Communication data anti-falling joint

Abstract

The utility model relates to the technical field of connectors, and discloses a communication data anti-falling connector, which is characterized in that a table comprises a case body, a positioning groove plate and an anti-folding mechanism, a data connector female head is arranged on the right side of the case body, the positioning groove plate is fixedly connected to the right side of the case body, and the anti-folding mechanism is arranged on the right side of the case body. A data connector male head is inserted into the data connector female head, a push plate is slidably connected into the data connector male head, a sliding block is slidably connected into the data connector male head, an inclined block making contact with the push plate is fixedly connected to the right side of the sliding block, and a first clamping plate is fixedly connected to the left side of the sliding block. The first clamping plate is connected with the positioning groove plate to prevent the data connector male head from falling off, a worker pushes the push plate with fingers and pinches the data connector male head at the same time during disassembly, the data connector male head can be rapidly disassembled, the data connector male head can be directly inserted during installation, excessive operation is not needed, installation and disassembly are more rapid and convenient, and the work efficiency is improved. And the device can be easily mounted and dismounted in a narrow environment, so that the working efficiency can be effectively improved.

Description

Technical Field

[0001] This utility model relates to the field of connector technology, and in particular to a communication data anti-detachment connector. Background Technology

[0002] A communication data connector is a communication interface device used to prevent accidental disconnection during the connection process. Its main purpose is to improve the stability and reliability of communication data transmission and avoid communication interruption or data loss caused by connector disconnection. Through a special anti-disconnection structure, the stability and reliability of the connection are improved, providing a strong guarantee for the transmission of communication data.

[0003] In existing technologies, data connectors are typically secured with small screws to prevent them from coming loose. However, these screws are usually small, and loosening them requires multiple turns to fully tighten or loosen them. This process is time-consuming and labor-intensive. Furthermore, the small size and concealed location of the screws inside equipment or in confined spaces make it difficult for workers to align and apply force during disassembly and installation, further increasing the difficulty. Therefore, there is a need to improve the communication data connector to prevent it from coming loose and solve these problems. Utility Model Content

[0004] To overcome the difficulty of disassembling and installing connectors that are secured with small screws to prevent them from falling off.

[0005] The technical solution of this utility model is as follows: a communication data anti-drop connector, including a chassis body, a positioning groove plate and an anti-bending mechanism. A data connector female is provided on the right side of the chassis body. The positioning groove plate is fixedly connected to the right side of the chassis body. A data connector male is inserted into the inside of the data connector female. A push plate is slidably connected inside the data connector male. A slider is slidably connected inside the data connector male. An inclined block that contacts the push plate is fixedly connected to the right side of the slider. A first locking plate is fixedly connected to the left side of the slider. The first locking plate is locked inside the positioning groove plate. An anti-bending mechanism is provided inside the data connector male.

[0006] Preferably, the male data connector has a matching groove at the corresponding position of the slider, and the slider slides inside the matching groove.

[0007] Preferably, the push plate and the inclined block are provided with inclined surfaces at corresponding positions, and the push plate and the inclined block are in contact through the inclined surfaces.

[0008] Preferably, a limit rod is fixedly connected inside the push plate, the limit rod is slidably connected inside the male data connector, a fixed plate is fixedly connected inside the male data connector, a spring is fixedly connected between the fixed plate and the slider, and a slide rod for limiting the push plate is slidably connected inside the fixed plate, the slide rod is fixedly connected inside the push plate.

[0009] Preferably, the fixing plate has a matching groove at the corresponding position of the slide rod, and the slide rod slides inside the matching groove.

[0010] Preferably, the anti-bending mechanism includes a locking post, which is fixedly connected inside the male data connector. A second locking plate is provided inside the male data connector. A rubber connecting plate is fixedly connected to the right side of the second locking plate. A rubber protective sleeve is fixedly connected to the right side of the rubber connecting plate. The data cable body is fixedly connected inside the male data connector.

[0011] Preferably, the second card is snapped between the card post and the male data connector. The rubber protective sleeve and the rubber connecting plate have openings inside, and the rubber connecting plate and the rubber protective sleeve can be opened through the openings, and the data cable body passes through the inside of the rubber connecting plate and the rubber protective sleeve.

[0012] The beneficial effects of this utility model are as follows: the first card plate connects to the positioning slot plate to prevent the male data connector from falling off. When disassembling, the operator can quickly disassemble the male data connector by pushing the push plate with their fingers and pinching the male data connector. When installing, it can be directly inserted without much operation. Installation and disassembly are faster and more convenient. It can also be easily installed and disassembled in narrow environments, which can effectively improve work efficiency. Attached Figure Description

[0013] Figure 1 This is a three-dimensional structural diagram of the present invention;

[0014] Figure 2 This is an exploded structural diagram of the present invention;

[0015] Figure 3 This is a schematic cross-sectional view of the male connector of the present invention.

[0016] Figure 4 This is a schematic diagram of the slider and its connected components of this utility model;

[0017] Figure 5 This is a cross-sectional view of the fixing plate of this utility model;

[0018] Figure 6 This is a schematic diagram of the anti-folding mechanism of this utility model.

[0019] Explanation of reference numerals in the attached drawings: 1. Chassis body; 21. Positioning slot plate; 22. Male data connector; 23. Push plate; 24. Slider; 25. Inclined block; 26. First locking plate; 27. Limiting rod; 28. Fixing plate; 29. ​​Spring; 210. Sliding rod; 31. Locking post; 32. Second locking plate; 33. Rubber connecting plate; 34. Rubber protective sleeve; 35. Data cable body; 4. Female data connector. Detailed Implementation

[0020] The present invention will be further described below with reference to the accompanying drawings and embodiments.

[0021] Please see Figure 1 - Figure 6 This utility model provides an embodiment of a communication data anti-drop connector, including a chassis body 1, a positioning groove plate 21, and an anti-bending mechanism. A female data connector 4 is provided on the right side of the chassis body 1. The positioning groove plate 21 is fixedly connected to the right side of the chassis body 1. A male data connector 22 is inserted into the female data connector 4. A push plate 23 is slidably connected inside the male data connector 22. A slider 24 is slidably connected inside the male data connector 22. An inclined block 25 that contacts the push plate 23 is fixedly connected to the right side of the slider 24. A first locking plate 26 is fixedly connected to the left side of the slider 24. The first locking plate 26 is locked inside the positioning groove plate 21. Equipped with an anti-bending mechanism, when disassembling the male data connector 22, push the push plate 23 with your finger. The push plate 23 pushes the inclined block 25, which causes the slider 24 to slide vertically. The vertical sliding of the slider 24 causes the first locking plate 26 to slide together. The sliding of the first locking plate 26 disengages from the locking of the positioning groove plate 21. Then, while pressing the push plate 23 with your finger, pinch the male data connector 22 to pull it out from the inside of the female data connector 4. During installation, align the male data connector 22 with the female data connector 4 and insert the male data connector 22 into the inside of the female data connector 4. At the same time, the first locking plate 26 will automatically slide under the pressure of the positioning groove plate 21. The first locking plate 26 automatically engages with the positioning slot plate 21 for positioning. The male connector 22 of the data connector has a matching groove at the corresponding position of the slider 24, and the slider 24 slides inside the matching groove. The groove limits the left and right positions of the slider 24, so that the slider 24 can only slide in a straight line inside the groove, avoiding deviation that could cause jamming or disengagement. The push plate 23 and the inclined block 25 have inclined surfaces at corresponding positions, and the push plate 23 and the inclined block 25 contact each other through the inclined surfaces. Through the contact of the inclined surfaces, the lateral movement of the limiting rod 27 can be converted into the vertical movement of the inclined block 25, thereby driving the two sliders 24 to move vertically at the same time. The push plate 23 is internally fixedly connected. A limiting rod 27 is slidably connected inside the male connector 22. A fixing plate 28 is fixedly connected inside the male connector 22. A spring 29 is fixedly connected between the fixing plate 28 and the slider 24. A sliding rod 210 that limits the push plate 23 is slidably connected inside the fixing plate 28. The sliding rod 210 is fixedly connected inside the push plate 23. By limiting the sliding rod 210 and the limiting rod 27, the push plate 23 can be prevented from sliding and tilting, ensuring the linear sliding of the push plate 23. The fixing plate 28 has a matching groove at the corresponding position of the sliding rod 210, and the sliding rod 210 slides inside the matching groove. The groove limits the sliding rod 210, preventing the sliding rod 210 from disengaging from the groove.

[0022] Please see Figure 1 , Figure 6 In this embodiment, the anti-bending mechanism includes a locking post 31, which is fixedly connected inside the male data connector 22. A second locking plate 32 is disposed inside the male data connector 22. A rubber connecting plate 33 is fixedly connected to the right side of the second locking plate 32, and a rubber protective sleeve 34 is fixedly connected to the right side of the rubber connecting plate 33. A data cable body 35 is fixedly connected inside the male data connector 22. The rubber protective sleeve 34 protects the connection between the data cable body 35 and the male data connector 22, preventing breakage at the connection point. Furthermore, the second locking plate 32 provides additional protection. Replace the rubber protective sleeve 34. The second clamping plate 32 is clamped between the clamping post 31 and the male data connector 22. The rubber protective sleeve 34 and the rubber connecting plate 33 have openings inside. The rubber connecting plate 33 and the rubber protective sleeve 34 can be opened through the openings. The data cable body 35 passes through the inside of the rubber connecting plate 33 and the rubber protective sleeve 34. The openings make it easy for the rubber protective sleeve 34 to be directly put on the outside of the data cable body 35. The rubber material has a certain degree of flexibility. The position of the rubber connecting plate 33 and the rubber protective sleeve 34 can be positioned by the second clamping plate 32.

[0023] During operation, the operator pushes the push plate 23 with their fingers. The push plate 23 is limited by the limit rod 27 and the slide rod 210. The push plate 23 pushes the inclined block 25, which in turn moves the slider 24 vertically. The slider 24 slides and compresses the spring 29, which is used for the automatic reset of the slider 24. The slider 24 drives the first locking plate 26, which disengages from the positioning groove plate 21, thus freeing the first locking plate 26 from its restraint. Then, while pushing against the limit rod 27 with the fingers, the operator pinches the male connector 22 and pulls it out of the female connector 4. During installation, the male connector 22 is aligned with the female connector. 4. Insertion is sufficient. The first card plate 26 will automatically move the slider 24 to slide under the pressure of the positioning groove plate 21. Once the first card plate 26 enters the interior of the positioning groove plate 21, the spring 29 will cause the slider 24 to move the first card plate 26 back to its original position, allowing the first card plate 26 to be re-engaged into the interior of the positioning groove plate 21. The rubber protective sleeve 34 can prevent the data cable body 35 from breaking at the connection point. The second card plate 32 is made of plastic. Pulling the rubber protective sleeve 34 will move the rubber connecting plate 33, which in turn moves the second card plate 32. The second card plate 32 will deform under the pressure of the card post 31, allowing it to be pulled out or installed.

[0024] By following the steps above, during disassembly, the operator can quickly disassemble the data connector male 22 by pushing the push plate 23 with their fingers and pinching the data connector male 22. During installation, it can be directly inserted without much operation, thus solving the problem that it is difficult to disassemble and install the connector that is fixed with small screws to prevent it from falling off.

[0025] Preferably, in a specific application scenario, the various structural components of the above-mentioned communication data anti-detachment connector are described in an alternative or preferred manner so that those skilled in the art can implement this application.

[0026] For the chassis itself: It has a regular shape, usually a cuboid, with internal space reserved for the installation of various components. The connection method involves welding or bolting to fix the positioning slot plate and data connector female to the right side. Its location is within the entire communication equipment, depending on the equipment layout. Dimensions are customized according to the overall equipment requirements, with length, width, and height ranging from tens of centimeters to several meters. The material used is aluminum alloy, due to its excellent strength, heat dissipation, and electromagnetic shielding capabilities. In terms of process optimization, machining ensures the precision of each mounting part, and anodizing the surface enhances wear resistance and aesthetics. Regarding tolerances, the dimensional tolerances for internal component installations are strictly controlled within ±0.1-±0.5mm. The material characteristics include low density, high strength, and good oxidation resistance. During maintenance, regularly check for damage or deformation, ensure the mounting screws are tight, and if the surface oxide layer is damaged, touch up with paint to maintain electromagnetic shielding performance.

[0027] For the positioning slot plate: the structure is a plate with a specific groove, which fits the first clamping plate. It is securely fixed to the right side of the chassis body by welding or bolts. Its position is adjacent to the right side of the female data connector, corresponding to the insertion direction of the male data connector. The dimensions are based on the space on the right side of the chassis and the design of the first clamping plate, generally 5-15cm long and 2-5cm wide, with the groove depth and width precisely set according to the first clamping plate. The material is stainless steel, due to its high hardness and corrosion resistance. The optimized process involves precision grinding of the groove and surface passivation treatment. In terms of tolerances, the groove width tolerance is controlled within ±0.05-±0.1mm, and the depth tolerance within ±0.1-±0.2mm. The material characteristics are high strength, deformation resistance, and corrosion resistance. Maintenance requires regular cleaning of dust and debris inside the groove, and inspection of the groove wall for wear and deformation. Minor wear can be ground, while severe wear requires replacement.

[0028] For female data connectors: The structure features a standard interface with internal conductive contacts and insulation. Connection is achieved by welding or threading to the right side of the chassis. The internal conductive parts connect to the chassis's internal circuitry. The location on the right side of the chassis facilitates mating with the male connector. Dimensions conform to communication industry standards; for example, an RJ45 female connector is approximately 2-3cm long, 1-2cm wide, and 0.5-1.5cm high. The outer shell is made of polycarbonate (PC), ensuring insulation, mechanical strength, and flame retardancy. The internal conductive contacts are made of phosphor bronze, offering excellent conductivity and resistance to insertion and removal. The optimized manufacturing process involves injection molding of the outer shell and precision stamping and electroplating of the contacts. Tolerances strictly adhere to industry standards, such as an inner diameter tolerance of ±0.02-±0.05mm. Material characteristics include a PC shell providing good protection and phosphor bronze contacts offering stable conductivity. Maintenance requires regular inspection of the interface for foreign objects and oxidation damage to the contacts. Minor oxidation can be cleaned with a cleaning agent; severe oxidation necessitates replacement.

[0029] For the male data connector: It has a cylindrical structure with an internal sliding component and receiving space. The front end connects to the female connector, and the rear end connects to the data cable. The connection is made through internal components to a push plate and slider, and externally to the data cable. It is inserted into the female connector during use. Dimensions: 3-6cm long, 1-3cm in diameter, with the mating part matching the female connector. Material: The outer shell is made of polycarbonate, and the internal parts are reinforced with aluminum alloy. Process optimization: the outer shell is injection molded, the internal metal parts are machined, the mounting holes of each component are highly precise, and the outer shell can be sandblasted. Tolerances: the internal sliding groove tolerance is ±0.05-±0.1mm, and the mating part conforms to industry standards. Material characteristics: polycarbonate is insulating and wear-resistant, and aluminum alloy is high-strength. Maintenance: Check the outer shell for damage and internal components for jamming. Regularly clean the interface for dust; apply lubricant if jammed; replace if severely damaged.

[0030] For the push plate: the structure is flat, with a beveled surface at the contact point between the right side and the inclined block. It connects to the data connector male via an internal limiting rod and slide rod. The connection is conveniently located inside the data connector male for easy manual operation. Dimensions: 1-3cm long, 0.5-2cm wide, 0.1-0.3cm thick. Material: Polyoxymethylene (POM), possessing wear resistance, self-lubricating properties, and mechanical strength. Process optimization: injection molding, smooth surface treatment, and high precision of the beveled surface. Tolerance fit: ±0.02-±0.05mm with the mounting holes of the limiting rod and slide rod. Material characteristics: stable mechanical properties and wear resistance. Maintenance requires checking surface wear and loose connections; replace severely worn parts, and tighten loose parts.

[0031] For the slider: The structure is block-shaped, sliding within a groove inside the male connector, with inclined blocks and a first retaining plate connected to both sides. It is fixed to the inclined blocks and the first retaining plate, sliding within the groove. Its position is within the groove inside the male connector, and its sliding direction is consistent with the movement of the first retaining plate. Dimensions: Length 1-3cm, Width 0.5-1.5cm, Thickness 0.3-0.8cm. Material: Stainless steel, high hardness, wear resistance. Process optimization includes precision machining, surface polishing, and high precision at the connection points. Tolerance fit: The tolerance with the groove is ±0.02-±0.05mm, with strict tolerances at the connection points. Material characteristics: high strength, wear resistance. Maintenance requires checking surface wear and for debris in the groove; worn areas can be sanded, debris cleaned, and severely worn areas replaced.

[0032] For the inclined block: The structure is a block with a specific bevel, which contacts the push plate. It is fixed to the right side of the slider. Positioned between the push plate and the slider, the bevel is in close contact with the push plate. Dimensions: length 0.5-2cm, width 0.3-1cm, thickness 0.2-0.6cm, with a precisely designed bevel angle. Material: carbon steel, heat-treated to improve hardness and wear resistance. Process optimization includes machining, precision grinding and polishing of the bevel. Tolerances: the connection with the push plate and slider has a tolerance of ±0.02-±0.05mm, and the bevel angle tolerance is ±0.5-±1°. Material properties: high hardness and wear resistance after heat treatment. Maintenance requires checking surface wear, especially on the bevel; if worn, repair or replace.

[0033] For the first clamping plate: The structure is plate-shaped, with a slider at one end and a clamping end for engaging the positioning slot plate. It is fixed to the left side of the slider. The position is aligned with the groove in the positioning slot plate when the male connector is inserted into the female connector. Dimensions: Length 0.5-2cm, Width 0.3-1cm, Thickness 0.1-0.3cm. Material: Stainless steel, high strength, corrosion resistance. Process optimization includes chamfering at the clamping end and surface passivation treatment. Tolerance fit: The fit with the positioning slot plate groove has a tolerance of ±0.02-±0.05mm. Material characteristics: high strength, deformation resistance, corrosion resistance. Maintenance requires checking for surface wear, deformation, and damage; minor wear should be sanded; severe wear requires replacement.

[0034] For the limit rod: The structure is rod-shaped, with one end connected to the push plate and the other end sliding within the male connector. It is fixed inside the push plate and slides within the male connector. Its position is inside the male connector of the data connector, ensuring the stability of the push plate. Dimensions: 1-2cm long, 0.1-0.3cm in diameter. Material: Stainless steel, high strength, corrosion resistant. Process optimization includes machining, surface polishing, and a firm connection with the push plate. Tolerance fit: The sliding dimension tolerance within the male connector is ±0.02-±0.05mm. Material characteristics: high strength, wear resistance, and corrosion resistance. Maintenance requires checking for surface wear and loose connections; grinding is necessary for worn areas, and tightening is required for loose areas.

[0035] For the fixed plate: the structure is plate-shaped, fixed inside the male connector, and has a mating part with the spring and slide rod. The connection is made by welding or bolting to the male connector, fixing it to one end of the spring and slidingly connecting it to the slide rod. Its position inside the male connector ensures the normal operation of the spring and slide rod. Dimensions: length 1-3cm, width 0.5-2cm, thickness 0.2-0.5cm. Material: aluminum alloy, high strength, lightweight. Process optimization: machining, high precision of mounting holes and slide grooves, anodized surface. Tolerance: ±0.02-±0.05mm with the spring and slide rod. Material characteristics: high strength, light weight, oxidation resistance. Maintenance: check surface oxidation, wear, and loose screws; clean oxidation; repair and tighten severely worn or loose screws.

[0036] For springs: The structure is a helical elastomer, with fixed plates and sliders at both ends. The two ends are connected to the fixed plates and sliders via hooks or welding. The spring is positioned between the fixed plates and sliders. Dimensions are designed based on elastic force and space constraints; spring wire diameter is 0.5-2mm, outer diameter is 2-5mm, and length is 1-3cm. The material is spring steel (e.g., 65Mn), with high elastic limit and fatigue strength. Optimized manufacturing process involves cold-rolling or hot-rolling followed by tempering and galvanizing for rust prevention. Tolerances are within ±0.1-±0.3mm for free length, outer diameter, and other dimensions. Material characteristics include good elasticity and high fatigue strength. Maintenance requires checking for deformation, breakage, and rust prevention; deformed or broken springs should be replaced, and damaged rust prevention should be repaired.

[0037] For the slide bar: the structure is rod-shaped, with one end connected to the push plate and the other end sliding in the groove of the fixed plate. It is fixed inside the push plate and slides within the groove. Its position is inside the male connector of the data connector, corresponding to the groove of the fixed plate. The length depends on the push plate stroke and the length of the groove, generally within a suitable range. The material is stainless steel, which is high-strength and wear-resistant. The optimized process involves machining, ensuring a firm connection with the push plate. The tolerance for fit with the groove of the fixed plate is ±0.02-±0.05mm. The material characteristics are high strength and wear resistance. Maintenance requires checking for surface wear and loose connections; grinding is necessary for worn areas, and tightening is required for loose areas.

[0038] For the locking pin: The structure is columnar and fixed inside the male data connector. It is connected and fixed inside the male data connector. Its position corresponds to the anti-bending mechanism inside the male data connector. The dimensions are designed based on the second locking plate and the internal space of the male connector. Materials can be plastic or metal; metal is preferred if a certain strength and wear resistance are required. Process optimization involves selecting a suitable processing technology based on the material, such as injection molding (plastic) or machining (metal). Regarding tolerances, the dimensional accuracy with the second locking plate ensures a secure installation. Material properties: Plastic is low-cost and easy to process, while metal offers high strength. Maintenance requires checking for damage; if damaged, replace the affected component.

[0039] For the second clamping plate: It has a plate-like structure, clamping between the clamping post and the male connector, with a rubber connecting plate on the right side. The right side is fixed to the rubber connecting plate, and the entire plate is clamped between the male connector and the clamping post. It is located inside the male connector of the data connector and is used to position the rubber protective sleeve, etc. The length, width, and thickness are designed according to the internal space of the male connector and the position of the clamping post. The material is plastic, which is low-cost and easily deformable (facilitating installation and disassembly). The optimized manufacturing process is injection molding. In terms of tolerances, the dimensions of the clamping post and male connector ensure a tight clamping connection while allowing for deformation under certain external forces. The material characteristics are low cost and good plasticity. Maintenance requires checking for damage; if the rubber protective sleeve cannot be effectively secured, it should be replaced.

[0040] For the rubber connector plate: The structure is plate-shaped, with a second retaining plate and a rubber protective sleeve connected to each side. The two sides are fixed to the second retaining plate and the rubber protective sleeve, respectively. It is located inside the male connector of the data connector, between the second retaining plate and the rubber protective sleeve. The dimensions are designed according to the internal space of the male connector and the connection requirements of the protective sleeve and the second retaining plate. The material is rubber, possessing flexibility and a certain strength. Process optimizations include molding. Tolerances are matched to the dimensions of the connection parts on both sides. The material characteristics are softness and flexibility, and the ability to buffer external forces. Maintenance requires checking for aging and damage; if these affect the connection or protective performance, replacement is necessary.

[0041] For the rubber protective sleeve: It has a sleeve-like structure with an internal opening, covering the connection between the data cable and the male connector. The connection is indirectly established via a rubber connecting plate to the internal structure of the male data connector. It is located on the outside of the male data connector where the data cable connects. The dimensions are designed based on the diameter of the data cable and the size of the male connector connection area. The material is rubber, which is soft, insulating, and wear-resistant. The optimized manufacturing process involves molding. In terms of tolerances, the opening size is adapted to the data cable, and the overall size is adapted to the male connector connection area. The material characteristics are softness, protection, insulation, and wear resistance. Maintenance requires checking for aging and damage; if it no longer provides effective protection, it should be replaced.

[0042] For the data cable itself: the structure consists of multiple strands of wire wrapped in an insulating layer. One end connects to the conductive part inside the male data connector, and the other end connects to an external device. It passes through a rubber protective sleeve and rubber connecting plate, connecting to the conductive part inside the male data connector. The length is determined by the actual usage scenario, and the wire core specifications depend on data transmission requirements. The wire core is made of copper or other metals with good conductivity, and the insulation layer is made of plastic or other insulating materials. The optimized manufacturing process involves wire core drawing and stranding, and insulation layer extrusion coating. Tolerances for wire core diameter and insulation layer thickness comply with relevant standards. The material characteristics ensure good wire core conductivity and reliable insulation performance. Maintenance requires checking for damage to the outer sheath and for open circuits in the internal wire cores; if any problems are found, repair or replacement should be made as appropriate.

Claims

1. A communication data anti-drop connector, including a chassis body (1), characterized in that: It also includes a positioning slot plate (21) and an anti-bending mechanism. A data connector female head (4) is provided on the right side of the chassis body (1). The positioning slot plate (21) is fixedly connected to the right side of the chassis body (1). A data connector male head (22) is inserted into the inside of the data connector female head (4). A push plate (23) is slidably connected inside the data connector male head (22). A slider (24) is slidably connected inside the data connector male head (22). An inclined block (25) that contacts the push plate (23) is fixedly connected to the right side of the slider (24). A first locking plate (26) is fixedly connected to the left side of the slider (24). The first locking plate (26) is locked inside the positioning slot plate (21). An anti-bending mechanism is provided inside the data connector male head (22).

2. The communication data anti-drop connector according to claim 1, characterized in that: The male connector (22) of the data connector has a matching groove at the corresponding position of the slider (24), and the slider (24) slides inside the matching groove.

3. The communication data anti-drop connector according to claim 1, characterized in that: The push plate (23) and the inclined block (25) have inclined surfaces at corresponding positions, and the push plate (23) and the inclined block (25) are in contact through the inclined surfaces.

4. The communication data anti-drop connector according to claim 1, characterized in that: The push plate (23) is fixedly connected to a limit rod (27), which is slidably connected inside the male data connector (22). The male data connector (22) is fixedly connected to a fixed plate (28), and a spring (29) is fixedly connected between the fixed plate (28) and the slider (24). The fixed plate (28) is slidably connected to a slide rod (210) that limits the push plate (23), and the slide rod (210) is fixedly connected inside the push plate (23).

5. The communication data anti-drop connector according to claim 4, characterized in that: The fixing plate (28) has a matching groove at the corresponding position of the slide rod (210), and the slide rod (210) slides inside the matching groove.

6. The communication data anti-drop connector according to claim 1, characterized in that: The anti-bending mechanism includes a locking post (31), which is fixedly connected inside the male data connector (22). A second locking plate (32) is provided inside the male data connector (22). A rubber connecting plate (33) is fixedly connected to the right side of the second locking plate (32). A rubber protective sleeve (34) is fixedly connected to the right side of the rubber connecting plate (33). A data cable body (35) is fixedly connected inside the male data connector (22).

7. The communication data anti-drop connector according to claim 6, characterized in that: The second card plate (32) is snapped between the card post (31) and the male connector (22). The rubber protective sleeve (34) and the rubber connecting plate (33) have openings inside, and the rubber connecting plate (33) and the rubber protective sleeve (34) can be opened through the openings, and the data cable body (35) passes through the interior of the rubber connecting plate (33) and the rubber protective sleeve (34).

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