Wind pressure resistance structure of 5G base station shell

Abstract

The utility model relates to the technical field of communication base stations, in particular to a wind pressure resistance structure of a 5G base station shell. A wind pressure resistance structure of a 5G base station shell comprises a signal tower body composed of a truss; the base station shell is positioned on the truss; the two wind-resistant assemblies are arranged in a mirror symmetry mode, and the two wind-resistant assemblies are arranged between the base station shell and the truss. The wind pressure resistant structure has the advantages that the design of the torsion spring and the connecting arms is introduced, the wind resistance capacity of the base station shell is improved, when the base station shell is subjected to front strong wind, the base station shell can be promoted to move in the direction close to the truss under the action of wind resistance, the first connecting arm is driven to rotate on the hoop, and the base station shell is prevented from being damaged. Meanwhile, the first torsion spring between the first connecting arm and the second connecting arm plays a damping role.

Description

TECHNICAL FIELD

[0001] The utility model relates to communication base station technical field, concretely is a kind of wind pressure resistance structure of 5G base station shell. BACKGROUND

[0002] With the rapid development of 5G technology, the number and distribution of base stations are increasing, and its importance in network coverage is increasingly significant. However, the wind pressure resistance of the base station shell directly affects the stability of the base station and the reliability of the communication service.

[0003] Currently, the base station shell in the prior art often does not fully consider the requirement of wind pressure resistance during design, which leads to its being easily damaged by strong wind when encountering severe weather conditions, thereby affecting the normal operation of the base station and the communication quality. SUMMARY

[0004] The utility model provides a kind of wind pressure resistance structure of 5G base station shell to solve the problem that the base station shell in the prior art often does not fully consider the requirement of wind pressure resistance during design, which leads to its being easily damaged by strong wind when encountering severe weather conditions, thereby affecting the normal operation of the base station and the communication quality.

[0005] The technical solution of the utility model to solve the above technical problem is as follows: a kind of wind pressure resistance structure of 5G base station shell, comprising:

[0006] a signal tower body, the signal tower body is composed of truss;

[0007] a base station shell, the base station shell is located on the truss;

[0008] two wind resistance components that are mirror-symmetrically arranged, two wind resistance components are arranged between the base station shell and the truss, wherein each wind resistance component includes a clamp, a first connecting arm, a second connecting arm, a first shaft sleeve, a second shaft sleeve, a third shaft sleeve, a latch, a first torsion spring, a second torsion spring, and a shaft seat, the clamp is sleeved on the shaft segment of the truss, one end of the first connecting arm is rotatably connected to one side of the clamp through a pivot, the first shaft sleeve is fixed to the other end of the first connecting arm, the second shaft sleeve is coaxial with the first shaft sleeve and located on one side of the first shaft sleeve, the latch penetrates the inside of the first shaft sleeve and the second shaft sleeve, the first torsion spring is sleeved on the latch, and the torsion end of the first torsion spring abuts against the first shaft sleeve and the second shaft sleeve, respectively, one end of the second connecting arm is fixed to one side of the second shaft sleeve, the axis of the third shaft sleeve is perpendicular to the axis of the second shaft sleeve and fixed to the other end of the second connecting arm, the shaft seat is fixed to one side of the base station shell, the third shaft sleeve is sleeved outside the shaft seat, and the torsion end of the second torsion spring abuts against the third shaft sleeve and the shaft seat, respectively.

[0009] The utility model has the advantages of:

[0010] 1), the anti-wind structure improves the wind resistance of the base station shell by introducing the design of torsion springs and connecting arms. When the base station shell is subjected to strong wind from the front, the wind resistance will cause the base station shell to shift towards the truss, driving the first connecting arm to rotate on the clamp. At the same time, the first torsion spring between the first connecting arm and the second connecting arm will bear the damping effect, effectively consuming the wind resistance, thereby reducing the impact force caused by strong wind. In addition, when the base station shell is subjected to strong wind from the side, the strong wind will cause the base station shell to rotate longitudinally. At this time, the second torsion spring between the second connecting arm and the base station shell also plays a buffering role, further reducing the impact of the impact force, effectively enhancing the stability of the base station shell in bad weather, and improving the continuity and reliability of the communication service.

[0011] On the basis of the above technical scheme, the utility model can also be improved as follows.

[0012] Further, an included angle is formed between the first connecting arm and the second connecting arm.

[0013] Further, an included angle is formed between the first connecting arms of the two anti-wind assemblies.

[0014] The beneficial effects of the above further scheme are that the design of the included angle can ensure flexible rotation between the first connecting arm and the second connecting arm, so that the base station shell can shift towards the truss when subjected to wind resistance, causing the first torsion spring to effectively consume the wind resistance, significantly reducing the impact force of strong wind on the base station shell, thereby improving the overall wind resistance and stability.

[0015] Further, a fall-preventing assembly is arranged on one side of the base station shell.

[0016] Further, the fall-preventing assembly is an safety rope connected between the base station shell and the truss of the signal tower body.

[0017] The beneficial effects of the above further scheme are that by setting the fall-preventing assembly and using the design of the safety rope, additional safety protection is provided for the base station shell. Even in extreme weather conditions, if the base station shell is displaced or loosened due to a large wind pressure, the safety rope can effectively prevent the base station shell from falling, avoiding safety accidents caused by accidental disengagement from the truss, and enhancing the wind resistance stability of the base station. BRIEF DESCRIPTION OF DRAWINGS

[0018] Figure 1 It is a schematic diagram of the overall structure of the utility model;

[0019] Figure 2 It is a schematic diagram of the three-dimensional structure of the anti-wind assembly of the utility model.

[0020] The components represented by the reference numbers in the drawings are listed as follows:

[0021] 10, signal tower body, 20, base station shell, 30, wind resistance assembly, 301, clamp, 302, first connecting arm, 303, second connecting arm, 304, first shaft sleeve, 305, second shaft sleeve, 306, third shaft sleeve, 307, bolt, 308, first torsion spring, 309, second torsion spring, 310, shaft seat, 40, fall prevention assembly, 401, safety rope. DETAILED DESCRIPTION

[0022] The principles and characteristics of the present application are described below in combination with the drawings, and the examples are only used to explain the present application and are not used to limit the scope of the present application.

[0023] With the rapid development of 5G technology, the number and distribution of base stations are increasing, and their importance in network coverage is becoming more and more significant. However, the wind resistance of the base station shell directly affects the stability of the base station and the reliability of the communication service.

[0024] At present, the wind resistance requirement of the base station shell in the prior art is not fully considered in the design, which leads to the fact that it is easily damaged by strong wind when encountering severe weather conditions, thereby affecting the normal operation of the base station and the communication quality. To solve the above problems, the present application provides a wind resistance structure of a 5G base station shell.

[0025] The present application provides the following preferred embodiments

[0026] As shown in Figure 1 and Figure 2 A wind resistance structure of a 5G base station shell 20, comprising:

[0027] The signal tower body 10 is composed of a truss;

[0028] The base station shell 20 is located on the truss

[0029] Two wind-resistant assemblies 30 are symmetrically arranged, and each wind-resistant assembly 30 is arranged between the base station shell 20 and the truss. Each wind-resistant assembly 30 comprises a clamp 301, a first connecting arm 302, a second connecting arm 303, a first shaft sleeve 304, a second shaft sleeve 305, a third shaft sleeve 306, a bolt 307, a first torsion spring 308, a second torsion spring 309, and a shaft seat 310. The clamp 301 is sleeved on the shaft segment of the truss. One end of the first connecting arm 302 is rotatably arranged on one side of the clamp 301 through a rotating shaft. The first shaft sleeve 304 is fixed to the other end of the first connecting arm 302. The second shaft sleeve 305 is coaxial with the first shaft sleeve 304 and is located on one side of the first shaft sleeve 304. The bolt 307 penetrates the interiors of the first shaft sleeve 304 and the second shaft sleeve 305. The first torsion spring 308 is sleeved on the bolt 307, and the torsion ends of the first torsion spring 308 are respectively abutted on the first shaft sleeve 304 and the second shaft sleeve 305. One end of the second connecting arm 303 is fixed to one side of the second shaft sleeve 305. The axis of the third shaft sleeve 306 is perpendicular to the axis of the second shaft sleeve 305 and is fixed to the other end of the second connecting arm 303. The shaft seat 310 is fixed to one side of the base station shell 20. The third shaft sleeve 306 is sleeved outside the shaft seat 310, and the torsion ends of the second torsion spring 309 are respectively abutted on the third shaft sleeve 306 and the shaft seat 310.

[0030] The wind-resistant structure improves the wind resistance of the base station shell 20 by introducing the design of the torsion spring and the connecting arm. When the base station shell 20 is subjected to strong wind from the front, the wind resistance will cause the base station shell 20 to move towards the truss, driving the first connecting arm 302 to rotate laterally on the clamp 301. At the same time, the first torsion spring 308 between the first connecting arm 302 and the second connecting arm 303 will bear the damping effect, effectively consuming the wind resistance, thereby reducing the impact force caused by the strong wind. In addition, when the base station shell 20 is subjected to strong wind from the side, the strong wind will cause the base station shell 20 to rotate longitudinally. At this time, the second torsion spring 309 between the second connecting arm 303 and the base station shell 20 also plays a buffering role, further reducing the impact of the impact force, effectively enhancing the stability of the base station shell 20 in bad weather, and improving the continuity and reliability of the communication service.

[0031] In this embodiment, as shown in Figure 1 and Figure 2 , an included angle is formed between the first connecting arm 302 and the second connecting arm 303, and an included angle is formed between the first connecting arms 302 of the two wind-resistant assemblies 30. The design of the included angle can ensure the flexible rotation between the first connecting arm 302 and the second connecting arm 303, so that the base station shell 20 can move towards the truss when subjected to the wind resistance force, causing the first torsion spring 308 to effectively consume the wind resistance force, significantly reducing the impact force of the strong wind on the base station shell 20, thereby improving the overall wind resistance performance and stability.

[0032] In this embodiment, as shown in Figure 1 and Figure 2 One side of the base station shell 20 is provided with a falling prevention assembly 40, which is designed as a safety rope 401 connected between the base station shell 20 and the truss of the signal tower body 10. By setting the falling prevention assembly 40 and using the design of the safety rope 401, additional safety protection can be provided for the base station shell 20. Even in extreme weather conditions, if the base station shell 20 is displaced or loosened under the action of strong wind pressure, the safety rope 401 can effectively prevent the base station shell 20 from falling, avoid safety accidents caused by accidental disengagement from the truss, and enhance the wind resistance stability of the base station.

[0033] The specific working process of the utility model is as follows:

[0034] (1) Front strong wind buffering

[0035] When the base station shell 20 is subjected to front strong wind, the wind resistance will cause the base station shell 20 to shift towards the direction close to the truss, driving the first connecting arm 302 to rotate transversely on the clamp 301, and at the same time, the first torsion spring 308 between the first connecting arm 302 and the second connecting arm 303 will bear the damping effect, effectively consuming the wind resistance, so as to slow down the impact force brought by strong wind.

[0036] (2) Side strong wind buffering

[0037] When the base station shell 20 is subjected to side strong wind, the strong wind will cause the base station shell 20 to have a longitudinal rotation tendency, at this time, the second torsion spring 309 between the second connecting arm 303 and the base station shell 20 also plays a buffering role, further reducing the impact of the impact force.

[0038] The above is only a preferred embodiment of the utility model, and is not used to limit the utility model, any modification, equivalent replacement, improvement, etc. made within the spirit and principles of the utility model should be included in the protection scope of the utility model.

Claims

1. A wind pressure resistant structure of a 5G base station housing, characterized by, The utility model relates to a signal tower, comprising: a signal tower body composed of a truss; a base station shell located on the truss; two wind-resistant assemblies arranged in mirror symmetry, each of which is arranged between the base station shell and the truss, wherein each wind-resistant assembly comprises a clamp, a first connecting arm, a second connecting arm, a first shaft sleeve, a second shaft sleeve, a third shaft sleeve, a bolt, a first torsion spring, a second torsion spring, and a shaft seat, the clamp is sleeved on a shaft segment of the truss, one end of the first connecting arm is rotatably connected to one side of the clamp via a rotating shaft, the first shaft sleeve is fixed to the other end of the first connecting arm, the second shaft sleeve is coaxial with the first shaft sleeve and located on one side of the first shaft sleeve, the bolt penetrates the interiors of the first shaft sleeve and the second shaft sleeve, the first torsion spring is sleeved on the bolt, and the torsion ends of the first torsion spring are respectively abutted against the first shaft sleeve and the second shaft sleeve, one end of the second connecting arm is fixed to one side of the second shaft sleeve, the third shaft sleeve is fixed to the other end of the second connecting arm, the axis of the third shaft sleeve is perpendicular to the axis of the second shaft sleeve, and the shaft seat is fixed to one side of the base station shell, the third shaft sleeve is sleeved outside the shaft seat, and the torsion ends of the second torsion spring are respectively abutted against the third shaft sleeve and the shaft seat.

2. The wind load resistant structure of a 5G base station housing according to claim 1, wherein, An included angle is formed between the first connecting arm and the second connecting arm.

3. The wind pressure resistant structure of a 5G base station housing according to claim 1, wherein, An included angle is formed between the first connecting arms of the two wind-resistant assemblies.

4. The wind load resistant structure of a 5G base station housing according to claim 1, wherein, A fall-preventing assembly is arranged on one side of the base station shell.

5. The wind load resistant structure of a 5G base station housing according to claim 4, wherein The fall-preventing assembly is an insurance rope connected between the base station shell and the truss of the signal tower body.

Images