Low-altitude remote sensing monitoring device based on combination of 3S technology and unmanned aerial vehicle

Abstract

The utility model discloses a low-altitude remote sensing monitoring device based on the combination of 3S technology and unmanned aerial vehicle, which comprises a box body, a top cover mechanism and a built-in carrier mechanism, the top cover mechanism is arranged at the top end of the box body, the built-in carrier mechanism is arranged in the box body, the built-in carrier mechanism comprises side plates, sliding chutes, sliding plates and convex blocks, and the side plates are arranged in the sliding chutes. And a sliding groove is formed in the side plate, a sliding plate is installed on one side of the sliding groove, and a protruding block is installed at the joint of the sliding plate and the interior of the sliding groove. According to the low-altitude remote sensing monitoring device combined with the unmanned aerial vehicle based on the S technology, a set of sliding grooves are formed in the side plates, a set of sliding plates are installed in the side plates, and the sliding plates freely slide in the sliding grooves through protruding blocks, so that the sliding plates slide along the interiors of the side plates; the sliding plate slides upwards, and after the unmanned aerial vehicle (5) is placed in the fixed box, the movable cover is rotated to be fixed to the top end of the fixed box.

Description

Technical Field

[0001] The utility model relates to the technical field of combining 3S technology with unmanned aerial vehicles, in particular to a low-altitude remote sensing monitoring device based on the combination of 3S technology and unmanned aerial vehicles. Background Art

[0002] Traditional low-altitude remote sensing monitoring devices for drones make it difficult to store and protect monitoring equipment, which makes the equipment prone to collision and damage. It is also not easy to store the drone inside the low-altitude remote sensing monitoring device, and the equipment may be lost during movement, affecting the user's normal use. Utility Model Content

[0003] The purpose of the utility model is to provide a low-altitude remote sensing monitoring device based on the combination of S technology and unmanned aerial vehicle to solve the problems raised in the above-mentioned background technology.

[0004] To achieve the above-mentioned purpose, the utility model provides the following technical solutions: a low-altitude remote sensing monitoring device based on S technology combined with an unmanned aerial vehicle, comprising a box body, a top cover mechanism and a built-in carrier mechanism, the top of the box body is provided with a top cover mechanism, and the interior of the box body is provided with a built-in carrier mechanism, the built-in carrier mechanism comprises a side panel, a slide groove, a sliding plate and a protrusion, and the interior of the side panel is provided with a slide groove, and one side of the slide groove is provided with.

[0005] Furthermore, a placement mechanism is provided inside the box, and the box and the top cover mechanism are connected by a hinge, and the built-in carrier mechanism and the box are connected by a sliding connection.

[0006] Furthermore, the placement mechanism and the box body are snap-fitted together, and the diameter of the placement mechanism is consistent with the diameter of the box body.

[0007] Furthermore, the sliding plate is slidably connected to the side plate via the protrusion, and a group of sliding grooves are provided inside the side plate.

[0008] Furthermore, the top cover mechanism includes a fixed box and a movable cover, and the movable cover is provided on one side of the fixed box.

[0009] Furthermore, the placement mechanism includes a placement groove, an embedded block, a bearing bottom and a square groove, and the placement groove is provided with an embedded block inside, the bottom end of the embedded block is provided with a bearing bottom, and the bearing bottom is provided with a square groove inside.

[0010] Furthermore, the square groove is snap-connected with the placement groove through the embedding block, and the embedding block, the bearing bottom and the square groove are integrated.

[0011] Compared with the prior art, the beneficial effects of the utility model are as follows: the sliding plate slides freely inside the slide groove through the protrusion, so that the sliding plate slides along the inside of the side plate. When the rocker and other equipment need to be used, the sliding plate slides upward to ensure the normal use of the equipment. After placing the drone inside the fixed box, turn the movable cover to fix the movable cover on the top of the fixed box to protect the drone inside the equipment and prevent the equipment from falling during movement. Take the bearing bottom and snap the embedded block on the top of the bearing bottom into the inside of the placement groove, then take the drone and place it inside the square groove, so that the user can move the equipment easily and avoid forgetting the equipment. BRIEF DESCRIPTION OF THE DRAWINGS

[0012] Figure 1 It is a schematic diagram of the three-dimensional structure of the utility model;

[0013] Figure 2 This is a partially enlarged schematic diagram of the built-in carrier mechanism of the utility model;

[0014] Figure 3 It is a three-dimensional structural schematic diagram of the placement mechanism of the utility model.

[0015] In the figure: 1. Box body; 2. Top cover mechanism; 201. Fixed box; 202. Movable cover; 3. Built-in carrier mechanism; 301. Side panel; 302. Slide groove; 303. Sliding plate; 304. Bump; 4. Placement mechanism; 401. Placement groove; 402. Embedded block; 403. Bearing bottom; 404. Square groove; 5. UAV. DETAILED DESCRIPTION

[0016] like Figure 1-2As shown, a low-altitude remote sensing monitoring device based on 3S technology combined with a drone comprises a box body 1, a top cover mechanism 2 and a built-in carrier mechanism 3. The top cover mechanism 2 is arranged at the top of the box body 1, and the built-in carrier mechanism 3 is arranged inside the box body 1. The built-in carrier mechanism 3 comprises a side plate 301, a slide groove 302, a sliding plate 303 and a protrusion 304. The slide groove 302 is installed inside the side plate 301, and a sliding plate 303 is installed on one side of the slide groove 302. A protrusion 304 is installed at the internal connection between the sliding plate 303 and the slide groove 302. The box body 1 and the top cover mechanism 2 are hingedly connected, and the built-in carrier mechanism 3 is slidably connected to the box body 1. A placement mechanism 4 is arranged inside the box body 1, and the placement mechanism 4 and the box body 1 are snap-fitted, and the diameter of the placement mechanism 4 is consistent with the diameter of the box body 1. The sliding plate 303 is slidably connected to the side plate 301 through the protrusion 304, and a group of slide grooves 303 are opened inside the side plate 301. 2. A group of slide grooves 302 are opened inside the side panel 301, and a group of sliding plates 303 are installed inside the side panel 301. The sliding plates 303 slide freely inside the slide grooves 302 through the protrusions 304, so that the sliding plates 303 slide along the inside of the side panel 301. When it is necessary to use equipment such as a rocker, the sliding plates 303 are slid upward to ensure the normal use of the equipment. The top cover mechanism 2 includes a fixed box 201 and a movable cover 202, and a movable cover 202 is provided on one side of the fixed box 201. A group of hinge shafts are fixedly installed on one side of the fixed box 201, and a movable cover 202 is installed on the other side of the hinge shaft. The movable cover 202 can be movably rotated by the hinge shaft added on one side of the movable cover 202. After the user places the drone 5 inside the fixed box 201, the movable cover 202 is rotated to fix the movable cover 202 on the top of the fixed box 201, so as to protect the drone 5 inside the equipment and prevent it from falling during the movement of the equipment.

[0017] like Figure 3As shown, a low-altitude remote sensing monitoring device based on 3S technology combined with a drone, the placement mechanism 4 includes a placement slot 401, an embedded block 402, a bearing bottom 403 and a square slot 404, and the placement slot 401 is provided with an embedded block 402, the bottom end of the embedded block 402 is provided with a bearing bottom 403, and the bearing bottom 403 is provided with a square slot 404, the square slot 404 is connected to the placement slot 401 by a snap-fit ​​connection between the embedded block 402, and the embedded block 402, the bearing bottom 403 and the square slot 404 are integrated, the size of the placement groove 401 is consistent with the size of the embedding block 402, and a group of square grooves 404 are opened inside the supporting bottom 403, and the drone 5 can be placed inside the square grooves 404. When the sliding plate 303 slides to the lowest point, take the supporting bottom 403 and snap the embedding block 402 on the top of the supporting bottom 403 into the placement groove 401, and then take the drone 5 and place it inside the square groove 404, so that the user can move the equipment conveniently to avoid forgetting the equipment.

[0018] Working principle: first, a group of sliding plates 303 are installed inside the side plate 301, and the sliding plates 303 slide freely inside the slide groove 302 through the protrusions 304, so that the sliding plates 303 slide along the inside of the side plate 301. When it is necessary to use equipment such as a joystick, the sliding plates 303 are slid upward, and the computer is turned on to monitor the drone. Then, a group of square grooves 404 are opened inside the bearing bottom 403, and the drone 5 can be placed inside the square grooves 404. When the sliding plate 303 slides to the lowest point, the bearing bottom 403 is taken out and the embedded block 402 at the top of the bearing bottom 403 is snapped into the inside of the placement groove 401, and then the drone 5 is taken out and placed inside the square groove 404. Finally, the movable cover 202 can be movably rotated through the hinge shaft added on one side of the movable cover 202. After the user places the drone 5 inside the fixed box 201, the movable cover 202 is rotated to fix the movable cover 202 on the top of the fixed box 201 to protect the drone 5 inside the device.

Claims

1. A low-altitude remote sensing monitoring device based on 3S technology combined with an unmanned aerial vehicle, comprising a box body (1), a top cover mechanism (2) and a built-in carrier mechanism (3), characterized in that: A top cover mechanism (2) is arranged at the top of the box body (1), and a built-in carrier mechanism (3) is arranged inside the box body (1), the built-in carrier mechanism (3) comprises a side plate (301), a slide groove (302), a sliding plate (303) and a protrusion (304), and the slide groove (302) is installed inside the side plate (301), and a sliding plate (303) is installed on one side of the slide groove (302), and a protrusion (304) is installed at the internal connection between the sliding plate (303) and the slide groove (302).

2. According to claim 1, a low-altitude remote sensing monitoring device based on 3S technology combined with an unmanned aerial vehicle is characterized in that: The box body (1) and the top cover mechanism (2) are connected by hinges, and the built-in carrier mechanism (3) and the box body (1) are connected by sliding.

3. According to claim 1, a low-altitude remote sensing monitoring device based on 3S technology combined with an unmanned aerial vehicle is characterized in that: A placement mechanism (4) is arranged inside the box (1), and the placement mechanism (4) and the box (1) are snap-fitted together, and the diameter of the placement mechanism (4) is consistent with the diameter of the box (1).

4. According to claim 1, a low-altitude remote sensing monitoring device based on 3S technology combined with an unmanned aerial vehicle is characterized in that: The sliding plate (303) is slidably connected to the side plate (301) via a protrusion (304), and a group of sliding grooves (302) are provided inside the side plate (301).

5. According to claim 1, a low-altitude remote sensing monitoring device based on 3S technology combined with an unmanned aerial vehicle is characterized in that: The top cover mechanism (2) comprises a fixed box (201) and a movable cover (202), and the movable cover (202) is arranged on one side of the fixed box (201).

6. The low-altitude remote sensing monitoring device based on 3S technology combined with an unmanned aerial vehicle according to claim 3 is characterized in that: The placement mechanism (4) comprises a placement groove (401), an embedded block (402), a bearing bottom (403) and a square groove (404), wherein the placement groove (401) is provided with an embedded block (402), the bottom end of the embedded block (402) is provided with a bearing bottom (403), and the bearing bottom (403) is provided with a square groove (404) inside.

7. The low-altitude remote sensing monitoring device based on 3S technology combined with an unmanned aerial vehicle according to claim 6 is characterized in that: The square groove (404) is snap-connected with the placement groove (401) via the embedding block (402), and the embedding block (402), the bearing bottom (403) and the square groove (404) are integrated.

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