Wireless cooperative network communication equipment convenient to deploy

Abstract

The utility model discloses a wireless cooperative network communication device convenient to deploy, which comprises a C-shaped frame and two symmetrical back frames fixed on the outer wall of one side of the C-shaped frame, a U-shaped bolt is mounted on the outer wall of one side of each back frame, two threaded ends of the U-shaped bolt extend into the C-shaped frame, and the two threaded ends of the U-shaped bolt extend into the C-shaped frame. Butt joint pieces are connected to the outer walls of the other two sides of the C-shaped frame in a bolted mode, outer spline connecting columns are connected to the ends, away from the C-shaped frame, of the butt joint pieces in an inserted mode, and Y-shaped supporting arms are connected to the outer walls of the outer spline connecting columns in a bolted mode. By adopting the swing arm with the rotary self-locking structure, the angle of the network bridge can be accurately adjusted when the network bridge is installed, so that the network bridge can flexibly adjust the signal transmitting direction and the inclination angle according to different environment requirements, and the maximum coverage range and the optimal transmission quality of network signals are ensured.

Description

Technical Field

[0001] This utility model relates to the field of network communication technology, specifically to a wireless collaborative network communication device that is easy to deploy. Background Technology

[0002] In wireless collaborative network communication systems, bridges play a crucial role as key components connecting different network segments. They not only connect wired and wireless networks, or different wireless networks, ensuring smooth data transmission between them, but also improve network efficiency and stability through intelligent packet forwarding. Bridges are also frequently used as signal boosters in wireless networks, expanding network coverage and improving signal quality. When deploying bridges on outdoor signal poles, it's essential to choose a suitable installation location, avoiding obstructions and maximizing signal coverage. Outdoor bridges typically possess waterproof, dustproof, and windproof characteristics to adapt to complex environmental conditions. During installation, sturdy brackets must be used to secure the bridge, and a reliable power supply must be ensured; common methods include using renewable energy sources such as solar or wind power. For signal connectivity, bridges can connect to other devices via wired or wireless means, ensuring stable signal transmission. After installation, signal testing and adjustments are performed to ensure optimal signal transmission. However, currently, network bridges are typically installed on signal base station pillars using clamps, clips, and brackets during outdoor deployment. To reduce the adverse effects of outdoor rain and sand on bracket components, the brackets do not have angle adjustment structures to minimize equipment failure due to damage or loosening of the angle adjustment structure. In this case, it is difficult to adjust the angle of the network bridge after installation. During the deployment of signal poles or base stations, network bridges need to be precisely adjusted according to specific environmental conditions (such as buildings, terrain, obstacles, etc.). The fixed bracket design means that the angle of the network bridge cannot be further adjusted after installation, thus limiting the optimization of signal adjustment and resulting in insufficient signal coverage or reduced signal quality. Utility Model Content

[0003] The purpose of this utility model is to provide a wireless collaborative network communication device that is easy to deploy. The C-frame is fixed to the support of the signal base station using a back frame and U-bolts, and the Y-arm is connected to the docking part on the C-frame through the external spline connecting column. At this time, the angle of the swing arm and the bridge body can be adjusted by using the rotation self-locking structure on the Y-arm to solve the problems mentioned in the background art.

[0004] To achieve the above objectives, this utility model provides the following technical solution: a wireless collaborative network communication device that is easy to deploy, comprising a C-frame and two symmetrical back frames fixed on one outer wall of the C-frame. U-bolts are installed on one outer wall of the back frames, with the two threaded ends of the U-bolts extending into the interior of the C-frame. Connecting parts are bolted to the other two outer walls of the C-frame, and an external spline connecting post is inserted into the end of the connecting part away from the C-frame. A Y-shaped support arm is bolted to the outer wall of the external spline connecting post, and two symmetrical swing arms are provided at the end of the Y-shaped support arm away from the external spline connecting post. A network bridge body is fixed to the outer wall of the two swing arms away from the Y-shaped support arm. A rotary self-locking structure for driving the two swing arms to deflect is provided on the lower surface of the Y-shaped support arm.

[0005] Preferably, a trapezoidal notch is provided on the outer wall of the back frame near the U-bolt, and both the C-frame and the back frame are made of aluminum alloy components.

[0006] Preferably, the mating component includes a rectangular plate bolted to one outer wall of the C-frame and an integrally formed inner spline sleeve on one outer wall of the rectangular plate, wherein the inner spline sleeve and the outer spline connecting column are interference-fitted.

[0007] Preferably, a through hole is provided on one side of the outer wall of the C-frame for inserting the end of a U-bolt.

[0008] Preferably, the rotary self-locking structure includes an upper concave cavity disposed on the lower surface of the Y-shaped support arm, a driven shaft rotatably mounted at one end inside the upper concave cavity, and a main worm shaft rotatably mounted at the other end inside the upper concave cavity. A worm wheel is fixed at one end of the surface of the driven shaft, and the worm wheel and the main worm shaft mesh with each other.

[0009] Preferably, both ends of the driven shaft extend through the outside of the Y-shaped support arm and are fixedly connected to one side of the outer wall of the swing arm.

[0010] Compared with the prior art, the beneficial effects of this utility model are as follows: This easily deployable wireless collaborative network communication device uses a back frame, U-bolts, C-frame, Y-arm, and rotating self-locking structure, which can flexibly adjust the working angle of the bridge body according to changes in the site environment to ensure stable operation of the device. In particular, by adopting a swing arm with a rotating self-locking structure, the angle of the bridge can be precisely adjusted during installation. This design allows the bridge to flexibly adjust its signal transmission direction and tilt angle according to different environmental requirements, ensuring the maximum coverage and optimal transmission quality of the network signal. Furthermore, the Y-arm is connected to the C-frame through an external spline connecting column, which allows the bridge to be adjusted in angle during installation, simplifying the installation and debugging work. Installers only need to adjust the angle of the bridge to the predetermined position through simple rotation operations until the signal test results meet the requirements.

[0011] The rotating self-locking structure can automatically fix the angle after adjustment, avoiding adjustment difficulties caused by angle changes. This design not only improves installation efficiency, but also reduces human error and unnecessary maintenance costs. Installers do not need to perform complex angle measurements or multiple disassembly and installation, which greatly shortens working time and network deployment cycle. Attached Figure Description

[0012] Figure 1 This is a schematic diagram of the main structure of this utility model;

[0013] Figure 2 This is a schematic diagram of the three-dimensional structure of the present invention. Figure 1 ;

[0014] Figure 3 This is a schematic diagram of the three-dimensional structure of the present invention. Figure 2 ;

[0015] Figure 4 This is a schematic diagram of the three-dimensional structure of the present invention. Figure 3 ;

[0016] Figure 5 This is a three-dimensional structural diagram of the rotational self-locking structure of this utility model.

[0017] In the diagram: 1. C-frame; 2. Back frame; 201. Ladder notch; 3. U-bolt; 4. Connecting part; 401. Rectangular plate; 402. Inner spline column sleeve; 5. Outer spline connecting column; 6. Y-shaped support arm; 7. Rotary self-locking structure; 701. Upper concave cavity; 702. Main worm shaft; 703. Driven shaft; 704. Worm gear; 8. Swing arm; 9. Net bridge body. Detailed Implementation

[0018] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. All other embodiments obtained by those skilled in the art based on the embodiments of the present utility model without creative effort are within the scope of protection of the present utility model.

[0019] Please see Figure 1-5 The present invention provides an embodiment of a wireless collaborative network communication device that is easy to deploy, comprising a C-frame 1 and two symmetrical back frames 2 fixed on one outer wall of the C-frame 1. A U-bolt 3 is installed on one outer wall of the back frame 2, and the two threaded ends of the U-bolt 3 extend into the interior of the C-frame 1. A through hole is provided on one outer wall of the C-frame 1 for inserting the ends of the U-bolt 3.

[0020] On the other two outer walls of the C-frame 1, there are connecting parts 4. The end of the connecting part 4 away from the C-frame 1 is inserted with an external spline connecting post 5. The outer wall of the external spline connecting post 5 is bolted with a Y-shaped support arm 6. The end of the Y-shaped support arm 6 away from the external spline connecting post 5 is provided with two symmetrical swing arms 8. The outer wall of the two swing arms 8 away from the Y-shaped support arm 6 is fixed with a bridge body 9. The bridge body 9 is the core part of the communication system, responsible for signal transmission and reception, and network communication. The lower surface of the Y-shaped support arm 6 is provided with a rotary self-locking structure 7 for driving the two swing arms 8 to deflect.

[0021] A trapezoidal notch 201 is provided on the outer wall of the back frame 2 near the U-bolt 3. Both the C-frame 1 and the back frame 2 are made of aluminum alloy. When the back frame 2 and the U-bolt 3 are fitted onto the installation support of the outdoor signal base station, the U-bolt 3 is actively tightened by the nut, so that the U-bolt 3 and the back frame 2 are firmly fixed on the support. The trapezoidal notch 201 can fit more closely to the curved outer wall of the support.

[0022] The connecting piece 4 includes a rectangular plate 401 bolted to one side of the outer wall of the C-frame 1 and an integrally formed inner spline column sleeve 402 on one side of the outer wall of the rectangular plate 401. The inner spline column sleeve 402 and the outer spline connecting column 5 are interference fit. After the connecting piece 4 and the outer spline connecting column 5 are connected, bolts can be used to connect the connecting piece 4 and the outer spline connecting column 5 again to prevent the connection from being weak due to incomplete docking.

[0023] Bolts are driven into the outer spline connecting column 5 from the outside of the inner spline sleeve 402 to ensure a stable connection between the inner spline sleeve 402 and the outer spline connecting column 5.

[0024] The rotary self-locking structure 7 includes an upper concave cavity 701 disposed on the lower surface of the Y-shaped support arm 6, a driven shaft 703 rotatably mounted at one end inside the upper concave cavity 701, and a main worm shaft 702 rotatably mounted at the other end inside the upper concave cavity 701. A worm wheel 704 is fixed to one end of the surface of the driven shaft 703. The worm wheel 704 and the main worm shaft 702 mesh with each other. Both ends of the driven shaft 703 extend to the outside of the Y-shaped support arm 6 and are fixedly connected to one side of the outer wall of the swing arm 8. When operating the rotary self-locking structure 7, the main worm shaft 702 in the upper concave cavity 701 is manually rotated to rotate. The main worm shaft 702 drives the driven shaft 703 to rotate through the worm wheel 704. The driven shaft 703 drives the swing arm 8 and the net bridge body 9 to deflect. After the angle adjustment is completed, the worm wheel 704 and the main worm shaft 702 can automatically lock the adjustment position to prevent external forces, such as wind and vibration, from causing changes in the angle of the net bridge, thereby enhancing the stability of the equipment.

[0025] In this embodiment, the worker first installs the back frame 2 and U-bolts 3 onto the mounting post of the outdoor signal base station, ensuring the mounting post is inside the U-bolts 3. Then, the U-bolts 3 are continuously tightened to firmly fix the U-bolts 3 and back frame 2 onto the post. During installation, it is crucial to ensure the U-bolts 3 are securely tightened and to use a level to check for stability, preventing loosening after installation. Next, the worker removes the network bridge body 9 and connects the external spline connecting post 5 at the back of the network bridge body 9 to the mating part 4 on the outer wall of the C-frame 1. During connection, it is essential to ensure precise alignment between the external spline connecting post 5 and the mating part to guarantee a secure and stable connection. During this process, the Y-shaped support arm 6 serves a supporting function in this design. Subsequently, staff adjusted the angles of the swing arm 8 and the bridge body 9 according to the site environment. Specifically, based on the location of obstacles, they used the rotating self-locking structure 7 to adjust the tilt angle of the swing arm 8 and the bridge body 9 to ensure that the signal could bypass the obstacles and achieve the best propagation effect. Once the ideal angle was achieved, the operation of the rotating self-locking structure 7 was stopped. The self-locking property of the rotating self-locking structure 7 can prevent the angle of the bridge body 9 from changing under the action of external forces such as strong winds. After the adjustment was completed, signal testing equipment was used to test the signal coverage and quality of the bridge body 9 to ensure that the adjusted angle could provide the best signal transmission effect. If the signal effect was not ideal, it could be fine-tuned according to the actual situation until the best coverage effect was achieved.

Claims

1. A wireless collaborative network communication device that is easy to deploy, characterized in that: The system includes a C-frame (1) and two symmetrical back frames (2) fixed on one side of the outer wall of the C-frame (1). A U-bolt (3) is installed on one side of the outer wall of the back frame (2). The two threaded ends of the U-bolt (3) extend into the interior of the C-frame (1). A connecting piece (4) is bolted to the other two sides of the outer wall of the C-frame (1). An external spline connecting column (5) is inserted into the end of the connecting piece (4) away from the C-frame (1). A Y-shaped support arm (6) is bolted to the outer wall of the external spline connecting column (5). Two symmetrical swing arms (8) are provided at the end of the Y-shaped support arm (6) away from the external spline connecting column (5). A bridge body (9) is fixed on the outer wall of the two swing arms (8) away from the Y-shaped support arm (6). A rotary self-locking structure (7) for driving the two swing arms (8) to deflect is provided on the lower surface of the Y-shaped support arm (6).

2. The easily deployable wireless collaborative network communication device according to claim 1, characterized in that: The back frame (2) has a ladder notch (201) on the outer wall near the U-bolt (3). Both the C-frame (1) and the back frame (2) are made of aluminum alloy.

3. The easily deployable wireless collaborative network communication device according to claim 1, characterized in that: The docking component (4) includes a rectangular plate (401) bolted to the outer wall of one side of the C-frame (1) and an inner spline sleeve (402) integrally formed on the outer wall of one side of the rectangular plate (401). The inner spline sleeve (402) and the outer spline connecting column (5) are interference fit.

4. The easily deployable wireless collaborative network communication device according to claim 2, characterized in that: The outer wall of one side of the C-frame (1) is provided with a through hole for inserting the end of the U-bolt (3).

5. The easily deployable wireless collaborative network communication device according to claim 1, characterized in that: The rotary self-locking structure (7) includes an upper concave cavity (701) disposed on the lower surface of the Y-shaped support arm (6), a driven shaft (703) rotatably mounted at one end inside the upper concave cavity (701), and a main worm shaft (702) rotatably mounted at the other end inside the upper concave cavity (701). A worm wheel (704) is fixed at one end of the surface of the driven shaft (703), and the worm wheel (704) and the main worm shaft (702) mesh with each other.

6. The easily deployable wireless collaborative network communication device according to claim 5, characterized in that: Both ends of the driven shaft (703) extend through the outside of the Y-shaped support arm (6) and are fixedly connected to one side of the outer wall of the swing arm (8).

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