KR200271254Y1 - the saving of a life apparatus - Google Patents

Abstract

The lifesaving device of the present invention is mounted on the launching device used by the automatic propulsion missile, which is supported by the hand, and is mounted to transport the floating body from the firing device to the distress target, and the launching device and the floating body are rescue ropes. When the missile is adjusted to the target point and then fired, the floating body moves to the target point and is automatically deployed to supply the life support.

Description

Life Saving Apparatus {the saving of a life apparatus}

The present invention relates to a life-saving device, and in particular to an automatic propulsion rescue device for deploying a life-saving rope to send the life support to the distress target point located in the real distance from the launch site.

Conventionally, when trying to save lives, rescuers have rescued by throwing ropes to the distress, especially in the case of a person who has fallen off the boat, including throwing a rope or other rescue device by hand in the simplest way. have.

Clearly, such a rescue device is purely a rescuer's reach, which is impossible at a distance. More advanced devices, such as flame-repelling devices with rescue devices, can solve the problem of distance but have safety problems.

In the field of mechanized rescue devices, a launching device is generally used, which is a technology for launching a lifeline into a distress position. Projectiles are known as modified rifle guns and launchers, such as fire extinguishers or harpoons. While these devices are useful, they are not safe in all situations and are usually designed for large commercial purposes or warships. They are also dangerous in connection with launchers and cannot be rented for general public use.

Given these considerations, there is a need for a simple launch rescue device and preferably a low cost device capable of saving the distress from a distance and at the same time safe from the explosion or other equipment.

The present invention aims to develop a life-saving support that is a support to one end of a distress target at a substantial distance from the rescuer as a safe and reliable rescue device.

The object of the present invention is to connect an auto-propelled missile mounted on the launcher to one end of the lifesaving rope and operate to move the lifesaving rope and the life support from the launcher to the position of the distress.

More specifically, when the present invention is described, the launcher can be held and used by the hand, and the missile is provided with a cartridge of pressurized gas to propel the missile. The mounted missiles fly into the container containing the life support to the target location. The reason for being economical and convenient is that the gas cartridge is recharged.

In a more specific embodiment of the present invention, the rescue device is particularly suitable for distress in water. Therefore, the life support is composed of a floating body and is initially folded and transported in the form of a missile container.

Upon contact with water, the floating body is deployed and expanded in the container to support the survivors and safely rescued using lifesaving ropes. Beacons are transported by missiles for the rescue process.

1 is a perspective view of a lifesaving device used to explain the present invention

2 is a cross-sectional view showing the structure of the lifesaving device according to FIG.

Figure 3 is an enlarged view of the launch site showing the lifesaving device of the present invention immediately after the initial launch

4 is a cross-sectional view showing the main structure of the launch site according to FIG.

5 is a perspective view showing the deployed state of the floating body

6 is a cross-sectional view showing the inflation mechanism of the floating body;

Figure 7 is a perspective view of a state of firing aiming as a state capable of holding the lifesaving device of the present invention by hand

8 is a cross-sectional perspective view showing a method for attaching a missile recharger to a lifesaving device of the present invention and an air tank for rechargeable pressurized gas;

Explanation of symbols on the main parts of the drawings

100-rescue device 112-launcher

114-self-propelled missile 116-floating body

118-Lifesaving Rope 158-Trigger

This feature of the present invention is a lifesaving device, comprising: a launcher for mounting the handle and arm-support sleeve to the body for use by the rescuer; An auto propulsion missile mounted to the launcher; A trigger for firing a missile from the launcher; A life-saving support that is folded to the launcher and occupies a small space and is deployed to support the victim's body at a distance from the launcher by moving by the missile; And a lifesaving rope having one end of the launcher connected to the other side of the lifesaving support.

The missile is a life-saving device that charges the pressurized gas and uses the pressurized gas as the missile propulsion to maintain the missile's movement path.

The missile is connected to the rope such that the life support is deployed and returned by the rope and the missile is a lifesaving device that can be recharged for continuous use.

The life support is composed of a buoyant floatable body is moved by the missed gas by the missile is a life-saving device that is expanded and expanded when a considerable distance from the launcher.

The rope is initially wound like a coil in the launcher and is a life-saving device having a structure in which the coil is released without substantial resistance when the missile moves the life support for the distance from the launcher.

The missile further includes a beacon carried by the missile, wherein the beacon is a life-saving device, characterized in that when the water hits the surface by the water-activated mean (water-activated mean).

Hereinafter, with reference to the accompanying drawings will be described in detail a preferred embodiment of the present invention.

Referring to the drawings of the present invention in detail, Figure 1 shows the automatic propulsion structure 110 of the present invention. The rescue device 110 includes a launcher 112 that can be held by a hand equipped with an automatic propulsion missile 114 for carrying a lifesaving support, which is a floating body 116, and used to hold a handle 146. A lifesaving rope 118 is attached to it and moves to a distress target, for example, a person missing from a boat.

An exemplary structural scenario is shown in FIG. The rescuer 120 aims and launches the missile 114 to the displaced person at a substantial distance. The missile 114 delivers the lifesaving rope 118, the floating body 116, and the beacon 124 to the distress 122.

According to the present invention, the floating body 116 is expanded and the beacon 124 automatically illuminates the point of contact with the water.

1 and 2, the launcher 112 has a cylindrical missile compartment 126 for housing the self-propelled missile 114, and the body crossing portion 128 is a missile compartment with a meridion. (126) It is mounted on the lower portion, and supplies the sleeve to support the arm 130 of the rescuer 120 in the form of missile compartment 126. The other compartment 132 is mounted along the underside 133 with the body crossing portion 128 in a radial line, and the lifesaving rope 118 is wound in a coil or spiral shape inside. The reason for the durability, light weight, and easy manufacturing method is that the launcher 112 having the missile compartment 126, the body crossing portion 128, and the flexible line compartment 132 are made of a canvas material.

The lifesaving rope 118 is rather made of nylon or similar material so that it is not affected by seawater and is also strong when attracting large people. Furthermore, the partition 132 includes a distal flap 133 connected to the rope 118 and the lightline assembly 135 via a heading pin and the lifesaving rope 118 is present without any resistance. The cylindrical tube 134 included in the missile compartment 126 is made of aluminum or any rigid material and guides the self-propelled missile 114.

Launcher 112 may also be embodied as carrier 136 in a general cylindrical shape, with tip 138 being hemispherical in shape and trailing opening 140 smaller in diameter. Carrier 136 has a slit 142 is formed in a curved form toward the tip portion 138 from the opening 140. The opening 140 of the carrier 136 is inserted and fixed inside the cylindrical aluminum tube 134 and the cross section of the carrier 136 faces the rescuer 120. As can be seen in FIG. 2, the carrier 136 houses the folded floating body 116.

A trigger mechanism 148 attached to the rescuer's end of the cylindrical tubular body 134 is mounted to launch the self-propelled missile 114, which trigger mechanism 148 includes a quick-release valve mechanism 150. And a cylindrical housing on which the valve split ring 151 is mounted.

The instrument is inclined toward the missile 114 and receives a nozzle nipple 154 mounted to the proximal cross-section 156 of the cartridge portion of the missile 114. The trigger 158 is attached to the member 160 at an intermediate point and pulled by the distance to be close to the plate 162 and mounted around the quick-release valve mechanism 150. The trigger 158 is pivotally mounted to the nozzle assembly 164 and is mounted to receive the short pin 166.

The nozzle assembly 164 further includes a pressure gauge 170 to display and monitor the pressure of air contained within the missile 114 and the launcher end 172. Moreover, the nozzle assembly 164 has an empty internal structure as shown in the drawing and an opening (not shown) allows air to enter the missile nozzle nipple 154 through the empty interior to fill the missile 114.

The folded floating body 116 is firmly supported by the folded floating body in which a pair of lines 174 are mounted. The third line 176 has a lifesaving rope 118 attached to the missile 114.

As shown in FIG. 2, the trigger mechanism 148 serves to operate the auto propulsion missile 114 in the cylindrical missile tube 134 and maintains air pressure inside the missile 114. The safety ring and pin 166 locks the trigger 158 out of operation to prevent unexpected accidents during missile launch. Moreover, the air pressure inside the self-propelled missile 114 at full charge is adjusted in the range of 2500-3000 Pascals.

As can be seen in Figures 1 and 2 and 7, the life-saving device 110 of the present invention is aimed and launched as a form that can be used by hand. In order to deploy the automatic propulsion system 114, the rescuer 120 must remove the safety ring and pin 166 attached to the trigger 158. As shown in FIG. 3, the rescuer next pulls the trigger 158 to connect with the plate 162 and the quick-release valve splitring 151 is pulled from the nozzle nipple 154.

More specifically, when the trigger is pulled, the ball bearing 152 located around the quick-release mechanism 150 is detached from the nozzle nipple 154. Once activated, the pressurized air in the self-propelled missiles is forced out through the nipple assembly, whereby the missile is propelled and fired. The cylindrical tube 134 rotates to guide the missile path as the initial firing tube.

As can be seen in FIGS. 5 and 6, once the missile 114 arrives at its destination and comes in contact with water, the floating body 116 automatically swells and is discharged out through the slit 142 formed in the carrier 136 itself. . The automatic buoyancy device 178 is attached to the side of the floating body 116 to inflate the floating body. Automatic buoyancy device 178 includes a standard carbon dioxide cartridge 180, the spring-loaded cartridge piercing device 182 acts like a stopper on the water-soluble pellets 184 until dissolved by water (about 2-3 seconds). Do it. Once the pellets 184 are dissolved, the piercing device 182 penetrates the carbon dioxide cartridge 180 to inflate the float.

At the same time, a vehicle 136 equipped with a missile 114 and a beacon 124 illuminating the interior emerges near the distress. The survivor is placed on the injured body, securely secured around the chest, and wrapped in an arm. In order to securely deliver the injured body 116 to the distress 122, the injured body 116 must be provided with a seat belt 186 to fix the distressed person. Thereafter, the lifesaving rope 118 should be mounted in front of the floating body 116 so that the rescuer 122 can be safely drawn by using the lifesaving rope 118 conveniently to the rescue.

In order to recharge the missile 114, a charger 188 is required, in particular (see Fig. 8). The charger is grooved and one side can be fitted with a machine lip 172 formed in the nozzle assembly 164. have. Using this device, the missile 114 is recharged.

As described above, according to the lifesaving device according to the present invention, it is designed to be better used in the underwater structure, as well as the structure of the support for lifesaving is very convenient, and it is very convenient to move between ships in the sea. This ease of use has a more convenient effect.

Claims (6)

In a lifesaving device, A launcher for use by the rescuer with a handle and arm-supporting sleeve attached to the body; An auto propulsion missile mounted to the launcher; A trigger for firing a missile from the launcher; A life-saving support that is folded to the launcher and occupies a small space and is deployed to support the victim's body at a distance from the launcher by moving by the missile; And Lifesaving device having a lifesaving rope that is connected to one side of the launcher on the opposite side of the lifesaving support. The lifesaving device of claim 1, wherein the missile is filled with pressurized gas and the pressurized gas is used as a missile propulsion force to maintain a movement path of the missile. The lifesaving device of claim 1 wherein the missile is connected to the rope such that the life support is deployed and returned by the rope and the missile is rechargeable for continuous use. 2. The lifesaving device according to claim 1, wherein the lifesaving support is composed of a buoyant floating body and is moved in a folded state by the missile to expand and expand when a considerable distance from the launcher is reached. The lifesaving device according to claim 1, wherein the rope is initially wound like a coil in the launcher and the coil is released without substantial resistance when the missile moves the life support to reach the distance from the launcher. . The method of claim 1, wherein the missile further comprises a beacon carried by the missile, wherein the beacon is exposed to water by a water-activated mean. Lifesaving device, characterized in that to emit.