Field monitoring station convenient for unmanned aerial vehicle ground disaster patrol

Abstract

The field monitoring station comprises a fixing rod and at least one parking apron mechanism, the parking apron mechanism comprises at least two parking aprons arranged up and down, each parking apron comprises a fixing plate and a connecting rod arranged on the side, close to the fixing rod, of the fixing plate, a parking plate is connected to the fixing plate in a sliding mode, and the parking plate is connected to the connecting rod in a sliding mode. The parking plate slides through a sliding plate arranged on the fixing plates, the upper fixing plate and the lower fixing plate are connected through a first telescopic rod, a rain baffle is arranged at the top end of the telescopic rod, and the sliding plate is connected with a driving part; the sliding plate is arranged on the fixed plate, the driving part drives the sliding plate to slide, so that the position of the parking plate is adjusted, when the unmanned aerial vehicle lands, the sliding plate slides outwards, the unmanned aerial vehicle is retracted into the sliding plate after being stably parked, the unmanned aerial vehicle is located in the range of the rain baffle, external environment interference is reduced, and the unmanned aerial vehicle is effectively protected; and according to unmanned aerial vehicles with different heights, the first telescopic rods are adjusted, so that the distance between the two fixing plates is adjusted, and the application range is wide.

Description

Technical Field

[0001] This utility model relates to the field of unmanned aerial vehicle (UAV) technology, and in particular to a field monitoring station that facilitates UAV-based disaster patrols. Background Technology

[0002] A drone-based geological disaster patrol and monitoring station is a site that uses drone technology to patrol and monitor geological disasters. It is mainly used for regular or irregular patrols and monitoring of potential geological disaster sites, as well as for emergency monitoring and rescue command when disasters occur. It usually consists of two main parts: a drone and a landing platform. The drone is responsible for detecting potential geological disasters, and the landing platform is used for the drone to land and rest.

[0003] Currently, conventional helipads are relatively simple in structure to facilitate drone landing, usually consisting of only a landing platform without external rain protection facilities. This limits the helipads to meeting only the basic needs of drones for short-term rest, resulting in significant functional limitations. During geological disaster field patrols, drones may encounter sudden rain and hail. However, helipads with only a simple landing platform cannot provide shelter and protection for drones, severely impacting their normal use in complex weather conditions. Utility Model Content

[0004] This utility model aims to provide a field monitoring station that facilitates unmanned aerial vehicle (UAV) disaster patrol. The position of the parking plate is adjusted by a sliding plate of the landing pad mechanism. The plate slides out when the UAV lands and retracts after it comes to a stop, keeping the UAV inside the rain shelter, reducing interference from the external environment and effectively protecting the UAV.

[0005] Therefore, the technical solution adopted by this utility model is as follows: a field monitoring station for easy UAV disaster patrol, including a fixed pole and at least one landing pad mechanism on the fixed pole for parking the UAV body. The landing pad mechanism includes at least two landing pads arranged vertically. Each landing pad includes a fixed plate and a connecting rod arranged on the side of the fixed plate near the fixed pole. The connecting rod is connected to the fixed pole. A parking plate is slidably connected to the fixed plate. The parking plate slides through a sliding plate arranged on the fixed plate. The two fixed plates are connected by a first telescopic rod. A rain shield is provided at the top of the telescopic rod. A driving component is connected to the sliding plate.

[0006] More preferably, the driving component is a servo motor, and a solar panel is laid on the top of the fixing rod, which is used to power the servo motor.

[0007] Further preferably, the drone body is fixedly provided with a support leg mechanism, the support leg mechanism including a support leg body, a groove is opened at the middle of the outer side of the support leg body, a second telescopic rod is provided in the groove, the lower end of the second telescopic rod is fixedly connected to a sliding leg, a retractable spring power connection line connected to the sliding leg is also provided in the groove, a transmitting coil plate is provided on the parking plate, a receiving coil block for matching the receiving transmitting coil plate is fixedly provided at the lower end of the sliding leg, the receiving coil block is connected to the spring power connection line, and the solar panel is used to power the transmitting coil plate.

[0008] More preferably, the fixing rod is provided with an inverter box and a storage box connected to the solar panel.

[0009] More preferably, the sliding plate is provided with slide rails on both sides for the parking plate to slide on the fixed plate.

[0010] More preferably, the lower end of the fixing rod is fixedly connected to an installation plate, the installation plate is connected to the ground by anchors, and the front and rear sides of the lower end of the fixing rod are connected to a support frame by bolts, the bottom of the support frame is connected to the ground by anchors.

[0011] The beneficial effects of this utility model are as follows: By setting a sliding plate on the fixed plate and driving the sliding plate to slide, the position of the parking plate can be adjusted. When the drone lands, the sliding plate slides outward. After the drone stops, the sliding plate is retracted, so that the drone is within the range of the rain shield, reducing external environmental interference and effectively protecting the drone. The distance between the two fixed plates can be adjusted by adjusting the first telescopic rod according to the drone at different heights, and it has a wide range of applications. Attached Figure Description

[0012] Figure 1 This is a schematic diagram of the structure of the present invention. Figure 1 ;

[0013] Figure 2 This is a schematic diagram of the structure of the present invention. Figure 2 ;

[0014] Figure 3 This is a schematic diagram of the structure of the helipad mechanism of this utility model;

[0015] Figure 4 This is a schematic diagram of the structure of the UAV body of this utility model;

[0016] Figure 5 This is an enlarged structural diagram of part A of this utility model. Detailed Implementation

[0017] The present invention will be further described below with reference to the accompanying drawings and embodiments.

[0018] like Figure 1-5 As shown, a field monitoring station that facilitates UAV disaster patrol includes a fixed pole 1 and at least one landing pad mechanism 5 on the fixed pole 1 for parking the UAV body 6. In this embodiment, a landing pad mechanism 5 is provided on the left and right sides of the fixed pole 1 respectively.

[0019] The helipad mechanism 5 includes at least two helipads arranged vertically. In this embodiment, two helipads are arranged vertically. Each helipad includes a fixed plate 501 and a connecting rod 502 located on the side of the fixed plate 501 near the fixed rod 1. The connecting rod 502 is connected to the fixed rod 1. A parking plate 504 is slidably connected to the fixed plate 501. The parking plate 504 slides through a sliding plate 503 located on the fixed plate 501. The two fixed plates 501 are connected by a first telescopic rod 506. A rain shield 507 is provided at the top of the telescopic rod. A driving component is connected to the sliding plate 503. The sliding plate 503 is connected to the fixed plate 501 by a screw. The screw and the driving component form a motor screw structure on the fixed plate 501. The output end of the driving component drives the screw to rotate, causing the sliding plate 503 to slide on the fixed plate 501. The sliding plate 503 has slide rails on both sides for the parking plate 504 to slide on the fixed plate 501. The slide rails on the fixed plate 501 ensure the stability of the sliding plate 503 when it slides.

[0020] The driving component uses a servo motor 10, and a solar panel 11 is installed at the top of the fixing rod 1. The solar panel 11 powers the servo motor 10. An inverter box 9 and a storage tank 8 connected to the solar panel 11 are installed on the fixing rod 1. The solar panel 11 at the top of the fixing rod 1 generates electricity through solar energy, which is then stored through the inverter box 9 and the storage tank 8. The solar panel 11 can also power the servo motor 10, ensuring the normal operation of the sliding plate 503.

[0021] The drone body 6 is fixedly equipped with a support leg mechanism 7, which includes a support leg body 701. A groove 702 is formed at the middle of the outer side of the support leg body 701. A second telescopic rod 703 is installed in the groove 702. A sliding leg 704 is fixedly connected to the lower end of the second telescopic rod 703. A retractable spring power connection line 706 connected to the sliding leg 704 is also installed in the groove 702. A transmitting coil plate 505 is installed on the parking plate 504. A receiving coil block 705 matching the receiving coil plate 505 is fixedly installed at the lower end of the sliding leg 704. The receiving coil block 705 is connected to the spring power connection line. A solar panel 11 is used to power the transmitting coil plate 505. The solar panel 11 is connected to the transmitting coil plate 505, and the transmitting coil plate 505 powers the receiving coil block below the drone body 6. The receiving coil block is connected to the spring power connection line to ensure the drone's endurance.

[0022] A main control box 2 is installed on the fixed rod 1. The main control box 2 contains a control module for controlling the start-up or shutdown of the inverter box 9, the storage box 8, the servo motor 10, and the transmitting coil board 505, which are powered by the solar panel 11. Controlling them through the main control box 2 is more convenient.

[0023] A mounting plate 3 is fixedly connected to the lower end of the fixed rod 1. The mounting plate 3 is connected to the ground by anchor bolts. Support frames 4 are bolted to the front and rear sides of the lower end of the fixed rod 1. The bottom of the support frames 4 is connected to the ground by anchor bolts. The fixed rod 1 is fixed by the mounting plate 3 and the support frames 4 to improve the stability of the fixed rod 1. The mounting plate 3 and the support frames 4 are connected to the ground by anchor bolts to ensure the strength of the connection.

[0024] By setting a sliding plate 503 on the fixed plate 501 and driving the sliding plate 503 to slide, the position of the parking plate 504 can be adjusted. When the drone lands, the sliding plate 503 slides outward. After the drone stops, the sliding plate 503 is retracted, so that the drone is within the range of the rain shield 507, reducing external environmental interference and effectively protecting the drone. The distance between the two fixed plates 501 can be adjusted by adjusting the first telescopic rod 506 according to the drone at different heights, and it has a wide range of applications.

[0025] Although embodiments of the present invention have been shown and described, those skilled in the art will understand that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the present invention, the scope of which is defined by the claims and their equivalents.

Claims

1. A field monitoring station for facilitating unmanned ground disaster patrol, characterized in that: The utility model provides a kind of unmanned aerial vehicle parking device, including fixed pole (1) and at least one setting fixed pole (1) for parking unmanned aerial vehicle body (6) parking apron mechanism (5), the parking apron mechanism (5) includes at least two upper and lower parking aprons, the parking apron includes fixed plate (501) and the connecting rod (502) being arranged at the side of fixed plate (501) close to fixed pole (1), the connecting rod (502) is connected with fixed pole (1), slidingly connected with parking plate (504) on the fixed plate (501), the parking plate (504) is slid by being arranged on the fixed plate (501) sliding plate (503), the first telescopic rod (506) is connected to the two fixed plates (501) up and down, the telescopic rod top end is provided with rain baffle (507), the sliding plate (503) is connected with driving element.

2. The field monitoring station for facilitating unmanned aerial ground disaster inspection of claim 1, wherein: The driving element uses servo motor (10), the top of the fixed pole (1) is paved with solar panel (11), and the solar panel (11) is used to power the servo motor (10).

3. The field monitoring station of claim 2, wherein: The unmanned aerial vehicle body (6) is fixedly provided with a support leg mechanism (7), the support leg mechanism (7) includes a support leg body (701), a sliding groove (702) is formed in the middle of the outer side of the support leg body (701), a second telescopic rod (703) is arranged in the sliding groove (702), the lower end of the second telescopic rod (703) is fixedly connected with a sliding leg (704), a telescopic spring power supply connecting line (706) connected with the sliding leg (704) is further arranged in the sliding groove (702), a transmitting coil plate (505) is arranged on the parking plate (504), a receiving coil block (705) matched with the transmitting coil plate (505) is fixedly arranged at the lower end of the sliding leg (704), the receiving coil block (705) is connected with the spring power supply line (706), and the solar panel (11) is used to power the transmitting coil plate (505).

4. The field monitoring station of claim 3, wherein: The fixed pole (1) is provided with an inverter box (9) and a storage box (8) connected with the solar panel (11).

5. The field monitoring station of claim 1, wherein: The sliding plate (503) is provided with a slide rail on both sides for sliding the parking plate (504) on the fixed plate (501).

6. The field monitoring station of claim 1, wherein: The lower end of the fixed pole (1) is fixedly connected with a mounting plate (3), the mounting plate (3) is connected to the ground by anchor nails, and the lower end of the fixed pole (1) is provided with a support frame (4) on the front and back sides through bolts, and the bottom of the support frame (4) is connected to the ground by anchor nails.

Images