An industrial production big data visualization and analysis platform

Abstract

This invention relates to the field of visualization platform technology and discloses an industrial production big data visualization and analysis platform, including a data analysis box and a touch analysis screen disposed within the data analysis box. The inner wall of the data analysis box has a main cavity for accommodating the touch analysis screen and related components. A T-shaped groove is formed on the inner wall of the data analysis box perpendicular to the main cavity, and a sliding cavity is embedded inside the T-shaped groove. A movable cavity is slidably connected to the side of the sliding cavity facing the touch analysis screen. In this invention, when the touch analysis screen is raised or lowered, the left and right push plates push in opposite directions, providing ample space for the dual-screen raising and lowering. After being raised or lowered to the correct position, the screen returns to its original position, forming a sealed space within the main cavity. This effectively isolates dust, moisture, oil, and other impurities in the industrial environment, preventing damage and aging of internal equipment and extending the device's service life.

Description

Technical Field

[0001] This invention relates to the field of visualization platform technology, specifically to an industrial production big data visualization and analysis platform. Background Technology

[0002] In the industrial production process, with the widespread application of technologies such as the Industrial Internet, the Internet of Things, sensors, and PLCs, various data such as equipment operation, process parameters, quality inspection, and energy consumption on the production site are showing an explosive growth trend. These data have significant characteristics such as large scale, diverse dimensions, strong heterogeneity, and dynamic changes in time and space. Moreover, the data sources are scattered, covering business systems such as ERP, MES, and SCADA, as well as various terminal devices, forming a massive, multi-source, and heterogeneous industrial data resource pool.

[0003] Traditional industrial production big data visualization and analysis platforms are mostly fixed standard cabinets or integrated enclosed boxes, with a uniform shape that lacks adaptability. Large screens and industrial control displays are mostly rigidly fixed installations. Alternatively, they use ordinary simple brackets or direct wall-mounted structures without corresponding storage space for the display mechanism. Dust generated by equipment in industrial workshops can easily affect the clarity of data visualization.

[0004] In industrial production processes, existing visualization analysis platforms often only have a basic outer shell without layered isolation or zoned protective structures. This allows industrial dust, moisture, and oil to easily penetrate the internal components, accelerating the aging and damage of internal display modules, data processing modules, and wiring. When idle, the screen and control panel cannot be folded or closed for storage, leaving them exposed and prone to dust accumulation and damage. They also occupy production space, resulting in low workshop cleanliness. Furthermore, existing platforms lack a linkage structure between screen lifting and sealing protection; there is no pre-defined space for screen adjustment, and the protective structure cannot automatically open and close according to the screen's position, making it difficult to balance ease of use with equipment protection. Therefore, this invention proposes an industrial production big data visualization analysis platform. Summary of the Invention

[0005] To address the shortcomings of existing technologies, this invention provides an industrial production big data visualization and analysis platform, which solves the problems of existing platforms lacking partition protection structures and being unable to be easily closed and stored.

[0006] To achieve the above objectives, the present invention is implemented through the following technical solution: an industrial production big data, including a data analysis box and a touch analysis screen disposed in the data analysis box, wherein the inner side wall of the data analysis box is provided with a main cavity for accommodating the touch analysis screen and related components; The data analysis box has a T-shaped groove on the inner wall of one side perpendicular to the main cavity. A sliding cavity is embedded in the inner side of the T-shaped groove. A movable cavity is slidably connected to the side of the sliding cavity facing the touch analysis screen. The movable cavity is slidably fitted with the inner wall of the T-shaped groove. The movable cavity is fixedly assembled with the outer wall of the touch analysis screen to realize the lifting and adjustment of the touch analysis screen. Inside the main cavity, a left push plate and a right push plate are arranged opposite each other at positions perpendicular to the two sides of the touch analysis screen. Side sliding wheels are fixedly installed on the bottom side walls of the left push plate and the right push plate facing the main cavity. A sliding groove is opened on the data analysis box corresponding to the position of the side sliding wheel to accommodate the sliding of the side sliding wheel. A limit plate is detachably connected to the sliding groove. The limit plate is used to seal the sliding groove and limit the side sliding wheel. The inner wall of the main cavity facing the bottom of the touch analysis screen is fixedly connected to a push cavity, which is used to accommodate the components required to drive the left push plate and the right push plate to move synchronously.

[0007] Preferably, a slide rail mechanism is fixedly connected to the inner wall of the sliding cavity, and a sliding block is fixedly connected to the bottom end of the side of the moving cavity facing the slide rail mechanism. The sliding block is slidably sleeved on the slide rail mechanism. Through the sliding cooperation between the sliding block and the slide rail mechanism, the smooth lifting and lowering adjustment of the moving cavity and the touch analysis screen is realized. The touch analysis screen includes two sets of display screens arranged in opposite directions. Three sets of reverse folding components are evenly fixedly connected to the top inner side of the touch analysis screen along its length. The reverse folding components are configured to drive the bottom ends of the two sets of display screens to tilt to both sides along the center line, and the tilt angle is adapted to the viewing needs of production personnel.

[0008] Preferably, a mounting component is fixedly embedded within the sliding block along its length. A rod is fixedly inserted into the top of the touch analysis screen facing the mounting component, and the rod extends into the mounting component and forms a rotatable connection with it. A connecting plate is slidably mounted on the bottom of the touch analysis screen perpendicular to the rod. A plug is integrally formed on the side of the connecting plate opposite to the rod, and the plug is inserted into the mounting component and forms a rotatable connection with it. Transmission end plates are fixedly connected to the bottom of the left push plate facing the left side and the right push plate facing the right side of the touch analysis screen. A transmission measurement and control mechanism is fixedly mounted on the side of the main cavity facing the transmission end plate. The transmission measurement and control mechanism cooperates with the transmission end plate to realize signal transmission or data measurement and control functions.

[0009] Preferably, an upper rack is slidably mounted on the inner wall of the pushing cavity opposite to the touch analysis screen. A gear is meshed with the side of the upper rack opposite to the touch analysis screen, and a lower rack is meshed with the side of the gear opposite to the upper rack. The rotation of the gear drives the upper rack and the lower rack to slide synchronously in opposite directions.

[0010] Preferably, three sets of left sliding wheels are fixedly connected to the bottom end of the side wall of the upper rack along its length direction, and the bottom ends of the left sliding wheels slide against the push cavity; three sets of right sliding wheels are fixedly connected to the bottom end of the side wall of the lower rack along its length direction, and the bottom ends of the right sliding wheels slide against the main body cavity; the push cavity is provided with a slot adapted to the sliding assembly of the upper rack and the lower rack.

[0011] Preferably, a left connecting rod is fixedly connected to the side of the left push plate facing the upper rack. The end wall of the left connecting rod away from the left push plate is fixedly connected to the upper rack, realizing synchronous linkage between the left push plate and the upper rack; a right connecting rod is fixedly connected to the side of the right push plate facing the lower rack, and the end wall of the right connecting rod away from the right push plate is fixedly connected to the lower rack, realizing synchronous linkage between the right push plate and the lower rack.

[0012] Preferably, the upper rack has a lower limiting member on the side away from the pushing cavity. The bottom end of the lower limiting member is fixedly connected to the inner bottom end of the main body cavity. A left limiting block is integrally formed on the side of the upper rack facing the lower limiting member. The end wall of the left limiting block away from the upper rack passes through the lower limiting member and slides against the inner wall of the lower limiting member. A slot is provided on the lower limiting member. The slot is adapted to the sliding of the left limiting block and is used to limit the sliding direction of the left limiting block and the upper rack to prevent the upper rack from deviating.

[0013] Preferably, the lower rack has an upper limit stop on the side away from the pushing cavity. The side wall of the upper limit stop is fixedly connected to the outer side wall of the pushing cavity. A right limit block is integrally formed on the side of the lower rack facing the upper limit stop. One end wall of the right limit block passes through the upper limit stop and slides against the inner wall of the upper limit stop. The upper limit stop has a second slot adapted to the sliding of the right limit block. The second slot is adapted to the sliding of the right limit block and is used to limit the sliding direction of the right limit block and the lower rack to prevent the lower rack from deviating.

[0014] Preferably, a rotating shaft is fixedly installed through and at the center of the gear component. A dual drive motor adapted to drive the gear component is fixedly connected to the side of the rotating shaft away from the gear component. A circuit cavity is opened on the side of the data analysis box away from the dual drive motor. A transmission circuit board is fixedly connected to the circuit cavity along its length. One end wall of the transmission circuit board extends into the main cavity and is electrically connected to the transmission measurement and control mechanism.

[0015] Preferably, the data analysis box has an equipment cavity on the side away from the main cavity. An energy storage mechanism is fixedly installed at the bottom of the inner side of the equipment cavity, and a data storage mechanism is fixedly installed on the top of the energy storage mechanism. The end wall of the transmission circuit board on the side away from the transmission and control mechanism extends into the equipment cavity and is electrically connected to the data storage mechanism. A maintenance cover plate is detachably installed on the side of the equipment cavity away from the main cavity.

[0016] In summary, the technical effects and advantages of this invention are as follows: This invention effectively addresses the lack of effective protection in traditional visualization platforms by incorporating parallel push-pull left and right push plates. Whether the device is in use or idle, it provides comprehensive protection for the touchscreen analysis panel, data processing equipment, and other components within the main cavity. When raising or lowering the touchscreen analysis panel, the left and right push plates move in opposite directions, providing ample space for the dual-screen movement. After reaching the correct position, they return to their original positions, creating a sealed space within the main cavity. This effectively isolates the device from dust, moisture, oil, and other impurities present in the industrial environment, preventing damage and aging of internal equipment and extending the device's lifespan. In the idle state, the touchscreen analysis panel descends into the main cavity, and the left and right push plates close, further enhancing the sealing and protection effect. This also reduces the space occupied by the device, maintaining a clean industrial environment. The overall structural design is reasonable, the operation is convenient, and it balances ease of use with equipment protection, making it highly practical.

[0017] In this invention, a visual dual-screen display structure with touch analysis screens is adopted. The touch analysis screens can be smoothly raised and lowered along the T-shaped groove inside the data analysis box through the cooperation of sliding and moving cavities, achieving height adjustment and adapting to the viewing angle of operators on both sides during equipment production. The touch analysis screens consist of two sets of displays arranged front and back facing each other, with a reverse folding component in the middle. The folding operation allows the bottom of the screen to present a certain tilt angle, making it easier for production personnel to view data and avoiding screen glare caused by ambient light from affecting their vision. This effectively improves operating comfort and work efficiency. At the same time, the lifting structure is stably assembled, ensuring the stability of the dual-screen display. Attached Figure Description

[0018] Figure 1 This is a schematic diagram of the overall structure of an industrial production big data visualization and analysis platform according to the present invention; Figure 2 This is a bottom schematic diagram of the overall structure of an industrial production big data visualization and analysis platform according to the present invention; Figure 3 This is a schematic diagram of the overall structure of the data analysis box, the push chamber, and the dual drive motors of the present invention. Figure 4 This is a schematic diagram of the overall structure of the left push plate, the push cavity, the dual drive motors, and the right push plate of the present invention. Figure 5 This is a bottom view of the overall structure of the left push plate, the push cavity, the dual drive motors, and the right push plate of the present invention. Figure 6 This is a schematic diagram of the overall structure of the left push plate, dual drive motors, and right push plate of the present invention. Figure 7 This is a schematic diagram of the overall structure of the movable cavity and touch analysis screen of the present invention; Figure 8This is an exploded view of the overall structure of the movable cavity and touch analysis screen of the present invention.

[0019] In the diagram: 1. Data analysis box; 101. Circuit cavity; 102. Inspection cover; 103. T-slot; 104. Data storage mechanism; 105. Energy storage mechanism; 106. Sliding groove; 107. Limiting plate; 108. Main cavity; 109. Equipment cavity; 2. Left push plate; 201. Side sliding wheel; 202. Left connecting rod; 203. Upper rack; 204. Left limiting block; 205. Left sliding wheel; 3. Sliding cavity; 301. Slide rail mechanism; 4. Moving cavity; 401 5. Sliding block; 6. Touch screen analysis panel; 7. Mounting component; 8. Transmission end plate; 9. Reverse folding assembly; 10. Connecting plate; 11. Insert rod; 2. Transmission measurement and control mechanism; 12. Transmission circuit board; 3. Push cavity; 4. Lower limit component; 5. Upper limit component; 6. Dual drive motor; 7. Rotating shaft; 8. Gear component; 9. Right push plate; 10. Right connecting rod; 11. Lower rack; 12. Right limit block; 13. Right sliding wheel. Detailed Implementation

[0020] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0021] refer to Figures 1-7 The industrial production big data visualization and analysis platform shown includes a data analysis box 1 and a touch analysis screen 5 installed inside the data analysis box 1. A specific embodiment is shown below: Example 1 This embodiment includes the assembly positional relationship between the sliding cavity 3, the moving cavity 4, and the touch analysis screen 5, as well as their actual usage, as detailed below: The sliding cavity 3 is integrally embedded and fixed within the T-slot 103 inside the data analysis box 1, maintaining a fixed position. It is positioned and limited by the T-slot 103, ensuring stable and reliable assembly without any shifting or loosening. The moving cavity 4 is slidably mounted on the side wall of the sliding cavity 3 facing the touch analysis screen 5. The outer wall of the moving cavity 4 slides and engages with the inner wall of the T-slot 103, further limiting the movement trajectory of the moving cavity 4 and preventing misalignment during sliding. A slide rail mechanism 301 is fixedly installed inside the sliding cavity 3. A sliding block 401 is fixedly connected to the bottom of the moving cavity 4, engaging with the outside of the slide rail mechanism 301. This sliding engagement between the slide rail mechanism 301 and the sliding block 401 allows the moving cavity 4 to smoothly and steadily slide vertically.

[0022] The touch analysis screen 5 is securely connected to the outer wall of the moving cavity 4 via a side-mounted mounting bracket 501, forming an integrated linkage structure. During the lifting and lowering process, the moving cavity 4 directly drives the touch analysis screen 5 to synchronously complete the lifting and adjusting operation. The reverse folding component 503 inside the touch analysis screen 5 allows it to be tilted according to the viewing angle of production personnel. In daily use, the entire device is placed on one side of the production line, while workers typically operate from both sides. The dual-screen touch display structure allows workers to intuitively view various big data visualization charts, operating parameters, and data analysis results related to industrial production.

[0023] When the platform finishes its work and enters an idle storage state, the control moving cavity 4 slides smoothly downwards along the inside of the sliding cavity 3, causing the touch analysis screen 5 to fall back and be stored inside the main cavity 108 of the data analysis box 1, thus completing the overall storage and hiding of the screen.

[0024] Example 2 This embodiment includes the positional arrangement and overall linkage of the left push plate 2, right push plate 9, push cavity 7, and dual drive motor 8 components, as detailed below: The push cavity 7 is fixedly installed inside the main cavity 108 of the data analysis box 1, and is located at the corresponding position at the bottom of the touch analysis screen 5, serving as the core mounting carrier of the overall push-pull drive structure. The left push plate 2 and the right push plate 9 are symmetrically arranged inside the main cavity 108, located on both sides of the touch analysis screen 5, and are on the same horizontal plane, enabling them to synchronously complete horizontal push-pull movements in opposite directions. Both the left push plate 2 and the right push plate 9 are equipped with side sliding wheels 201 at their bottoms. The side sliding wheels 201 are matched and placed inside the sliding groove 106 opened in the data analysis box 1, relying on the sliding groove 106 to achieve horizontal sliding guidance. The outside of the sliding groove 106 is equipped with a detachable limiting plate 107, which can not only ensure smooth push-pull sliding, but also complete daily sealing and sliding limiting work.

[0025] Inside the push chamber 7, an upper rack 203, a gear component 802, and a lower rack 902 are arranged sequentially. The gear component 802 is centrally meshed between the upper rack 203 and the lower rack 902. The outer side of the upper rack 203 is fixedly connected to the left push plate 2 via a left connecting rod 202, and the outer side of the lower rack 902 is fixedly connected to the right push plate 9 via a right connecting rod 901, thus achieving power linkage transmission. The center of the gear component 802 passes through a fixed rotating shaft 801, and the outer side of the rotating shaft 801 is connected to a dual drive motor 8. The dual drive motor 8 is fixedly mounted on the outer side of the data analysis box 1, providing stable driving power for the overall push-pull structure. In actual use, the operator starts the dual drive motor 8, which drives the rotating shaft 801 and the gear component 802 to rotate synchronously. In the rotating state, the gear component 802 drives the upper rack 203 and the lower rack 902 to perform opposite horizontal sliding movements.

[0026] The upper rack 203 drives the left push plate 2 to move horizontally outward via the left connecting rod 202, while the lower rack 902 drives the right push plate 9 to move outward synchronously via the right connecting rod 901. This opens up the space above the touch analysis screen 5, providing ample room for the screen to rise and adjust, ensuring the screen can smoothly extend out of the data analysis box 1 for use. After the touch analysis screen 5 has been adjusted, the dual drive motor 8 is reversed, causing the gear 802 to rotate and the upper rack 203 and lower rack 902 to slide back to their original positions. This causes the left push plate 2 and right push plate 9 to close together, sealing the space above the main cavity 108. After the touch analysis screen 5 has been retracted, the left push plate 2 and right push plate 9 are completely closed, providing a tight shielding protection for the internal structure of the data analysis box 1. The overall linkage transmission is precise and synchronized, with the opening and closing actions of the left push plate 2 and right push plate 9 coordinated and consistent. The transmission structure is simple and durable, ensuring stable opening, closing, and sealing operations.

[0027] Example 3 This embodiment includes the overall position of the data analysis box 1 within the overall assembly structure of the visualization analysis platform, as well as its multiple practical functions and effects, such as overall load-bearing, positioning protection, and zoning layout, as detailed below: Data analysis box 1 serves as the outermost basic support structure of this platform. It is the core installation foundation for all internal functional structures, transmission and adjustment structures, display structures, and electrical control structures. All internal components of the platform are uniformly assembled and fixed based on data analysis box 1. This integrates various scattered structures into a complete device, avoiding the scattered and disorderly arrangement of individual structures and greatly improving the overall integration and regularity of the equipment.

[0028] The data analysis cabinet 1 is structurally partitioned by different functional cavities. The main cavity 108 serves as the core housing, specifically designed to accommodate the touch analysis screen 5, the left push plate 2 and right push plate 9, and the push-pull drive assembly. This provides dedicated installation space for the screen lifting structure and the sealing protection structure, limiting the range of motion of various moving structures and preventing interference between them. A T-slot 103 is formed on the side wall of the data analysis cabinet 1, specifically for positioning and embedding the sliding cavity 3, precisely defining its installation position. It also provides a guiding foundation for the vertical sliding of the moving cavity 4, ensuring accurate assembly of the screen lifting structure. A wiring cavity 101 is located on the side of the data analysis cabinet 1, neatly arranging the transmission circuit board 601. This allows for centralized storage and arrangement of various data lines, preventing tangled wiring and ensuring smooth and stable transmission of industrial big data signals.

[0029] The data analysis enclosure 1 has a separate equipment cavity 109 on its side wall, which can independently house the energy storage mechanism 105 and the data storage mechanism 104. This allows for independent partitioning of the energy storage mechanism 105 and the data storage mechanism 104, avoiding interference between electrical components and moving structures, and facilitating separate maintenance in the future. A removable maintenance cover 102 is fitted to the outside of the equipment cavity 109. The maintenance cover 102 is assembled and fixed using the base structure of the data analysis enclosure 1, making disassembly and assembly convenient and significantly reducing the difficulty of maintaining the internal electrical equipment. Furthermore, the data analysis enclosure 1 adopts a fully enclosed shell structure design. After the left push plate 2 and right push plate 9 are closed, they work together to form a complete sealed protective cavity, effectively isolating dust, water vapor, corrosive gases, and production splashes from the industrial production environment.

[0030] Working principle of this invention: This industrial production big data visualization and analysis platform uses the data analysis box 1 as the basic support structure. The core revolves around the lifting and adjusting of the touch analysis screen 5 and the opening and closing linkage of the left push plate 2 and the right push plate 9, while simultaneously completing the data transmission and storage.

[0031] After the platform starts, the dual drive motors 8 operate, driving the rotating shaft 801 and gear 802 to rotate. The gear 802 meshes and drives the upper rack 203 and lower rack 902 to slide in opposite directions. Through the left connecting rod 202 and the right connecting rod 901, the left push plate 2 and the right push plate 9 are moved outward, opening the space above the main cavity 108. Subsequently, the moving cavity 4 slides vertically along the slide rail mechanism 301 in the sliding cavity 3 via the bottom sliding block 401, driving the touch analysis screen 5 fixed thereto to rise to a suitable height. After the lifting and lowering are in place, the dual drive motors 8 rotate in opposite directions, driving the left push plate 2 and the right push plate 9 to reset and close, so that the main cavity 108 forms a sealed space.

[0032] The touch analysis screen 5 consists of two sets of displays arranged opposite each other, with a reverse folding component 503 in the middle. Folding allows the bottom of the screen to tilt at a certain angle for easier viewing by production personnel. The data touch analysis screen 5 connects to the transmission and control mechanism 6 via the transmission end plate 502, and data transmission is achieved through the transmission circuit board 601. The data storage mechanism 104 stores the analysis data, and the power storage mechanism 105 supplies power to all components. When not in use, the moving cavity 4 lowers the touch analysis screen 5 into the main cavity 108, and the left push plate 2 and right push plate 9 close again for protection.

[0033] All electrical components mentioned in this article are connected to an external main controller and 220V AC mains power, and the main controller can be a conventional known device such as a computer that can control it.

[0034] Finally, it should be noted that the above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Although the present invention has been described in detail with reference to the foregoing embodiments, those skilled in the art can still modify the technical solutions described in the foregoing embodiments or make equivalent substitutions for some of the technical features. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. An industrial production big data visualization and analysis platform, comprising a data analysis box (1) and a touch analysis screen (5) disposed within the data analysis box (1), characterized in that: The inner wall of the data analysis box (1) is provided with a main cavity (108) for accommodating the touch analysis screen (5) and related components. The data analysis box (1) has a T-shaped groove (103) on one side of the inner wall perpendicular to the main cavity (108). A sliding cavity (3) is embedded in the inner side of the T-shaped groove (103). A moving cavity (4) is slidably connected to the side of the sliding cavity (3) facing the touch analysis screen (5). The moving cavity (4) is slidably fitted with the inner wall of the T-shaped groove (103). The moving cavity (4) is fixedly assembled with the outer wall of the touch analysis screen (5) to realize the lifting and lowering adjustment of the touch analysis screen (5). Inside the main cavity (108), a left push plate (2) and a right push plate (9) are arranged opposite each other at positions perpendicular to the two sides of the touch analysis screen (5). Side sliding wheels (201) are fixedly installed on the bottom side walls of the left push plate (2) and the right push plate (9) facing the main cavity (108). A sliding groove (106) is opened on the data analysis box (1) at the position corresponding to the side sliding wheel (201) to accommodate the sliding of the side sliding wheel (201). A limiting plate (107) is detachably connected to the sliding groove (106). The limiting plate (107) is used to seal the sliding groove (106) and limit the side sliding wheel (201). The main cavity (108) is fixedly connected to the inner wall of the bottom end of the touch analysis screen (5) with a push cavity (7) for accommodating the components required to drive the left push plate (2) and the right push plate (9) to move synchronously.

2. The industrial production big data visualization and analysis platform according to claim 1, characterized in that: The inner wall of the sliding cavity (3) is fixedly connected to a slide rail mechanism (301). The bottom end of the moving cavity (4) facing the slide rail mechanism (301) is fixedly connected to a sliding block (401). The sliding block (401) is slidably sleeved on the slide rail mechanism (301). Through the sliding cooperation between the sliding block (401) and the slide rail mechanism (301), the moving cavity (4) and the touch analysis screen (5) can be smoothly adjusted in height. The touch analysis screen (5) includes two sets of display screens arranged in opposite directions. The top inner side of the touch analysis screen (5) is evenly fixedly connected to three sets of reverse folding components (503) along its length. The reverse folding components (503) are configured to drive the bottom ends of the two sets of display screens to tilt to both sides along the center line, and the tilt angle is adapted to the viewing needs of production personnel.

3. The industrial production big data visualization and analysis platform according to claim 2, characterized in that: A mounting component (501) is fixedly embedded in the sliding block (401) along its length. A plug rod (505) is fixedly inserted into the top of the side of the touch analysis screen (5) facing the mounting component (501). The plug rod (505) extends into the interior of the mounting component (501) and forms a rotatable connection with the mounting component (501). A connecting plate (504) is slidably mounted on the bottom end of the side of the touch analysis screen (5) perpendicular to the plug rod (505). The side of the connecting plate (504) facing away from the plug rod (505) The device is integrally molded with a plug-in, which is inserted into the mounting part (501) and forms a rotatable connection with the mounting part (501); the bottom ends of the left push plate (2) on the left side and the right push plate (9) on the right side of the touch analysis screen (5) are fixedly connected to the transmission end plate (502); the main cavity (108) is fixedly equipped with a transmission measurement and control mechanism (6) on the side facing the transmission end plate (502); the transmission measurement and control mechanism (6) cooperates with the transmission end plate (502) to realize the signal transmission or data measurement and control function.

4. The industrial production big data visualization and analysis platform according to claim 1, characterized in that: The upper rack (203) is slidably mounted on the inner wall of the push cavity (7) away from the touch analysis screen (5). The upper rack (203) is meshed with a gear (802) on the side away from the touch analysis screen (5). The gear (802) is meshed with a lower rack (902) on the side away from the upper rack (203). The rotation of the gear (802) drives the upper rack (203) and the lower rack (902) to slide synchronously in opposite directions.

5. The industrial production big data visualization and analysis platform according to claim 4, characterized in that: The bottom side wall of the upper rack (203) is fixedly connected with three sets of left sliding wheels (205) along its length direction, and the bottom ends of the left sliding wheels (205) slide against the push cavity (7); the bottom side wall of the lower rack (902) is fixedly connected with three sets of right sliding wheels (904) along its length direction, and the bottom ends of the right sliding wheels (904) slide against the main body cavity (108); the push cavity (7) is provided with a slot adapted to the sliding assembly of the upper rack (203) and the lower rack (902).

6. The industrial production big data visualization and analysis platform according to claim 5, characterized in that: The left push plate (2) is fixedly connected to a left connecting rod (202) on the side facing the upper rack (203). The end wall of the left connecting rod (202) away from the left push plate (2) is fixedly connected to the upper rack (203) to achieve synchronous linkage between the left push plate (2) and the upper rack (203); the right push plate (9) is fixedly connected to a right connecting rod (901) on the side facing the lower rack (902). The end wall of the right connecting rod (901) away from the right push plate (9) is fixedly connected to the lower rack (902) to achieve synchronous linkage between the right push plate (9) and the lower rack (902).

7. The industrial production big data visualization and analysis platform according to claim 6, characterized in that: The upper rack (203) has a lower limit member (701) on the side away from the push cavity (7). The bottom end of the lower limit member (701) is fixedly connected to the inner bottom end of the main body cavity (108). The upper rack (203) has a left limit block (204) integrally formed on the side facing the lower limit member (701). The end wall of the left limit block (204) away from the upper rack (203) passes through the lower limit member (701) and slides against the inner wall of the lower limit member (701). The lower limit member (701) has a slot. The slot is adapted to the sliding of the left limit block (204) and is used to limit the sliding direction of the left limit block (204) and the upper rack (203) to prevent the upper rack (203) from deviating.

8. The industrial production big data visualization and analysis platform according to claim 6, characterized in that: The lower rack (902) is provided with an upper limit member (702) on the side away from the push cavity (7). The side wall of the upper limit member (702) is fixedly connected to the outer side wall of the push cavity (7). The lower rack (902) is integrally formed with a right limit block (903) on the side facing the upper limit member (702). One end wall of the right limit block (903) passes through the upper limit member (702) and slides against the inner wall of the upper limit member (702). The upper limit member (702) is provided with a second slot adapted to the sliding of the right limit block (903). The second slot is adapted to the sliding of the right limit block (903) and is used to limit the sliding direction of the right limit block (903) and the lower rack (902) to prevent the lower rack (902) from deviating.

9. The industrial production big data visualization and analysis platform according to claim 4, characterized in that: A rotating shaft (801) is fixedly installed through and fixedly mounted at the center of the gear component (802). A dual drive motor (8) adapted to drive the gear component (802) is fixedly connected to the side of the rotating shaft (801) away from the gear component (802). A circuit cavity (101) is opened on the side of the data analysis box (1) away from the dual drive motor (8). A transmission circuit board (601) is fixedly connected in the circuit cavity (101) along its length direction. One end wall of the transmission circuit board (601) extends into the main body cavity (108) and is electrically connected to the transmission measurement and control mechanism (6).

10. The industrial production big data visualization and analysis platform according to claim 9, characterized in that: The data analysis box (1) has an equipment cavity (109) on the side away from the main cavity (108). An energy storage mechanism (105) is fixedly installed at the bottom of the inner side of the equipment cavity (109). A data storage mechanism (104) is fixedly installed on the top of the energy storage mechanism (105). The end wall of the transmission circuit board (601) on the side away from the transmission measurement and control mechanism (6) extends into the equipment cavity (109) and is electrically connected to the data storage mechanism (104). A maintenance cover plate (102) is detachably installed on the side of the equipment cavity (109) away from the main cavity (108).

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