Three-way connecting piece suitable for multiple interfaces

Abstract

The utility model provides a three-way connecting piece suitable for multiple interfaces, and relates to the technical field of pipeline workpieces, the three-way connecting piece comprises a three-way bent pipe and a flow guide pipe, a pagoda-shaped connecting piece is arranged in the three-way bent pipe close to the end part, and a plurality of threaded connecting grooves of which the diameters are gradually reduced are formed in the inner wall of the pagoda-shaped connecting piece; a flow guide disc is arranged in the three-way bent pipe, a mounting base is arranged on the surface of the outer wall of the three-way bent pipe in a bolting mode, a pressing screw rod is arranged on the surface of the mounting base, a positioning hoop and a bearing hoop are connected to the bottom end of the pressing screw rod, and a plurality of threaded connecting grooves with the diameters gradually decreased are formed in the inner wall of the pagoda-shaped connecting piece. The flow guide pipe connector can adapt to flow guide pipes with different diameters, the material cost and the construction complexity are remarkably reduced, the metal spring pieces conduct circumferential limiting on the installation ends of the flow guide pipes, the metal spring pieces are matched with the installation base and other components to position and fix the connection ends of the flow guide pipes, various and complex external tools are not needed in the whole installation process, and the installation time is greatly shortened.

Description

Technical Field

[0001] This utility model relates to the field of pipe workpiece technology, and in particular to a tee connector suitable for multiple interfaces. Background Technology

[0002] According to Chinese Publication No. CN207145845U, a quick-release tee pipe includes: a tee pipe body, a push ring, a locking ring, and a clamping ring with a pressing edge at one end. The two straight-through end interfaces of the tee pipe body have a grooved structure, and the branch end interface has a socket structure. The locking ring, push ring, and clamping ring are arranged sequentially from the inside to the outside at the branch end interface of the tee pipe body. The inner surface and outer surface of the push ring are conical and cylindrical, respectively, and the inner surface and outer surface of the locking ring are cylindrical and conical, respectively. The outer surface matches the inner surface of the push ring. The inner surface of the clamping ring is threaded to the outer wall of the socket end interface of the tee pipe body. This utility model is easy to install and disassemble, suitable for pipes that are repeatedly disassembled, and can effectively improve the installation accuracy and efficiency of the pipe.

[0003] The aforementioned patent documents and prior art have the following technical problems:

[0004] 1. Traditional tee pipes are often designed with only a single specification or a few specifications of connection interface. When facing the connection needs of various diameter guide pipes, the adaptability is seriously insufficient. At the same time, the existing connection method may require a lot of complicated external tools for installation and fixation, such as special pipe wrenches and wrenches. Furthermore, the installation process requires precise adjustment of position and tightening degree, which can easily lead to problems such as poor sealing and loose connection due to improper installation, increasing the cost and difficulty of later maintenance.

[0005] 2. Existing T-junctions lack effective flow guiding structures. When liquid flows through the T-junction, the sudden change in flow direction can easily lead to turbulence, vortices, or even liquid accumulation. Turbulence and accumulation significantly increase flow resistance, requiring the pipeline system to consume more energy to propel the liquid flow and reducing liquid transmission efficiency. In some industrial production or fluid transportation scenarios with high flow and pressure requirements, this cannot meet production needs. Utility Model Content

[0006] The purpose of this invention is to address the shortcomings of existing tee pipe installations, such as insufficient compatibility and easy accumulation of liquid during flow, by proposing a tee connector suitable for multiple interfaces.

[0007] To achieve the above objectives, the present invention adopts the following technical solution: a tee connector suitable for multiple interfaces, comprising a tee bend and a guide pipe, wherein a pagoda-shaped connector is provided inside the tee bend near its end, the inner wall of the pagoda-shaped connector is provided with multiple threaded connecting grooves with gradually decreasing diameters, the end of the guide pipe abuts against the surface of the threaded connecting grooves, a guide plate is provided inside the tee bend, and a mounting base is bolted to the outer wall surface of the tee bend, a clamping screw is provided on the surface of the mounting base, and a positioning clamp and a load-bearing clamp are connected to the bottom end of the clamping screw, the outer wall of the guide pipe abuts against the surfaces of the positioning clamp and the load-bearing clamp.

[0008] Preferably, a recycling groove is formed on the inner circumference of the threaded connection groove, and a metal spring plate is provided at the edge of the recycling groove. One end of the metal spring plate is welded to one end of the recycling groove, and the surface of the metal spring plate abuts against the surface of the guide pipe.

[0009] Preferably, the top surface of the load-bearing clamp is provided with a positioning screw, the surface of the positioning screw is provided with a positioning nut, and positioning screw holes are opened on both sides of the surface of the positioning clamp, the positioning screw holes being threadedly connected to the positioning screw. The surface of the tee bend is connected to the clamping screw via a mounting base, which cooperates with the positioning clamp and the load-bearing clamp to position the end of the guide pipe connection, so that the entire tee bend has a built-in positioning clamp structure, eliminating the need for other external tools during installation.

[0010] Preferably, both the mounting base and the positioning clamp have clamping screw holes on their surfaces, and the clamping screw holes are threadedly connected to the surface of the clamping screw.

[0011] Preferably, the outer wall of the flow guide plate is threadedly connected to the inner wall of the tee bend, the flow guide plate is provided with multiple arc-shaped blades, the surface of the arc-shaped blades is evenly distributed with flow guide arc grooves, and the two ends of the arc-shaped blades are provided with guide shafts, which are movably connected to the inner wall of the flow guide plate.

[0012] Preferably, the three-way bend has a structure in which the pipes in all three directions are provided with a mounting base, a pagoda-shaped connector, and a guide plate. The pagoda-shaped connector is threaded to the inner wall of the tee bend.

[0013] Preferably, the surfaces of the positioning clamp and the load-bearing clamp are coated with a silicone coating, and the inner wall of the pagoda-shaped connector is coated with a silicone coating.

[0014] Beneficial effects

[0015] In this invention, a pagoda-shaped connector is used inside a tee bend for installing the guide pipe. The inner wall of the pagoda-shaped connector has multiple threaded grooves with gradually decreasing diameters, which can accommodate guide pipes of different diameters, greatly expanding the application range of this tee connector. Whether facing the connection needs of various specifications of guide pipes in a newly built pipeline system or in the renovation and upgrading of an existing system, there is no need to replace the tee bend due to differences in guide pipe diameter, significantly reducing material costs and construction complexity. At the same time, the circumferential limit of the guide pipe installation end is achieved by a metal spring plate, and the positioning and fixing of the guide pipe connection end is achieved with components such as the installation base, clamping screw, positioning clamp, and load-bearing clamp. This makes the entire installation process simple and quick without the need for numerous complex external tools, greatly shortening the installation time and improving the efficiency of engineering construction or system renovation.

[0016] In this invention, a guide plate inside a tee bend is used for liquid guidance. When liquid flows in, it impacts the arc-shaped blades inside the guide plate. Because the guide shafts at both ends of the arc-shaped blades are connected to the movable shafts of the inner wall of the guide plate, the blades can rotate freely under the impact force of the liquid. The guide arc grooves evenly distributed on the surface of the arc-shaped blades guide the liquid to form an orderly spiral flow. This flow pattern effectively accelerates the liquid velocity and prevents the liquid from accumulating inside the tee bend. On the one hand, it reduces the resistance and pressure loss of the liquid flow, improves the liquid transmission efficiency of the entire pipeline system, and helps to increase the production capacity of related industrial production or fluid transportation processes. On the other hand, the stable liquid flow state reduces the vibration and wear of the pipeline system caused by liquid impact, turbulence and other factors, extends the service life of the tee connector and the entire pipeline system, reduces the frequency and cost of maintenance, and ensures the long-term stable operation of the system. Attached Figure Description

[0017] Figure 1 This is a three-dimensional structural diagram of the present invention;

[0018] Figure 2 This is a structural diagram of the internal part of the T-shaped bend of this utility model;

[0019] Figure 3 This is a structural diagram of the end connection of the tee bend of this utility model;

[0020] Figure 4 This is a diagram showing the connection structure of the mounting base of this utility model;

[0021] Figure 5 This is a structural diagram of the pagoda-shaped connector of this utility model;

[0022] Figure 6 This is a structural diagram of the guide plate of this utility model.

[0023] Legend:

[0024] 1. T-joint bend; 2. Guide pipe; 3. Pagoda-shaped connector; 301. Threaded connection groove; 302. Metal spring plate; 303. Recycling tank; 4. Guide plate; 401. Guide shaft; 402. Arc blade; 403. Guide arc groove; 5. Mounting base; 6. Clamping screw; 7. Clamping screw hole; 8. Positioning clamp; 9. Positioning screw; 10. Positioning nut; 11. Positioning screw hole; 12. Load-bearing clamp. Detailed Implementation

[0025] To make the technical means, creative features, and achieved objectives and effects of this utility model easier to understand, the present utility model is further described below with reference to specific embodiments and accompanying drawings. However, the following embodiments are merely preferred embodiments of this utility model and not all of them. Other embodiments obtained by those skilled in the art based on the embodiments described in the implementation plan without creative effort are all within the protection scope of this utility model.

[0026] The specific embodiments of this utility model are described below with reference to the accompanying drawings. Specific Implementation Example 1:

[0028] Reference Figure 1-6 A tee connector suitable for multiple interfaces includes a tee bend 1 and a guide pipe 2. A pagoda-shaped connector 3 is located near the end of the tee bend 1. The end of the guide pipe 2 abuts against the surface of a threaded connection groove 301, and the outer wall of the guide pipe 2 abuts against the surfaces of a positioning clamp 8 and a load-bearing clamp 12. The tee bend 1 serves as the main structure, providing the basic framework for the entire connector, accommodating and connecting other components, and enabling multi-interface fluid transmission and distribution. This allows guide pipes 2 in different directions to connect to each other, constructing a complex pipeline network. The guide pipe 2, as a fluid transmission conduit, transports fluid from one location. At another location, it connects to the tee bend 1 to achieve fluid exchange between different areas or equipment. One end of the guide pipe 2 is connected to the threaded connection groove 301 of the pagoda-shaped connector 3. Under the synergistic action of the mounting base 5, the clamping screw 6, the positioning clamp 8, and the load-bearing clamp 12, it is fixed on the tee bend 1. The fluid is transmitted in it according to the direction of the pipeline. It cooperates with the guide plate 4 in the tee bend 1 to optimize the fluid flow state and realize the directional transmission of fluid between different areas. Together with the tee bend 1, it builds a complete fluid transmission network to meet the fluid transportation needs in various engineering applications.

[0029] The inner wall of the pagoda-shaped connector 3 is provided with multiple threaded connection grooves 301 with gradually decreasing diameters. A recycling groove 303 is opened on the circumference of the inner wall of the threaded connection groove 301. A metal spring plate 302 is provided at the edge of the recycling groove 303, and one end of the metal spring plate 302 is welded to one end of the recycling groove 303. The surface of the metal spring plate 302 abuts against the surface of the guide tube 2. The pagoda-shaped connector 3 is used to connect guide tubes 2 of different diameters, providing a variety of connection interfaces, increasing the adaptability of the tee bend 1 to the guide tube 2, and enabling the tee bend 1 to adapt to the changing diameter requirements of the guide tube 2 in different engineering scenarios. Its inner wall is provided with multiple threaded connection grooves 301 with gradually decreasing diameters. The end of the guide tube 2 can abut against the surface of the threaded connection groove 301 of the corresponding diameter and be fixed by threaded connection, realizing the connection of guide tubes 2 of different diameters. According to the actual diameter of the guide tube 2, the appropriate threaded connection groove 301 is selected for connection operation. During the connection process, the metal spring plate 302 on the edge of the recycling tank 303 abuts against the surface of the guide pipe 2, circumferentially limiting the installation end of the guide pipe 2, further enhancing the stability of the connection, preventing the guide pipe 2 from loosening or shifting due to vibration or fluid impact during use, greatly improving the adaptability of the tee bend 1 to the guide pipe 2, eliminating the need to replace the tee bend 1 due to different diameters of the guide pipe 2, and conveniently and quickly realizing the rapid connection of guide pipes 2 of different diameters, reducing engineering installation costs and time costs, and improving engineering installation efficiency. The metal spring plate 302 circumferentially limits the installation end of the guide pipe 2, assists in fixing the guide pipe 2, enhances the stability of the connection between the guide pipe 2 and the pagoda-shaped connector 3, prevents the guide pipe 2 from rotating or shifting under the influence of fluid impact, vibration and other factors, and ensures the safety and stability of fluid transmission. One end of the metal spring plate 302 is welded and fixed to one end of the recycling tank 303, and it has a certain elastic deformation capability. When the guide tube 2 is inserted into the threaded connection groove 301, the metal spring plate 302 will, under its own elasticity, tightly abut against the surface of the guide tube 2, applying a certain frictional and clamping force to the guide tube 2 in the circumferential direction, thereby restricting the rotation and displacement of the guide tube 2. During the installation process of the guide tube 2, as the guide tube 2 is gradually inserted into the threaded connection groove 301, the metal spring plate 302 is squeezed by the guide tube 2 and undergoes elastic deformation. The reaction force generated by the deformation acts on the guide tube 2, realizing the circumferential limitation of the guide tube 2. During the use of the guide tube 2, it always maintains close contact with the guide tube 2, continuously playing a limiting role, effectively improving the reliability of the connection between the guide tube 2 and the pagoda-type connector 3, reducing safety hazards such as fluid leakage and pipeline damage caused by loose connection, extending the service life of the pipeline system, and reducing maintenance costs.

[0030] A mounting base 5 is bolted to the outer wall surface of the tee bend 1. A clamping screw 6 is provided on the surface of the mounting base 5. A positioning clamp 8 and a load-bearing clamp 12 are connected to the bottom end of the clamping screw 6. A positioning screw 9 is provided on the top surface of the load-bearing clamp 12. A positioning nut 10 is provided on the surface of the positioning screw 9. Positioning screw holes 11 are opened on both sides of the surface of the positioning clamp 8. The positioning screw holes 11 are threadedly connected to the positioning screw 9. The surface of the tee bend 1 is connected to the clamping screw 6 via the mounting base 5, which cooperates with the positioning clamp 8 and the load-bearing clamp 12 to position the end of the guide pipe 2. This makes the entire tee bend 1 have a built-in positioning clamp 8 structure, eliminating the need for other external tools during installation. The mounting base 5 provides the mounting foundation for the clamping screw 6, positioning clamp 8, and load-bearing clamp 12, firmly connecting these components to the outer wall of the tee bend 1. This allows the entire positioning and fixing structure to effectively act on the guide pipe 2, ensuring the accurate installation and stable operation of the guide pipe 2 on the tee bend 1. First, the mounting base 5 is installed at a suitable position on the outer wall of the tee bend 1. Then, the clamping screw 6 is passed through the clamping screw hole 7, and the positioning clamp 8 and load-bearing clamp 12 are installed at the bottom end of the clamping screw 6. By rotating the clamping screw 6, the relative position and clamping degree of the positioning clamp 8 and load-bearing clamp 12 with the guide pipe 2 are adjusted, achieving precise positioning and firm fixation of the guide pipe 2.

[0031] The clamping screw 6 adjusts the vertical position of the positioning clamp 8 and the load-bearing clamp 12 by rotation, thereby controlling the clamping force of the positioning clamp 8 and the load-bearing clamp 12 on the guide pipe 2, achieving the purpose of positioning and fixing the guide pipe 2. When installing the guide pipe 2, first insert the guide pipe 2 into the pagoda-shaped connector 3 and initially position it. Then rotate the clamping screw 6 to gradually bring the positioning clamp 8 and the load-bearing clamp 12 closer to the guide pipe 2 until a suitable clamping degree is achieved, firmly fixing the guide pipe 2 to the tee bend 1. When it is necessary to disassemble or adjust the guide pipe 2, simply rotate the clamping screw 6 in the opposite direction to loosen the positioning clamp 8 and the load-bearing clamp 12. This provides a simple and effective way to adjust the clamping force of the positioning clamp 8 and the load-bearing clamp 12 on the guide pipe 2, facilitating the installation, disassembly and adjustment of the guide pipe 2, and improving the maintainability and flexibility of the entire tee connector.

[0032] The T-bend 1 has a flow guide plate 4 inside. The outer wall of the flow guide plate 4 is threaded to the inner wall of the T-bend 1. The flow guide plate 4 has multiple arc-shaped blades 402 inside. The surface of the arc-shaped blades 402 is evenly distributed with flow guide arc grooves 403. The two ends of the arc-shaped blades 402 are provided with guide shafts 401, and the guide shafts 401 are movably connected to the inner wall of the flow guide plate 4. The pipes on the surface of the T-bend 1 in three directions are provided with a structure of mounting base 5, pagoda-shaped connector 3 and flow guide plate 4. The pagoda-shaped connector 3 is threaded to the inner wall of the tee bend 1. The surfaces of the positioning clamp 8 and the load-bearing clamp 12 are coated with silicone. The inner wall of the pagoda-shaped connector 3 is coated with silicone. The guide plate 4 guides the liquid entering the tee bend 1. Through its internal arc-shaped blade 402 structure, it converts the kinetic energy of the liquid into rotational power, changes the flow pattern of the liquid, makes the liquid flow in an orderly manner, accelerates the liquid flow speed, prevents the liquid from accumulating in the tee bend 1, and improves the liquid transmission efficiency. The outer wall of the guide plate 4 is threaded to the inner wall of the tee bend 1 and is fixed in a suitable position inside the tee bend 1. When liquid flows into the tee bend 1 and impacts the arc-shaped blade 402, the guide shafts 401 at both ends of the arc-shaped blade 402 are movably connected to the inner wall of the guide plate 4. Under the action of the liquid impact force, the arc-shaped blade 402 can rotate freely around the guide shafts 401. After the liquid enters the tee bend 1, it first impacts the arc-shaped blade 402 on the guide plate 4. Under the action of the liquid impact force and its own rotatable structure, the arc-shaped blade 402 begins to rotate. During the rotation, the guide arc grooves 403 on the surface of the arc-shaped blade 402 guide the liquid to flow along a specific trajectory, transforming the liquid, which may have flowed randomly or slowly, into a fast and orderly spiral flow. This allows the liquid to pass through the tee bend 1 more smoothly and flow to each guide pipe 2, avoiding the accumulation of liquid in the tee bend 1, optimizing the flow state of the liquid in the tee bend 1, reducing the resistance and pressure loss of the liquid flow, improving the liquid transmission speed and efficiency, and ensuring the stable and rapid transmission of liquid in the entire pipeline system. It is especially suitable for industrial production and chemical fluid transportation fields where high liquid transmission efficiency is required. Specific Implementation Example 2:

[0034] Reference Figure 1-6 Based on the content of the above specific embodiments, the following content is further disclosed:

[0035] Both the mounting base 5 and the positioning clamp 8 have clamping screw holes 7 on their surfaces. The clamping screw holes 7 are threaded to the surface of the clamping screw 6. The positioning clamp 8 mainly provides radial positioning for the guide pipe 2, ensuring the accurate installation position of the guide pipe 2 on the tee bend 1 and preventing the guide pipe 2 from shifting or shaking in the horizontal direction. This ensures that the fluid can flow smoothly from the guide pipe 2 into or out of the tee bend 1. The load-bearing clamp 12 bears part of the weight of the guide pipe 2 and the force generated when the fluid flows in the guide pipe 2, preventing the guide pipe 2 from sagging or shifting due to its own weight or fluid impact. This ensures the stability and reliability of the connection between the guide pipe 2 and the tee bend 1. During installation, the guide pipe 2 is first inserted into the pagoda-shaped connector. Part 3 is then tightened by pressing screw 6 to bring positioning clamp 8 and load-bearing clamp 12 close to the guide pipe 2. Positioning clamp 8 is threadedly connected to positioning screw hole 11 on load-bearing clamp 12 through positioning screw 9 to achieve precise radial positioning. At the same time, load-bearing clamp 12 bears the weight and force of guide pipe 2. The two work together to ensure the stable installation of guide pipe 2 on tee bend 1, achieving precise positioning and stable support for guide pipe 2. This effectively prevents displacement, shaking and sagging of guide pipe 2 during use, ensures the stability and safety of fluid transmission, reduces the risk of leakage and damage caused by unstable installation of guide pipe 2, and improves the reliability and durability of the entire pipeline system.

[0036] In summary:

[0037] 1. The guide pipe 2 is installed using a pagoda-shaped connector 3 connected internally to a tee bend 1. The inner wall of the pagoda-shaped connector 3 has multiple threaded connection grooves 301 with gradually decreasing diameters, which can accommodate guide pipes 2 of different diameters, greatly expanding the application range of this tee connector. Whether facing the connection requirements of various specifications of guide pipes 2 in a newly built pipeline system, or in the process of upgrading an old system, there is no need to replace the tee bend 1 due to the difference in diameter of the guide pipe 2, which significantly reduces material costs and construction complexity. At the same time, the metal spring plate 302 provides circumferential limiting for the installation end of the guide pipe 2. With the help of the installation base 5, clamping screw 6, positioning clamp 8 and load-bearing clamp 12, the connection end of the guide pipe 2 is positioned and fixed, so that the entire installation process does not require many complicated external tools. The operation is simple and quick, greatly shortening the installation time and improving the efficiency of engineering construction or system transformation.

[0038] 2. The liquid is guided by a flow guide plate 4 inside the tee bend 1. When the liquid flows in, it impacts the arc-shaped blades 402 inside the flow guide plate 4. Since the guide shafts 401 at both ends of the arc-shaped blades 402 are movably connected to the inner wall of the flow guide plate 4, the blades can rotate freely under the action of liquid impact force. The flow guide grooves 403 evenly distributed on the surface of the arc-shaped blades 402 guide the liquid to form an orderly spiral flow. This flow pattern effectively accelerates the liquid velocity and prevents the liquid from accumulating in the tee bend 1. On the one hand, it reduces the resistance and pressure loss of the liquid flow and improves the liquid transmission efficiency of the entire pipeline system, which helps to improve the production capacity of related industrial production or fluid transportation processes. On the other hand, the stable liquid flow state reduces the vibration and wear of the pipeline system caused by liquid impact, turbulence and other factors, extends the service life of the tee connectors and the entire pipeline system, reduces the frequency and cost of maintenance, and ensures the long-term stable operation of the system.

[0039] In this invention, unless otherwise explicitly specified and limited, "above" or "below" the second feature can include direct contact between the first and second features, or contact between the first and second features through another feature between them. Furthermore, "above," "over," and "on top" of the second feature includes the first feature directly above or diagonally above the second feature, or simply indicates that the first feature is at a higher horizontal level than the second feature. "Below," "below," and "under" the second feature includes the first feature directly below or diagonally below the second feature, or simply indicates that the first feature is at a lower horizontal level than the second feature.

[0040] The foregoing has shown and described the basic principles, main features, and advantages of this utility model. Those skilled in the art should understand that this utility model is not limited to the above embodiments. The embodiments and descriptions in the specification are merely preferred examples and are not intended to limit the utility model. Various changes and modifications can be made to this utility model without departing from its spirit and scope, and all such changes and modifications fall within the scope of the claimed utility model. The scope of protection of this utility model is defined by the appended claims and their equivalents.

Claims

1. A tee connector suitable for multiple interfaces, comprising a tee bend (1) and a flow guide (2), characterized in that: The three-way elbow (1) is provided with a pagoda-shaped connector (3) near the end position inside, the inner wall of the pagoda-shaped connector (3) is provided with a plurality of threaded connection grooves (301) with gradually decreasing diameters, the end of the flow guide pipe (2) abuts against the surface of the threaded connection groove (301), the three-way elbow (1) is internally provided with a flow guide disc (4), the outer wall surface of the three-way elbow (1) is bolted with a mounting base (5), the surface of the mounting base (5) is provided with a compression screw (6), the bottom end of the compression screw (6) is connected with a positioning clamp (8) and a load-bearing clamp (12), and the outer wall of the flow guide pipe (2) abuts against the surface of the positioning clamp (8) and the load-bearing clamp (12).

2. The tee connector suitable for multiple interfaces according to claim 1, wherein: The inner wall of the threaded connection groove (301) is circumferentially provided with a recovery groove (303), the edge of the recovery groove (303) is provided with a metal spring sheet (302), one end of the metal spring sheet (302) is welded with one end of the recovery groove (303), and the surface of the metal spring sheet (302) abuts against the surface of the flow guide pipe (2).

3. The tee connector suitable for multiple interfaces according to claim 1, wherein: The top surface of the load-bearing clamp (12) is provided with a positioning screw (9), the surface of the positioning screw (9) is provided with a positioning nut (10), the surface of the positioning clamp (8) is provided with a positioning screw hole (11) on both sides, and the positioning screw hole (11) is in threaded connection with the positioning screw (9).

4. The tee connector suitable for multiple interfaces according to claim 1, wherein: The surfaces of the mounting base (5) and the positioning clamp (8) are both provided with a compression screw hole (7), and the compression screw hole (7) is in threaded connection with the surface of the compression screw (6).

5. The tee connector suitable for multiple interfaces according to claim 1, wherein: The outer wall of the flow guide disc (4) is in threaded connection with the inner wall of the three-way elbow (1), the inner part of the flow guide disc (4) is provided with a plurality of arc-shaped blades (402), the surface of the arc-shaped blade (402) is uniformly provided with a flow guide arc groove (403), and the two ends of the arc-shaped blade (402) are provided with a guide shaft (401), and the guide shaft (401) is in movable shaft connection with the inner wall of the flow guide disc (4).

6. The tee connector suitable for multiple interfaces according to claim 1, wherein: The surfaces of the three pipes in three directions of the three-way elbow (1) are all provided with the structures of the mounting base (5), the pagoda-shaped connector (3) and the flow guide disc (4), and the pagoda-shaped connector (3) is in threaded connection with the inner wall of the three-way elbow (1).

7. The tee connector suitable for multiple interfaces according to claim 1, wherein: The surfaces of the positioning clamp (8) and the load-bearing clamp (12) are both coated with a silica gel coating, and the inner wall of the pagoda-shaped connector (3) is coated with a silica gel coating.

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