TWM651047U - 10 minutes gps water self-rescue system - Google Patents

Abstract

A 10 minutes GPS water self-rescue system comprises a control signal transceiver device, a buoy device and a rescue device. The buoy device is configured for users to wear and comprises a communication module and a control module. The communication module comprises a first GPS unit, locates a first position information for a user. The control module is connected to the communication module for sending the first position information to the control signal transceiver device. The rescue device comprises a multi-axis unmanned aerial vehicle, a second GPS unit, and a search boat. The multi-axis unmanned aerial vehicle is for flying to a person who is overboard according to the first position information from the control signal transceiver device. The second GPS unit is arranged on the multi-axis unmanned aerial vehicle for forming a second position information. When the second position information is matched with the first position information, the multi-axis unmanned aerial vehicle launches the search boat to the person who is overboard.

Description

10-minute GPS water self-rescue rescue system

This creation is about a system, especially a 10-minute global positioning system water self-rescue rescue system.

Every summer, many tourists play in the water or engage in water activities at the beach. However, during the process of playing in the water, there may be emergencies such as changes in the body, weather, or water, which may lead to drowning. For example: physical exhaustion, cramps, etc. during playing in the water; sudden afternoon thunderstorms, astonishing rainfall in a short period of time, and large waves make tourists drown and unable to safely return to the shore from the water.

According to statistics from the Coast Guard, without any rescue equipment, a drowning person can only stay awake for 30 to 60 seconds, after which he will enter a coma. If the person is not rescued successfully within 10 to 12 minutes, the person who continues to drown will become brain dead and endanger his life. Therefore, the rescue efficiency of search and rescue personnel is particularly important and every second counts for rescue time. However, when a tourist drowns, there is no immediate equipment available for the tourist to save himself. In addition, the search and rescue unit cannot immediately locate the drowning tourist when receiving a notice of drowning, which requires additional costs to find the exact location of the drowning person, which increases the difficulty of search and rescue and misses the golden rescue time, causing regrets that people will be separated forever.

From the perspective of conventional technology, the current rescue equipment for tourists when they drown has the following problems: Question: First, although the traditional lifebuoy can allow a person who falls into the water to float on the water, the lifebuoy is bulky when inflated and is not easy to carry. However, in the event of an emergency when folded and stored, the inflating time will affect the rescue time. Second, traditional floating wristbands are not combined with GPS devices for positioning and must be purchased by tourists. If tourists are unwilling to buy them because they have been waiting for a long time to play at the beach and are not used enough, the popularity of floating wristbands will be affected. The rate cannot be significantly improved. Third, the current rescue system cannot immediately know the exact location of the drowning person. It still requires a lot of human resources and time to conduct search and rescue, and the search and rescue success rate is low. Fourth, even if there are rescue airships with GPS positioning function and one-click return function, the rescue cannot be successful due to poor sea conditions or capsizing due to collision with rocks on the way back.

Therefore, it is necessary to improve the conventional technology to improve the efficiency and success rate of rescue.

In view of this, this invention provides a 10-minute global positioning system water self-rescue rescue system to solve the above-mentioned conventional problems.

This invention provides a 10-minute global positioning system water self-rescue rescue system, including a control signal transceiver device, a buoy device and a search and rescue device. The control signal transceiver device is installed in a rescue center. The buoy device is used for a user to wear and further includes a gas bottle, an inflatable air bag, a communication module and a control module. The cylinder contains a rotary valve. The inflatable airbag is connected to the gas cylinder. The communication module includes a first GPS positioning unit for locating the user and generating first location information. The control module is connected to the communication module for receiving the first position information of the communication module and sending the first position information to the control signal transceiver device. The search and rescue device includes a multi-axis drone, a second GPS positioning unit and a rescue boat. Multi-axis UAV is used to receive control signals The first location information sent by the sending device is moved to the user based on the first location information. The second GPS positioning unit is provided on the multi-axis drone to generate second position information. The rescue boat is retractably installed on the multi-axis drone. Wherein, when the second position information of the second GPS positioning unit matches the first position information of the first GPS positioning unit, the multi-axis drone launches the rescue boat to the user.

Wherein, the buoy device further includes a strap ring for being arranged on the upper arm of one of the user's hands.

The buoy device further includes a control panel connected to the communication module for the user to press to activate the first GPS positioning unit to generate the first position information.

Wherein, the search and rescue device further includes a lens unit, which is provided on the multi-axis drone and is used to transmit at least one image to the control signal transceiver device.

Among them, the search and rescue device further includes a clip-type unit, which is installed on the multi-axis drone and is used to clamp or launch the rescue boat.

Among them, the rescue boat contains a ring-shaped air cushion for the user to wear, and the rescue boat will drag the user back to the shore through the guidance of a multi-axis drone.

Among them, the rescue boat also includes a real-time image lens, which is installed at the front end of the ring-shaped air cushion to provide a real-time image so that the rescue boat can drag the user back to the shore through the guidance of the multi-axis drone.

Among them, the communication module is the Xbee communication module.

Among them, the control module is an Arduino program.

Among them, the buoy device and the rescue boat device are made of waterproof materials.

To sum up, the 10-minute global positioning system water self-rescue rescue system of this creation The system has been improved for the buoy armbands and search and rescue devices worn by tourists. Compared with the conventional technology, it has the following advantages. First of all, the buoy device is equipped with inflatable equipment. Once tourists fall into the water, they can rescue themselves first to increase the floating time and increase the survival rate. A GPS positioning unit is directly installed on the buoy device to instantly send positioning information to the rescue center. Compared with the conventional technology, there is no need to search for a needle in a haystack to improve rescue efficiency. Then, the multi-axis drone on the search and rescue device can move in the air much faster than the rescue boat dispatched from the shore, and can reduce the risk of rescue personnel performing the task. In addition, the multi-axis drone is equipped with a lens. When the search and rescue device approaches a person who has fallen into the water, the search and rescue personnel can quickly find the exact location of the person who fell into the water through the lens, and accurately throw a portable rescue boat to the person from above. Finally, the person who fell into the water was transported back to the shore through a portable rescue boat. During the transportation process at sea, a multi-axis drone and the lens on the rescue boat were used to determine whether there were rocks or obstacles around the person who fell into the water, so as to avoid obstacles and improve the probability of rescue. Probability. Therefore, the 10-minute GPS water self-rescue rescue system created by this invention can greatly improve the search and rescue efficiency and grasp the possibility of rescuing the drowning person ashore within the golden rescue time of 10 minutes to improve the success rate of rescue and thereby reduce the risk of life-threatening brain death of the drowning person after drowning.

1:10 minutes GPS water self-rescue rescue system

10: Control signal transceiver device

20:buoy device

201:gas cylinder

2011: Rotary valve

202:Inflatable air bag

203:Communication module

2031: The first GPS positioning unit

204:Control module

205: strap ring

206:Control Panel

S1: First location information

S2: Second location information

207:Compass

30:Search and rescue device

301:Multi-axis UAV

3011: Lens unit

302: Second GPS positioning unit

303:Rescue boat

3031: Ring type air cushion

3032: Live image lens

304: Clamp type unit

Figure 1 is a schematic diagram illustrating a 10-minute global positioning system water self-rescue rescue system based on this invention.

FIG. 2A is a schematic diagram of the buoy device according to FIG. 1 .

FIG. 2B is a schematic diagram of the buoy device according to FIG. 1 from another perspective.

FIG. 3 illustrates the search and rescue device according to FIG. 1 .

In order to make the advantages, spirit and characteristics of this invention more easily and clearly understood, specific embodiments will be described and discussed in detail with reference to the attached drawings. It should be noted that these specific embodiments are only representative specific embodiments of the present invention, and the specific methods, devices, conditions, materials, etc. exemplified therein are not intended to limit the present invention or the corresponding specific embodiments. In addition, each element in the figure is only used to express its relative position and is not drawn according to its actual proportion. The step numbers of this creation are only to distinguish different steps, and do not represent the sequence of the steps, which are explained in advance.

Please refer to Figure 1, Figure 2A, Figure 2B and Figure 3. Figure 1 is a schematic diagram of a 10-minute global positioning system water self-rescue rescue system according to this invention. FIG. 2A is a schematic diagram of the buoy device according to FIG. 1 . FIG. 2B is a schematic diagram of the buoy device according to FIG. 1 from another perspective. FIG. 3 illustrates the search and rescue device according to FIG. 1 . Please refer to Figure 1, Figure 2A, Figure 2B and Figure 3 together. As shown in Figure 1, Figure 2A, Figure 2B and Figure 3, this invention provides a method. Figure 1 illustrates the 10-minute GPS water area according to this invention. Schematic diagram of a self-rescue rescue system. 1 includes a control signal transceiver device 10, a buoy device 20 and a search and rescue device 30. Among them, the control signal transceiving device 10 is installed in the rescue center. The buoy device 20 is worn by the user and further includes a gas cylinder 201, an inflatable airbag 202, a communication module 203 and a control module 204. The gas cylinder 201 includes a rotary valve 2011; the inflatable air bag 202 is connected to the gas cylinder 201, and the communication module 203 includes a first GPS positioning unit 2031 for locating the user's first position information S1. The control module 204 is connected to the communication module 203. The search and rescue device 30 includes a multi-axis drone 301, a second GPS positioning unit 302 and a rescue boat 303. The multi-axis drone 301 is used to receive the first position information S1 sent by the control signal transceiver device 10, and move to the user according to the first position information S1. The second GPS positioning unit 302 is provided on the multi-axis drone 301 to generate the second position information S2. The rescue boat 303 is installed on the multi-axis drone 301.

Please continue to refer to Figure 2A. The buoy device 20 further includes a strap ring 205, a control Panel 206 and north arrow 207 . Among them, the strap ring 205 is used to be arranged on the upper arm of the user. The control panel 206 is connected to the communication module 203 for the user to press to activate the first GPS positioning unit to generate the first location information. The compass 207 is used for the user to confirm the direction even when on the shore. In practice, the buoy device is made of waterproof material.

In this specific embodiment, the communication module 203 is an Xbee communication module. The Xbee communication module 203 can further locate the user's position (ie, the first position information) through GPS satellites and output the first position information. latitude and longitude information to the rescue center. Moreover, the control module 204 is an Arduino program, and the program of the communication module 203 can be integrated into the Arduino program. When the user presses the control panel 206 to input a command, the control module 204 transmits the received first position information to the control signal transceiving device 10 .

When the user falls into the water or feels about to drown, the user can immediately suspend the rotary valve 2011 so that the carbon dioxide in the cylinder 201 quickly fills the inflatable air bag 202 to form a buoyant suspension for the user to quickly grasp. Save yourself. At this time, the communication module 203 signal is connected to the GPS satellite to locate the user's first location information. Further, the data is transmitted to the control signal transceiver device 10 provided in the rescue center through the control module 204. In this way, the search and rescue personnel of the rescue center do not have to wait passively for the user's family or friends to report before starting the rescue procedure. Moreover, the search and rescue personnel in the rescue center can immediately know the exact location of the user who fell into the water through the 10-minute global positioning system water self-rescue system of this invention, and can immediately start the rescue procedure to successfully rescue the person who fell into the water within the golden time. At the same time, the control panel 206 of the 10-minute global positioning system water self-rescue rescue system of this invention is also equipped with an accidental touch switch and a non-inflatable rescue button. When the user accidentally touches the rescue button while playing in the water, it can be canceled immediately; or use When the user is only feeling unwell or there are floating objects that can be grasped around him, he can also press the non-inflatable rescue button to directly send out the user's third call. A position information is sent to the control signal transceiving device 10 of the rescue center.

Referring to FIG. 3 , the search and rescue device 30 further includes a lens unit 3011 and a clip-type unit 304 . The lens unit 3011 is provided on the multi-axis drone 301 for transmitting at least one image to the control signal transceiver device 10 . The clamping unit 304 is provided on the multi-axis drone 301 for clamping or launching the rescue boat 303. When the control signal transceiver device 10 of the rescue center receives the user's first location information, the search and rescue device 30 will be dispatched for search and rescue. First, the second GPS positioning unit 302 of the search and rescue device 30 will transmit the current position of the search and rescue device (i.e., the second position information) to the rescue center when the multi-axis drone 301 is flying, so that the rescue personnel can control the multi-axis drone 301. . Further, when the second position information of the second GPS positioning unit 302 is close to the first position information of the first GPS positioning unit, the rescuers use the lens unit 3011 provided on the multi-axis drone 301 to transmit through the lens unit 3011 Returning to the rescue center screen allows you to more carefully confirm the exact location of the drowning and the physical condition. Then, the clip-type unit 304 is remotely controlled to release the rescue boat 303 to the drowning person. In this way, the rescue boat 303 can avoid being washed away by waves during the throwing process, resulting in rescue failure, and it can also be confirmed through the lens unit 3011 whether the drowning person can successfully catch the rescue boat 303.

Next, please continue to refer to Figure 3. The rescue boat 303 includes an annular air cushion 3031 and a real-time image lens 3032. After the ring-shaped air cushion 3031 is worn by the user, the rescue boat 303 will drag the user back to the shore through the guidance of the multi-axis drone 301. The real-time image lens 3032 is installed on the front end of the ring-shaped air cushion 3031 and can provide a 360-degree real-time image with no blind angle, so that the rescue boat can drag the user back to the shore through the guidance of the multi-axis drone 301. In practice, the rescue boat 303 is a ring-shaped air cushion and a rescue device made of waterproof material to facilitate the user to grab a person who falls into the water. Moreover, after the person who fell into the water successfully grabs the rescue boat 303, the transmission motor and the third GPS positioning device in the rescue boat 303 will drag the person who fell into the water back to the shore. It is worth noting that this creation’s 10-minute global positioning The rescue boat 303 of the system water self-rescue rescue system is equipped with a real-time image lens 3032. Before the person who fell into the water is transported back to the shore, the rescuers can simultaneously overlook the perspective of the camera unit 3011 on the multi-axis drone 301 and the rescue boat. The real-time image lens 3032 on the 303 has a 360-degree all-round view to pay attention to the rocks and water conditions near the drowning person's return journey, thus greatly reducing the risk of the rescue boat 303 capsizing due to hitting the rocks.

Furthermore, the multi-axis drone 301 and the rescue boat 303 are both equipped with long-distance lighting devices. Once the person falls into the sea near evening or even at night, the lighting devices can help the search and rescue personnel of the rescue center to find the person who fell into the water more quickly. First location information. When the person who fell into the water is transported back by the rescue boat 303, the rescue boat 303 will not capsize because the search and rescue personnel cannot successfully judge the rocks through the real-time image lens 3032 due to dark weather, thus greatly increasing the success rate of rescue.

In addition, the 10-minute GPS water self-rescue and rescue system of this creation can be further applied to shared equipment. Tourists can effectively increase the popularity of the 10-minute GPS water self-rescue and rescue system of this creation by renting it. Moreover, by registering the information of the tourist's smart device for rental, when the tourist falls into the water, it can also send a message and the first location information when the tourist fell into the water to the emergency contact person. In this way, not only the search and rescue personnel of the rescue center can immediately learn the information of the person who fell into the water, but the emergency contact person of the person who fell into the water can also know this information as soon as possible and arrive at the shore immediately.

To sum up, the 10-minute global positioning system water self-rescue rescue system of this invention has been improved on the buoy armbands and search and rescue devices worn by tourists. Compared with the conventional technology, it has the following advantages. First of all, the buoy device is equipped with inflatable equipment. Once tourists fall into the water, they can rescue themselves first to increase the floating time and increase the survival rate. The buoy device is directly equipped with a GPS positioning unit to The positioning information is sent to the rescue center immediately. Compared with the conventional technology, there is no need to search for a needle in a haystack to improve rescue efficiency. Then, the multi-axis drone on the search and rescue device can move in the air much faster than the rescue boat dispatched from the shore, and can reduce the risk of rescue personnel performing the task. In addition, the multi-axis drone is equipped with a lens. When the search and rescue device approaches a person who has fallen into the water, the search and rescue personnel can quickly find the exact location of the person who fell into the water through the lens, and accurately throw a portable rescue boat to the person from above. Finally, the person who fell into the water was transported back to the shore through a portable rescue boat. During the transportation process at sea, a multi-axis drone and the lens on the rescue boat were used to determine whether there were rocks or obstacles around the person who fell into the water, so as to avoid obstacles and improve the probability of rescue. Probability. Therefore, the 10-minute GPS water self-rescue rescue system created by this invention can greatly improve the search and rescue efficiency and grasp the possibility of rescuing the drowning person ashore within the golden rescue time of 10 minutes to improve the success rate of rescue and thereby reduce the risk of life-threatening brain death of the drowning person after drowning.

Through the above detailed description of the preferred embodiments, it is hoped that the characteristics and spirit of the present invention can be more clearly described, but the scope of the present invention is not limited by the above-mentioned preferred embodiments. On the contrary, the purpose is to cover various modifications and equivalent arrangements within the scope of the patent application for this invention. Therefore, the scope of the patentable scope of this invention should be interpreted in the broadest manner according to the above description, so that it covers all possible changes and equivalent arrangements.

1:10 minutes GPS water self-rescue rescue system

10: Control signal transceiver device

20:buoy device

30:Search and rescue device

301:Multi-axis UAV

S1: First location information

S2: Second location information

Claims (10)

A 10-minute global positioning system water self-rescue rescue system, including: a control signal transceiver device, installed in a rescue center; a buoy device for a user to wear, the buoy device includes: a gas cylinder, including a a rotary valve; an inflatable air bag connected to the gas cylinder; a communication module including a first GPS positioning unit for locating the user to generate first position information; and a control module connected to the communication A module for receiving the first position information of the communication module and sending the first position information to the control signal transceiver device; and a search and rescue device with signals connected to the control signal transceiver device and the buoy device, the search and rescue device The device includes: a multi-axis drone, used to receive the first position information sent by the control signal transceiver device, and move to the user according to the first position information; a second GPS positioning unit, configured The multi-axis UAV is used to generate a second position information; and a rescue boat is retractably disposed on the multi-axis UAV; wherein when the second position information of the second GPS positioning unit matches When the first position information of the first GPS positioning unit is received, the multi-axis drone launches the rescue boat to the user. For the system described in item 1 of the patent application, the buoy device is One step includes a strap loop for being placed on one of the user's hands. For the system described in item 1 of the patent application, the buoy device further includes a control panel connected to the communication module for the user to press to activate the first GPS positioning unit to generate the first Location information. For the system described in Item 1 of the patent application, the search and rescue device further includes a lens unit, which is provided on the multi-axis drone and used to transmit at least one image to the control signal transceiver device. For the system described in Item 1 of the patent application, the search and rescue device further includes a clip-type unit, which is provided on the multi-axis UAV for holding or launching the rescue boat. For the system described in Item 1 of the patent application, the rescue boat includes an annular air cushion for the user to wear, and the rescue boat will tow the user through the guidance of the multi-axis drone. Return to shore. For the system described in Item 6 of the patent application, the rescue boat further includes a real-time image lens, which is installed on the ring-shaped air cushion to provide a real-time image so that the rescue boat can use the multi-axis UAV. guide and drag the user back to the shore. For the system described in item 1 of the patent application scope, the communication module is an Xbee communication module. For the system described in item 1 of the patent application, the control module is an Arduino program. For the system described in item 1 of the patent application, the buoy device and the rescue boat device are made of waterproof material.

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