A computer network integration interface for transmitting data

Abstract

The utility model relates to computer network integrated interface technical field, and disclose a kind of computer network integrated interface of transmission data, comprising: integrated interface box and the transmission interface of being arranged in its front, transmission interface outer end both sides are equipped with protective batten, protective batten outside center fixed epitaxial plate;Integrated interface box front is inserted with guide rod, reset spring is sleeved on the surface of guide rod, and the both ends of reset spring are respectively attached with guide rod and integrated interface box inner wall;Epitaxial plate back is equipped with locating recess, and locating convex block is slidably connected in it, extrusion spring is arranged between locating convex block and locating recess inner wall, and locating convex block is connected with the outer end of guide rod.When data transmission connector is inserted, locating convex block is driven along locating recess and slides, and extrusion spring is pushed epitaxial plate by elastic deformation and drives both sides protective batten synchronous displacement, realize and the self-adapting clamping cooperation of joint shell, and the risk of external force collision and foreign matter invasion is reduced by the physical obstruction of protective batten.

Description

Technical Field

[0001] This utility model relates to the field of computer network integration interface technology, specifically to a computer network integration interface for transmitting data. Background Technology

[0002] Computer network integration interfaces (CIAs) are crucial for data transmission and communication between different devices, systems, or components within a network system. They ensure seamless collaboration between heterogeneous networks through standardized or customized physical and logical protocols. Common physical interface types include Ethernet, fiber optic, USB, and RS-232, and their function is to achieve physical connections between hardware devices, defining the transmission medium, speed, and electrical characteristics.

[0003] Traditional computer network integrated interfaces for data transmission involve inserting cables into the interface via connectors for data transmission. While convenient, this method suffers from poor connection stability, prone to separation and detachment, leading to data transmission interruptions or even failures. To address this issue, some computer network integrated interfaces for data transmission incorporate guide rods, springs, and clamps near the interface. When the cable is inserted through the connector, the spring moves the clamp on the guide rod, ensuring a tight fit between the clamp and the connector surface, thus guaranteeing connection stability and preventing separation, thereby ensuring normal data transmission. However, this method, due to its limited functionality and fixed clamp size (only able to secure the connector), restricts its applicability. Therefore, a new type of computer network integrated interface for data transmission is proposed. Utility Model Content

[0004] (a) Technical problems to be solved

[0005] To address the shortcomings of existing technologies, this utility model provides a computer network integrated interface for transmitting data, thereby solving the aforementioned technical problems that not only result in limited functionality but also restrict the scope of application.

[0006] (II) Technical Solution

[0007] To achieve the above objectives, this utility model provides the following technical solution: a computer network integrated interface for transmitting data, comprising:

[0008] An integrated junction box and a transmission interface located on the front of the integrated junction box, with protective plates added to both sides of the outer end of the transmission interface, and an extension plate installed at the center of the outer side of each protective plate.

[0009] A guide rod is inserted and connected to the front of the integrated junction box, and a return spring is sleeved on the surface of the guide rod. The two ends of the return spring are respectively attached to the surface of the guide rod and the inner wall of the integrated junction box.

[0010] A positioning groove is formed on the back of the extension plate, and a positioning protrusion is slidably connected to the inner cavity of the positioning groove. A compression spring is added between the surface of the positioning protrusion and the inner wall of the positioning groove, and the positioning protrusion is connected to the outer end of the guide rod. When no external connector is inserted, the protective plate remains closed by engaging with the positioning protrusion through the positioning groove on the back of the extension plate. At this time, the return spring is in a naturally extended state, and the positioning protrusion is pressed tightly against the end of the positioning groove by the elastic force of the compression spring. When the external connector is inserted axially along the transmission interface, the protective plates on both sides are pulled outward. The protective plate drives the positioning protrusion to slide along the positioning groove through the extension plate. At the same time, the compression spring is compressed to generate a reverse thrust. When the positioning protrusion is driven by the extension plate, it drives the guide rod to slide outward along the guide hole on the front of the integrated junction box. The return spring is compressed to store elastic potential energy. When the connector is fully inserted into the transmission interface, the positioning protrusion forms a rigid engagement with the positioning groove under the action of the compression spring to prevent the protective plate from rebounding. When the external connector is pulled out, the return spring releases elastic potential energy to push the guide rod to return inward, driving the positioning protrusion to slide in the opposite direction along the positioning groove. The compression spring simultaneously pushes the extension plate to bring the protective plate together towards the center, finally restoring the initial closed state.

[0011] Preferably, the integrated junction box has side through holes evenly distributed on its front side, and these side through holes are located on both sides of the transmission interface. The side through holes on the front side of the integrated junction box adopt a variable diameter design, with the outer port radius being smaller than the inner cavity radius, forming a stepped channel.

[0012] Preferably, the radius of the outer port of the side through hole is smaller than the radius of the inner cavity of the side through hole, and the guide rod and the return spring are disposed in the inner cavity of the side through hole. The radius of the guide rod is the same as the size and shape of the radius of the outer port of the side through hole. The guide rod and the return spring are built into the inner cavity of the side through hole, and the outer diameter of the guide rod is precisely matched with the size of the outer port of the side through hole. When the external connector is inserted, the guide rod is driven by external force to slide along the axial direction of the side through hole, and the return spring is compressed synchronously. The stepped structure of the side through hole prevents the guide rod from radially deviating through radial limiting.

[0013] Preferably, a connecting plate is installed at the inner end of the guide rod, and the connecting plate slides against the inner wall of the side through hole. Both ends of the return spring are respectively against the connecting plate and the inner wall of the side through hole. The connecting plate installed at the inner end of the guide rod forms a surface contact sliding fit with the inner wall of the side through hole. Both ends of the return spring abut against the outer surface of the connecting plate and the end of the inner cavity of the side through hole, respectively. When the guide rod is pulled outwards and slids, the connecting plate translates along the inner wall of the side through hole and compresses the return spring.

[0014] Preferably, fixing posts are installed on both the upper and lower sides of the transmission interface, and arc-shaped springs are connected to the outer ends of the fixing posts, with connecting posts installed at the ends of the arc-shaped springs. The fixing posts on the upper and lower sides of the transmission interface are elastically connected to the connecting posts through the arc-shaped springs.

[0015] Preferably, the outer ends of the connecting columns are rotatably connected to transverse connecting columns, and the surfaces of the transverse connecting columns are rotatably connected to protective sleeves. The outer ends of the connecting columns and the protective sleeves form a rotating pair. When the external connector is inserted, the cable on the connector first contacts the protective sleeve. The transverse connecting columns push the connecting columns to compress the arc springs, generating an elastic buffering force perpendicular to the insertion and removal direction, thereby clamping the cable on the connector.

[0016] (III) Beneficial Effects

[0017] Compared with the prior art, the present invention provides a computer network integrated interface for transmitting data, which has the following advantages:

[0018] 1. The computer network integrated interface for transmitting data has protective shields set on both sides of the outer end of the transmission interface, which can physically shield the interface area, effectively reducing the risk of direct collision with external forces or intrusion of foreign objects, avoiding contact problems caused by accidental touch or dust accumulation, thereby improving the stability of equipment operation;

[0019] 2. This computer network integrated interface for data transmission, when the data transmission connector is inserted into the transmission interface, the positioning protrusion slides along the inner wall of the positioning groove driven by the connector insertion action. At this time, the compression spring generates a continuous axial thrust through elastic deformation, driving the outer extension plate to move the protective plates on both sides synchronously towards the connector, so that the protective plates and the connector shell form an adaptive clamping fit. This synchronous clamping structure based on spring force transmission can automatically adapt to the shape and size of connectors of different specifications, and improve functionality and application range. After insertion, the surface contact between the protective plates and the connector replaces the traditional line contact, significantly increasing the contact area to disperse external stress. At the same time, the preload of the compression spring can effectively offset the dynamic displacement generated under vibration conditions, preventing the connector from loosening due to long-term micro-vibration. Combined with the axial buffering characteristics provided by the return spring, a multi-dimensional mechanical stability protection system is constructed, which ensures the high reliability of the data transmission link and extends the service life of the interface structure in complex application scenarios. Attached Figure Description

[0020] Figure 1 This is a schematic diagram of the overall structure of this utility model;

[0021] Figure 2 This is a schematic diagram of the integrated junction box structure of this utility model;

[0022] Figure 3This is a schematic diagram of the protective card plate and its connection structure of this utility model;

[0023] Figure 4 This is a cross-sectional view of the internal structure of the extension plate of this utility model;

[0024] Figure 5 This is an enlarged cross-sectional view of the integrated junction box portion of this utility model;

[0025] Figure 6 This is a cross-sectional view of the internal structure of the protective sleeve of this utility model.

[0026] In the diagram: 1. Integrated junction box; 2. Transmission interface; 3. Side through hole; 4. Guide rod; 5. Return spring; 6. Positioning protrusion; 7. Outer plate; 8. Positioning groove; 9. Compression spring; 10. Protective clamping plate; 11. Ring connecting plate; 12. Fixing post; 13. Arc spring; 14. Connecting post; 15. Horizontal connecting post; 16. Protective sleeve. Detailed Implementation

[0027] 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.

[0028] This utility model provides a technical solution, a computer network integrated interface for transmitting data, including: (See details) Figures 1 to 5 The integrated junction box 1 and the transmission interface 2 are provided on the front of the integrated junction box 1. The transmission interface 2 is provided with protective plates 10 on both sides of the outer end, and an extension plate 7 is installed on the outer center of the protective plates 10.

[0029] The guide rod 4 is inserted and connected to the front of the integrated junction box 1, and a return spring 5 is sleeved on the surface of the guide rod 4. The two ends of the return spring 5 are respectively attached to the surface of the guide rod 4 and the inner wall of the integrated junction box 1.

[0030] A positioning groove 8 is formed on the back of the extension plate 7, and a positioning protrusion 6 is slidably connected to the inner cavity of the positioning groove 8. A compression spring 9 is added between the surface of the positioning protrusion 6 and the inner wall of the positioning groove 8, and the positioning protrusion 6 is connected to the outer end of the guide rod 4. When no external connector is inserted, the protective plate 10 is kept closed by the engagement of the positioning groove 8 on the back of the extension plate 7 and the positioning protrusion 6. At this time, the return spring 5 is in a naturally extended state, and the positioning protrusion 6 is pressed tightly against the end of the inner cavity of the positioning groove 8 by the elastic force of the compression spring 9. When the external connector is inserted axially along the transmission interface 2, the protective plates 10 on both sides are pulled outward. The protective plate 10 drives the positioning protrusion 6 to slide along the positioning groove 8 through the extension plate 7. At the same time, the compression spring 9 is compressed to generate a reverse thrust. When the positioning protrusion 6 is driven by the extension plate 7, it drives the guide rod 4 to slide outward along the guide hole on the front of the integrated junction box 1. The return spring 5 is compressed to store elastic potential energy. When the connector is fully inserted into the transmission interface 2, the positioning protrusion 6 is pressed outward by the compression spring 9. The positioning groove 8 forms a rigid engagement to prevent the protective plate 10 from springing back. When the external connector is pulled out, the return spring 5 releases its elastic potential energy to push the guide rod 4 to return to its original position, causing the positioning protrusion 6 to slide in the opposite direction along the positioning groove 8. The compression spring 9 simultaneously pushes the extension plate 7 to bring the protective plate 10 together towards the center, eventually restoring the initial closed state. Through the physical isolation design between the protective plate 10 and the transmission interface 2, the direct contact of external foreign objects with the transmission interface 2 is effectively prevented when not in operation, significantly reducing the risk of signal interference caused by accidental contact or dust intrusion, and improving the safety of equipment use. The sliding engagement design between the positioning protrusion 6 and the positioning groove 8 automatically forms a mechanical lock after the connector is inserted, effectively resisting the loosening of the transmission interface 2 caused by vibration or pulling, which is particularly suitable for industrial control and other scenarios.

[0031] Please see Figure 2 , Figure 3 and Figure 4The integrated junction box 1 has evenly spaced side through holes 3 on its front side, located on both sides of the transmission interface 2. The side through holes 3 on the front of the integrated junction box 1 employ a variable diameter design, with the outer port radius smaller than the inner cavity radius, forming a stepped channel. The outer port radius of the side through hole 3 is smaller than the inner cavity radius, and the guide rod 4 and return spring 5 are disposed within the inner cavity of the side through hole 3. The radius of the guide rod 4 is consistent with the size and shape of the outer port radius of the side through hole 3. The guide rod 4 and return spring 5 are internally housed within the inner cavity of the side through hole 3, and the outer diameter of the guide rod 4 precisely matches the outer port size of the side through hole 3. When an external connector is inserted, the guide rod 4 is driven by external force to slide axially along the side through hole 3, and the return spring 5 is simultaneously compressed. The stepped structure of the side through hole 3 prevents radial displacement of the guide rod 4 through radial limiting. Through the precise cooperation between the stepped side through hole 3 and the guide rod 4, precise axial guidance is achieved during connector insertion and removal, avoiding jamming caused by the tilting of the guide rod 4. A connecting plate 11 is installed at the inner end of the guide rod 4, and the connecting plate 11 slides against the inner wall of the side through hole 3. The two ends of the return spring 5 are respectively in contact with the connecting plate 11 and the inner wall of the side through hole 3. The connecting plate 11 installed at the inner end of the guide rod 4 forms a surface contact sliding fit with the inner wall of the side through hole 3, and the two ends of the return spring 5 abut against the outer surface of the connecting plate 11 and the end of the inner cavity of the side through hole 3, respectively. When the guide rod 4 is pulled outwards, the connecting plate 11 translates along the inner wall of the side through hole 3 and compresses the return spring 5. By increasing the contact area, the connecting plate 11 prevents the return spring 5 from deforming and failing due to localized stress concentration, significantly improving the working reliability of the spring assembly.

[0032] Please see Figure 6 The transmission interface 2 has fixed posts 12 installed on both the upper and lower sides, and each fixed post 12 is connected to an arc spring 13 at its outer end, with a connecting post 14 installed at the end of each arc spring 13. The fixed posts 12 on both the upper and lower sides of the transmission interface 2 are elastically connected to the connecting posts 14 through the arc springs 13. Each connecting post 14 is rotatably connected to a horizontal connecting post 15 at its outer end, and a protective sleeve 16 is rotatably connected to the surface of each horizontal connecting post 15. The outer end of the connecting post 14 forms a rotating pair with the protective sleeve 16 via the cross link 15. When the external connector is inserted, the cable on the connector first contacts the protective sleeve 16. The cross link 15 pushes the connecting post 14 to compress the arc spring 13, generating an elastic buffer force perpendicular to the insertion and removal direction, thereby clamping the cable on the connector. The arc structure of the arc spring 13 provides non-linear elastic characteristics, preventing the cable from being damaged by bending due to pressure during long-term use and affecting the data transmission effect. The protective sleeve 16 adapts to the surface angle of the cable through the rotating pair structure, avoiding surface scratches caused by hard contact.

[0033] This solution: When no external connector is inserted, the protective plate 10 on the front of the integrated junction box 1 is kept closed by the positioning groove 8 on the back of the extension plate 7 and the positioning protrusion 6. At this time, the reset spring 5 is in a naturally extended state, and the positioning protrusion 6 is pressed against the end of the inner cavity of the positioning groove 8 by the elastic force of the compression spring 9, forming a physical isolation to prevent external foreign objects from contacting the transmission interface 2.

[0034] When the external connector is inserted along the transmission interface 2, the protective plates 10 on both sides are driven to move outward by external force. The protective plates 10 drive the positioning protrusions 6 to slide along the positioning grooves 8 through the extension plate 7, and simultaneously compress the spring 9 to generate a reverse thrust. At the same time, the positioning protrusions 6 drive the guide rod 4 to slide outward along the side through hole 3 on the front of the integrated junction box 1. The reset spring 5 is compressed and stores elastic potential energy.

[0035] When the connector is fully inserted into the transmission interface 2, the positioning protrusion 6 is rigidly engaged with the positioning groove 8 under the elastic force of the compression spring 9. During this process, the stepped inner cavity of the side through hole 3 ensures the axial precise movement of the guide rod 4 through radial limiting, avoiding the guide rod 4 from jamming due to radial offset.

[0036] When the external connector is pulled out, the reset spring 5 releases the stored elastic potential energy, pushes the guide rod 4 to reset inward along the side through hole 3, and the guide rod 4 drives the positioning protrusion 6 to slide in the opposite direction along the positioning groove 8. At the same time, the compression spring 9 pushes the extension plate 7 synchronously, causing the protective plate 10 to gather towards the center and finally restore the initial closed state.

[0037] The ring connecting plate 11 installed at the inner end of the guide rod 4 forms a surface contact sliding fit with the inner wall of the side through hole 3. During the sliding process of the guide rod 4, the ring connecting plate 11 moves along the inner wall of the side through hole 3 and evenly distributes the stress of the return spring 5 to the end of the inner cavity of the side through hole 3, avoiding spring deformation failure caused by local stress concentration.

[0038] When the external connector is inserted, the connector cable first contacts the protective sleeves 16 on the upper and lower sides of the transmission interface 2. The cable pushes the connecting post 14 through the horizontal connecting post 15 to compress the arc spring 13, generating an elastic buffer force perpendicular to the insertion and removal direction. The non-linear elastic characteristics of the arc spring 13 can prevent the cable from being damaged by long-term pressure bending. The rotating joint structure of the protective sleeve 16 adapts to the angle of the cable surface to prevent hard contact scratches.

[0039] It should be noted that, in this document, relational terms such as "first" and "second" are used only to distinguish one entity or operation from another, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Furthermore, the terms "comprising," "including," or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such process, method, article, or apparatus.

[0040] 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 computer network integrated interface for transmitting data, characterized in that, include: An integrated junction box (1) and a transmission interface (2) provided on the front of the integrated junction box (1), and protective plates (10) are provided on both sides of the outer end of the transmission interface (2), and an extension plate (7) is installed on the outer center of the protective plate (10). A guide rod (4) is inserted and connected to the front of the integrated junction box (1), and a return spring (5) is sleeved on the surface of the guide rod (4). The two ends of the return spring (5) are respectively attached to the surface of the guide rod (4) and the inner wall of the integrated junction box (1). A positioning groove (8) is formed on the back of the extension plate (7), and a positioning protrusion (6) is slidably connected to the inner cavity of the positioning groove (8). A compression spring (9) is provided between the surface of the positioning protrusion (6) and the inner wall of the positioning groove (8), and the positioning protrusion (6) is connected to the outer end of the guide rod (4).

2. The computer network integrated interface for transmitting data according to claim 1, characterized in that: The integrated junction box (1) has side through holes (3) evenly distributed on the front side, and the side through holes (3) are located on both sides of the transmission interface (2).

3. The computer network integrated interface for transmitting data according to claim 2, characterized in that: The outer port radius of the side through hole (3) is smaller than the inner cavity radius of the side through hole (3), and the guide rod (4) and the reset spring (5) are disposed in the inner cavity of the side through hole (3). The radius of the guide rod (4) is consistent with the outer port radius and shape of the side through hole (3).

4. The computer network integrated interface for transmitting data according to claim 3, characterized in that: The inner end of the guide rod (4) is fitted with a ring plate (11), and the ring plate (11) slides against the inner wall of the side through hole (3). The two ends of the reset spring (5) are respectively attached to the inner wall of the ring plate (11) and the side through hole (3).

5. The computer network integrated interface for transmitting data according to claim 1, characterized in that: The upper and lower sides of the transmission interface (2) are equipped with fixing posts (12), and the outer ends of the fixing posts (12) are connected to arc springs (13), and connecting posts (14) are installed at the ends of the arc springs (13).

6. The computer network integrated interface for transmitting data according to claim 5, characterized in that: The outer ends of the connecting column (14) are rotatably connected to the horizontal connecting column (15), and the surface of the horizontal connecting column (15) is rotatably connected to the protective sleeve (16).

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