Embedded industrial mainboard

Abstract

The utility model discloses an embedded industrial mainboard, and the industrial mainboard comprises a pedestal which forms a first surface; the sliding groove is integrally formed in the base, and a clamping block is arranged on the edge of the sliding groove; the sliding block abuts against the base, and when observed in the direction perpendicular to the first surface, the sliding block is provided with a guide pin. When observed in the direction perpendicular to the first surface, a guide groove is integrally formed in the sliding groove, the guide pin abuts against the guide groove, the sliding block slides on the sliding groove along the guide groove, when observed in the direction parallel to the first surface, the sliding block is in a wedge shape, the clamping block is also in a wedge shape, and the sliding groove is clamped with the sliding block through the clamping block. Through the wedge-shaped design of the sliding block, the contact area of the sliding block and the sliding groove is increased, the sliding block slides on the base along the guide groove, the operation stability of the industrial mainboard is improved, the mode that the sliding block is wedge-shaped and the clamping block is also wedge-shaped is adopted, the gap between the sliding block and the clamping block is reduced, and impurities can be effectively prevented from entering the industrial mainboard.

Description

Technical Field

[0001] The utility model relates to the field of electronic hardware, in particular to an embedded industrial mainboard. Background Art

[0002] With the rapid development of industrial automation, intelligent manufacturing, and the Internet of Things (IoT), the application scope of industrial motherboards continues to expand, and they have become a key component in industrial equipment and systems. Industrial motherboards are computer motherboards designed specifically for industrial environments and are commonly used in automation, control systems, communications, transportation, energy, and other fields. Compared to ordinary motherboards, industrial motherboards offer higher reliability, stability, and durability.

[0003] When industrial motherboards are used in high-humidity, dusty environments, dust, oil, or other impurities may enter the motherboard, causing the sliding rods and sliding blocks to become stuck. Frequent sticking can lead to excessive wear between the motherboard components and shorten the lifespan of the sliding blocks and sliding rods. Currently, industrial motherboards on the market primarily use lubricants between sliding parts to reduce friction and prevent the accumulation of impurities. However, lubricants easily evaporate or deteriorate in high-temperature or humid environments, losing their lubricating effectiveness. Excessive lubricant can also attract dust and form dirt. This not only fails to ensure stable operation of the industrial motherboard, but also exacerbates the sticking problem.

[0004] Therefore, it is necessary to provide an embedded industrial motherboard that can effectively prevent impurities from entering and improve operational stability. Utility Model Content

[0005] The purpose of the utility model is to provide an embedded industrial mainboard which can effectively prevent the entry of impurities and improve the operation stability.

[0006] According to one aspect of the present application, an embedded industrial motherboard is provided, comprising:

[0007] A base, the surface formed by the base being the first surface;

[0008] A sliding groove is integrally formed on the base, and a clamping block is provided at the edge of the sliding groove;

[0009] a slider abutting against the base and provided with a guide pin when viewed in a direction perpendicular to the first surface;

[0010] Among them, when viewed in a direction perpendicular to the first surface, a guide groove is integrally formed on the sliding groove, and the guide pin abuts against the guide groove, and the slider slides along the guide groove on the sliding groove. When viewed in a direction parallel to the first surface, the slider is wedge-shaped, and the clamping block is also wedge-shaped, and the sliding groove clamps the slider through the clamping block.

[0011] More preferably, the industrial motherboard further includes:

[0012] a base, the slider being fixedly connected to the base;

[0013] Wherein, the base is engaged with the sliding groove through the sliding block and is fixed to the base.

[0014] More preferably, the substrate further comprises:

[0015] The convex block is formed integrally with the base and is located between the base and the base.

[0016] More preferably, a limiting groove is integrally formed on the base, and when viewed in a direction parallel to the first surface, the protrusion is inserted into the limiting groove and fixed in the limiting groove.

[0017] More preferably, the slider further includes:

[0018] a sliding rod integrally passing through the slider and fixedly connected to the slider, wherein when viewed in a direction parallel to the first surface, the sliding rod is located on a side of the slider facing away from the base;

[0019] The toggle block is integrally formed on the slide rod and is located on a side of the slide rod facing away from the slider when viewed in a direction parallel to the first surface.

[0020] More preferably, the industrial motherboard further includes:

[0021] A pressing block is fixed to the slide bar and is located at an end of the slide bar away from the toggle block.

[0022] More preferably, the industrial motherboard further includes:

[0023] A notch is formed between the base and the slider and is located around the pressing block when viewed in a direction parallel to the first surface.

[0024] More preferably, the base further comprises:

[0025] a spring fixedly connected to the base and located on a side of the slider facing away from the clamping block when viewed in a direction parallel to the first surface;

[0026] Wherein, the sliding block is engaged with the clamping block through the spring.

[0027] More preferably, the base further comprises:

[0028] The two ears are fixedly connected to two sides of the base when viewed in a direction parallel to the first surface.

[0029] More preferably, the base further comprises:

[0030] A bolt is threadedly connected to the lug when viewed along a direction parallel to the first surface.

[0031] The utility model has the following beneficial effects:

[0032] The wedge-shaped design of the slider increases the contact area between the slider and the sliding groove, and the slider slides along the guide groove on the base, so that the industrial motherboard has improved operational stability. The wedge-shaped slider and the wedge-shaped block reduce the gap between the slider and the block, so that the industrial motherboard can effectively prevent impurities from entering. BRIEF DESCRIPTION OF THE DRAWINGS

[0033] In order to more clearly illustrate the implementation methods of the present application or the technical solutions in the prior art, a brief introduction will be given below to the drawings required for use in the implementation methods or the description of the prior art. Obviously, the drawings described below are only some implementation methods of the present application. For ordinary technicians in this field, other drawings can be obtained based on these drawings without any creative work.

[0034] Figure 1 This is a planar structural cross-sectional view of an industrial motherboard according to one embodiment of the present utility model;

[0035] Figure 2 This is a schematic diagram of the planar structure of the base in the industrial motherboard according to one embodiment of the present utility model;

[0036] Figure 3 This is a schematic diagram of the planar structure of the slider in the industrial mainboard according to one embodiment of the present utility model;

[0037] Figure 4 This is an enlarged planar structural diagram of the card block in the industrial mainboard according to one embodiment of the present utility model;

[0038] Explanation of the accompanying drawings: 100, industrial motherboard; 10, base; 11, limit groove; 12, spring; 13, ear; 14, bolt; 20, sliding groove; 21, clamping block; 22, guide groove; 30, slider; 31, guide pin; 32, slide rod; 33, toggle block; 40, base; 41, protrusion; 50, pressure block; 60, notch; S1, first surface. DETAILED DESCRIPTION

[0039] To facilitate understanding of the present application, a more comprehensive description of the present application will be provided below with reference to the accompanying drawings. The accompanying drawings illustrate preferred embodiments of the present application. However, the present application may be implemented in many different forms and is not limited to the embodiments described herein. Rather, these embodiments are provided to provide a more thorough and comprehensive understanding of the disclosure of the present application.

[0040] It should be noted that when an element is referred to as being "fixed to" another element, it may be directly attached to the other element or there may be an intermediate element. When an element is referred to as being "connected to" another element, it may be directly connected to the other element or there may be an intermediate element. The terms "vertical," "horizontal," "left," "right," and similar expressions used herein are for illustrative purposes only.

[0041] Unless otherwise defined, all technical and scientific terms used herein have the same meaning as commonly understood by those skilled in the art to which this application pertains. The terms used herein in the specification of this application are intended only to describe specific embodiments and are not intended to limit this application. The term "and / or" as used herein includes any and all combinations of one or more of the associated listed items.

[0042] Please refer to Figure 1 - Figure 4 An embodiment of the present invention provides an embedded industrial motherboard 100 , which includes a base 10 , a sliding slot 20 and a slider 30 .

[0043] The surface formed by the base 10 is a first surface S1. The sliding groove 20 is integrally formed on the base 10, and a clamping block 21 is provided at the edge of the sliding groove 20. The slider 30 abuts against the base 10 and, when viewed in a direction perpendicular to the first surface S1, is provided with a guide pin 31. When viewed in a direction perpendicular to the first surface S1, a guide groove 22 is integrally formed on the sliding groove 20. The guide pin 31 abuts against the guide groove 22, allowing the slider 30 to slide along the sliding groove 20. When viewed in a direction parallel to the first surface S1, the slider 30 is wedge-shaped, and the clamping block 21 is also wedge-shaped. The sliding groove 20 engages the slider 30 via the clamping block 21.

[0044] Both the slider 30 and the block 21 are wedge-shaped. The self-locking mechanism of the wedge structure allows the slider 30 to fit more tightly within the sliding groove 20 when subjected to external forces, preventing loosening or displacement. This design increases the contact area between the sliding block 21 and the sliding groove 20, further enhancing stability during sliding. A guide pin 31 is provided on the slider 30, which cooperates with the integrated guide groove 22 within the sliding groove 20 to ensure that the slider 30 can only slide along a predetermined path. This guiding structure reduces the possibility of the slider 30 shifting or tilting within the sliding groove 20, thereby reducing the risk of jamming caused by deviation from the track. The wedge-shaped block 21 provides an additional support point within the sliding groove 20, effectively dissipating and resisting external shock or vibration, ensuring that the slider 30 remains in the correct position and preventing the sliding component from dislodging due to vibration. The tight fit between the slider 30, the sliding groove 20, and the block 21 reduces gaps, effectively preventing impurities such as dust and oil from entering critical areas of the sliding component. Reducing the ingress of impurities not only prevents jamming but also extends the service life of the sliding component. The locking mechanism between the slider 30 and the sliding slot 20 allows for quick installation and removal of the slider 30, facilitating easy installation and maintenance of the industrial motherboard 100. This structure ensures stability while also simplifying maintenance. In industrial environments, equipment often must cope with complex environmental conditions, such as high humidity and dust. Through precise guidance and locking design, this structure adapts to diverse industrial environments while providing reliable performance.

[0045] Preferably, the industrial motherboard 100 further includes a base 40. The slider 30 is fixedly connected to the base 40. The base 40 is fixed to the base 10 by the slider 30 engaging with the sliding groove 20.

[0046] By fixing the slider 30 to the base 40, the structural rigidity and stability of the slider 30 are enhanced. The triple structural combination of the base 40, the slider 30, and the sliding groove 20 increases the rigidity of the overall structure, allowing the industrial motherboard 100 to better withstand external forces and workloads, and avoid damage caused by uneven force. The base 40 provides a solid support that can effectively reduce the deformation or loosening of the slider 30 within the sliding groove 20, ensuring a smoother sliding process. The base 40 engages with the sliding groove 20 through the slider 30, tightly securing the entire system to the base 10. This locking and fixing method can effectively improve the seismic resistance of the industrial motherboard 100, prevent loosening or falling off under vibration or impact conditions, and ensure reliable operation of the equipment in harsh industrial environments. By fixing the slider 30 to the base 40 and engaging it with the base 10 through the sliding groove 20, quick assembly and disassembly can be achieved. This modular design simplifies the maintenance process of the industrial motherboard 100. The slider 30 or base 40 can be inspected, cleaned, or replaced without disassembling the entire device, thereby improving the maintenance efficiency of the equipment. Through this structural design, the industrial motherboard 100 can more easily adapt to the needs of different application scenarios. The snap-fit design of the base 40, slider 30, and sliding groove 20 allows different types of sliders 30 or base 40 components to be replaced or upgraded on the same base 10, increasing the scalability of the equipment. The base 40 is snapped into the sliding groove 20 through the slider 30, forming a multi-point support structure. This can effectively disperse the stress during the sliding process, reduce stress concentration in a specific location, thereby reducing the risk of structural damage and extending the service life of the equipment.

[0047] More preferably, the base 40 further includes a bump 41 . The bump 41 is integrally formed on the base 40 and is located between the base 40 and the base 10 .

[0048] The bump 41 is located between the base 40 and the base 10. By embedding the bump 41 within the base 10, the base 40's positioning stability is further enhanced, preventing lateral sliding or shaking within the sliding groove 20. The bump 41 serves as an additional support point, helping to securely fasten the base 40 to the base 10 and prevent loosening during operation. The mating of the bump 41 with the base 10 provides additional positioning, ensuring the base 40 is correctly positioned during installation. The bump 41 acts as a stress dispersant, evenly distributing vibration stress between the base 10 and the base 40, reducing stress concentration in a single area, lowering the risk of damage caused by vibration, and improving the device's vibration resistance. The bump 41 provides an additional support point, allowing the base 40 to rely not only on the connection between the slider 30 and the sliding groove 20, but also forming a multi-point support structure through the interlocking of the bump 41 and the base 10. This design significantly improves the rigidity and strength of the entire structure, enabling the industrial motherboard 100 to better withstand the mechanical loads of operation. The bumps 41 effectively limit lateral displacement of the base 40 relative to the base 10. Specifically, during operation, the bumps 41 prevent the base 40 from deviating from its initial position due to external forces or vibration, thereby maintaining system stability and operational accuracy. The bumps 41 also effectively reduce friction between the base 40 and the base 10, preventing wear caused by sliding or vibration and thus extending the life of the device.

[0049] More preferably, a limiting groove 11 is integrally formed on the base 10 , and when viewed along a direction parallel to the first surface S1 , the protrusion 41 is inserted into the limiting groove 11 and fixed in the limiting groove 11 .

[0050] Among them, the limiting groove 11 provides a clear positioning guide, so that the protrusion 41 can be accurately aligned when inserted. This design ensures that the relative position between the base 40 and the base 10 is more accurate, avoiding sliding, loosening or misalignment problems caused by errors, thereby improving the accuracy and stability of the overall assembly. The limiting groove 11 can effectively limit the movement of the protrusion 41 in the horizontal direction, ensuring that the base 40 does not undergo lateral displacement or shaking in the sliding groove 20. This is crucial to the stability of the equipment during operation, especially when affected by external force or vibration, the limiting groove 11 can prevent the base 40 from accidentally displacing. The matching structure of the limiting groove 11 and the protrusion 41 can effectively absorb and disperse external vibration and impact stress, reduce the impact of mechanical stress generated by vibration or operation on the system, and avoid loosening or displacement of the base 40, thereby improving the vibration resistance and overall stability of the industrial motherboard 100. The engagement of retaining groove 11 with protrusion 41 further strengthens the connection between base 40 and base 10, making the structure more compact and robust, capable of effectively withstanding the complex working conditions of industrial environments. The combination of retaining groove 11 and protrusion 41 provides a locking mechanism, preventing base 40 from accidentally slipping or loosening during use, thereby enhancing system reliability.

[0051] More preferably, the slider 30 further includes a slide rod 32 and a toggle block 33 .

[0052] The sliding rod 32 integrally passes through the slider 30 and is fixedly connected to the slider 30. When viewed in a direction parallel to the first surface S1, the sliding rod 32 is located on a side of the slider 30 facing away from the base 10. The toggle block 33 is integrally formed on the sliding rod 32 and, when viewed in a direction parallel to the first surface S1, is located on a side of the sliding rod 32 facing away from the slider 30.

[0053] The slide bar 32 extends throughout the entire slider 30, providing a stable guide structure for the slider 30, ensuring smooth movement within the sliding groove 20 and reducing sticking and friction. The toggle block 33 is located on the side of the slide bar 32 facing away from the slider 30. This positioning design facilitates precise control and adjustment of the slider 30 via the toggle block 33, allowing the slider 30 to freely move or lock within the sliding groove 20, achieving convenient operation. The slide bar 32 extends through the slider 30 and is fixedly connected thereto, providing longitudinal support for the slider 30 within the sliding groove 20, preventing the slider 30 from shifting, shaking, or tilting during sliding, and improving the stability of the slider 30 within the groove. The through-hole structure of the slide bar 32 effectively disperses external forces applied to the slider 30, reducing the possibility of the slider 30 loosening or wearing during prolonged use, thereby extending the service life of the device. The toggle block 33 is integrally formed on the slide bar 32 and serves as a direct control handle for the movement of the slider 30. The user can easily adjust the precise position of the slider 30 in the slide groove through the toggle block 33 to achieve fine adjustment and control of the industrial motherboard 100. In particular, when it is necessary to fine-tune or lock the position of the slider 30, the toggle block 33 provides a simple and effective means of operation. The slide bar 32, as the core structure that runs through the slider 30, can enhance the overall rigidity of the slider 30, so that it can maintain a stable structural form when subjected to vibration or impact, reduce the impact of vibration on the normal sliding of the slider 30, and enhance the seismic resistance of the entire device. The toggle block 33 can provide a certain buffering effect when the slide bar 32 contacts the outside world, reducing the damage to the slider 30 caused by external impact forces. The design of the toggle block 33 combined with the sliding function of the slide bar 32 makes the operation of the slider 30 more intuitive and easy to control. The user can achieve precise operation through simple manual toggling, which improves the overall user experience.

[0054] More preferably, the industrial motherboard 100 further includes a pressing block 50 . The pressing block 50 is fixed to the slide bar 32 and is located at an end of the slide bar 32 away from the toggle block 33 .

[0055] The pressure block 50 is fixed to the end of the slide bar 32, providing additional support and stability for the slide bar 32 and preventing the slide bar 32 from loosening or shifting during prolonged use. This design ensures that the slide bar 32 remains stable throughout use and improves the sliding smoothness of the slider 30. The pressure block 50 is located at the end of the slide bar 32 and can effectively prevent the slide bar 32 from falling out of the slider 30 or the sliding groove 20 due to external forces or vibrations during the sliding process, thereby ensuring that the slide bar 32 is always in the correct position and ensuring the normal operation of the system. The presence of the pressure block 50 can serve as the physical end point of the slider 30's sliding. When the slider 30 moves to the specified position, the pressure block 50 can form contact with the sliding groove 20 or other structure, providing a clear sliding end point and preventing the slider 30 from exceeding the predetermined sliding range. As a limiting device, the pressure block 50 can control the sliding distance of the slider 30, preventing the slider 30 from sliding excessively or beyond the designed range within the sliding groove 20, thereby ensuring the accuracy and stability of the device. In industrial environments, equipment is often subject to vibration and impact. The design of the pressure block 50 provides a certain degree of shock absorption at the end of the slide rod 32, buffering external vibration forces and reducing the impact on the slider 30 during sliding, thereby protecting the structural integrity of the slider 30 and the sliding slot 20. With the pressure block 50 in place, the slide rod 32 slides more smoothly within the slider 30, reducing the risk of the slider 30 shaking or sticking due to vibration or external forces, and ensuring smooth movement of the slider 30 within the sliding slot 20. The design of the pressure block 50 makes it easier to install and secure the slide rod 32 in place, simplifying the assembly process of the entire system. Once the slide rod 32 is secured by the pressure block 50, the entire slider 30 assembly can be quickly installed within the sliding slot 20, reducing assembly time and complexity. The pressure block 50, fixed at the end of the slide rod 32, also serves as a convenient removal point when maintenance or replacement is required, making it easier to remove the slide rod 32 and slider 30 from the base 10 or sliding slot 20, simplifying equipment maintenance and repair. The presence of the clamp 50 further ensures that the slide bar 32 does not accidentally loosen or slip during operation, reducing safety hazards during operation. The clamp 50 plays a crucial protective role, especially in scenarios requiring long-term stable operation. The clamp 50 also prevents damage to the slider 30 structure due to loosening of the slide bar 32 or other reasons, safeguarding the structural integrity of the entire industrial motherboard 100 and preventing equipment failures caused by component detachment.

[0056] More preferably, the industrial motherboard 100 further includes a notch 60 . Observed along a direction parallel to the first surface S1 , the notch 60 is formed between the base 10 and the slider 30 and is located around the pressing block 50 .

[0057] The notch 60 provides additional space for installing and removing the pressure block 50. When installing or adjusting the pressure block 50, the notch 60 facilitates tool or hand manipulation, reducing operational difficulties caused by limited space. The notch 60 also facilitates quick and easy replacement of the pressure block 50 or the slider 30. Especially during equipment maintenance, the notch 60 provides ample space for smooth removal and replacement of the pressure block 50 or the slider 30, minimizing downtime. The notch 60 reduces material usage between the base 10 and the slider 30, thereby reducing the overall weight of the structure. This is particularly important for large industrial equipment, as weight reduction can lower the equipment's operating load, improve energy efficiency, and ease transportation and installation. The notch 60 reduces unnecessary material consumption while maintaining structural strength, resulting in a more lightweight and efficient design. The notch 60 also provides an additional ventilation channel for components near the slider 30 and pressure block 50, promoting air circulation and aiding heat dissipation. This is particularly important on industrial motherboards 100 that operate for long periods of time, as it can reduce the risk of component overheating and improve the operating stability of the equipment. The notch 60 allows heat to be more easily discharged from around the slider 30 and the pressure block 50, reducing the impact of heat accumulation on component performance and helping to extend the life of the equipment. The notch 60 provides a space for releasing excess friction, making the movement of the slider 30 smoother, while also helping to reduce the wear of the equipment. In an industrial environment, equipment may be subject to frequent vibration or impact. The presence of the notch 60 can play a certain buffering role, absorbing and dispersing some of the vibration energy, thereby reducing the direct impact on the slider 30 and the pressure block 50 and protecting the stability of the overall structure.

[0058] Preferably, the base 10 further includes a spring 12. The spring 12 is fixedly connected to the base 10 and, when viewed in a direction parallel to the first surface S1, is located on a side of the slider 30 facing away from the locking block 21. The slider 30 is engaged with the locking block 21 via the spring 12.

[0059] The spring 12 provides a continuous elastic force, keeping the slider 30 constantly moving toward the block 21 and ensuring a stable engagement between the slider 30 and the block 21. This automatic reset function effectively prevents the slider 30 from disengaging from the block 21 due to external forces or vibration during operation, ensuring the normal operation of the device. In industrial environments, the slider 30 and the block 21 may be subject to external shock or vibration. The spring 12 acts as a buffer, absorbing some of the impact energy and preventing excessive impact forces between the slider 30 and the block 21, thereby protecting the various components of the device from damage and extending its service life. The elastic force of the spring 12 can be adjusted according to different load conditions, making the engagement between the slider 30 and the block 21 more flexible and adaptable, ensuring that the device maintains good operating conditions in a variety of complex industrial environments. The spring 12 also helps adjust the force distribution between the slider 30 and the block 21, avoiding excessive local stress and preventing deformation or damage to the slider 30 or the block 21 due to uneven force. During the engagement process between the slider 30 and the clamping block 21 , the spring 12 provides a continuous pressing force to prevent the slider 30 from loosening due to vibration or long-term use, thereby maintaining the tightness and reliability of the device.

[0060] More preferably, the base 10 further includes: ears 13 . Observed along a direction parallel to the first surface S1 , two ears 13 are fixedly connected to two sides of the base 10 .

[0061] The lugs 13, fixed to either side of the base 10, provide additional support for the entire structure, enhancing the overall stability of the base 10. Especially when subjected to external loads or vibration, the lugs 13 effectively distribute and absorb some of the stress, preventing deformation or tilting of the base 10. The placement of the lugs 13 on either side of the base 10 effectively disperses stress concentrations caused by loads or external forces, reducing pressure at localized stress points, minimizing the risk of damage to the base 10 due to excessive stress, and improving the durability of the device. The design of the lugs 13 ensures that the base 10 is more resistant to bending and deformation when subjected to external pressure or torque, maintaining the overall rigidity of the device. This is crucial for devices used in industrial environments for extended periods. The lugs 13 not only enhance the base 10's resistance to bending but also its resistance to torsion, preventing deformation when subjected to torsion, thereby ensuring normal operation. The design of the lugs 13 also facilitates device disassembly and maintenance. The lugs 13 attachment points allow operators to more easily remove the device from the workbench or supporting structure for routine maintenance or component replacement, reducing the difficulty and time required for maintenance. The design of the lugs 13 can form a certain space under the base 10, which is convenient for cable management and wiring, reduces the disorderly accumulation of cables around the device, and helps to improve the neatness and safety of the device.

[0062] More preferably, the base 10 further includes a bolt 14 . When viewed from a direction parallel to the first surface S1 , the bolt 14 is threadedly connected to the lug 13 .

[0063] Among them, the bolt 14 is connected to the support ear 13 through a thread, which can firmly fix the base 10 on the workbench or support structure. This threaded connection method provides a strong mechanical fixing force to prevent the equipment from moving or loosening during use. By fixing with the bolt 14, support points can be added at different positions of the support ear 13, thereby enhancing the stability of the base 10 and ensuring the stability and reliability of the entire equipment. The bolt 14 connection makes the installation process of the equipment easier. Through the standard bolt 14 and nut connection, the base 10 can be quickly and accurately fixed in the desired position without the need for complicated installation steps. The bolt 14 connection can speed up production and assembly speed and improve production efficiency. Through the fast tightening of the bolt 14, the installation of the base 10 can be completed in a shorter time, shortening the production cycle.

[0064] Thus, the contact area between the slider 30 and the sliding groove 20 is increased by the wedge-shaped design of the slider 30, and the slider 30 slides along the guide groove 22 on the base 10, so that the industrial motherboard 100 improves the operation stability. The slider 30 is wedge-shaped and the block 21 is also wedge-shaped, which reduces the gap between the slider 30 and the block 21, so that the industrial motherboard 100 can effectively prevent impurities from entering.

[0065] The above-described embodiments merely represent several embodiments of the present application. While the descriptions are relatively specific and detailed, they should not be construed as limiting the scope of the patent application. It should be noted that a person skilled in the art may make various modifications and improvements without departing from the spirit of the present application, and such modifications and improvements are all within the scope of protection of the present application.

Claims

1. An embedded industrial motherboard, characterized in that: The industrial motherboard includes: A base, the surface formed by the base being the first surface; A sliding groove is integrally formed on the base, and a clamping block is provided at the edge of the sliding groove; a slider abutting against the base and provided with a guide pin when viewed in a direction perpendicular to the first surface; Among them, when viewed in a direction perpendicular to the first surface, a guide groove is integrally formed on the sliding groove, and the guide pin abuts against the guide groove, and the slider slides along the guide groove on the sliding groove. When viewed in a direction parallel to the first surface, the slider is wedge-shaped, and the clamping block is also wedge-shaped, and the sliding groove clamps the slider through the clamping block.

2. The embedded industrial motherboard according to claim 1, characterized in that: The industrial motherboard also includes: a base, the slider being fixedly connected to the base; Wherein, the base is engaged with the sliding groove through the sliding block and is fixed to the base.

3. The embedded industrial motherboard according to claim 2, characterized in that: The substrate further comprises: The convex block is formed integrally with the base and is located between the base and the base.

4. The embedded industrial motherboard according to claim 3, characterized in that: A limiting groove is integrally formed on the base. When viewed in a direction parallel to the first surface, the protrusion is inserted into the limiting groove and fixed in the limiting groove.

5. The embedded industrial motherboard according to claim 1, characterized in that: The slider further comprises: a sliding rod integrally passing through the slider and fixedly connected to the slider, wherein when viewed in a direction parallel to the first surface, the sliding rod is located on a side of the slider facing away from the base; The toggle block is integrally formed on the slide rod and is located on a side of the slide rod facing away from the slider when viewed in a direction parallel to the first surface.

6. The embedded industrial motherboard according to claim 5, characterized in that: The industrial motherboard also includes: A pressing block is fixed to the slide bar and is located at an end of the slide bar away from the toggle block.

7. The embedded industrial motherboard according to claim 6, characterized in that: The industrial motherboard also includes: A notch is formed between the base and the slider and is located around the pressing block when viewed in a direction parallel to the first surface.

8. The embedded industrial motherboard according to claim 1, characterized in that: The base further comprises: a spring fixedly connected to the base and located on a side of the slider facing away from the clamping block when viewed in a direction parallel to the first surface; Wherein, the sliding block is engaged with the clamping block through the spring.

9. The embedded industrial motherboard according to claim 8, characterized in that: The base further comprises: The two ears are fixedly connected to two sides of the base when viewed in a direction parallel to the first surface.

10. The embedded industrial motherboard according to claim 9, characterized in that: The base further comprises: A bolt is threadedly connected to the lug when viewed along a direction parallel to the first surface.

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