Multi-interface cloud host data transmission line

Abstract

The utility model relates to the technical field of cloud host data transmission lines, and discloses a multi-interface cloud host data transmission line, which comprises an intermediary head and telescopic data joints, each telescopic data joint consists of a joint protection shell, a joint, a limiting slide block and a clamping piece, and the side wall of the intermediary head is provided with four telescopic data joints which are distributed at equal angles. A connector protection shell is arranged outside the four telescopic data connectors and connected with the side wall of the intermediary head, a connector and a clamping piece are arranged in the connector protection shell, the connector corresponds to the end, away from the intermediary head, in the connector protection shell, and two limiting sliding blocks distributed in an axial symmetry mode are arranged at the top and the bottom of the connector. According to the multi-interface cloud host data transmission line, the diversity of data transmission line joints is improved, the overall practicability is improved, the telescopic data joints can effectively protect the joints, and the service life of the joints is greatly prolonged.

Description

Technical Field

[0001] This utility model relates to the field of cloud host data transmission line technology, specifically a multi-interface cloud host data transmission line. Background Technology

[0002] In the wave of digitalization, the widespread application of cloud technology has made multi-interface cloud servers a critical infrastructure for many enterprises and institutions. As the amount of data grows exponentially, the efficiency and stability of data transmission are becoming increasingly important.

[0003] Cloud hosts need to connect to various external devices, such as storage arrays, server clusters, and network switches. Different devices have different data transmission requirements. The single nature of traditional data transmission lines makes it difficult to meet the dual requirements of diverse interfaces and high-speed transmission. At the same time, application scenarios such as big data analysis and artificial intelligence training have put forward stringent standards for data transmission speed and real-time performance. If the performance of the transmission line is insufficient, it will lead to problems such as data delay and packet loss, which will seriously affect the quality of cloud services and business efficiency. To address this, we propose a multi-interface cloud host data transmission line. Utility Model Content

[0004] (a) Technical problems to be solved

[0005] To address the shortcomings of existing technologies, this utility model provides a multi-interface cloud host data transmission line, which solves the aforementioned problems.

[0006] (II) Technical Solution

[0007] To achieve the above-mentioned objectives, this utility model provides the following technical solution: a multi-interface cloud host data transmission line, including an intermediary head, a telescopic data connector composed of a connector protective shell, a connector, a limiting slider, and a clamping component. The side wall of the intermediary head is provided with four telescopic data connectors distributed at equal angles. The four telescopic data connectors are externally provided with a connector protective shell connected to the side wall of the intermediary head, and the connector protective shell is internally provided with a connector and a clamping component. The connector is located inside the connector protective shell at one end opposite to the intermediary head, and the top and bottom of the connector are provided with two limiting sliders distributed axially symmetrically. The two limiting sliders are correspondingly slidably connected to the connector protective shell.

[0008] Preferably, the main body of the intermediary head has a pentagonal structure, and the sidewall of the intermediary head is provided with a main guide line, which is distributed at an equal angle to the four connector protective shells.

[0009] Preferably, the connector protective shell has an inner cavity that is connected to the connector and the clamping member. The side wall of the inner cavity is rectangular with an opening opposite the intermediate head. The two opposite side walls inside the inner cavity have two sets of axially symmetrically distributed guide grooves, and the top and bottom of the inner cavity have two axially symmetrically distributed T-shaped grooves.

[0010] Preferably, the connector has two internal wires on the inner side of the connector protective shell, and two sets of guide slides are provided on the two opposite side walls of the connector in an axisymmetrical arrangement. The guide slides are slidably connected with the guide slide grooves. Limiting slide grooves are provided at the top and bottom of the connector. The limiting slide grooves are connected with the limiting sliders. The limiting slide grooves are spatially perpendicular to the guide slides. An interface is provided on the side wall of the connector away from the end of the internal wire.

[0011] Preferably, the clamping component consists of two axially symmetrically distributed mating plates and four axially symmetrically distributed elastic elements, with the elastic elements welded between the two mating plates. A wire inlet is provided at the center of the mating plate surface, through which the internal wire passes and connects to the intermediate head. The clamping component is located between the joint and the inner wall of the joint protective shell.

[0012] Preferably, the bottom of the limiting slider is provided with a built-in block, which is slidably connected inside the limiting groove, and the middle position of the limiting slider is slidably connected inside the T-slot. The top end of the limiting slider is provided with an adjustment block.

[0013] (III) Beneficial Effects

[0014] Compared with the prior art, this utility model provides a multi-interface cloud host data transmission line, which has the following beneficial effects:

[0015] 1. This multi-interface cloud host data transmission cable boasts excellent protection performance. The connector protective shell provides all-around protection for the connector. When the connector is not in use, it can be retracted into the inner cavity of the connector protective shell by the movement of the limit slider. This effectively prevents the connector from being exposed to the outside, prevents collision damage, greatly extends the service life of the connector, ensures the long-term stable operation of the data transmission cable, reduces data transmission failures caused by connector damage, improves the reliability of the connection between the cloud host and external devices, reduces maintenance costs, and provides strong support for the continuous and stable operation of cloud services.

[0016] 2. This multi-interface cloud host data transmission cable also boasts outstanding flexibility and ease of operation. The pentagonal structure of the intermediary head allows for a reasonable layout of the four retractable data connectors, ensuring that using any one connector is not affected by the others. Furthermore, interface replacement is simple; the limit slider can be easily controlled via the adjustment block to extend or retract the connector, meeting the need for rapid switching between different external devices in various scenarios. Whether connecting to storage arrays, server clusters, or network switches, it can quickly find the appropriate interface and complete the connection, significantly improving work efficiency and adapting to application scenarios with extremely high real-time data transmission requirements, such as big data analysis and artificial intelligence training. Attached Figure Description

[0017] Figure 1This is a schematic diagram of the multi-interface cloud host data transmission line structure of this utility model;

[0018] Figure 2 This is a cross-sectional schematic diagram of the multi-interface cloud host data transmission line structure of this utility model;

[0019] Figure 3 This is a schematic diagram of the intermediary head of this utility model;

[0020] Figure 4 This is a schematic diagram of the connector of this utility model;

[0021] Figure 5 This is a schematic diagram of the clamping component of this utility model;

[0022] Figure 6 This is a schematic diagram of the limiting slider of this utility model.

[0023] In the diagram: 1. Intermediate head; 2. Connector protective shell; 3. Connector; 4. Limiting slider; 5. Main guide line; 6. Clamping element; 7. Inner cavity; 8. T-slot; 9. Guide slide groove; 10. Guide slide bar; 11. Limiting slide groove; 12. Internal wire; 13. Interface; 14. Mating plate; 15. Elastic element; 16. Wire port; 17. Built-in block; 18. Adjusting block. Detailed Implementation

[0024] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0025] Please see Figure 1-6 A multi-interface cloud host data transmission line includes an intermediary head 1 and a telescopic data connector composed of a connector protective shell 2, a connector 3, a limiting slider 4, and a clamping member 6. The side wall of the intermediary head 1 is provided with four telescopic data connectors distributed at equal angles. The four telescopic data connectors are provided with a connector protective shell 2 connected to the side wall of the intermediary head 1. The connector protective shell 2 is provided with a connector 3 and a clamping member 6 inside. The connector 3 is located inside the connector protective shell 2 at one end away from the intermediary head 1. The top and bottom of the connector 3 are provided with two limiting sliders 4 distributed axially symmetrically. The two limiting sliders 4 are slidably connected to the connector protective shell 2.

[0026] Furthermore, the main body of the intermediary head 1 has a pentagonal structure, and the side wall of the intermediary head 1 is provided with a main guide line 5. The main guide line 5 is distributed at equal angles with the four connector protective shells 2. The pentagonal structure ensures that the four telescopic data connectors on the side wall of the intermediary head 1 will not be affected by the other connectors when using any one connector, and the interface replacement is convenient, greatly improving the practical performance.

[0027] Furthermore, the connector protective shell 2 has an inner cavity 7, which is connected to the connector 3 and the clamping member 6. The side wall of the inner cavity 7 facing away from the intermediate head 1 has a rectangular opening structure. The two opposite side walls of the inner cavity 7 have two sets of axially symmetrically distributed guide grooves 9, and the top and bottom of the inner cavity 7 have two axially symmetrically distributed T-shaped grooves 8. The connector protective shell 2 can effectively protect the connector 3. When the connector 3 is not in use, the connector 3 is dragged into the connector protective shell 2 by the two limiting sliders 4. At this time, the clamping member 6 is compressed and continues to be compressed. When the limiting slider 4 slides to the short side of the T-shaped groove 8, the limiting slider 4 is pushed to any side of the short groove of the T-shaped groove 8. At this time, the limiting slider 4 slides to any side of the limiting groove 11, so that the connector 3 can be clamped. At this time, the interface 13 of the connector 3 is retracted into the inner cavity 7 of the connector protective shell 2, which can effectively protect the idle connector 3.

[0028] Furthermore, the connector 3 has two internal wires 12 inside the connector protective shell 2, and the two opposite side walls of the connector 3 have two sets of guide slides 10 distributed symmetrically on the axis. The guide slides 10 are slidably connected with the guide slide grooves 9. The top and bottom of the connector 3 are provided with limit slide grooves 11, which are connected with the limit sliders 4. The limit slide grooves 11 are spatially perpendicular to the guide slides 10. The side wall of the connector 3 is provided with an interface 13 away from the internal wires 12. The sliding cooperation between the guide slides 10 and the guide slide grooves 9 effectively ensures the smoothness of the sliding of the connector 3.

[0029] Furthermore, the clamping component 6 consists of two axisymmetrically distributed mating plates 14 and four axisymmetrically distributed elastic elements 15, with the elastic elements 15 welded between the two mating plates 14. A wire inlet 16 is provided at the center of the mating plate 14, and the internal wire 12 passes through the wire inlet 16 to connect with the intermediate head 1. The clamping component 6 is located between the connector 3 and the inner wall of the connector protective shell 2. The elastic elements 15 of the clamping component 6 are always in a compressed state to ensure the connection stability of the connector 3.

[0030] Furthermore, the bottom of the limiting slider 4 is provided with a built-in block 17, which is slidably connected inside the limiting slide groove 11, and the middle position of the limiting slider 4 is slidably connected inside the T-shaped groove 8. The top end of the limiting slider 4 is provided with an adjustment block 18, which facilitates the overall movement of the limiting slider 4.

[0031] Structural Description:

[0032] Intermediate Head 1: Intermediate Head 1 has a pentagonal main structure with the main line 5 and four telescopic data connectors distributed at equal angles on the side walls. It is the core hub of the data transmission line, connecting various parts to achieve data guidance.

[0033] Connector protective housing 2: Connector protective housing 2 is located outside the telescopic data connector and is connected to the side wall of intermediate head 1. Inside, there is a connector 3 and a clamping element 6, which provides all-round protection for connector 3.

[0034] Connector 3: Connector 3 is located inside the connector protective shell 2, away from the intermediate head 1. It has a guide slide 10 on the side wall, a limiting slide groove 11 at the top and bottom, and an interface 13 at the end for connecting external equipment.

[0035] Limiting slider 4: The limiting slider 4 is symmetrically distributed on the top and bottom of the connector 3 and slides with the connector protective shell 2. There is a built-in block 17 at the bottom and an adjustment block 18 at the top for easy movement.

[0036] Main line 5: Main line 5 is located on the side wall of intermediate head 1 and is distributed at the same angle as the four connector protective shells 2. It serves as the data transmission backbone and guides the cloud host data to each connector 3.

[0037] Clamping component 6: Clamping component 6 consists of two mating plates 14 and four elastic components 15, located between the connector 3 and the inner wall of the connector protective shell 2. The elastic components 15 ensure the connection stability of the connector 3.

[0038] Inner cavity 7: The inner cavity 7 is located inside the connector protective shell 2 and has a rectangular opening structure. It cooperates with the connector 3 and the clamping part 6. When not in use, it can accommodate the connector 3 and provide protective space.

[0039] T-slot 8: T-slot 8 is symmetrically distributed on the top and bottom of the inner cavity 7. It works with the limiting slider 4 to control the extension and retraction of the connector 3 and achieve snap-fit ​​positioning.

[0040] Guide groove 9: The guide groove 9 consists of two sets of axisymmetrically distributed on two opposite side walls inside the inner cavity 7, which cooperate with the guide strip 10 of the connector 3 to ensure smooth sliding of the connector 3;

[0041] Guide slide 10: The guide slide 10 is axially symmetrically distributed on the two opposite side walls of the joint 3 and slides in conjunction with the guide slide groove 9 to ensure the stability of the joint 3 during the extension and retraction process;

[0042] Limiting groove 11: The limiting groove 11 is opened at the top and bottom of the connector 3, cooperates with the limiting slider 4, and is spatially perpendicular to the guide slider 10, assisting in the positioning of the connector 3;

[0043] Internal wire 12: The internal wire 12 is located inside the protective shell 2 of the connector 3, passes through the wire port 16 of the clamping member 6 and connects to the intermediate head 1 to realize data transmission;

[0044] Interface 13: Interface 13 is located on the side wall of connector 3 away from the internal wire 12 end. It is a port for connecting external devices and is compatible with various external device interface types.

[0045] Mating plate 14: The mating plate 14 is symmetrically distributed on the clamping member 6. There is a wire hole 16 in the center of the plate surface. Together with the elastic member 15, it forms the clamping member 6 to ensure the connection of the joint.

[0046] Elastic element 15: The elastic element 15 is welded symmetrically between the two mating plates 14 and is in a compressed state, providing continuous elastic force to the joint 3 and ensuring stable connection.

[0047] Wire port 16: Wire port 16 is located at the center of the mating plate 14. The internal wire 12 passes through this point and connects to the intermediate head 1. It is the key channel for data transmission.

[0048] Built-in block 17: Built-in block 17 is located at the bottom of the limiting slider 4 and is slidably connected inside the limiting slide groove 11 to assist the limiting slider 4 in precise movement and positioning;

[0049] Adjusting block 18: The adjusting block 18 is located at the top of the limit slider 4, which makes it easy for the operator to directly control the overall movement of the limit slider 4, making the operation convenient.

[0050] Working Principle: Install the multi-interface cloud host data transmission cable correctly according to the diagram. The core operation of the multi-interface cloud host data transmission cable relies on the coordinated work of the intermediate head 1 and the telescopic data connectors. The intermediate head 1 has a pentagonal structure, with main guide lines 5 and four telescopic data connectors consisting of connector protective shells 2, connectors 3, limiting sliders 4, and clamping elements 6 distributed at equal angles on its side walls. The main guide lines 5 serve as the data transmission backbone, responsible for guiding cloud host data to each connector. When connecting to external devices, pushing the adjusting block 18 moves the limiting slider 4, causing it to move from the short side of the T-slot 8 to the long side, disengaging from the limiting groove 11. At this time, connector 3, under the elastic force of the clamping element 6, allows data to pass through. Through the sliding engagement of the guide slide 10 and the guide groove 9, the connector 3 extends out from the inner cavity 7 of the connector protective shell 2. The interface 13 on the connector 3 is used to connect external devices. The internal wire 12 passes through the wire port 16 of the clamping member 6 and connects to the intermediate head 1, completing the data path construction. When the connector 3 is not in use, the operation is reversed, dragging the connector 3 into the inner cavity 2 of the connector protective shell 2. The clamping member 6 is further compressed, and the limiting slider 4 slides to the short side of the T-slot 8 and is pushed to any side, entering the limiting groove 11 to achieve the snap-fit, so that the interface 13 is retracted into the inner cavity 7 for protection. Throughout the process, the pentagonal structure of the intermediate head 1 ensures that each connector works independently without interfering with each other, providing a stable and flexible connection method for data transmission.

[0051] Although embodiments of the present invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the present invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A multi-interface cloud host data transmission line, comprising an intermediate head (1), a telescopic data joint composed of a joint protective shell (2), a joint (3), a limiting sliding block (4) and a clamping piece (6), characterized in that: The side wall of the intermediate head (1) is provided with four telescopic data connectors distributed at equal angles, four external connector protection shells (2) are connected with the side wall of the intermediate head (1), and the internal connector (3) and clamping piece (6) are arranged in the connector protection shell (2).

2. The multi-interface cloud host data transmission line of claim 1, wherein: The main body of the intermediate head (1) is a pentagonal structure, and the side wall of the intermediate head (1) is provided with a main guide line (5), and the main guide line (5) is distributed at equal angles with the four connector protection shells (2).

3. The multi-interface cloud host data transmission line of claim 2, wherein: The internal cavity (7) is arranged in the connector protection shell (2), and the internal cavity (7) is connected with the connector (3) and the clamping piece (6), and the side wall of the internal cavity (7) is a rectangular opening structure away from the intermediate head (1), two groups of axially symmetric guide sliding grooves (9) are arranged in the two opposite side walls of the internal cavity (7), and two T-shaped grooves (8) are arranged in the top and bottom of the internal cavity (7).

4. The multi-interface cloud host data transmission line of claim 3, wherein: The connector (3) is provided with two internal guide lines (12) on the side of the internal cavity (2), and two groups of axially symmetric guide sliding strips (10) are arranged on the two opposite side walls of the connector (3), and the guide sliding strips (10) are connected with the guide sliding grooves (9) in a sliding manner, and the limit sliding grooves (11) are arranged in the top and bottom of the connector (3), and the limit sliding grooves (11) are connected with the limit sliding blocks (4) in a sliding manner, and the limit sliding grooves (11) are arranged in a spatial vertical manner with the guide sliding strips (10), and the connector (3) is provided with an interface (13) on the side wall away from the internal guide line (12).

5. The multi-interface cloud host data transmission line of claim 3, wherein: The clamping piece (6) is composed of two axially symmetric matching plates (14) and four axially symmetric elastic pieces (15), and the elastic pieces (15) are welded between the two matching plates (14), the wire port (16) is arranged in the center of the plate surface of the matching plate (14), the internal guide line (12) passes through the wire port (16) and is connected with the intermediate head (1), and the clamping piece (6) is arranged between the connector (3) and the inner wall of the connector protection shell (2).

6. The multi-interface cloud host data transmission line of claim 1, wherein: The limit sliding block (4) is provided with an internal block (17) at the bottom, the internal block (17) is connected with the limit sliding groove (11) in a sliding manner, and the limit sliding block (4) is connected with the T-shaped groove (8) in a sliding manner at the middle position, and the top of the limit sliding block (4) is provided with an adjusting block (18).

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