Intelligent meteorological monitoring device

Abstract

The utility model discloses an intelligent meteorological monitoring device which comprises a monitoring body and an embedded part, the bottom of the monitoring body is provided with a connecting seat, and the connecting seat is provided with a plurality of connecting holes; the embedded part is embedded in mounting soil, and a plurality of connecting parts are arranged at the top of the embedded part; the plurality of connecting parts penetrate through the plurality of connecting holes in a one-to-one correspondence manner and then are fixed through locking parts; compared with the prior art, the embedded part is embedded in the installation soil, and the plurality of connecting parts penetrate through the plurality of connecting holes in a one-to-one correspondence manner and then are fixed through the locking parts, so that the monitoring body can be conveniently and quickly installed, and the monitoring body can be stably installed for a long time; the embedded part is embedded in the installation soil, no matter how hard the soil texture is, the installation process of the monitoring body can be rapidly completed, and the multiple connecting parts only need to penetrate through the multiple connecting holes in a one-to-one correspondence mode and then are fixed through the locking parts.

Description

Technical Field

[0001] The utility model relates to the technical field of meteorological monitoring equipment, in particular to an intelligent meteorological monitoring device. Background Art

[0002] Meteorological monitoring stations are used to monitor weather conditions in real time so that people can master weather changes.

[0003] For example, a meteorological parameter acquisition device disclosed in CN220855226U includes: a column rod, a bearing plate is arranged at the bottom thereof, a plurality of annularly distributed support plates are hinged to the outer peripheral side of the bearing plate, a support rod is hinged to each of the plurality of support plates, the ends of the plurality of support rods are hinged to a movable cylinder movably sleeved on the column rod, a fixing member for fixing the movable cylinder is arranged on the column rod, and a first anchor rod is movably inserted into the end of each of the plurality of support plates; an equipment box is arranged at the top of the column rod, a mounting plate is arranged on the top of the equipment box, a wind direction sensor, a wind speed sensor, a temperature and humidity sensor and a light sensor are arranged on the mounting plate, and a central processor and a wireless transmission module are arranged in the equipment box.

[0004] In order to be stably installed, the above meteorological parameter acquisition device places the bearing plate on the soil, slides the movable cylinder along the column rod to drive the plurality of support rods to respectively abut against the plurality of support plates, so that the plurality of support plates respectively rotate along their hinge points, the plurality of support plates are placed on the soil surface, and then the movable cylinder is fixed to the column rod through the fixing member, the bearing plate and the support plates are connected to form a base as a whole, and then the plurality of first anchor rods respectively movably penetrate through the plurality of support plates and the first anchor rods are inserted into the soil to complete the installation; however, the structure of the above meteorological parameter acquisition device connected to the ground has poor stability during long-term installation and is not easy to install in a ground with a hard texture. Content of the Utility Model

[0005] Aiming at the deficiencies in the prior art, the purpose of the present utility model is to provide an intelligent meteorological monitoring device to solve the problems in the prior art that the structure of the existing meteorological parameter acquisition device connected to the ground has poor stability during long-term installation and is not easy to install in a ground with a hard texture.

[0006] To achieve the above purpose, the present utility model adopts the following technical solution: an intelligent meteorological monitoring device, including:

[0007] A monitoring body, a connecting seat is arranged at the bottom of the monitoring body, and a plurality of connecting holes are arranged on the connecting seat;

[0008] Embedded parts, the embedded parts are embedded in the installation soil and have a plurality of connecting parts at the top, and after the plurality of connecting parts respectively pass through the plurality of connecting holes, they are all fixed by locking parts.

[0009] Compared with the prior art, the utility model has the following beneficial effects:

[0010] The intelligent meteorological monitoring device facilitates and quickly installs the monitoring body by embedding the embedded part in the installation soil and then passing a plurality of connecting parts through a plurality of connecting holes one by one and fixing them with locking parts, which is beneficial to stably install the monitoring body for a long time; and embedding the embedded part in the installation soil, no matter how hard the soil texture is, the installation of the monitoring body can be quickly completed during the installation process, only requiring a plurality of connecting parts to pass through a plurality of connecting holes one by one and then fixing them with locking parts. Description of the Drawings

[0011] Figure 1 Structural schematic diagram of an embodiment of the utility model Figure 1 ;

[0012] Figure 2 Structural schematic diagram of an embodiment of the utility model Figure 2 .

[0013] The reference numerals in the drawings of the specification include: monitoring body 1, support rod 11, lightning protection system 12, data acquisition and control box 13, meteorological condition display screen 14, solar photovoltaic system 15, rainfall sensor 16, temperature sensor 17, wind direction sensor 18, wind speed sensor 19, embedded part 2, lower frame body 21, polygonal ring 211, second rod 212, upper frame body 22, upper plate 221, connecting strip 222, weight reduction hole 223, connecting rod 23, connecting seat 3, connecting hole 4, first connecting sleeve 5, first support frame 6, connecting frame 7. Detailed Description of the Invention

[0014] The following further details the present utility model through specific embodiments:

[0015] In order to stably install the existing meteorological parameter acquisition device, the bearing plate is placed on the soil, the movable cylinder is slidably adjusted along the column rod, driving a plurality of support rods to respectively abut against a plurality of support plates, so that the plurality of support plates respectively rotate along their hinge points, the plurality of support plates are placed on the soil surface, and then the movable cylinder and the column rod are fixed by fixing parts, connecting the bearing plate and the support plates to form a base as a whole, and then a plurality of first anchor rods are respectively movably penetrated through the plurality of support plates and the first anchor rods are inserted into the soil to complete the installation; however, the structure of the existing meteorological parameter acquisition device connected to the ground has poor stability during long-term installation and is not easy to install in the ground with a hard texture. To solve this problem, as Figure 1 and Figure 2As shown in the figure, an embodiment of the present utility model provides an intelligent meteorological monitoring device, which includes a monitoring body 1 and an embedded part 2. A connecting seat 3 is arranged at the bottom of the monitoring body 1, and a plurality of connecting holes 4 are arranged on the connecting seat 3; the embedded part 2 is embedded in the installation soil, and the top of the embedded part 2 has a plurality of connecting parts, and the plurality of connecting parts pass through the plurality of connecting holes 4 one by one and are fixed by locking parts.

[0016] The intelligent meteorological monitoring device facilitates and quickly installs the monitoring body 1 by embedding the embedded part 2 in the installation soil, and then the plurality of connecting parts pass through the plurality of connecting holes 4 one by one and are fixed by locking parts, which is beneficial to stably install the monitoring body 1 for a long time; and embedding the embedded part 2 in the installation soil, no matter how hard the soil texture is, the installation of the monitoring body 1 can be quickly completed during the installation process, only requiring the plurality of connecting parts to pass through the plurality of connecting holes 4 one by one and then be fixed by locking parts.

[0017] To better understand this solution, the structures such as the monitoring body 1 and the embedded part 2 will be further optimized below.

[0018] As Figure 1 and Figure 2 shown, according to another embodiment of the present utility model, in the intelligent meteorological monitoring device, a plurality of the connecting holes 4 are coplanar and each connecting hole 4 is strip-shaped.

[0019] In this embodiment:

[0020] The number of the connecting holes 4 and the connecting parts is four. Each connecting hole 4 is designed to be strip-shaped, specifically, each connecting hole 4 is designed to be in a runway shape, so that there is a certain moving space after the four connecting parts pass through the four connecting holes 4 one by one, ensuring that the four connecting parts can all pass through the corresponding connecting holes 4 and be fixed by locking parts; if the size of the connecting hole 4 just meets the requirement for the connecting part to pass through, when there is a certain amount of error in the distribution of the four connecting parts, the four connecting parts may have problems that they cannot all pass through the corresponding connecting holes 4 for connection.

[0021] As Figure 1 and Figure 2 shown, according to another embodiment of the present utility model, in the intelligent meteorological monitoring device, the embedded part 2 includes a lower frame body 21 and an upper frame body 22. The upper frame body 22 and the lower frame body 21 are arranged facing each other and are connected by a plurality of connecting rods 23. One end of the plurality of connecting rods 23 passing through the upper frame body 22 is a plurality of connecting parts.

[0022] In this embodiment:

[0023] The embedded part 2 is mainly composed of a lower frame body 21, an upper frame body 22 and a plurality of connecting rods 23, and has sufficient structural strength; during the embedding process, concrete is poured to fill inside and outside the embedded part 2 to ensure the stability of the embedded part 2 after embedding.

[0024] When the embedded part 2 is connected to the connecting seat 3, specifically, a plurality of connecting rods 23 pass through the corresponding connecting holes 4 and are fixed by locking parts; the locking parts here can be nuts threadedly connected to the connecting rods 23.

[0025] Among them, the number of the connecting rods 23 is specifically four in this embodiment.

[0026] Based on the above scheme:

[0027] First is the lower frame body 21.

[0028] The lower frame body 21 includes a polygonal ring 211, the polygonal ring 211 is formed by connecting a plurality of first rods end to end, and a plurality of first connecting holes 4 for the corresponding connecting rods 23 to pass through and connect are formed on the polygonal ring 211. A plurality of second rods 212 are cross-arranged inside the polygonal ring 211. Here, the polygonal ring 211 is specifically a quadrilateral ring, the first connecting holes 4 are also four and are distributed at the four corners of the quadrilateral ring, and there are two second rods 212 and they are distributed along the diagonal of the quadrilateral ring inside the quadrilateral ring to ensure that the lower frame body 21 has sufficient structural strength.

[0029] Among them, the first connecting holes 4 are all threaded holes, and the connecting rods 23 are directly threadedly connected to the corresponding first connecting holes 4 to ensure stable and convenient connection.

[0030] Second is the upper frame body 22.

[0031] The upper frame body 22 includes an upper plate 221 and connecting strips 222. The upper plate 221 is provided with a plurality of second connecting holes 4 for the corresponding connecting rods 23 to pass through and connect; at least one connecting strip 222 is connected between two of the connecting rods 23.

[0032] Specifically, the upper plate 221 is a square plate, and the number of the second connecting holes 4 is four; after the connecting rods 23 pass through the corresponding second connecting holes 4, they are fixed by two nuts connected to the connecting rods 23, and the upper plate 221 is clamped between the two nuts; a gasket sleeved on the connecting rod 23 can also be provided between each nut and the upper plate 221.

[0033] Among them, there are two connecting bars 222, and the two connecting bars 222 can be arranged in a cross shape. The four connecting rods 23 pass through the four ends formed by the two connecting bars 222 one by one and then pass through the four second connecting holes 4. And three nuts are connected to one end of each connecting rod 23. One end of the connecting bar 222 is located between the two nuts at the bottom side for limiting and fixing, and the upper plate 221 is located between the two nuts at the top side for limiting and fixing. Ensure the stable connection between the upper frame body 22 and the connecting rod 23.

[0034] Furthermore, a weight-reducing hole 223 is formed in the middle of the upper plate 221.

[0035] As Figure 1 and Figure 2 shown, according to another embodiment of the present invention, the intelligent meteorological monitoring device, wherein the monitoring body 1 includes a support rod 11, a lightning protection system 12, a monitor, a data acquisition and control box 13, a meteorological situation display screen 14, and a solar photovoltaic system 15; wherein, the support rod 11 is arranged in the vertical direction and its bottom end is fixedly connected to the connection seat 3, the lightning protection system 12 is arranged at the top end of the support rod 11, the monitor is arranged on the support rod 11, the data acquisition and control box 13 is arranged on the support rod 11 and is connected to the monitor, the meteorological situation display screen 14 is arranged on the support rod 11 and is connected to the data acquisition and control box 13, and the solar photovoltaic system 15 is arranged on the support rod 11 and is connected to the data acquisition and control box 13, the meteorological situation display screen 14 and the monitor.

[0036] In this embodiment:

[0037] In order to strengthen the connection stability of the support rod 11 on the connection seat 3, a plurality of strengthening blocks are connected between the support rod 11 and the connection seat 3, and the plurality of strengthening blocks are circumferentially arranged on the outer side of the support rod 11.

[0038] The above lightning protection system 12, monitor, data acquisition and control box 13, meteorological situation display screen 14, and solar photovoltaic system 15 are all existing systems or structures. Their combined application here is to detect meteorological data through the monitor and transmit the detected meteorological data to the data acquisition and control box 13. The data acquisition and control box 13 processes the detected meteorological data and displays it on the meteorological situation display screen 14, so that the staff can directly read the meteorological situation on the meteorological situation display screen 14. The solar photovoltaic system 15 can obtain solar energy and convert it into electric energy to provide electric energy for the use of the monitor, the data acquisition and control box 13, and the meteorological situation display screen 14. The monitor, the data acquisition and control box 13, and the meteorological situation display screen 14 can also be connected to other power sources.

[0039] The lightning protection system 12 cooperates with the support rod 11 and the embedded part 2, and can introduce the generated lightning into the ground to play a role in lightning protection.

[0040] Among them, the monitor includes a rain sensor 16, a temperature sensor 17, a wind direction sensor 18, and a wind speed sensor 19 connected to the solar photovoltaic system 15 and the data acquisition control box 13.

[0041] The rain sensor 16 is used to monitor the rainfall, the temperature sensor 17 is used to monitor the temperature, the wind direction sensor 18 is used to monitor the wind direction, and the wind speed sensor 19 is used to monitor the wind speed. Then, the data of the monitored rainfall, temperature, wind direction, and wind speed are transmitted to the data acquisition control box 13. After processing these data, the data acquisition control box 13 displays them on the meteorological situation display screen 14, so that the staff can directly read the meteorological situation on the meteorological situation display screen 14.

[0042] As Figure 1 and Figure 2 shown, according to another embodiment of the present invention, in the intelligent meteorological monitoring device, a first connecting sleeve 5 is connected to the support rod 11. The first connecting sleeve 5 has two connecting holes 4 arranged separately. A first support frame 6 extending along its outer side is fixedly inserted into each connecting hole 4. Installation holes are opened along the length direction at the tops of the two first support frames 6. The wind direction sensor 18 and the wind speed sensor 19 are respectively connected to the tops of the two first support frames 6 through connecting frames 7. The connecting frames 7 are slidably arranged along the length direction of the corresponding installation holes and are locked by a locking part.

[0043] Here, through the cooperation of the first connecting sleeve 5 and the two first support frames 6, a bracket for connecting the wind direction sensor 18 and the wind speed sensor 19 to the support rod 11 is formed to ensure the stable installation of the wind direction sensor 18 and the wind speed sensor 19.

[0044] The locking part can be a locking bolt to stably fix the connecting frame 7 on the corresponding first support frame 6, so as to stably install the wind direction sensor 18 or the wind speed sensor 19 on the corresponding first support frame 6. Among them, when the locking bolt is not threadedly connected to the first support frame 6, it can slide in the installation hole until the connecting frame 7 moves to a suitable position on the corresponding first support frame 6, and then the locking bolt is screwed into the first support frame 6 to lock.

[0045] Among them, the first connecting sleeve 5 includes two half sleeves. After the two half sleeves are clamped on the support rod 11, they are locked by a fixing member. The two connecting holes 4 are respectively located at the two ends of the two half sleeves after connection. The two half sleeves are stably connected to the support rod 11 through the fixing member, and connecting holes 4 are formed at both ends of the two half sleeves after connection, which is convenient for connecting the first support frame 6. The fixing member can be a plurality of cooperating bolts and nuts.

[0046] As Figure 1 and Figure 2As shown, according to another embodiment of the present utility model, for the intelligent meteorological monitoring device, the data acquisition control box 13 and the meteorological actuality display screen 14 are both fixedly connected to the support rod 11 through a plurality of hoop fasteners; in order to improve the connection stability of the hoop fasteners on the support rod 11, positioning columns for abutting against the outer wall of the support rod 11 can be connected to the inner sides of the hoop fasteners; after the hoop fasteners are connected, the positioning columns squeeze the outer wall of the support rod 11 to be embedded in the positioning grooves formed by extrusion on the outer wall of the support rod 11.

[0047] As Figure 1 and Figure 2 shown, according to another embodiment of the present utility model, for the intelligent meteorological monitoring device, the rain sensor 16, the temperature sensor 17 and the solar photovoltaic system 15 are all connected to the support rod 11 through mounting brackets, and the mounting brackets can be tripod or cross bars, etc., to stably connect them according to the installation requirements of the rain sensor 16, the temperature sensor 17 or the solar photovoltaic system 15.

[0048] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of the present utility model and not to limit them. Although the present utility model has been described in detail with reference to the preferred embodiments, those of ordinary skill in the art should understand that the technical solutions of the present utility model can be modified or equivalently replaced without departing from the purpose and scope of the technical solutions of the present utility model, and they should all be covered within the scope of the claims of the present utility model.

Claims

1. An intelligent meteorological monitoring device, characterized in that, Comprising: A monitoring body, a connecting seat is arranged at the bottom of the monitoring body, and a plurality of connecting holes are arranged on the connecting seat; Embedded parts, the embedded parts are embedded in the installation soil and have a plurality of connecting parts at the top, and the plurality of connecting parts pass through the plurality of connecting holes one by one and are fixed by locking parts.

2. An intelligent meteorological monitoring device according to claim 1, characterized in that: The plurality of connecting holes are coplanar and each connecting hole is strip-shaped.

3. An intelligent meteorological monitoring device according to claim 1 or 2, characterized in that, The embedded parts include: A lower frame body; An upper frame body, the upper frame body and the lower frame body are arranged facing each other and are connected by a plurality of connecting rods therebetween, and the plurality of connecting rods passing through one end of the upper frame body are the plurality of connecting parts.

4. An intelligent meteorological monitoring device according to claim 3, characterized in that, The lower frame body includes: A polygonal ring, the polygonal ring is formed by connecting a plurality of first rods end to end, and a plurality of first connecting holes for the corresponding connecting rods to pass through and connect are formed on the polygonal ring, and a plurality of second rods are cross-arranged inside the polygonal ring.

5. An intelligent meteorological monitoring device according to claim 3, characterized in that, The upper frame body includes: An upper plate, a plurality of second connecting holes for the corresponding connecting rods to pass through and connect are formed on the upper plate; Connecting strips, at least one connecting strip is connected between two of the connecting rods.

6. The intelligent meteorological monitoring device according to claim 5, characterized in that: A weight-reducing hole is formed in the middle of the upper plate.

7. An intelligent meteorological monitoring device according to claim 1, characterized in that, The monitoring body includes: A support rod, the support rod is arranged in the vertical direction and its bottom end is fixedly connected to the connecting seat; A lightning protection system, the lightning protection system is arranged at the top of the support rod; A monitor, the monitor is arranged on the support rod; A data acquisition control box, the data acquisition control box is arranged on the support rod and is connected to the monitor; A meteorological condition display screen, the meteorological condition display screen is arranged on the support rod and is connected to the data acquisition control box; A solar photovoltaic system, the solar photovoltaic system is arranged on the support rod and is connected to the data acquisition control box, the meteorological condition display screen and the monitor.

8. An intelligent meteorological monitoring device according to claim 7, characterized in that, The monitor includes a rain sensor, a temperature sensor, a wind direction sensor and a wind speed sensor connected to the solar photovoltaic system and the data acquisition control box.

9. An intelligent meteorological monitoring device according to claim 8, characterized in that, A first connecting sleeve is connected to the support rod, the first connecting sleeve has two connecting holes arranged apart from each other, and a first support frame extending along its outer side is fixedly inserted in each connecting hole; Mounting holes are formed in the tops of the two first support frames along their lengths, and the wind direction sensor and the wind speed sensor are respectively connected to the tops of the two first support frames through connecting frames, and the connecting frames are slidably arranged along the lengths of the corresponding mounting holes and are locked by locking parts.

10. An intelligent meteorological monitoring device according to claim 9, characterized in that, The first connecting sleeve includes two half sleeves, the two half sleeves are clamped on the support rod and then locked by fixing parts, and the two connecting holes are respectively located at the two ends of the two half sleeves after connection.

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