KR101808845B1 - Envelope structure which drone is separated and can fly - Google Patents

Envelope structure which drone is separated and can fly Download PDF

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Publication number
KR101808845B1
KR101808845B1 KR1020150165323A KR20150165323A KR101808845B1 KR 101808845 B1 KR101808845 B1 KR 101808845B1 KR 1020150165323 A KR1020150165323 A KR 1020150165323A KR 20150165323 A KR20150165323 A KR 20150165323A KR 101808845 B1 KR101808845 B1 KR 101808845B1
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South Korea
Prior art keywords
drones
dron
drone
unit
communication unit
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KR1020150165323A
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Korean (ko)
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KR20170060763A (en
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이영석
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이영석
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Priority to KR1020150165323A priority Critical patent/KR101808845B1/en
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    • BPERFORMING OPERATIONS; TRANSPORTING
    • B64AIRCRAFT; AVIATION; COSMONAUTICS
    • B64CAEROPLANES; HELICOPTERS
    • B64C39/00Aircraft not otherwise provided for
    • B64C39/02Aircraft not otherwise provided for characterised by special use
    • BPERFORMING OPERATIONS; TRANSPORTING
    • B64AIRCRAFT; AVIATION; COSMONAUTICS
    • B64BLIGHTER-THAN AIR AIRCRAFT
    • B64B1/00Lighter-than-air aircraft
    • B64B1/40Balloons
    • BPERFORMING OPERATIONS; TRANSPORTING
    • B64AIRCRAFT; AVIATION; COSMONAUTICS
    • B64BLIGHTER-THAN AIR AIRCRAFT
    • B64B1/00Lighter-than-air aircraft
    • B64B1/40Balloons
    • B64B1/44Balloons adapted to maintain predetermined altitude
    • BPERFORMING OPERATIONS; TRANSPORTING
    • B64AIRCRAFT; AVIATION; COSMONAUTICS
    • B64BLIGHTER-THAN AIR AIRCRAFT
    • B64B1/00Lighter-than-air aircraft
    • B64B1/58Arrangements or construction of gas-bags; Filling arrangements
    • BPERFORMING OPERATIONS; TRANSPORTING
    • B64AIRCRAFT; AVIATION; COSMONAUTICS
    • B64CAEROPLANES; HELICOPTERS
    • B64C39/00Aircraft not otherwise provided for
    • B64C39/02Aircraft not otherwise provided for characterised by special use
    • B64C39/022Tethered aircraft
    • BPERFORMING OPERATIONS; TRANSPORTING
    • B64AIRCRAFT; AVIATION; COSMONAUTICS
    • B64CAEROPLANES; HELICOPTERS
    • B64C39/00Aircraft not otherwise provided for
    • B64C39/02Aircraft not otherwise provided for characterised by special use
    • B64C39/024Aircraft not otherwise provided for characterised by special use of the remote controlled vehicle type, i.e. RPV
    • BPERFORMING OPERATIONS; TRANSPORTING
    • B64AIRCRAFT; AVIATION; COSMONAUTICS
    • B64DEQUIPMENT FOR FITTING IN OR TO AIRCRAFT; FLIGHT SUITS; PARACHUTES; ARRANGEMENT OR MOUNTING OF POWER PLANTS OR PROPULSION TRANSMISSIONS IN AIRCRAFT
    • B64D47/00Equipment not otherwise provided for
    • BPERFORMING OPERATIONS; TRANSPORTING
    • B64AIRCRAFT; AVIATION; COSMONAUTICS
    • B64DEQUIPMENT FOR FITTING IN OR TO AIRCRAFT; FLIGHT SUITS; PARACHUTES; ARRANGEMENT OR MOUNTING OF POWER PLANTS OR PROPULSION TRANSMISSIONS IN AIRCRAFT
    • B64D47/00Equipment not otherwise provided for
    • B64D47/08Arrangements of cameras
    • BPERFORMING OPERATIONS; TRANSPORTING
    • B64AIRCRAFT; AVIATION; COSMONAUTICS
    • B64FGROUND OR AIRCRAFT-CARRIER-DECK INSTALLATIONS SPECIALLY ADAPTED FOR USE IN CONNECTION WITH AIRCRAFT; DESIGNING, MANUFACTURING, ASSEMBLING, CLEANING, MAINTAINING OR REPAIRING AIRCRAFT, NOT OTHERWISE PROVIDED FOR; HANDLING, TRANSPORTING, TESTING OR INSPECTING AIRCRAFT COMPONENTS, NOT OTHERWISE PROVIDED FOR
    • B64F3/00Ground installations specially adapted for captive aircraft
    • B64F3/02Ground installations specially adapted for captive aircraft with means for supplying electricity to aircraft during flight
    • B64C2201/127

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  • Engineering & Computer Science (AREA)
  • Aviation & Aerospace Engineering (AREA)
  • Mechanical Engineering (AREA)
  • Selective Calling Equipment (AREA)

Abstract

In the present invention, when a dron is mounted on a drones mounting structure, when a dron separation signal is received by a control unit of the integrated controller, a dron is separated from the dronon mounting structure, It is then possible to carry out the mission assigned to it by flying to the target point. According to the present invention, a surveillance activity can be performed by generating a video signal around the air bag structure through a camera provided in the integrated control device, and when a problem is caught during surveillance, So that it can be quickly loaded into the target point.

Description

{ENVELOPE STRUCTURE WHICH DRONE IS SEPARATED AND CAN FLY}

The present invention relates to a drones for separating drones mounted on an air bag structure and performing various tasks by flying to a target point when a problem is captured while monitoring the air bag structure around the camera through a camera provided in the integrated control device. The present invention relates to an air-

The drones were originally developed for military purposes, but nowadays they are widely used not only for military use but also for private companies such as private companies and individuals. Specifically, since the drone can fly without a pilot through radio waves, it can be used in hazardous areas where people can not access, collecting various information, or providing unmanned courier service by utilizing GPS technology to confirm its position using a satellite do.

However, in order to allow the drone to perform the assigned task smoothly by putting the drone at the desired place, the surveillance activity must be continued through the camera. At this time, the surveillance activity is performed using the camera provided in the drone There is a possibility that if a drone is needed due to power consumption, it may not be able to fly properly. In addition, in order to monitor the camera, it is necessary to attach the camera to a fixture such as a column or a wall. In the case where the camera is dismantled, the fixture remains on the ground and occupies a space unnecessarily. And efforts are required. Also, in some cases, a structure capable of easily monitoring the surroundings from a very high position from the ground is also required.

On the other hand, Patent Document 1 (Korean Patent Registration No. 10-1543542) discloses an intelligent monitoring system and method for confirming an event and tracking a moving object in real time through image sensing. However, according to the above-mentioned Patent Document 1, only the matters for remotely controlling the drone unit and monitoring the detection area using the image provided from the drone unit are disclosed, and only the camera And the fact that the drones mounted on a structure can be operated to perform a predetermined mission is not disclosed, which is different from the present invention.

Korean Patent Registration No. 10-1543542

The present invention monitors a structure around a structure using a camera, quickly places a dron for a place where a problem occurs (hereinafter, referred to as a "target point"), and at the same time, And to provide an airbag structure capable of smoothly performing an environment in which the airbag can be smoothly performed.

It is another object of the present invention to provide an air-bag structure capable of performing the surveillance and mission as described above, and to provide an air bag structure in which the installation and dismounting work can be easily performed.

In order to achieve the above object, according to a first embodiment of the present invention, there is provided an air bag structure capable of separating and flying a dron, A drones mounting structure, comprising: a support frame; and a fastening portion mounted on the support frame and provided with a fastening portion for holding the fastened state while lifting the dron in the air; A first communication unit for transmitting a video signal generated by the first camera to a drone manipulator, a first communication unit for receiving a dronon flight signal transmitted from the drone manipulator corresponding to a video signal generated by the first camera, A dron including a fixing portion fastened by the fastening portion; A third communication unit for transmitting the image signal generated by the second camera to the ground equipment; an exhaust valve for exhausting the gas injected into the air bag; A fourth communication unit receiving the altitude maintenance signal transmitted from the ground equipment corresponding to the video signal generated by the second camera and receiving the dron separation signal transmitted from the ground equipment; A control unit for receiving the dron separation signal transmitted from the fourth communication unit to release the engagement between the coupling unit and the fixing unit, An integrated control device including a power supply unit for supplying power; An exhaust port connecting the air cylinder and the exhaust valve; And a second connection line connecting an object located on the ground and the droning structure, and a second connection line connecting the droning structure and the integrated control device. When the control unit receives the dron separation signal , The drones are separated from the droning structure as power is supplied to the coupling unit and the coupling between the coupling unit and the fixing unit is released, and the separated drones fly according to the dron flight signal .

According to a second embodiment of the present invention, there is provided an air-bag structure capable of separating and flying a dron, the air bag including a bag for levitating the dron by a gas injected therein; A drones mounting structure, comprising: a support frame; and a fastening portion mounted on the support frame and provided with a fastening portion for holding the fastened state while lifting the dron in the air; A first communication unit for transmitting a video signal generated by the first camera to a drone manipulator, a first communication unit for receiving a dronon flight signal transmitted from the drone manipulator corresponding to a video signal generated by the first camera, A second communication unit for receiving a dron separation signal transmitted from the drone manipulator; a fixed unit coupled by the coupling unit; and a second communication unit for receiving the dron separation signal transmitted from the second communication unit, A drones for releasing the engagement between the drones and the drones, and a drones for supplying power to the drones; A third communication unit for transmitting the image signal generated by the second camera to the ground equipment; an exhaust valve for exhausting the gas injected into the air bag; A fourth communication unit for receiving an altitude maintenance signal transmitted from the ground equipment corresponding to an image signal generated by the second camera; a control unit for receiving the altitude maintenance signal transmitted from the fourth communication unit and controlling the exhaust valve; An integrated controller including a power supply unit for supplying power to the control unit; An exhaust port connecting the air cylinder and the exhaust valve; And a second connection line for connecting the droning structure and the integrated control device, wherein the first connection line connects the object located on the ground and the droning structure, and the second connection line connects the droner structure and the integrated control device, , The drones are separated from the droning structure as power is supplied to the fixing portion and the fastening between the fastening portion and the fixing portion is released, .

According to the present invention, a surveillance activity can be performed by generating a video signal around the air bag structure through a camera (that is, a second camera) provided in the integrated control device. When it is necessary to input a dron during the surveillance activity The drone mounted on the structure can be separated and flown so that the drone can be quickly inserted into the target point.

Further, according to the present invention, the surveillance activity around the air bag structure is performed through the camera (i.e., the second camera) provided in the integrated control device instead of the camera provided in the drones (i.e., the first camera) The power shortage problem that may occur when flying to a point is minimized.

In addition, since the air bag structure according to the present invention can be installed on the ground with only air bags and connecting lines, the installation of the structure and the disassembling operation can be easily performed.

FIG. 1 is a schematic view of an air-bag structure capable of separating and flying a dron according to a first embodiment of the present invention.
FIGS. 2 to 4 are views for explaining how the drone is separated from the drone mounting structure in the air bag structure according to the first embodiment of the present invention.
FIG. 5 is a schematic view of an air-bag structure capable of separating and flying a dron according to a second embodiment of the present invention.
6 to 8 are views for explaining how the drones are separated from the drone mounting structure in the air bag structure according to the second embodiment of the present invention.
Fig. 9 is a view showing a modification of the first embodiment of the present invention.
10 is a view showing a state in which a plurality of auxiliary drones are connected to an auxiliary frame.
11 is a view schematically showing a structure in which a dust container is installed in an air bag structure.

Hereinafter, an air bag structure capable of separating and flying the drones according to the present invention will be described in detail with reference to the accompanying drawings. It is to be understood that both the foregoing general description and the following detailed description are exemplary and explanatory and are intended to provide further explanation of the invention as claimed. Lt; / RTI > The detailed description of known functions and configurations that may unnecessarily obscure the gist of the present invention will be omitted.

FIG. 1 is a schematic view of an air-bag structure capable of separating and flying a dron according to a first embodiment of the present invention.

In the air bag structure according to the first embodiment of the present invention, when a problem is detected while monitoring the surroundings of the air bag structure through the camera while the dron is lifted and fixed in the air, After the drones are separated, the drones are flown to the target point according to the dron flight signal transmitted from the dronron manipulator, so that the work performed at the target point is transmitted to the dronon controller in more detail, Which is capable of separating a plurality of objects from each other.

To this end, the air bag structure according to the first embodiment of the present invention includes an air bag 100, a droning structure 200, a drones 300, an integrated control device 400, an exhaust port 500 and connecting lines 610 and 620, As shown in FIG.

The air bladder 100 allows the drones 300 mounted on the air bag structure to be levitated by the gas injected therein (for example, helium), and the shape of the air bladder 100 into which gas is injected, It is preferable to be streamlined to maximize.

The drone mounting structure 200 is a structure in which the drone 300 is mounted, and may include a support frame 210 and a coupling part 220.

The support frame 210 is preferably made of a strong and light carbon material (for example, a carbon rod) in order to stably mount the drones 300 and to reduce the influence of gravity.

The fastening part 220 is for holding the drones 300 in a floating state in the air and may be mounted on the upper side and the lower side of the support frame 210 as shown in FIG. The fastening part 220 may be a means for fastening the fastening part 340 described later, and more specific embodiments of the fastening part 220 will be described later.

The drones 300 may be mounted on the drone mounting structure 200 and include a first camera 310, a first communication unit 320, a second communication unit 330, and a fixing unit 340.

The first camera 310 may be one or a plurality of and may be kept off when the drones 300 are mounted on the drones 200. When the drones 300 are mounted on the drones 300, 2 communication unit 330) may be turned on when receiving the drone flight signal from the drone manipulator.

The first communication unit 320 transmits the image signal generated by the first camera 310 to the drone manipulator and the second communication unit 330 transmits the image signal generated by the first camera 310 to the drones And receives the drone flight signal transmitted from the controller.

Here, the video signal transmitted to the drone manipulator means an image captured by the first camera 310. The drone flight signal transmitted from the drone manipulator is supplied to the drone manipulator through the drone manipulator in order to fly the drone 300 to the target point while watching the image captured by the first camera 310 in real time Signal.

It may be considered to monitor the circumference of the air bag structure using the first camera 310 provided in the drones 300. In this case, however, due to the power loss caused by the circumstance monitoring, The first camera 310 may not be operated in the absence of the drone flight signal from the drone manipulator because the distance may be constrained.

The fixing part 340 is fastened by the fastening part 220 to keep the drones 300 in a floating state while being lifted in the air. For this purpose, the fixing portion 340 may protrude upward and downward from the central portion of the drones 300 as shown in FIG. However, the fixing portion 340 is not necessarily limited to this. That is, they may protrude from the central portion of the drones 300 only to the upper side of the upper side and the upper side of the lower side, or protrude from the both ends of the drones 300 to the left and right sides. The fixing portion 340 may protrude in the form of a rod as shown in Fig. 1, or may protrude in the form of a hook as shown in Fig.

The integrated controller 400 receives signals transmitted from the ground equipment to maintain the altitude of the air bag by controlling the amount of gas injected into the air bag 100 and includes a camera 410 to monitor the air bag structure And receives the signal transmitted from the ground equipment to release the coupling between the coupling part 220 and the fixing part 340.

 The integrated control device 400 includes a second camera 410, a third communication unit 420, an exhaust valve 430, a fourth communication unit 440, a control unit 450, and a power supply unit 460 Lt; / RTI >

The second camera 410 may be one or a plurality of cameras, and generates a video signal around the air bag structure. That is, the second camera 410 plays a role of monitoring the surroundings of the air-bag structure, and is required to be in an on state while performing such surveillance activities.

The third communication unit 420 transmits the image signal generated by the second camera 410 to the ground equipment.

The fourth communication unit 440 receives the altitude maintenance signal transmitted from the ground equipment corresponding to the video signal generated by the second camera 410 and transmits the altitude maintenance signal to the control unit 450, And receives the dron separation signal transmitted from the equipment and transmits the dron separation signal to the controller 450.

Here, the ground equipment includes a video receiver capable of receiving an image signal generated by the second camera 410, and a signal transmitter capable of generating an altitude maintenance signal and a dron separation signal to the fourth communication unit 440, respectively And the like.

Here, the image signal generated by the second camera 410 means an image captured by the second camera 410.

And an altitude maintenance signal transmitted from the ground equipment means a signal provided by a person who controls the ground equipment through the ground equipment in order to keep the air bag at a desired altitude while watching an image signal generated by the second camera 410 .

The dron separation signal transmitted from the terrestrial equipment is transmitted to the terrestrial equipments when a subject controlling the terrestrial equipment performs a surveillance activity through a video signal generated by the second camera 410, Means a signal provided through ground equipment to separate flight.

The exhaust valve 430 exhausts the gas injected into the air bladder 100 under the control of the controller 450. The air bag 100 and the exhaust valve 430 are connected through an exhaust port 500. The control unit 450 receives the altitude holding signal transmitted from the fourth communication unit 440 and controls the exhaust valve 430, And controls the amount of exhaust gas introduced into the air bladder 100 according to the altitude.

The controller 450 controls the exhaust valve 430 as described above so that when the dron separation signal transmitted from the fourth communication unit 440 is received, the controller 450 controls the connection between the coupling unit 220 and the fixing unit 340 .

The power supply unit 460 supplies power to the control unit 450 for the operation of the controller 450 and is also connected to the coupling unit 220 to supply power to the coupling unit 220.

The control unit 450 may include a circuit capable of operating as a relay switch, so that the dron separation signal received by the control unit 450 can be input to the relay switch. When the control unit 450 receives the dron separation signal transmitted from the fourth communication unit 440, power is supplied from the power supply unit 460 to the coupling unit 220, So that the engagement between the first and second portions 340 and 340 is released. As the coupling between the coupling part 220 and the fixing part 340 is released, the drones 300 are separated from the droning structure 200, and the separated drones 300 are separated from the drones 300, And then to the target point according to the drone flight signal transmitted to the controller 330.

The drone mounting structure 200 is connected to the object 20 located on the ground by a first connecting line 610 and is connected to the integrated controller 400 by a second connecting line 620. The connection lines 610 and 620 need to be lightweight and strong in tensile strength. For example, the connection lines 610 and 620 may be a line, a fishing line, a wire, or the like.

2 to 4 are views for explaining a state in which the drone is separated from the drone mounting structure. Hereinafter, referring to FIGS. 2 to 4, the fastening portions 220 When the dron separation signal is transmitted to the control unit 450, the coupling between the coupling unit 220 and the fixing unit 340 is released, 300 are separated from the drone mounting structure 200 will be described in detail.

2, the coupling unit 220 includes a servo motor 221 and a servo motor 221 connected to the servo motor 221. The servo motor 221 is connected to the servo motor 221, Arm 222 and a wire (not shown) connected between the servomotor 221 and the power supply 460.

The servo arm 222 is fixed to the support frame 210 by fastening the fixing portion 340 (for example, fixing the fixing portion 340 to the support frame 210 as shown in FIG. 2) And keeps it fixed. At this time, a plurality of servo motors 221 may be provided as the first servo motor 221-1 and the second servo motor 221-2. Accordingly, the servo arm 222 is also connected to the first servo arm 222- 1) and the second servo arm 222-2. The first servo arm 222-1 can be fastened to the fixing portion 340 in such a manner that the fixing portion 340 is brought into tight contact with the support frame 210 and the second servo arm 222-2 is fastened to the first The fixing portion 340 can be brought into close contact with the support frame 210 at the upper portion of the servo arm 222-1 so that the drones 300 can be kept floating while being kept floating in the air.

When the control unit 450 receives the dronesignal signal transmitted from the fourth communication unit 440, a current flows through the wire to drive the servomotor 221. When the servomotor 221 is driven The coupling between the servo arm 222 and the fixing portion 340 is released by the engagement portion 322 of the coupling portion 321 and the coupling portion 322. As a result, For example, when the controller 450 receives the dronesignal signal, a current flows through the wire connected between the first servomotor 221-1 and the power supply 460 to drive the first servomotor 221-1 And the first servo arm 222-1 is rotated in the clockwise direction by driving the first servo motor 221-1. Similarly, when the controller 450 receives the dronesignal signal, current flows through the wire connected between the second servomotor 221-2 and the power supply 460 to drive the second servomotor 221-2 And the second servo arm 222-2 is rotated in the counterclockwise direction by driving the second servo motor 221-2. The drones 300 are separated from the droning structure 200 and the separated drones 300 fly to the target point according to the dron flight signal transmitted from the dronron controller to the second communication unit 330 .

3, the fixing portion 340 includes a first rectilinear section 341 protruding from the drones 300, a second rectilinear section 342 protruding from the second rectilinear section 341, The second rectilinear section 342 may be shorter than the first rectilinear section 341 and the second rectilinear section 342 may be shorter than the first rectilinear section 341, And a connecting portion 343 connecting the first rectilinear section 341 and the second rectilinear section 342 to each other (FIG. 3A), and the coupling section 220 is protruded from the support frame 210 An electromagnet moving bar contact portion 223 and an electromagnet moving bar contact portion 223 having one end embedded with a coil (not shown) and spaced parallel to the electromagnet moving bar contacting portion 223, And the other end is connected to the electromagnet moving rod 225 housed in the electromagnet moving part 224 and the electromagnet moving part 224 and the electric power It may be made of a wire (not shown) connected between the benefits (460) ((b) in Fig. 3).

3B, the coupling portion 343 is fastened to the electromagnet movement bar 225, so that the drones 300 are kept floating while being suspended in the air.

When the control unit 450 receives the dron separation signal transmitted from the fourth communication unit 440, current flows through the wire connected between the electromagnet moving unit 224 and the electric power supply unit 460, and the electromagnet moving unit 224 A magnetic force is generated in the built-in coil and a magnetic force generated in the coil moves the electromagnet movement rod 225 (for example, the electromagnet movement rod 225 moves from the electromagnet movement bar contact portion 223 to the electromagnet moving portion 224) (Fig. 3 (c)). The drones 300 are separated from the droning structure 200 and the separated drones 300 fly to the target point according to the dron flight signal transmitted from the dronron controller to the second communication unit 330 .

4, the fastening part 220 includes a second connecting line 620 and a wire (nichrome wire, coil, etc.) in the interior of the drone mounting structure 200, A through structure 227 in which a second connection line 620 is passed through the through hole 226 and a through hole 226 having a through hole 226 formed in the through hole 226, And a wire 228 connected between the power supply 460 and the power supply 460.

The second connection line 620 is fastened to the fixing portion 340 in a winding manner, for example, so that the drones 300 are kept floating while being suspended in the air.

Thereafter, when the control unit 450 receives the dron separation signal transmitted from the fourth communication unit 440, current flows through the wire 228, heat is generated in the electric wire provided in the through hole 226, Cutting of the second connecting line 620 passing through the through hole 226 is performed by the heat generated from the electric wire. The drones 300 are separated from the droning structure 200 and the separated drones 300 fly to the target point according to the dron flight signal transmitted from the dronron controller to the second communication unit 330 .

FIG. 5 is a schematic view of an air-bag structure capable of separating and flying a dron according to a second embodiment of the present invention.

In the air bag structure according to the second embodiment of the present invention, when a problem is detected while the surroundings of the air bag structure are monitored through the camera while the dron is lifted and fixed in the air, according to the dron separation signal transmitted from the dron controller After the drones are separated, the drones are flown to the target point according to the dron flight signal transmitted from the dronron manipulator, so that the work performed at the target point is transmitted to the dronon controller in more detail, Which may be provided in the main body of the apparatus. That is, the air bag structure according to the second embodiment of the present invention is different from the air bag structure according to the first embodiment in that a dron separation signal is transmitted from the dron controller to the drone.

The air bag structure according to the second embodiment of the present invention includes the air bag 100, the drones 200, the drones 300, the integrated controller 400, the air outlet 500, and the connection lines 610 and 620 .

The air bladder 100 can float the drones 300 connected to the air bladder 100 by a gas (for example, helium) injected into the air bladder 100, and the shape of the air bladder 100 into which gas is injected In order to maximize the lifting force, it is preferable to be streamlined.

The drone mounting structure 200 is a structure in which the drone 300 is mounted, and may include a support frame 210 and a coupling part 220.

The support frame 210 is preferably made of a strong and light carbon material (for example, a carbon rod) in order to stably mount the drones 300 and to reduce the influence of gravity.

The fastening part 220 is for holding the drones 300 in a floating state while lifting them in the air, and may be mounted on the upper side and the lower side of the support frame 210, respectively, as shown in FIG. The fastening part 220 may be mounted on the support frame 210 and may be fastened to the fixing part 340 described later. The shape of the fastening part 220 is not limited.

The drones 300 are mounted on the drones 200 and include a first camera 310, a first communication unit 320, a second communication unit 330, a fixing unit 340, a dron control device 350, And a drone battery unit 360 may be included.

The first camera 310 may be one or a plurality of and may be kept off when the drones 300 are mounted on the drones 200. When the drones 300 are mounted on the drones 300, 2 communication unit 330) may be turned on when receiving the drone flight signal from the drone manipulator.

The first communication unit 320 transmits the image signal generated by the first camera 310 to the drone manipulator and the second communication unit 330 transmits the image signal generated by the first camera 310 to the drones And receives the drone flight signal transmitted from the controller.

Here, the video signal transmitted to the drone manipulator means an image captured by the first camera 310. The drone flight signal transmitted from the drone manipulator is supplied to the drone manipulator through the drone manipulator in order to fly the drone 300 to the target point while watching the image captured by the first camera 310 in real time Signal.

It may be considered to monitor the circumference of the air bag structure using the first camera 310 provided in the drones 300. In this case, however, due to the power loss caused by the circumstance monitoring, The first camera 310 may not be operated in the absence of the drone flight signal from the drone manipulator because the distance may be constrained.

Meanwhile, in the air bag structure according to the second embodiment of the present invention, the second communication unit 330 receives a dron separation signal for separating the dron mounted on the dron mounting structure 200 from the dron controller. Here, the dron separation signal transmitted from the drone manipulator may be used as a target to control the drone manipulator when a problem is detected during a monitoring operation through a video signal generated by a second camera 410, which will be described later, Means a signal provided through a drone manipulator to separate flight.

The fixing part 340 is fastened to the fastening part 220 to keep the drones 300 fixed in the air while the drones 300 are lifted in the air and a more specific embodiment of the fixing part 340 will be described later .

The drone control device 350 functions to release the coupling between the coupling part 220 and the fixing part 340 when the dronesection signal transmitted from the second communication part 330 is received.

The drone battery unit 360 supplies power to the drone control unit 350 for operation of the drone control unit 350 and is connected to the fixing unit 340 to power the fixing unit 340 Supply.

The drone control device 350 may include a circuit capable of operating as a relay switch so that the dronesignal signal received by the drones control device 350 can act as an input to the relay switch. When the drone control unit 350 receives the dron separation signal transmitted from the second communication unit 330, power is supplied from the drone battery unit 360 to the fixing unit 340, And the fixing portion 340 is released. As the coupling between the coupling part 220 and the fixing part 340 is released, the drones 300 are separated from the droning structure 200, and the separated drones 300 are separated from the drones 300, And then to the target point according to the drone flight signal transmitted to the controller 330.

The integrated control device 400 receives the signal transmitted from the ground equipment to maintain the altitude of the air bag by controlling the amount of gas injected into the air bag 100 and further includes a camera 410 so as to surround the air bag structure It plays a role of monitoring.

 The integrated control device 400 includes a second camera 410, a third communication unit 420, an exhaust valve 430, a fourth communication unit 440, a control unit 450, and a power supply unit 460 Lt; / RTI >

The second camera 410 may be one or a plurality of cameras, and generates a video signal around the air bag structure. That is, the second camera 410 plays a role of monitoring the surroundings of the air bag structure, and is required to be in an on state while performing such a monitoring operation.

The third communication unit 420 transmits the image signal generated by the second camera 410 to the ground equipment and the fourth communication unit 440 transmits the image signal generated by the second camera 410 to the ground equipment, Receives the altitude maintenance signal transmitted from the ground equipment, and transmits the altitude maintenance signal to the controller 450.

Here, the ground equipment includes a video receiver capable of receiving an image signal generated by the second camera 410, and a signal transmitter capable of generating an altitude maintenance signal and transmitting the signal to the fourth communication unit 440 .

Here, the image signal generated by the second camera 410 means an image captured by the second camera 410.

And an altitude maintenance signal transmitted from the ground equipment means a signal provided by a person who controls the ground equipment through the ground equipment in order to keep the air bag at a desired altitude while watching an image signal generated by the second camera 410 .

The exhaust valve 430 exhausts the gas injected into the air bladder 100 under the control of the controller 450. The air bag 100 and the exhaust valve 430 are connected to each other through the exhaust port 500. The control unit 450 receives the altitude holding signal transmitted from the fourth communication unit 440 and controls the exhaust valve 430, The exhaust amount of the gas injected into the air bladder 100 is controlled.

The power supply unit 460 supplies power to the controller 450 for the operation of the controller 450.

The drone mounting structure 200 is connected to the object 20 located on the ground by a first connecting line 610 and is connected to the integrated controller 400 by a second connecting line 620. The connection lines 610 and 620 are required to be light in weight and strong in tensile force, for example, a line, a fishing line, a wire, or the like.

6 to 8 are views for explaining how the drones are separated from the droning structure in the air bag structure according to the second embodiment of the present invention. 300 are fastened to the fastening part 220 and fastening between the fastening part 220 and the fastening part is released by the dron separation signal transmitted to the dron control device 350, An example in which the drone 300 is separated from the drone mounting structure 200 will be described in detail.

6, the fastening part 220 protrudes from the support frame 210, and the fixing part 340 is fixed to the servo part 210 by a servo A servo arm 1342 connected to the servo motor 1341 and a wire (not shown) connected between the servo motor 1341 and the drone battery unit 360. [

The servo arm 1342, for example, is fastened in the form of hanging on the fastening portion 220, so that the drones 300 are held in a floating state in the air.

Thereafter, when the drone control device 350 receives the dronesignal signal transmitted from the drone manipulator, a current flows through the wire to drive the servo motor 1341. By driving the servo motor 1341 The servo arm 1342 is rotated and the engagement between the servo arm 1342 and the coupling portion 220 is released. The drones 300 are separated from the droning structure 200 and the separated drones 300 fly to the target point according to the dron flight signal transmitted from the dronron controller to the second communication unit 330 .

7, the fastening portion 220 is protruded from the support frame 210 (Fig. 7 (a)), and the fastening portion 220 is protruded from the support frame 210 The fixing portion 340 includes an electromagnet moving bar contact portion 1343 protruding from the drones 300 and an electromagnet moving portion 332 having a coil (not shown) and being disposed parallel to the electromagnet moving bar contacting portion 1343 1344 and an electromagnet movement rod 1345 having one end abutting against the electromagnet movement bar contact 1343 and the other end accommodated in the electromagnet moving part 1344 and the electromagnet movement bar 1345 between the electromagnet moving part 1344 and the drone battery part 360 (FIG. 7 (b)).

The coupling part 220 is fastened in the form of hanging on the electromagnet movement bar 1345, so that the drones 300 are kept floating while being floated in the air.

Thereafter, when the drone control device 350 receives the dronesignal signal transmitted from the drone manipulator, current flows through the wire connected between the electromagnet moving part 1344 and the drone battery part 360, and the electromagnet moving part 1344 A magnetic force is generated in the coil so that the electromagnet movement rod 1345 moves by the magnetic force generated in the coil (for example, the electromagnet movement bar 1345 moves from the electromagnet movement bar contact portion 1343 to the electromagnet moving portion 1344 (Fig. 7 (c)). The drones 300 are separated from the droning structure 200 and the separated drones 300 fly to the target point according to the dron flight signal transmitted from the dronron controller to the second communication unit 330 .

8, the fastening part 220 is formed of a second connecting line 620 and the fastening part 340 is fastened to the fastening part 340 of the drones 300. [ A rod portion 1346 around which the second connecting line 620 is wound and a through hole 1347 having a wire (nichrome wire or coil) (not shown) are formed in the through hole 1347, A through structure 1348 through which the two connection lines 620 pass and a wire (not shown) connected between the electric wire and the drone battery unit 360 provided in the through hole 1348.

The second connection line 620 is fastened to the fixing portion 340 in a winding manner, for example, to hold the drones 300 in a floating state while lifting the drones 300 in the air.

Thereafter, when the drone control device 350 receives the dronesignal signal transmitted from the drone manipulator, current flows through the wire, heat is generated in the wire provided in the through hole 1347, and heat generated in the wire The cutting of the second connecting line 620 passing through the through hole 1347 is performed. The drones 300 are separated from the droning structure 200 and the separated drones 300 fly to the target point according to the dron flight signal transmitted from the dronron controller to the second communication unit 330 .

The following description will be made in order to avoid duplication of the first embodiment and the second embodiment of the present invention. In the first embodiment, However, it goes without saying that it can be applied to the second embodiment of the present invention.

Fig. 9 is a view showing a modification of the first embodiment of the present invention.

The supporting frame 210 forming the droning structure 200 in the air bag structure according to the present invention may have a rectangular shape, but is not necessarily limited to such a shape, and may be formed of a diamond or a circular shape.

9, the support frame 210 includes an upper support frame 211, a lower support frame 213, a frame connection line 215, and a connection line fixing device 217 in order to reduce the weight of the support frame 210 as much as possible. .

A first insertion groove 212 is formed at both ends of the upper support frame 211 and a second insertion groove 212 is formed at a position corresponding to a position where both ends of the lower support frame 213 and the first insertion groove 212 are formed. 2 insertion grooves 214 are formed. The frame connecting line 215 is inserted into a corresponding position of the first insertion groove 212 and the second insertion groove 214. The frame connecting line 215 is inserted into the insertion groove 212, and 214, respectively.

The support frame 210 having such a structure is light compared to the support frame 210 shown in FIG. 1, so that it is less affected by gravity. Accordingly, when the airbag 100 is positioned at the same height, It is possible to reduce the amount of gas to be injected into the reactor.

Meanwhile, the air bag structure according to the present invention may further include a pressure holding device 700 connected to the exhaust port 500. The pressure holding device 700 is provided with a predetermined pressure value according to the altitude of the air bladder 100 so that the pressure holding device 700 can maintain the air bladder 100 according to the pressure value according to the altitude of the predetermined air bladder 100 To maintain the pressure of the fluid.

The power supply unit 460 supplies power to the control unit 450 to operate the control unit 400.

Here, the power supply unit 460 may be supplied with electric power through a power line 900 connected from the ground.

Alternatively, the power supply unit 460 may receive power wirelessly. The integrated controller 400 may further include a wireless power receiver (not shown) connected to the power supplier 460. When power is wirelessly transmitted to the wireless power receiver, the power supplier 460 Power can be supplied from the wireless power receiving unit.

On the other hand, the object 20 located on the ground to which the first connection line 610 is connected includes not only an object fixed on the ground but also an object movable on the ground as shown in Fig. 9, This may be the vehicle.

When one end of the first connection line 610 is connected to the vehicle, the mobility of the air bag structure can be increased. As described above, the power supply unit 460 can receive power through a power line 900 connected from the ground. At this time, the power line 900 is connected to a battery (not shown) and a power supply unit 460 And power can be supplied from the battery provided in the vehicle to the power supply unit 460 through the power line 900 more easily.

A winder 800 for winding or unlocking the first connecting line 610 may be disposed on the upper portion of the object 20 located on the ground. The winder 800 may be in the form of a roller and the exhaust valve 430 is controlled by the control unit 450 so that the first connection line 610 is wound or unwound by the winder 800, ) Can be adjusted more easily.

On the other hand, the drones 300 may include a payload unit 370, and the second communication unit 330 may receive payload separating signals transmitted from the dron controller.

Here, the payload separation signal is generated by the main body driving the drone manipulator, flying the drones 300 to the target point while watching the video signal generated by the first camera 310 provided at the drones 300, As shown in FIG. The payload unit 370 refers to an object provided on the drones 300 and can be separated from the drones 300 according to a payload separating signal.

For example, the control subject of the ground equipment may include a video signal generated by the second camera 410 provided in the integrated control device 400 and transmitted through the third communication unit 420 to the ground equipment In the case where a victim is caught in the surveillance activity, a dronesignal signal may be transmitted to the fourth communication unit 440 of the integrated control unit 400 through the ground equipment, To the second communication unit 330 of the drones 300 through the second communication unit 330.

The dron separation signal transmitted to the fourth communication unit 440 of the integrated control unit 400 through the ground equipment is transmitted to the controller 450 so that the drones 300 are driven by the drone mounting structure 200).

Alternatively, the dron separation signal may be transmitted to the drones controller 350 through the second communication unit 330 of the drones 300 through the drones controller. In this case, (300) can be separated from the drone mounting structure (200).

The drones 300 separated from the droning structure 200 are received by the first camera 310 provided in the drones 300 and transmitted to the drones controller 300 through the first communication unit 320, Corresponding to the drone flight signal transmitted through the second communication unit 330 from the drone manipulator.

FIG. 10 is a view showing a state where a plurality of auxiliary drones are connected to an auxiliary frame. Referring to FIG. 10, an auxiliary drones 3000 are connected to at least one of the auxiliary frames 2100, respectively.

Specifically, the at least one auxiliary frame 2100 is connected to the first connection line 610 or the second connection line 620 and may be arranged radially.

The separating device 2200 is connected to at least one auxiliary frame 2100 and the auxiliary drones 3000 are fastened by the separating device 2200.

An example in which the auxiliary drones 3000 are separated from the separating apparatus 2200 is a method in which the drones 300 are separated from the droning structure 200 in the first or second embodiment of the present invention As shown in FIG.

As an example in which the auxiliary drones 3000 are separated from the separating apparatus 2200, the fixing unit 3340 provided in the separating apparatus 2200 and the auxiliary drones 3000 is similar to the first embodiment And the fourth communication unit 440 included in the integrated control device 400 may receive the auxiliary dron separation signal transmitted from the ground equipment To the control unit 450. When the control unit 450 receives the auxiliary dron separation signal, power is supplied from the power supply unit 460 to the separator 2200 to release the coupling between the separator 2200 and the auxiliary drones 3000, So that the drone 3000 is separated from the separating device 2200. The separated auxiliary drones 3000 correspond to the image signals generated by the first camera 3310 of the auxiliary drones 3000 and transmitted to the drones controller through the first communication unit 3320, And then travels to a target point according to an auxiliary drones flight signal transmitted to the communication unit 3330.

As another example in which the auxiliary drones 3000 are separated from the separating apparatus 2200, the fixing unit 3340 provided in the separating apparatus 2200 and the auxiliary drones 3000 may be constructed in the same manner as in the above- The second communication unit 3330 of the auxiliary drones 3000 may receive the auxiliary dron separation signal transmitted from the dronon controller and may be connected to the auxiliary drones 3000 To a drones control device (not shown) of the vehicle. When the drone control device receives the auxiliary dron separation signal, electric power is supplied from the drain battery part (not shown) to the fixing part 3340 to release the coupling between the separation device 2200 and the auxiliary drones 3000 The auxiliary drones 3000 are separated from the separating apparatus 2200. [ The separated auxiliary drones 3000 correspond to the image signals generated by the first camera 3310 of the auxiliary drones 3000 and transmitted to the drones controller through the first communication unit 3320, And then travels to a target point according to an auxiliary drones flight signal transmitted to the communication unit 3330.

The auxiliary drones 3000 described above may include a loading unit 3370. In addition to the drones 300 mounted to the drones 200, one or more auxiliary drones 3000 may be added to perform the duties. (For example, providing a life jacket in addition to a life jacket for a victim of a water fall), or saving time (for example, if there are a large number of wrecked watermen, (Provided on a date and time basis).

FIG. 11 is a schematic view of the air bag structure having a drone-filled portion. Referring to FIG. 11, a dron landing plate 1000 connected to a first connecting line 610 or a second connecting line 620, At least one drone charging unit 1100 is provided in the drum 1000.

The drone charging unit 1100 provided in the drone landing plate 1000 is configured to charge the drone 300 (more specifically, to charge the drone battery unit 360) when the drone 300 landing thereon .

For example, when the drone 300 needs to charge the battery after a long distance flight, it can land on the drone charging unit 1100, and the battery is charged at the same time as landing. Accordingly, when the drones 300 need to be charged, it is not necessary to charge the drones 300 on the ground. If the drones 300 are to be stopped for a while due to battery problems or external weather problems Also provides a safe temporary station role, allowing the Drones 300 to fly more safely and consistently.

While the present invention has been particularly shown and described with reference to exemplary embodiments thereof, it is to be understood that the invention is not limited to the disclosed exemplary embodiments, but, on the contrary, And variations are possible. Accordingly, it is intended that the technical scope of the present invention be defined only by the appended claims, and all equivalent or equivalent variations thereof fall within the technical scope of the present invention.

100: airbag
200: Structure for drone mounting
210: support frame 220: fastening part
300: Drones 310: First camera
320: first communication unit 330: second communication unit
340: Fixing portion 350: Drone control device
360: Drone battery unit 370:
400: Integrated control device
410: second camera 420: third communication section
430: exhaust valve 440: fourth communication section
450: control unit 460: power supply unit
500: Exhaust
610: first connection line 620: second connection line
700: Pressure holding device 800: Winder
900: Power line 1000: Drone landing plate
1100: Drone charging part

Claims (17)

In an air-bag structure capable of separating and flying the drones,
An air bag for levitating the drones by gas injected therein;
A drones mounting structure, comprising: a support frame; and a fastening portion mounted on the support frame and provided with a fastening portion for holding the fastened state while lifting the dron in the air;
A first communication unit for transmitting a video signal generated by the first camera to a drone manipulator, a first communication unit for receiving a dronon flight signal transmitted from the drone manipulator corresponding to a video signal generated by the first camera, A dron including a fixing portion fastened by the fastening portion;
A third communication unit for transmitting the image signal generated by the second camera to the ground equipment; an exhaust valve for exhausting the gas injected into the air bag; A fourth communication unit receiving the altitude maintenance signal transmitted from the ground equipment corresponding to the video signal generated by the second camera and receiving the dron separation signal transmitted from the ground equipment; A control unit for receiving the dron separation signal transmitted from the fourth communication unit to release the engagement between the coupling unit and the fixing unit, An integrated control device including a power supply unit for supplying power;
An exhaust port connecting the air cylinder and the exhaust valve; And
A first connecting line connecting an object located on the ground and the droning structure, and a second connecting line connecting the droning structure and the integrated controller,
When the control unit receives the dron separation signal, power is supplied to the coupling unit to release the coupling between the coupling unit and the fixing unit, so that the drones are separated from the droning structure, Wherein the airplane is adapted to fly according to the dragon flight signal.
The method according to claim 1,
The support frame includes:
An upper support frame having first insertion grooves formed at both ends thereof;
A lower support frame having second insertion grooves formed at both ends thereof;
A frame connection line inserted at a corresponding position of the first insertion groove and the second insertion groove, respectively; And
And a connection line fixing device connected to both ends of the frame connection line to prevent the frame connection line from escaping into the first insertion slot and the second insertion slot.
The method according to claim 1,
And a pressure holding device connected to the exhaust port,
Wherein the pressure holding device maintains the pressure of the air bladder in accordance with a preset pressure value according to an altitude of the air bag.
The method according to claim 1,
Wherein the power supply unit is supplied with electric power through a power line connected from the ground.
The method according to claim 1,
The object located on the ground is a vehicle,
Wherein a power line is connected between the battery and the power supply unit of the vehicle so that power is supplied to the power supply unit from the battery provided in the vehicle through the power line.
The method according to claim 1,
The integrated controller further includes a wireless power receiver connected to the power supply,
Wherein the power supply unit is supplied with electric power wirelessly transmitted to the wireless power receiving unit.
The method according to claim 1,
Further comprising a winder positioned above the object located on the ground to wind or unwind the first connecting line.
The method according to claim 1,
The drone further includes a payload, and the second communication unit receives a payload separating signal transmitted from the drone manipulator,
Wherein the payload is separated from the drones according to the payload separation signal.
The method according to claim 1,
Wherein the coupling portion comprises a servo motor, a servo arm connected to the servo motor, and a wire connected between the servo motor and the power supply portion,
The servo arm is fastened to the fixing portion to maintain the drones fixed in the air while being floated,
When the control unit receives the dron separation signal, a current flows through the wire to drive the servo motor, and as the servo arm is disengaged from the fixed unit by driving the servo motor, Wherein the drones are separated from the droning structure.
The method according to claim 1,
Wherein the fixing portion comprises a first rectilinear portion, a second rectilinear portion spaced apart in parallel to the first rectilinear portion, and a connecting portion connecting the first rectilinear portion and the second rectilinear portion,
Wherein the engaging portion includes an electromagnet moving bar contact portion protruding from the supporting frame, an electromagnet moving portion having a coil and being spaced apart from and parallel to the electromagnet moving bar contacting portion, one end contacting the electromagnet moving bar contact portion, An electromagnet movement rod accommodated in the movable portion, and a wire connected between the electromagnet movable portion and the electric power supply portion,
The connection portion is fastened in the form of being hooked on the electromagnet movement rod, so that the dron is held in a floating state while floating in the air,
When the control unit receives the dron separation signal, a current flows through the wire, a magnetic force is generated in the coil incorporated in the moving part of the electromagnet, and the electromagnet moving bar is moved by the magnetic force generated in the coil, Wherein the drones are separated from the drone mounting structure.
The method according to claim 1,
Wherein the fastening portion has a through-hole structure in which the second connecting line, the through-hole having the through-hole formed therein, through which the second connecting line passes, and the electric line connected to the through- Wire,
The second connection line is fastened to the fixing part to keep the drones floating in the air,
When the control unit receives the dronesignal signal, current flows through the wire, heat is generated in the electric wire provided in the through hole, and the heat generated in the electric wire causes the second connection wire Wherein the drones are separated from the droning structure by cutting the drones of the drones.
The method according to claim 1,
At least one auxiliary frame connected to the first connection line or the second connection line;
A separation device connected to the at least one auxiliary frame, respectively; And
Further comprising an auxiliary dron fastened by said separating device,
Wherein the fourth communication unit receives the auxiliary dron separation signal transmitted from the ground equipment and transmits the auxiliary dron separation signal to the control unit,
Wherein when the control unit receives the auxiliary dron separation signal, power is supplied from the power supply unit to the separation device to separate the auxiliary drones from the separation device as the separation between the separation device and the auxiliary drones is released, Wherein the separated auxiliary drones fly according to an auxiliary dron signal transmitted from the dronron controller through a communication unit of the auxiliary drones.
The method according to claim 1,
A dron landing plate connected to the first connecting line or the second connecting line, and at least one dron charging unit provided on the dron landing plate,
Wherein the drones are charged when the drones are landed on the at least one drone-filled portion.
In an air-bag structure capable of separating and flying the drones,
An air bag for levitating the drones by gas injected therein;
A drones mounting structure, comprising: a support frame; and a fastening portion mounted on the support frame and provided with a fastening portion for holding the fastened state while lifting the dron in the air;
A first communication unit for transmitting a video signal generated by the first camera to a drone manipulator, a first communication unit for receiving a dronon flight signal transmitted from the drone manipulator corresponding to a video signal generated by the first camera, A second communication unit for receiving a dron separation signal transmitted from the drone manipulator; a fixing unit for fixing the fixing unit to the fixing unit; and a second communication unit for receiving the dron separation signal transmitted from the second communication unit, A drones for releasing the engagement of the drones, and a drones for supplying power to the drones;
A third communication unit for transmitting the image signal generated by the second camera to the ground equipment; an exhaust valve for exhausting the gas injected into the air bag; A fourth communication unit for receiving an altitude maintenance signal transmitted from the ground equipment corresponding to an image signal generated by the second camera; a control unit for receiving the altitude maintenance signal transmitted from the fourth communication unit and controlling the exhaust valve; An integrated controller including a power supply unit for supplying power to the control unit;
An exhaust port connecting the air cylinder and the exhaust valve; And
A first connecting line connecting an object located on the ground and the droning structure, and a second connecting line connecting the droning structure and the integrated controller,
When the drones control device receives the dron separation signal, power is supplied to the fixing part to release the fastening between the fastening part and the fixing part, so that the drones are separated from the dron mounting structure, Wherein the drones fly according to the dragon flight signal.
15. The method of claim 14,
Wherein the fixed portion comprises a servo motor, a servo arm connected to the servo motor, and a wire connected between the servo motor and the drone battery portion,
The servo arm is fastened to the coupling portion to keep the drones floating and floating in the air,
When the drone control device receives the dronesignal signal, a current flows through the wire to drive the servomotor. As the servo arm is disengaged from the coupling portion by driving the servo motor, Wherein the drones are separated from the droning structure.
15. The method of claim 14,
Wherein the fixed portion includes an electromagnet moving bar contact portion and an electromagnet moving portion including a coil and spaced apart from and parallel to the electromagnet moving bar contact portion and an electromagnet moving portion whose one end is in contact with the electromagnet moving rod contact portion, And a wire connected between the electromagnet moving part and the drone battery part,
The fastening portion is fastened in the form of being hooked on the electromagnet moving bar, so that the dron is kept floating while being floated in the air,
When the drone control device receives the dronesignal signal, a current flows through the wire, a magnetic force is generated in the coil incorporated in the moving part of the electromagnet, and the electromagnet moving bar is moved by the magnetic force generated in the coil, Wherein the drones are separated from the droning structure.
17. The method of claim 16,
The fastening portion is the second connection line,
Wherein the fixing portion includes a rod portion through which the second connecting line is wound, a through structure having a through hole having an electric wire therein, the through-hole penetrating through the second connecting line, And a wire connected between the drone battery sections,
When the drone control device receives the dronesignal signal, a current flows through the wire, heat is generated in the electric wire provided in the through hole, and heat generated in the electric wire causes the electric current flowing through the through- Wherein the drones are separated from the drone mounting structure by cutting the two connecting lines.
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CN110979753B (en) * 2019-11-01 2022-09-09 中国科学院空天信息创新研究院 Aerostat carries on planet sampling reentry module and retrieves experimental electrical system
KR102405606B1 (en) * 2021-11-30 2022-06-07 베셀에어로스페이스 주식회사 Detachable tethering drone system

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