Millimeter wave wind finding radar structure

Abstract

The utility model discloses a millimeter wave wind-finding radar structure, which comprises a radar body, the radar body is installed on external equipment, an installation mechanism is arranged on the radar body, and the installation mechanism comprises a heat dissipation mechanism, a fixing sleeve, an external pipe, a follow-up frame, a limiting piece, a limiting sleeve, a threaded sleeve, a clamping rod and an unfastening mechanism. The heat dissipation mechanism is connected to the radar body and the fixing sleeve in a matched mode, the external pipe is inserted into the fixing sleeve and connected to an external water supply device, the follow-up frame is provided with a limiting piece, and the millimeter wave wind measurement radar can be conveniently connected with and detached from the external water supply device through the design of the installation mechanism. An operator can quickly connect the radar body with a water supply system in a butt joint mode, meanwhile, the sealing performance of connection is ensured through the use of the sealing ring, the connection process is more stable through the arrangement of the limiting piece and the threaded sleeve, and the connection and disassembly processes are smoother through the interaction of the follow-up frame and the clamping rod.

Description

Technical Field

[0001] The utility model relates to the technical field of millimeter-wave wind measurement radar, and more specifically, it relates to a structure of a millimeter-wave wind measurement radar. Background Technique

[0002] Under the current technical conditions, as a high-precision meteorological monitoring device, the millimeter-wave wind measurement radar will generate a large amount of heat during long-term and high-intensity use. The effective dissipation of this heat is crucial for ensuring the normal operation of the radar and extending the service life of the device. However, most of the existing heat dissipation systems rely on water-cooling heat dissipation technology, and this heat dissipation method has certain inconveniences in practical applications. Specifically, the connection and disassembly process between the existing water-cooling heat dissipation system and the external water supply equipment is complex, which not only requires a lot of time and human resources, but also the frequent disassembly and assembly may cause damage to the device. These factors jointly affect the usability of the millimeter-wave wind measurement radar.

[0003] Due to this inconvenient connection and disassembly process, the maintenance and heat dissipation efficiency of the millimeter-wave wind measurement radar during high-intensity use are limited. The design defect of the heat dissipation system makes it difficult for the radar device to achieve fast and simple heat dissipation during continuous operation, which not only affects the stability and measurement accuracy of the device, but may also cause the device to overheat in extreme cases, thereby leading to failures or shortening the service life of the device. Content of the Utility Model

[0004] (I) Technical Problems to be Solved

[0005] In view of the problems existing in the prior art, the utility model provides a structure of a millimeter-wave wind measurement radar to solve the technical problems mentioned in the background technique.

[0006] (II) Technical Solutions

[0007] To achieve the above object, the utility model provides the following technical solution: A structure of a millimeter-wave wind measurement radar, including a radar body, the radar body is installed on an external device, an installation mechanism is arranged on the radar body, the installation mechanism includes a heat dissipation mechanism, a fixing sleeve, an external connecting pipe, a follower frame, a limiting piece, a limiting sleeve, a threaded sleeve, a clamping rod and a releasing mechanism. The heat dissipation mechanism is cooperatively connected to the radar body and the fixing sleeve. The external connecting pipe is inserted into the fixing sleeve, and the external connecting pipe is connected to an external water supply device. A limiting piece is installed on the follower frame, the limiting sleeve is slidably connected to the fixing sleeve, the limiting piece is stuck on the lower end surface of the limiting sleeve, the threaded sleeve is threadedly connected to the fixing sleeve, and the threaded sleeve abuts against the limiting sleeve. The clamping rod is installed on the follower frame, an annular groove is formed on the side wall of the external connecting pipe, and the clamping rod is inserted into the annular groove. The releasing mechanism is installed on the fixing sleeve.

[0008] The present utility model is further configured such that a plurality of sealing rings are coaxially provided on the lower end surface of the outer connecting pipe, and the plurality of sealing rings are respectively inserted into the fixing sleeve. This design ensures the sealing performance between the outer connecting pipe and the fixing sleeve, prevents moisture or other external substances from entering the connection, and protects the internal structure of the radar body.

[0009] The present utility model is further configured such that the unlocking mechanism includes an unlocking rod, the unlocking rod is respectively installed at the upper and lower ends of the follower frame, and a plurality of unlocking grooves are formed on the side wall of the outer connecting pipe. The unlocking rod abuts against the unlocking grooves. This configuration enables the operator to drive the unlocking grooves by rotating the unlocking rod, thereby realizing the rapid separation between the outer connecting pipe and the fixing sleeve, and improving the convenience of operation.

[0010] The present utility model is further configured such that a plurality of follower frames are provided, and a tension spring is respectively provided on each of the plurality of follower frames. The tension spring is connected to the side wall of the fixing sleeve. The function of the tension spring enables the follower frame to automatically adapt to the insertion and extraction of the outer connecting pipe during the connection process, provides a flexible connection mechanism, and maintains the stability of the connection.

[0011] The present utility model is further configured such that a plurality of anti-slip grooves are formed on the side wall of the outer connecting pipe, and the plurality of anti-slip grooves are respectively arranged at equal intervals. The design of the anti-slip grooves enhances the friction between the outer connecting pipe and the fixing sleeve, prevents relative sliding caused by vibration or external force during the connection process, and ensures the firmness of the connection.

[0012] The present utility model is further configured such that the heat dissipation mechanism includes a heat dissipation shell, heat dissipation fins and heat dissipation pipes. The heat dissipation shell is installed on the radar body, the heat dissipation fins are installed on the heat dissipation shell, the heat dissipation fins are attached to the radar body, and a plurality of heat dissipation pipes are provided. The plurality of heat dissipation pipes are respectively installed on the heat dissipation fins. This design enables the heat dissipation fins to be closely attached to the radar body, effectively conducts heat to the heat dissipation fins, and then transfers the heat to the heat dissipation water through the heat dissipation pipes, improving the heat dissipation efficiency.

[0013] The present utility model is further configured such that a water inlet shell and a water outlet shell are provided on the heat dissipation shell, and fixing sleeves are respectively installed on the water inlet shell and the water outlet shell. The configuration of the water inlet shell and the water outlet shell enables the heat dissipation water to flow into the heat dissipation pipes from one side and then flow out from the other side, forming a closed circulation system, and ensuring the continuity and stability of the heat dissipation process.

[0014] The present utility model is further configured such that a return shell is provided on the heat dissipation shell, and the return shell is communicated with the plurality of heat dissipation pipes. The design of the return shell forms a connected circulation path between the heat dissipation pipes, enables the heat dissipation water to flow smoothly between the heat dissipation pipes, and improves the overall performance of the heat dissipation system.

[0015] (III) Beneficial effects

[0016] Compared with the prior art, the utility model provides a millimeter-wave wind measurement radar structure, which has the following beneficial effects:

[0017] 1. The design of the installation mechanism enables the millimeter-wave wind measurement radar to be conveniently connected and disassembled with external water supply equipment. Through the combination of the external connection pipe and the fixing sleeve, the operator can quickly dock the radar body with the water supply system. At the same time, the use of the sealing ring ensures the tightness of the connection. The configuration of the limit piece and the threaded sleeve makes the connection process more stable, and the interaction between the follower frame and the clamping rod makes the connection and disassembly process smoother.

[0018] 2. The design of the clamping mechanism realizes the firm connection between the external connection pipe and the fixing sleeve. Through the cooperation of the annular groove and the clamping rod, the external connection pipe can be stably fixed in the fixing sleeve, preventing displacement or loosening during use. At the same time, the action of the tension spring enables the clamping rod to automatically adapt to the insertion and extraction of the external connection pipe, improving the flexibility and stability of the connection.

[0019] 3. The design of the heat dissipation mechanism effectively dissipates the heat generated by the radar body. Through the combination of the heat dissipation shell, heat dissipation fins and heat dissipation pipes, the heat can be conducted from the radar body to the heat dissipation fins, and then transferred to the heat dissipation water through the heat dissipation pipes. The configuration of the water inlet shell and the water outlet shell enables the heat dissipation water to circulate, thereby continuously taking away the heat. The design of the return shell enables the heat dissipation pipes to form a closed circulation system, improving the heat dissipation efficiency. Description of the Drawings

[0020] Figure 1 is the overall structure schematic diagram of a millimeter-wave wind measurement radar structure in the utility model;

[0021] Figure 2 In the utility model Figure 1 of the sectional structure schematic diagram;

[0022] Figure 3 is the structure schematic diagram of the installation mechanism in the utility model;

[0023] Figure 4 In the utility model Figure 3 of the sectional structure schematic diagram;

[0024] Figure 5 is the structure schematic diagram of the follower frame in the utility model.

[0025] In the figure: 1, radar body; 2, fixed sleeve; 3, external connecting pipe; 4, follower frame; 5, limit piece; 6, limit sleeve; 7, threaded sleeve; 8, clamping rod; 9, annular groove; 10, sealing ring; 11, unlocking rod; 12, unlocking groove; 13, tension spring; 14, anti-slip groove; 15, heat dissipation shell; 16, heat dissipation fin; 17, heat dissipation pipe; 18, water inlet shell; 19, water outlet shell; 20, return shell. Detailed implementation mode

[0026] It should be noted that, without conflict, the embodiments in this application and the features in the embodiments can be combined with each other. The following will describe the present utility model in detail with reference to the drawings and in combination with the embodiments.

[0027] It should be pointed out that, unless otherwise specified, all technical and scientific terms used in this application have the same meaning as commonly understood by those of ordinary skill in the technical field to which this application belongs.

[0028] In the present utility model, unless otherwise stated, the orientations such as "upper and lower" are usually in the directions shown in the drawings, or in the vertical, perpendicular or gravitational directions; similarly, for the convenience of understanding and description, "left and right" are usually in the left and right shown in the drawings; "inside and outside" refer to the inside and outside relative to the contour of each component itself, but the above orientation terms are not used to limit the present utility model.

[0029] Please refer to Figures 1-5 , a millimeter-wave wind measurement radar structure, including a radar body 1, the radar body 1 is installed on an external device, an installation mechanism is arranged on the radar body 1, the installation mechanism includes a heat dissipation mechanism, a fixed sleeve 2, an external connecting pipe 3, a follower frame 4, a limit piece 5, a limit sleeve 6, a threaded sleeve 7, a clamping rod 8 and an unlocking mechanism, the heat dissipation mechanism is cooperatively connected to the radar body 1 and the fixed sleeve 2, the external connecting pipe 3 is inserted into the fixed sleeve 2, and the external connecting pipe 3 is connected to an external water supply device, a limit piece 5 is installed on the follower frame 4, the limit sleeve 6 is slidably connected to the fixed sleeve 2, the limit piece 5 is stuck on the lower end surface of the limit sleeve 6, the threaded sleeve 7 is threadedly connected to the fixed sleeve 2, the threaded sleeve 7 abuts against the limit sleeve 6, the clamping rod 8 is installed on the follower frame 4, an annular groove 9 is formed on the side wall of the external connecting pipe 3, the clamping rod 8 is inserted into the annular groove 9, the unlocking mechanism is installed on the fixed sleeve 2, a plurality of sealing rings 10 are coaxially arranged on the lower end surface of the external connecting pipe 3, and the plurality of sealing rings 10 are respectively inserted into the fixed sleeve 2, the unlocking mechanism includes an unlocking rod 11, the unlocking rods 11 are respectively installed at the upper and lower ends of the follower frame 4, a plurality of unlocking grooves 12 are formed on the side wall of the external connecting pipe 3, the unlocking rods 11 abut against the unlocking grooves 12, a plurality of follower frames 4 are provided, and a plurality of tension springs 13 are respectively arranged on the plurality of follower frames 4, the tension springs 13 are connected to the side wall of the fixed sleeve 2, a plurality of anti-slip grooves 14 are formed on the side wall of the external connecting pipe 3, and the plurality of anti-slip grooves 14 are respectively arranged at equal intervals.

[0030] In this embodiment, when it is necessary to connect the external tube 3 and the fixed sleeve 2, the external tube 3 is first inserted into the fixed sleeve 2, and then the sealing ring 10 is inserted into the fixed sleeve 2, and then the clamping rod 8 is inserted into the annular groove 9 under the action of the tension spring 13, and then the limiting plate 5 is inserted into the limiting sleeve 6, the threaded sleeve 7 is threadedly connected to the fixed sleeve 2, and then the threaded sleeve 7 is in contact with the limiting sleeve 6, and then the follower frame 4 can be driven to slide downward, and then the clamping rod 8 will drive the external tube 3 to slide downward, thereby completing the sealing process, when it needs to be unlocked, first unlock the threaded sleeve 7 so that the limiting plate 5 is unlocked from the limiting sleeve 6, and then the external tube 3 is rotated so that the unlocking groove 12 is against the unlocking rod 11, and then pulled upward, thereby unlocking the clamping rod 8 and the annular groove 9.

[0031] See also Figure 2 As an implementation method of the heat dissipation mechanism: the heat dissipation mechanism includes a heat dissipation shell 15, a heat dissipation fin 16 and a heat dissipation pipe 17. The heat dissipation shell 15 is installed on the radar body 1. The heat dissipation fin 16 is installed on the heat dissipation shell 15. The heat dissipation fin 16 is attached to the radar body 1. A plurality of heat dissipation pipes 17 are provided, and the plurality of heat dissipation pipes 17 are respectively installed on the heat dissipation fin 16. The heat dissipation shell 15 is provided with a water inlet shell 18 and a water outlet shell 19. The water inlet shell 18 and the water outlet shell 19 are respectively installed with a fixing sleeve 2. The heat dissipation shell 15 is provided with a return shell 20, and the return shell 20 is connected to the plurality of heat dissipation pipes 17.

[0032] More specifically, when the radar body 1 needs to dissipate heat, cooling water is first introduced through the water inlet shell 18, then flows into the return shell 20 through the heat dissipation pipe 17, and then flows into the water outlet shell 19 through the heat dissipation pipe 17 on the other side and is discharged. The heat on the heat sink 16 can be taken away by the heat dissipation pipe 17. Since the heat sink 16 is attached to the radar body 1, the heat can be conducted out, thereby completing the heat dissipation process.

[0033] In summary, when the overall device is in use or running: when it is necessary to connect the external tube 3 and the fixed sleeve 2, first the external tube 3 is inserted into the fixed sleeve 2, and then the sealing ring 10 is inserted into the fixed sleeve 2, and then the clamping rod 8 is inserted into the annular groove 9 under the action of the tension spring 13, and then the limiting plate 5 is inserted into the limiting sleeve 6, the threaded sleeve 7 is threadedly connected to the fixed sleeve 2, and then the threaded sleeve 7 is in contact with the limiting sleeve 6, and then the follower frame 4 can be driven to slide downward, and then the clamping rod 8 will drive the external tube 3 to slide downward, thereby completing the sealing process. When it needs to be unlocked, first unlock the threaded sleeve. The sleeve 7 releases the connection between the limit plate 5 and the limit sleeve 6, and then the external tube 3 is rotated to make the release groove 12 press against the release rod 11, and then pull it upward to release the clamping connection between the clamping rod 8 and the annular groove 9. When the radar body 1 needs to dissipate heat, the cooling water is first introduced through the water inlet shell 18, and then flows into the return shell 20 through the heat dissipation pipe 17, and then flows into the water outlet shell 19 through the heat dissipation pipe 17 on the other side and is discharged. The heat on the heat sink 16 can be taken away by the heat dissipation pipe 17. Since the heat sink 16 is attached to the radar body 1, the heat can be conducted out, thereby completing the heat dissipation process.

[0034] In all the schemes mentioned above, the connection between two parts can be selected according to actual conditions by welding, bolt and nut matching connection, bolt or screw connection or other well-known connection methods, which are not described here one by one. In the above, all fixed connections are preferably welded. Although the embodiments of the utility model have been shown and described, it can be understood by ordinary technicians in this field that various changes, modifications, substitutions and variations can be made to these embodiments without departing from the principle and spirit of the utility model. The scope of the utility model is defined by the attached claims and their equivalents.

Claims

1. A millimeter-wave wind measurement radar structure, including a radar body (1), characterized in that, The radar body (1) is installed on an external device. An installation mechanism is provided on the radar body (1). The installation mechanism includes a heat dissipation mechanism, a fixing sleeve (2), an outer connecting pipe (3), a follower frame (4), a limiting piece (5), a limiting sleeve (6), a threaded sleeve (7), a clamping rod (8), and a releasing mechanism. The heat dissipation mechanism is cooperatively connected to the radar body (1) and the fixing sleeve (2). The outer connecting pipe (3) is inserted into the fixing sleeve (2), and the outer connecting pipe (3) is connected to an external water supply device. A limiting piece (5) is installed on the follower frame (4). The limiting sleeve (6) is slidably connected to the fixing sleeve (2). The limiting piece (5) is stuck on the lower end surface of the limiting sleeve (6). The threaded sleeve (7) is threadedly connected to the fixing sleeve (2), and the threaded sleeve (7) abuts against the limiting sleeve (6). The clamping rod (8) is installed on the follower frame (4). An annular groove (9) is formed on the side wall of the outer connecting pipe (3), and the clamping rod (8) is inserted into the annular groove (9). The releasing mechanism is installed on the fixing sleeve (2).

2. The structure of a millimeter-wave wind measurement radar according to claim 1, wherein: A plurality of sealing rings (10) are coaxially provided on the lower end surface of the outer connecting pipe (3), and the plurality of sealing rings (10) are respectively inserted into the fixing sleeve (2).

3. The structure of a millimeter-wave wind measurement radar according to claim 2, wherein: The releasing mechanism includes a releasing rod (11). The releasing rods (11) are respectively installed at the upper and lower ends of the follower frame (4). A plurality of releasing grooves (12) are formed on the side wall of the outer connecting pipe (3), and the releasing rod (11) abuts against the releasing grooves (12).

4. A millimeter-wave wind measurement radar structure according to claim 3, characterized in that: A plurality of follower frames (4) are provided, and a tension spring (13) is respectively provided on each of the plurality of follower frames (4). The tension spring (13) is connected to the side wall of the fixing sleeve (2).

5. The structure of a millimeter-wave wind measurement radar according to claim 4, characterized in that: A plurality of anti-slip grooves (14) are formed on the side wall of the outer connecting pipe (3), and the plurality of anti-slip grooves (14) are respectively arranged at equal intervals.

6. The structure of a millimeter-wave wind measurement radar according to claim 1, characterized in that: The heat dissipation mechanism includes a heat dissipation shell (15), heat dissipation fins (16), and heat dissipation pipes (17). The heat dissipation shell (15) is installed on the radar body (1). The heat dissipation fins (16) are installed on the heat dissipation shell (15), and the heat dissipation fins (16) are attached to the radar body (1). A plurality of heat dissipation pipes (17) are provided, and the plurality of heat dissipation pipes (17) are respectively installed on the heat dissipation fins (16).

7. The structure of a millimeter-wave wind measurement radar according to claim 6, characterized in that: An inlet shell (18) and an outlet shell (19) are provided on the heat dissipation shell (15), and fixing sleeves (2) are respectively installed on the inlet shell (18) and the outlet shell (19).

8. The structure of a millimeter-wave wind measurement radar according to claim 7, characterized in that: A return shell (20) is provided on the heat dissipation shell (15), and the return shell (20) communicates with the plurality of heat dissipation pipes (17).

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