereby, protect sensitive on-board equipment.