Abstract:
A life-saving device has a garment and at least one airbag assembly. The at least one airbag assembly is mounted on the garment and each one of the at least one airbag assembly has a gas cylinder, a gas tube, multiple airbag layers and at least one connecting tube. The gas cylinder is attached to the garment. The gas tube is connected between the gas cylinder and the airbag layers. Each one of the at least one connecting tube is connected between two adjacent airbag layers. A user wearing the life-saving device can actuate the gas cylinder when falling from high altitudes to inflate the airbag layers via the gas tube and the at least one connecting tube. The inflated airbag layers will provide an air resistance to slow down the falling speed. Therefore, the user can safely descend to the ground.
Abstract:
Inflatable restraint systems for restraining an occupant in a vehicle are disclosed herein. An inflatable restraint system configured in accordance with one embodiment of the invention includes an airbag carried by a web. The web has an end portion coupled to a vehicle and is configured to extend around a portion of the occupant. The restraint system further includes a gas source that is also carried by the web. The gas source is operably coupled to the airbag to inflate the airbag in the event of a rapid deceleration or other dynamic event.
Abstract:
The invention relates to an airbag system for aircraft, intended to protect crew and passengers. The system comprises: inflatable cushions; a supply of air from individual tanks, communal tanks and the aircraft APU; a connection to the landing gear and the altimeter; a manual switch; an approach and contact sensor enabling automatic activation; electric lines, electrovalves and air ducts. The system also includes a second version which is activated using electrochemical batteries which operate on the basis of sharp deceleration.
Abstract:
A safety pre-impact deceleration system for a variety of conveyances includes a parachute structure formed from air bags inflated with gas. Alternatively, the parachute structure includes a canopy with orifices. Air spaces in the parachute structure or orifices in the canopy have adjustable and selective dimensions to control the operational parameters of the vehicle. The system includes sensors and rapid exposure rate cameras with continuous loop recording to measure operational parameters of the vehicle and to predict possible collision. Once a collision condition is detected, audio/video images are stored on storage media. The air bags are deployed and inflated. In addition to air bags constituting the parachute structure, a plurality of air bags are provided to be deployed external the vehicle to aid in a safe landing.
Abstract:
A flotation device for maintaining an aircraft in a floating and stable condition is provided. The flotation device comprises at least one flotation bladder mounted to the aircraft and an inflation mechanism for inflating the flotation bladder. A method for maintaining an aircraft in a floating condition is also provided.
Abstract:
Toughened airbag systems are applied to the bottom surface of an aircraft to permit the crashing vehicle to land on a cushion of air. Shock absorber systems fitted to aircraft seats allow a more gradual deceleration of the occupant. A bumper system is applied to ground vehicles/trains to allow a more gradual deceleration of the vehicle/train and to minimize injury to pedestrians.
Abstract:
An apparatus for slowing and safely descending from a high-rise building includes a plurality of independent airbags which are connected together to form an airbag jumpsuit, a harness mounted at sternum and back position on an outside layer of the jumpsuit, a pair of triangular wings each connected to one side of the jumpsuit, a first secondary airbag located at an upper chest portion of the jumpsuit and connected to an air pipe, a second secondary airbag located at a lower abdomen portion of the jumpsuit and connected to an air pipe, and a parachute connected to the harness and having a canopy with a plurality of tubular ribs on an outer layer which are communicated with one another and also filled with air, a top of the parachute having an orifice which is connected to the tubular ribs, a flexible air pipe being connected to a top of the parachute, a top of the parachute having two large holes and two small holes, each of the holes being connected to suspension lines of a small parachute.
Abstract:
One or more tubular inflatables are mounted in pockets spaced around a flight vest to assist and maintain upper body stiffness during ejection. The inflatables function to maintain the body stiff and prevent its moving from side to side during ejection. By proper positioning of the inflatables around the body, spinal compression may be prevented. In addition, connected to the flight vest is a collar-like inflatable that supports and protects the neck and head of the air crewmember from moving. The collar-like member can encircle the neck like a scarf. In another embodiment, it can also extend above the shoulders and completely encircle the helmet holding the head in a vertical position. In each embodiment, the collar-like member properly maintains the center of gravity of the air crewmember on the aircraft seat.
Abstract:
An aircraft landing assist system comprised of a preformed and prepacked parawing-bag and fuselage housing and deployment is described. In case of emergency the system can be deployed automatically, manually, or by means of explosive charge. After deployment the open doors and the self inflated parawing-bag catch the on rushing air forcing the nose of the aircraft up. This helps increase the glide ratio and decrease the velocity of the aircraft. Control of the aircraft remains through the use of the upper wing surfaces and tail assembly. Upon landing the system helps extend the time of, and surface area of impact. Drains are provided in the aft section of the parawing-bag(s) to release rain or snow.
Abstract:
An airbag protection system for helicopters. Airbags are inflated either automatically or manually, or a combination of both, prior to the helicopter striking the ground, thus avoiding or ameliorating a crash. Proximity sensors detect a fast descent to trigger inflation of the airbags located beneath the helicopter fuselage so that they can cushion the impact with the ground. Venting of the gas from the airbags is also provided to release the gas from the airbags so as to prevent rebound of the helicopter from the ground.