Integrated connector female seat with multiple types of pluggable sub-modules

Abstract

The invention discloses an integrated connector female seat with multiple types of pluggable sub-modules, and belongs to the technical field of electric connectors, the integrated connector female seat comprises a female seat main body, a circuit board arranged in the female seat main body and multiple types of pluggable sub-modules with different functions, and the female seat main body is internally provided with a plurality of mutually independent sub-module mounting positions. The pluggable sub-modules of different function types are installed in the different sub-module installation positions respectively, and a shell of each pluggable sub-module is provided with a color identification structure used for distinguishing the function type of the pluggable sub-module. A pipeline structure is integrated in the female seat main body, the pipeline structure extends along the arrangement direction of the pluggable sub-modules, and an inner cavity of the pipeline structure forms a heat dissipation channel; according to the invention, modular configuration and independent plugging of functions are realized, and the replacement of any module does not affect the work of other modules; by arranging the color identification structure for distinguishing the function types on the sub-module shell, an operator can quickly identify the module types without reading a nameplate, and visual misjudgment is effectively prevented.

Description

Technical Field

[0001] This invention relates to the field of electrical connector technology, and in particular to an integrated connector socket with multiple types of pluggable sub-modules. Background Technology

[0002] Connector sockets, as interface components for signal and power transmission between electronic devices, are widely used in communications, computers, industrial control, automotive electronics, and other fields. With the increasing integration of devices, a single device often needs to support multiple external interfaces with different functions simultaneously, such as data transmission (USB, HDMI), network communication (RJ45), power input (DC), audio input / output, and various industrial bus interfaces (RS232, RS485, CAN), etc.

[0003] In existing technologies, to achieve the aforementioned multiple functions, the following two solutions are typically adopted: First, multiple different types of discrete connector females are arranged side-by-side on the device panel, each corresponding to a single function. This solution results in a large occupation of panel space, messy wiring, and a lack of unified heat dissipation and grounding management between different females, which can easily lead to electromagnetic interference. Second, a single integrated female is used, with multiple sub-modules connected internally via adapter boards or ribbon cables. However, these sub-modules are usually installed by soldering or fixing screws, which does not allow for free plugging and unplugging and replacement by the user, resulting in poor flexibility.

[0004] A search revealed that existing technologies utilize multiple slots within the socket to accommodate sub-modules with different functions, but this approach has the following drawbacks: First, the electrical connection between the submodule and the socket usually uses a gold finger and slot mating method. After long-term insertion and removal, the risk of poor contact is high. In addition, the gold finger structure requires a large insertion force, which is not conducive to dense arrangement.

[0005] Secondly, sub-modules of different functional types often look similar, lacking intuitive identification methods. Operators are prone to mis-insertion during maintenance or configuration, leading to damage to modules or equipment. Although some solutions incorporate foolproof structures, relying solely on physical foolproofing is insufficient for rapid prediction.

[0006] Third, the motherboard integrates multiple sub-modules and circuit boards, resulting in concentrated heat during operation. Existing solutions typically rely on natural convection cooling or additional independent fans and heat sinks, but the heat dissipation channels are separated from the cable routing channels, occupying extra internal space and hindering device miniaturization.

[0007] Fourth, the grounding loop of submodules is often achieved through the ground wire on the circuit board. When multiple submodules share the ground wire, ground loop interference can easily form, affecting the transmission quality of high-speed signals. At the same time, the lack of a regular structure of cables inside the socket makes them easy to get tangled or compress airflow, further deteriorating the heat dissipation effect.

[0008] Therefore, developing an integrated connector socket that can achieve flexible configuration, reliable connection, rapid identification, efficient heat dissipation, and good electromagnetic compatibility of multiple functional modules is a technical problem that urgently needs to be solved in this field. Summary of the Invention

[0009] The technical problem to be solved by the present invention is to overcome the shortcomings of the prior art and provide an integrated connector socket with multiple types of pluggable sub-modules, aiming to solve the problem of how to achieve high integration, flexible configuration, reliable connection, rapid identification and convenient maintenance of multiple functional interfaces in a limited space.

[0010] To achieve the above-mentioned objectives, the first aspect of the present invention proposes an integrated connector socket with multiple types of pluggable sub-modules, including a socket body, a circuit board disposed within the socket body, and multiple pluggable sub-modules of different functional types. The socket body is provided with several independent sub-module mounting positions, and the multiple pluggable sub-modules of different functional types are respectively mounted in different sub-module mounting positions. The housing of each pluggable sub-module is provided with a color-coded structure for distinguishing its functional type. Each pluggable submodule is equipped with a probe at its bottom, which is arranged along the height of the female connector body and is directly electrically connected to the circuit board. The main body of the female connector integrates a pipe structure that extends along the arrangement direction of the pluggable sub-modules. Its inner cavity forms a heat dissipation channel, which also serves as a cable routing channel.

[0011] Optionally, the color identification structure is a different color scheme for the shell of the pluggable submodule. Different functional types of pluggable submodules are set with different colors to achieve functional zoning and rapid identification.

[0012] Optionally, a matching physical anti-misinsertion structure is provided between the submodule mounting position and the pluggable submodule, and the physical anti-misinsertion structure and the color marking structure work together to form a double anti-misinsertion structure.

[0013] Optionally, the probe is a through-hole L-shaped conductive probe, with its lower end directly connected point-to-point to the pads on the circuit board.

[0014] Optionally, the connection points of the probes to the circuit board are arranged in an array according to the layout of the pluggable sub-modules to simplify the internal wiring path.

[0015] Optionally, the sidewall of the pipe structure is positioned adjacent to the probe to form a heat conduction and heat dissipation path.

[0016] Optionally, the inner wall of the pipe structure is bent to form a wire harness limiting structure, which is used to organize and fix the cables in the cable routing channel.

[0017] Optionally, the pluggable submodule is an independent modular unit with different pin counts and different transmission functions, and each pluggable submodule can be plugged in and out independently without interfering with each other.

[0018] Optionally, the physical anti-foolproof structure includes a positioning protrusion located inside the submodule mounting position and a positioning groove located on the side of the pluggable submodule, the two being mutually compatible.

[0019] Optionally, the pipe structure and the main body of the female connector are integrally formed. The pluggable submodule is internally fitted with a limiting snap-fit ​​component, which is located at the slot on the pipe structure inside the pluggable submodule to achieve positioning of the pipe structure and the pluggable submodule.

[0020] The beneficial effects of this invention are: 1. The integrated connector socket of the present invention, featuring multiple types of pluggable submodules, allows for modular configuration and independent pluggable submodules with different functions to be installed in different positions by setting several independent submodule mounting positions. This achieves modular configuration and independent pluggability, and the replacement of any module does not affect the operation of other modules. Color-coded identification structures on the submodule housings allow operators to quickly identify module types without reading nameplates, effectively preventing visual misjudgment. Probes arranged along the height of the socket body directly connect to the circuit board, eliminating intermediate adapters, reducing contact resistance, and improving signal transmission reliability. An integrated pipe structure extending along the submodule arrangement direction within the socket body serves as both a heat dissipation channel and a cable routing channel, achieving integrated heat dissipation and cable management, saving internal space, and utilizing cooling airflow to remove heat generated in the probe area, significantly improving the overall thermal management capability.

[0021] 2. The integrated connector socket of the present invention, featuring multiple types of pluggable submodules, utilizes a color-coded structure with different color schemes, combined with a physical anti-misfit structure between the submodule mounting position and the submodule, forming a dual visual and mechanical anti-misfit mechanism. Color is used for rapid initial screening, while the physical structure enforces the process; their combined effect fundamentally eliminates the risk of equipment damage due to incorrect insertion or removal, making it particularly suitable for field applications requiring frequent module replacement.

[0022] 3. The integrated connector socket of the present invention with multiple types of pluggable sub-modules simplifies the electrical connection path and reduces signal attenuation by using a straight-through L-shaped conductive probe and making its lower end directly point-to-point connected to the pads on the circuit board. By arranging the connection points of the probe and the circuit board in an array according to the arrangement of the sub-modules, the wiring path inside the circuit board is regular and orderly, reducing signal crosstalk and facilitating automated soldering production.

[0023] 4. The integrated connector socket of the present invention with multiple types of pluggable sub-modules forms a heat conduction and heat dissipation path by setting the probes near the side wall of the pipe structure, so that the heat generated by the probes can be quickly conducted to the side wall of the pipe and carried away by the airflow, achieving efficient cooling of local hot spots; by bending the inner wall of the pipe structure to form a cable restraint structure, the cables in the cable routing channel can be regulated and fixed, avoiding cable entanglement or compression of the air duct, further ensuring the unobstructed flow of the heat dissipation air duct.

[0024] 5. The integrated connector socket of the present invention, featuring multiple types of pluggable submodules, achieves a simple, low-cost, and reliable anti-misfit effect by specifically designing the physical foolproof structure as follows: the positioning protrusion on the inner side of the submodule mounting position and the positioning groove on the side of the submodule are mutually adapted. Different functional types of submodules can be configured with grooves of different positions, numbers, or widths, realizing differentiated mechanical coding and further enhancing the reliability of preventing mis-insertion. Attached Figure Description

[0025] Figure 1 This is a schematic diagram of the integrated connector socket with multiple types of pluggable submodules according to the present invention; Figure 2 This is a side view schematic diagram of the integrated connector socket with multiple types of pluggable submodules of the present invention; Figure 3 This is a schematic diagram of the disassembled structure of one of the pluggable sub-modules of the integrated connector socket with multiple types of pluggable sub-modules of the present invention. Figure 4 This is a schematic diagram of the structure of the female body of the integrated connector female with multiple types of pluggable sub-modules of the present invention after disassembly. Figure 5 This is a schematic diagram of the internal structure of the integrated connector socket with multiple types of pluggable sub-modules of the present invention. Figure 6 This is a top view schematic diagram of the integrated connector socket with multiple types of pluggable submodules of the present invention; Figure 7 This is a rear view schematic diagram of the integrated connector socket with multiple types of pluggable submodules of the present invention.

[0026] Explanation of reference numerals in the attached figures: 1. Main body of the female connector; 2. Circuit board; 3. Pluggable sub-module; 4. Sub-module mounting position; 5. Physical foolproof structure; 6. Probe; 7. Pipe structure; 8. Cable tie limit structure; 9. Positioning protrusion; 10. Limiting snap-fit; 11. Positioning groove; 12. Grounding spring.

[0027] The realization of the objective, functional features and advantages of the present invention will be further explained in conjunction with the embodiments and with reference to the accompanying drawings. Detailed Implementation

[0028] It should be understood that the specific embodiments described herein are merely illustrative of the invention and are not intended to limit the invention.

[0029] In the description of this invention, it should be noted that, unless otherwise explicitly specified and limited, the terms "installation," "connection," and "joining" should be interpreted broadly. For example, they can refer to a fixed connection, a detachable connection, or an integral connection; they can refer to a mechanical connection, a direct connection, or an indirect connection through an intermediate medium; they can refer to the internal communication of two components or the interaction between two components. Those skilled in the art can understand the specific meaning of the above terms in this invention according to the specific circumstances.

[0030] Reference Figures 1-7 One embodiment of the present invention provides an integrated connector socket with multiple types of pluggable submodules. The core components of the connector socket include a socket body 1 as an integral support, a circuit board 2 disposed on the socket body 1, and multiple pluggable submodules 3 with different functional types. The socket body 1 has several independent submodule mounting positions 4 reserved inside, which act like independent slots to accommodate submodules with different functions. The advantage of this independent partition design is that users can flexibly configure different functional combinations of submodules according to actual needs, and the plugging and unplugging of any module will not affect the stable operation of other modules.

[0031] The main body 1 of the female connector is preferably made of engineering plastic with good insulation, flame retardancy and mechanical strength, such as flame-retardant polycarbonate / acrylonitrile-butadiene-styrene copolymer (PC / ABS) alloy material, and is manufactured in one piece by injection molding. Its shape is roughly cuboid, and its size can be adjusted according to the number of sub-modules to be accommodated, for example, 2 to 12 sub-module mounting positions 4.

[0032] Regarding the pluggable submodules 3 themselves, they are independent modular units with different pin counts and transmission functions. Types of pluggable submodules 3 can include: USB 3.0 data transmission modules, HDMI video transmission modules, RJ45 Ethernet modules, DC power input modules, audio input / output modules, RS232 / 485 serial communication modules, etc. The internal circuit board 2 of each module has a uniform size, but the number and arrangement of pins vary depending on the function. Each pluggable submodule 3 can be independently plugged in and out without interference, greatly improving the maintainability and expandability of the device. To facilitate quick differentiation of functional modules, each pluggable submodule 3 has a color-coded structure on its housing. In a simple and intuitive example, this color-coded structure represents the different colors of the housing itself. For example, a submodule for high-speed data transmission could be blue, a submodule for power management could be red, and a submodule for signal debugging could be yellow, etc.

[0033] More specifically, an internationally recognized functional color coding standard can be adopted: blue for USB / data, green for audio, orange for power input, gray for network, and purple for serial port. The casing can be colored using injection molding materials with added color masterbatch, or by spraying colored paint onto the casing. To ensure long-term colorfastness, material coloring is preferred, and color fastness must meet the UL746C standard. Through color zoning, operators can identify and locate modules within seconds without reading the nameplate, effectively avoiding errors caused by misidentification.

[0034] Each submodule mounting position 4 is surrounded by four side walls and a bottom wall. Its internal dimensions are in clearance fit with the external dimensions of the corresponding pluggable submodule 3. The typical single-sided clearance is 0.1mm to 0.3mm to ensure smooth insertion and removal without wobbling.

[0035] Each pluggable submodule 3 has a probe 6 at its bottom, which is arranged strictly vertically along the height direction of the female body 1 (i.e., the insertion / removal direction of the submodule). To achieve reliable separable electrical contact, the probe 6 in this embodiment is a flexible telescopic probe (pogopin), which consists of a needle tube, an internal spring, and a telescopic needle shaft. The needle tube is made of brass or beryllium copper, with a gold-plated surface (plating thickness ≥0.5μm) to improve conductivity and corrosion resistance; the spring is made of stainless steel wire, with an elastic force designed to be 50g-100g per needle; the needle shaft is made of hard alloy steel, with a three-pronged or crown-shaped needle tip to pierce any oxide film that may be present. When the submodule is pushed into the submodule mounting position 4, the needle shaft of the probe 6 at its bottom is compressed, thereby pressing against the dedicated solder pad on the circuit board 2 below with pre-pressure, forming a stable direct electrical connection. The flexible contact method allows the submodule to be repeatedly inserted and removed without soldering, while ensuring contact reliability in vibration environments.

[0036] As an alternative, probe 6 can also be a cantilevered elastic metal sheet, utilizing its own elastic deformation to generate contact force. As a preferred structure, probe 6 is designed as a through-hole L-shaped conductive probe. Specifically, its vertical section is used to connect with the internal circuitry of the submodule, while the horizontal section or bent end is used to achieve point-to-point direct contact with the pads on the circuit board 2. The L-shaped through-hole structure eliminates the need for additional wires or adapter connectors in traditional solutions, reducing contact resistance, improving signal integrity, and simplifying the assembly process. Furthermore, to optimize wiring, the connection points between probe 6 and circuit board 2 are not randomly arranged, but rather distributed in a regular array according to the arrangement of the pluggable submodule 3 within the motherboard body 1. This array design allows the data and power lines inside circuit board 2 to be routed neatly like a "grid," greatly simplifying the internal wiring path and reducing signal crosstalk.

[0037] A key innovation of this embodiment lies in its integrated heat dissipation and cable management functions. The main body 1 of the female connector integrates a conduit structure 7. Unlike conventional insulated conduits, the conduit structure 7 in this embodiment is made of conductive material, using a metal material with good electrical and thermal conductivity, such as aluminum alloy, brass, or nickel-plated copper strip, formed by extrusion or stamping. This conduit structure 7 extends horizontally along the arrangement direction of the multiple pluggable sub-modules 3, and its hollow interior forms a channel that combines heat dissipation and cable routing functions. The cross-section of the conduit structure 7 can be rectangular, circular, or D-shaped, preferably rectangular to maximize the contact area with the sidewalls of the sub-modules. Its internal dimensions are a width of 10mm-25mm and a height of 5mm-15mm, depending on the heat generation of the sub-modules and the total cross-sectional area of ​​the required cables. The conduit wall thickness is generally 1.0mm-2.0mm, ensuring both structural strength and good thermal conductivity. To maximize heat dissipation efficiency, the sidewalls of the conduit structure 7 are designed to be adjacent to or even flush with the probe 6 areas of each sub-module. Since probe 6 is one of the main heat sources, heat can be directly transferred to the side wall of pipe structure 7 through heat conduction, and then carried away by the cooling airflow flowing through the channel, forming an efficient heat conduction and heat dissipation path. Regarding the formation of the cooling airflow, both ends of pipe structure 7 extend to the opposite side walls of the main body 1, forming open air inlets and outlets. In practical use, if the connector is installed in a chassis with a forced air-cooled environment, the airflow will naturally flow through the channel; in a passive cooling scenario, a miniature fan can be added to one end for active ventilation. Simultaneously, this heat dissipation channel also serves as a cable routing channel. Specifically, both ends or sides of pipe structure 7 have cable entry holes for external cables to enter the channel. The cables can be auxiliary cables connecting different submodules or connecting to external devices. It should be noted that the main signals and power of the submodules are already connected to the circuit board 2 through probe 6 at the bottom. This routing channel is mainly used to accommodate main body cables unrelated to the submodules (such as power cords, communication buses, etc.) to avoid cable clutter. To further organize the cables within the channel and prevent them from becoming tangled and obstructing the airflow, the inner wall of the duct structure 7 can be bent to form several cable restraint structures 8. In a specific example, the cable restraint structure 8 can be a series of inwardly protruding hooks or wavy ribs, used to separate and fix cables with different orientations in designated positions, achieving neat cable management. It is important to note that cables should be kept as close as possible to one side of the inner wall within the channel, avoiding the central airflow area, to prevent obstruction of airflow.

[0038] To prevent submodules of different types or batches from being incorrectly inserted into non-corresponding mounting positions, this solution also introduces a dual anti-misinsertion mechanism. See [link / reference] Figure 4Between the submodule mounting position 4 and the pluggable submodule 3, a mutually compatible physical anti-mistake structure 5 is provided. As a specific implementation of this physical anti-mistake structure 5, a positioning protrusion 9 can be provided on the inner side wall of the submodule mounting position 4, while a positioning groove 11 is provided on the side of the corresponding pluggable submodule 3. The position, width, or number of positioning grooves 11 can differ for submodules of different functional types, ensuring that only the correct submodule can be smoothly inserted into the corresponding mounting position. This physical anti-mistake structure 5, in conjunction with the aforementioned color-coding structure (visual anti-mistake), forms a dual guarantee: color is used for rapid initial screening, and the physical structure is used for mandatory execution. The two work together to fundamentally eliminate the risk of equipment damage due to incorrect insertion or removal.

[0039] In actual manufacturing, the pipe structure 7 is preferably integrally injection molded with the female body 1 to ensure the highest structural strength and dimensional accuracy. To further secure the pluggable sub-module 3 and prevent it from loosening under vibration, a limiting latch 10 is also snapped into the interior of each pluggable sub-module 3. The limiting latch 10 is a plastic part with an elastic arm and a hook, and its main body is secured inside the pluggable sub-module 3. To achieve its cooperation with the outside, a through opening is provided on the side wall of the shell of the pluggable sub-module 3. At the same time, the side wall of the pipe structure 7 has an outwardly protruding groove at the corresponding installation position 4 of each sub-module. During specific installation, when the sub-module is pushed into place, the hook of the limiting latch 10 elastically extends from the opening of the sub-module shell and accurately snaps into the groove of the side wall of the pipe structure 7, producing a clear "click" sound and a tactile feedback, which provides tactile feedback to confirm the position and achieves precise mechanical positioning between the pipe structure 7 and the pluggable sub-module 3.

[0040] In the specific implementation process, the first step is to pre-lay out the internal cables before installing the female connector onto the equipment. Based on the functional requirements of the equipment, determine the type and quantity of sub-modules to be used. Introduce external cables (e.g., power lines, communication buses) into the pipe structure 7 through the cable entry hole at one end of the female connector body 1. Following the preset route, use the cable restraint structure 8 to attach and fix each cable to the inner wall of the pipe. Note that the cables should not be crossed or tangled and should avoid the central area of ​​the pipe. After completing the cable arrangement, install the circuit board 2 onto the bottom of the female connector body 1 using screws or clips, and complete the soldering to the external interface. Simultaneously, connect the grounding terminal of the pipe structure 7 to the main grounding screw of the equipment using a wire. It is recommended to use a multimeter to check for short circuits between the probe pads and to ensure that the resistance between the pipe structure 7 and the ground network on the circuit board 2 is close to zero before installing the circuit board 2.

[0041] Step 2: Select the correctly colored pluggable submodule 3 according to functional requirements. Before insertion, visually inspect the probe 6 at the bottom of the submodule to ensure it is intact, without bending or oxidation. Also check the cleanliness of the grounding contacts on the outside of the submodule housing. If dirt is found on the surface of the probe 6, clean it with anhydrous ethanol and a cotton swab. Align the submodule with the corresponding submodule mounting position 4, carefully observing whether the positioning protrusion 9 and positioning groove 11 of the physical foolproof structure 5 are aligned. If misalignment is found, it indicates that the submodule type is incompatible with the mounting position; the submodule should be replaced or the mounting position adjusted. Do not force insertion, as this may damage the foolproof structure or bend the probe 6. After confirming alignment, press the submodule vertically down along the height of the female connector body 1, applying a smooth and moderate force (usually 5N-15N). During insertion, you will first feel the probe 6's pin shaft contact the circuit board 2 pad and begin to compress, generating some resistance; simultaneously, the submodule's grounding contacts will contact the grounding spring 12 on the pipe structure 7, generating additional sliding friction. Continue pressing down by about 1-2mm. The hook of the limiting latch 10 will contact the side wall of the pipe structure 7, and the elastic arm will deform outward. When the submodule is close to the bottom, the hook will slide into the slot, the elastic arm will return to its original position, and a crisp "click" sound will be heard. At the same time, the pressing resistance will suddenly disappear, indicating that the submodule has been locked in place. At this time, the compression of the probe 6 has reached the design operating point, and the contact pressure is stable at 50g-100g per needle. The grounding spring 12 is also in a compressed state, and the grounding circuit is connected.

[0042] Step 3: After insertion, try gently pulling the submodule upwards. You should feel a noticeable locking resistance, preventing direct removal. Simultaneously, observe whether the upper surface of the submodule is approximately flush with the upper surface of the female connector body 1 (allowable height difference ±0.2mm). Electrical performance testing is recommended: Connect the device power supply and use appropriate testing software or instruments to check if the submodule functions normally. For example, check if the USB submodule can recognize the device and if the power supply submodule's output voltage is stable. Also, use a multimeter to measure the resistance between the submodule's metal casing and the device ground; it should be less than 0.1Ω, indicating good grounding. If malfunction occurs, the possible cause is poor contact of probe 6 or a broken grounding loop. Try removing and reinserting the submodule.

[0043] Step 4: When replacing or removing a submodule, first disconnect the device power. Locate the press hole on the submodule housing (usually located on the side or end face, marked with "PUSH" or "UNLOCK"). Use a suitable tool (such as tweezers, a paperclip, or your fingernail) to insert into the press hole and press the release arm of the limiting latch 10 inward. A noticeable elastic displacement and a slight "click" sound indicate that the latch has disengaged from the slot. Hold the press down while simultaneously pulling the submodule upward with your other hand. Keep the submodule vertical during removal to avoid tilting and causing scratches between the probe 6 and the pads. After removal, release the pressing tool; the latch of the limiting latch 10 will automatically reset. If the latching force decreases after repeated insertions and removals, check for wear on the latch and replace the submodule if necessary.

[0044] Step 5: After prolonged use, dust may accumulate inside the pipe structure 7, affecting heat dissipation and airflow. It is recommended to periodically blow compressed air in through the air inlet to remove internal dust. If poor contact is found with probe 6 (e.g., intermittent interruption of submodule function), the submodule can be removed, and the probe tip and circuit board pads can be gently cleaned with an eraser to remove the oxide layer. If poor grounding is found (e.g., induced current on the submodule casing), the grounding spring 12 should be checked for oxidation or deformation; the contact surface can be gently cleaned with fine sandpaper. Note that if the spring force of probe 6 is significantly reduced (e.g., the height is more than 0.5mm lower than the normal position after insertion), the submodule needs to be replaced or the manufacturer should be contacted for repair.

[0045] The above description is merely a preferred embodiment of the present invention and does not limit the patent scope of the present invention. Any equivalent structural or procedural transformations made based on the content of the present invention's specification and drawings, or direct or indirect applications in other related technical fields, are similarly included within the patent protection scope of the present invention.

Claims

1. An integrated connector socket with multiple types of pluggable submodules, comprising a socket body (1), a circuit board (2) disposed on the socket body (1), and multiple pluggable submodules (3) of different functional types, characterized in that: The main body (1) of the mother seat is provided with several independent sub-module mounting positions (4). The various pluggable sub-modules (3) of different functional types are installed in different sub-module mounting positions (4). The shell of each pluggable sub-module (3) is provided with a color identification structure to distinguish its functional type. Each of the pluggable sub-modules (3) is provided with a probe (6) at its bottom. The probe (6) is arranged along the height direction of the female body (1) and is directly electrically connected to the circuit board (2). The main body (1) of the female connector is equipped with a pipe structure (7), which extends along the arrangement direction of the pluggable sub-module (3). Its inner cavity forms a heat dissipation channel, and the heat dissipation channel is also used as a cable routing channel.

2. The integrated connector socket with multiple types of pluggable submodules according to claim 1, characterized in that, The color identification structure is a different color scheme for the shell of the pluggable submodule (3). Different functional types of pluggable submodules (3) are set with different colors to achieve functional zoning and rapid identification.

3. The integrated connector socket with multiple types of pluggable submodules according to claim 2, characterized in that, A matching physical anti-misinsertion structure (5) is provided between the submodule mounting position (4) and the pluggable submodule (3). The physical anti-misinsertion structure (5) and the color marking structure work together to form a double anti-misinsertion structure.

4. The integrated connector socket with multiple types of pluggable submodules according to claim 1, characterized in that, The probe (6) is a straight-insertion L-shaped conductive probe, and its lower end is directly connected point-to-point to the pad on the circuit board (2).

5. The integrated connector socket with multiple types of pluggable submodules according to claim 4, characterized in that, The connection points of the probe (6) and the circuit board (2) are arranged in an array according to the layout of the pluggable sub-module (3) to simplify the internal wiring path.

6. The integrated connector socket with multiple types of pluggable submodules according to claim 1, characterized in that, The sidewall of the pipe structure (7) is adjacent to the probe (6) to form a heat conduction and heat dissipation path.

7. The integrated connector socket with multiple types of pluggable submodules according to claim 6, characterized in that, The inner wall of the pipe structure (7) is bent to form a wire harness limiting structure (8), which is used to regulate and fix the cables in the cable routing channel.

8. The integrated connector socket with multiple types of pluggable submodules according to claim 1, characterized in that, The pluggable submodule (3) is an independent modular unit with different pin counts and different transmission functions. Each pluggable submodule (3) can be plugged in and out independently without interfering with each other.

9. The integrated connector socket with multiple types of pluggable submodules according to claim 3, characterized in that, The physical anti-foolproof structure (5) includes a positioning protrusion (9) located inside the submodule mounting position (4) and a positioning groove (11) located on the side of the pluggable submodule (3), which are mutually compatible.

10. The integrated connector socket with multiple types of pluggable submodules according to claim 1, characterized in that, The pipe structure (7) and the main body (1) are integrally formed. The pluggable sub-module (3) is internally connected to a limiting snap-fit ​​component (10), and the limiting snap-fit ​​component (10) is located at the slot on the pipe structure (7) inside the pluggable sub-module (3) to realize the positioning of the pipe structure (7) and the pluggable sub-module (3).

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