Split-type architecture image segmentation display installation control cabinet

Abstract

The utility model belongs to the technical field of control cabinet equipment, and particularly relates to a split type framework image segmentation display installation control cabinet. The control cabinet adopts an innovative split type framework and is composed of a bottom cabin, a middle cabin and a top cabin. The bottom cabin is used for placing a host and arranging wire harnesses, and is provided with an adjustable host mounting rack and an intelligent temperature control heat dissipation system; the middle cabin is used for storing sundries and peripherals, and is provided with a unique peripheral access mechanism and a hidden peripheral channel, so that the access convenience is improved; the image segmentation display is placed in the top cabin, the mounting bracket can be electrically adjusted at multiple angles, and the heat dissipation performance is good. The control cabinet has good expansibility and compatibility, standard rapid connection interfaces are adopted among the cabins, expansion spaces and interfaces are reserved in the cabins, and an intelligent equipment identification and management system is arranged. Through verification of actual production, installation, debugging and use, the integrated control cabinet can overcome the defects of the existing integrated control cabinet in the aspects of maintenance, heat dissipation and peripheral use convenience.

Description

Technical Field

[0001] This utility model relates to the field of control cabinet equipment technology, specifically to a split-architecture image segmentation display installation control cabinet. Background Technology

[0002] A control cabinet is a set of switchgear, measuring instruments, protective electrical appliances and auxiliary equipment assembled in a closed or semi-closed metal cabinet or panel according to electrical wiring requirements. The installation of the control cabinet should not only ensure the normal operation of the electronic components, but also facilitate maintenance and testing by the staff.

[0003] Traditional image splitting display (EPS) control cabinets are mostly one-piece structures with tightly connected components. This means that when a component needs repair or replacement, staff must spend a significant amount of time and effort disassembling numerous related parts, making the process extremely cumbersome and prone to damaging other components. In terms of heat dissipation, the one-piece structure hinders heat dissipation, causing heat generated by various components to accumulate and leading to excessively high operating temperatures, severely impacting the equipment's stability and lifespan. Furthermore, in everyday use, peripherals such as keyboards and mice are typically placed in the middle drawer. The high baffle on the outside of the drawer forces staff to raise their arms to operate, increasing fatigue and reducing work efficiency. Additionally, when in use, the high baffle on the outside of the drawer, which is mostly placed in the middle drawer, further complicates the use of the keyboard and mouse, making it extremely difficult for staff to use and reducing work efficiency.

[0004] With the rapid development of technology, the functions of image splitting displays are constantly being upgraded, and the requirements for installation control cabinets are becoming increasingly stringent. Higher resolution displays require more powerful host support, which necessitates that the control cabinet have excellent expandability to accommodate more hardware devices. At the same time, new display technologies and interface standards are constantly emerging, requiring the control cabinet to have a high degree of adaptability, enabling fast and convenient device connection and management. Utility Model Content

[0005] The purpose of this invention is to provide a split-architecture image split display installation control cabinet, employing a groundbreaking split architecture consisting of a base compartment, a middle compartment, and a top compartment. This design separates components with different functions, greatly improving the convenience of maintenance and the uniformity of heat dissipation. It aims to effectively address the shortcomings of existing integrated control cabinets in terms of maintenance, heat dissipation, and ease of use of peripherals.

[0006] The technical solution adopted in this utility model is as follows:

[0007] An image splitting display mounting control cabinet includes a base compartment for placing the host computer and arranging the wiring harness, an intermediate compartment above the base compartment for storing miscellaneous items and peripherals such as keyboards and mice, and a top compartment above the intermediate compartment for placing the image splitting display. The base compartment includes a base body with a door at the front and a first heat sink at the rear. The intermediate compartment includes an intermediate compartment body above the base body, a storage drawer inside the intermediate compartment body, a handle at the front of the storage drawer, a protective plate at the rear of the intermediate compartment body, a rail at the front of the protective plate, an external device storage drawer between the rails, a support inside the external device storage drawer, a connecting rod on the support, an external device carrier plate at the end of the connecting rod away from the support, and a limit bolt at the front of the external device carrier plate.

[0008] Preferably, the top compartment includes a top compartment body disposed above the intermediate compartment body, a baffle is disposed in front of the top compartment body, and a second heat dissipation plate is disposed behind the baffle.

[0009] Preferably, the bottom compartment body and the hatch are connected by hinges.

[0010] Preferably, the intermediate compartment body is slidably connected to the storage drawer.

[0011] Preferably, the guide rail is slidably connected to the external storage drawer.

[0012] Preferably, the connecting rod is rotatably connected to the support and the external carrier plate.

[0013] Preferably, the peripheral storage drawer is slidably connected to the peripheral carrier plate.

[0014] Innovative Overall Architecture Design: This utility model's image split display installation control cabinet adopts a groundbreaking split architecture, consisting of a bottom compartment, a middle compartment, and a top compartment working together. This design separates the components with different functions, greatly improving the convenience of maintenance and the uniformity of heat dissipation.

[0015] Optimized Base Cabin Design: The base cabin is primarily used to house the main unit and optimize cable routing. It features multi-layered, flexibly adjustable main unit mounting racks made of aerospace-grade high-strength aluminum alloy, treated with a special anodizing process. This not only provides excellent heat dissipation but also effectively prevents corrosion. Utilizing a high-precision ball screw and guide rail combination structure, the mounting racks allow for precise adjustment within a range of 50mm to 300mm in height, 80mm to 250mm in depth, and ±30° in angle, perfectly accommodating various mainstream sizes and models of main units on the market. A large-area primary heat sink is installed at the rear of the base cabin. This heat sink employs vacuum brazing technology to tightly bond high-purity copper heat dissipation fins to the aluminum alloy substrate, significantly improving heat transfer efficiency. The heat sink is equipped with an intelligent temperature-controlled variable frequency cooling fan. The fan is directly connected to the main unit via a high-precision thermistor temperature sensor, enabling real-time monitoring of main unit temperature changes and automatic stepless speed adjustment based on a preset temperature curve, achieving precise and efficient heat dissipation.

[0016] Innovative Features of the Middle Compartment: Located above the lower compartment, the middle compartment primarily serves as a storage area for miscellaneous items and a management space for peripherals such as keyboards and mice. Its interior employs a modular and reconfigurable design, featuring multiple independent and flexibly detachable and combinable storage compartments. Each compartment is constructed of high-strength engineering plastic with a non-slip, wear-resistant surface treatment to ensure stable storage. The peripheral storage area is equipped with an innovative peripheral retrieval mechanism, including a sliding peripheral drawer with self-lubricating, silent slide rails, a 360-degree rotating linkage based on the universal joint principle, and a smoothly lifting peripheral carrier. The peripheral drawer is connected to the middle compartment body via high-precision, high-load-bearing ball bearing slides, ensuring smooth sliding and stable load-bearing capacity. The peripheral carrier is connected to a support with adaptive balance adjustment via a linkage. When a peripheral is needed, pulling the magnetic limit bolt at the front of the carrier allows it to rise precisely to the same level as the peripheral drawer, effectively avoiding interference from drawer dividers during office operations.

[0017] Intelligent Top Cabin Configuration: Located above the middle cabin, the top cabin is specifically designed for the stable installation and efficient heat dissipation of the image segmentation display. Inside, it features an advanced multi-angle electrically adjustable display mounting bracket. This bracket, driven by a servo motor and coupled with a high-precision worm gear transmission mechanism, allows for precise adjustment of the display within a horizontal range of ±180° and a vertical range of ±90°, with an adjustment accuracy of ±0.1°. Adjustment can be controlled remotely via a dedicated wireless remote or a customized mobile phone, allowing users to easily obtain the optimal viewing angle according to their actual usage scenario and personal needs. A high-strength transparent acrylic protective baffle is installed at the front of the top cabin. The baffle surface is treated with anti-glare and anti-fingerprint coatings, providing reliable physical protection for the display from collisions and scratches without affecting the viewing experience. Behind the baffle is an integrated high-efficiency second heat sink. This heat sink combines the advantages of liquid cooling and air cooling technologies, featuring an internal microchannel liquid cooling circulation pipeline, coupled with a high-performance cooling fan and heat pipes, forming a highly efficient heat dissipation system to ensure stable operation of the display over extended periods.

[0018] To further enhance the ease of use of peripherals, this invention incorporates a concealed peripheral access channel between the intermediate and lower compartments. This channel features a foldable design, allowing it to be completely stowed away when not in use, saving space. When needed, it unfolds via an electric push rod. The channel is equipped with intelligent automatic sensor lighting, utilizing high-brightness, low-energy LED light sources. When the peripheral carrier plate enters the channel, an infrared sensor triggers the lighting, providing ample and uniform illumination. Multi-layered buffer damping devices, composed of high-strength rubber and springs, are installed on both sides of the channel to effectively cushion the impact of the peripheral carrier plate's descent, ensuring peripheral safety.

[0019] Enhanced Peripheral Carrier Functionality: The peripheral carrier integrates a variety of commonly used interfaces, including a high-speed USB 3.2 Gen2x2 interface, a multi-functional USB-C interface, an HDMI 2.1 interface supporting 8K video transmission, and a high-fidelity audio interface, meeting users' connection needs for different peripherals. These interfaces are all soldered onto the carrier using surface mount technology (SMT) to ensure stable electrical performance. The surface of the peripheral carrier features a special frosted anti-slip coating to increase friction when placing peripherals and prevent accidental slippage. Additionally, the carrier features a hidden retractable cable management slot; the automatic cable winder and cable tray cover work together to neatly store and easily access cables, keeping the desktop tidy and organized.

[0020] Excellent scalability and compatibility design: Considering the needs of future equipment upgrades and expansions, the control cabinet of this utility model has excellent scalability and compatibility in its design.

[0021] Innovative Cabin Connection: The bottom, middle, and top cabins are connected via a self-developed standardized quick-plug interface. This interface features a modular design, integrating power transmission, data communication, and mechanical positioning functions, and includes features such as anti-misplugging, self-calibration, and blind-plugging capabilities. The interface's internal components utilize highly conductive copper alloy material with a special gold-plating treatment to ensure low-resistance, high-reliability electrical connections. During connection, a one-button pressing locking mechanism achieves a quick and secure connection between cabins; during disassembly, a simple press of the unlock button easily separates the cabins, facilitating equipment installation, disassembly, and maintenance.

[0022] Internal Expansion Optimization: The control cabinet features ample standardized expansion space and interfaces for installing various expansion modules. The expansion space utilizes an open slot design, compatible with expansion modules of various sizes. Interfaces include high-speed PCIe 4.0 x16 interfaces, SATA 6Gbps interfaces, and M.2 NVMe interfaces, meeting the data transmission needs of different expansion modules. These expansion modules encompass network expansion modules, data storage expansion modules, video processing expansion modules, and artificial intelligence acceleration modules. These modules are installed in the control cabinet via plug-in methods and are secured with both elastic clips and positioning pins to ensure a secure installation.

[0023] Enhanced by an intelligent management system: This utility model also features an intelligent device identification and management system. Based on advanced IoT technology and artificial intelligence algorithms, this system comprises a device identification module, a data transmission module, an intelligent control module, and a device status monitoring module. When a new device or expansion module is installed in the control cabinet, the device identification module reads the device's unique identifier and configuration information, using deep learning algorithms to identify the device type and determine compatibility. The identification information is transmitted to the intelligent control module via the high-speed data transmission module. The intelligent control module automatically completes the device's driver installation, parameter settings, and network configuration according to a preset configuration strategy, ensuring seamless collaboration between devices. The device status monitoring module monitors the device's operating status in real time, including parameters such as temperature, voltage, power, and data transmission rate. Upon detecting any abnormalities, it immediately notifies the user via audible and visual alarms and mobile phone push notifications, and provides a detailed fault diagnosis report and solution.

[0024] The beneficial effects of this utility model are as follows: the separate design of the bottom compartment, middle compartment and top compartment makes it easy to install each component separately, so that each component can dissipate heat evenly during operation, and at the same time facilitates regular inspection and maintenance. During use, by pulling the external device carrier plate to be flush with the external device storage drawer, it can effectively avoid the front baffle of the drawer from interfering with the work of the staff. Attached Figure Description

[0025] The accompanying drawings are provided to further illustrate the present invention and form part of the specification. They are used together with the following detailed description to explain the present invention, but do not constitute a limitation thereof. In the drawings:

[0026] Figure 1 This is a schematic diagram of the isometric structure described in this utility model;

[0027] Figure 2 This is a schematic diagram of the main view structure described in this utility model;

[0028] Figure 3 This is a top view schematic diagram of the structure described in this utility model;

[0029] Figure 4 This is a schematic diagram of the left-side view structure described in this utility model;

[0030] Figure 5 yes Figure 3 A schematic diagram of the AA-direction cross-section structure.

[0031] The annotations in the attached figures are explained as follows:

[0032] 1. Bottom compartment; 101. Bottom compartment body; 102. Hatch door; 103. First heat dissipation plate; 2. Intermediate compartment; 201. Intermediate compartment body; 202. Storage drawer; 203. Pull handle; 204. Protective plate; 205. Rail; 206. External storage drawer; 207. Support; 208. Connecting rod; 209. External carrier plate; 210. Limit bolt; 3. Top compartment; 301. Top compartment body; 302. Baffle; 303. Second heat dissipation plate. Detailed Implementation

[0033] With the sweeping wave of digitalization, image splitting displays (EPS) are widely used in various critical fields, such as monitoring centers, command and control rooms, and data processing centers, to achieve multi-screen, high-precision image display. However, traditional integrated installation and control cabinets have significant shortcomings in terms of maintenance convenience, heat dissipation efficiency, and peripheral user experience, making it difficult to meet the growing demands for efficient and stable operation. This utility model addresses these pain points by proposing a "split-architecture EPS installation and control cabinet," aiming to provide innovative and high-quality installation and management solutions for EPS displays.

[0034] The present invention will be further described below with reference to the embodiments and accompanying drawings.

[0035] Example 1:

[0036] like Figures 1-5As shown, this embodiment discloses an image splitting display installation control cabinet, including a bottom compartment 1 for placing the host and arranging the wiring harness, an intermediate compartment 2 for storing miscellaneous items and peripherals such as keyboards and mice above the bottom compartment 1, and a top compartment 3 for placing the image splitting display above the intermediate compartment 2.

[0037] In this embodiment: the bottom compartment 1 includes a bottom compartment body 101, a door 102 is connected to the front of the bottom compartment body 101 by a hinge, and a first heat dissipation plate 103 is provided at the rear of the bottom compartment body 101.

[0038] In this embodiment: the intermediate compartment 2 includes an intermediate compartment body 201 disposed above the bottom compartment body 101. A storage drawer 202 is slidably connected inside the intermediate compartment body 201. A pull handle 203 is provided in front of the storage drawer 202. A protective plate 204 is provided at the rear of the intermediate compartment body 201 to prevent the storage drawer 202 and the external storage drawer 206 from detaching from the intermediate compartment body 201. A retaining rail 205 is provided in front of the protective plate 204. An external storage drawer 206 is slidably connected between the retaining rails 205. A storage drawer 206 is provided inside the external storage drawer 206. Support 207, with connecting rod 208 rotatably connected to support 207. One end of connecting rod 208 away from support 207 is rotatably connected to external device carrier plate 209 which is slidably connected to external device storage drawer 206. Limit bolt 210 is provided in front of external device carrier plate 209. Pulling limit bolt 210 can make external device carrier plate 209 slide up relative to external device storage drawer 206. When external device carrier plate 209 is flush with external device storage drawer 206, limit bolt 210 can restrict the relative sliding between external device storage drawer 206 and external device carrier plate 209.

[0039] In this embodiment: the top compartment 3 includes a top compartment body 301 disposed above the intermediate compartment body 201, a baffle 302 for preventing the display from being lost is disposed in front of the top compartment body 301, and a second heat dissipation plate 303 is disposed behind the baffle 302.

[0040] Example 2:

[0041] Based on the aforementioned Embodiment 1, this embodiment discloses some specific details of the control cabinet.

[0042] See Figure 1 As shown, this embodiment discloses an image splitting display installation control cabinet, including a bottom compartment 1 for placing the host and arranging the wiring harness, an intermediate compartment 2 for storing miscellaneous items and peripherals such as keyboards and mice above the bottom compartment 1, and a top compartment 3 for placing the image splitting display above the intermediate compartment 2.

[0043] See Figure 2 and Figure 4 As shown. The lower compartment 1 includes the lower compartment 1 body, with a hatch 102 at the front of the lower compartment 1 body and a first heat dissipation plate 103 at the rear of the lower compartment 1 body.

[0044] The lower compartment 1 provides the basic support and main unit carrying space for the entire equipment, and features multiple adjustable main unit mounting racks. These racks are made of aerospace-grade high-strength aluminum alloy and undergo a special anodizing process, resulting in excellent heat dissipation performance and corrosion resistance. The mounting racks utilize a high-precision ball screw and guide rail combination structure to achieve precise adjustment of height, depth, and angle, accommodating various mainstream sizes and models of main units on the market. At the rear of the lower compartment 1 is a large-area, high-efficiency primary heat sink 103. This heat sink uses a vacuum brazing process to tightly bond high-purity copper heat dissipation fins to an aluminum alloy substrate, significantly improving heat transfer efficiency. The heat sink is equipped with an intelligent temperature-controlled variable frequency cooling fan. The fan is directly connected to the main unit via a high-precision thermistor temperature sensor, enabling real-time monitoring of main unit temperature changes and automatic stepless speed adjustment based on a preset temperature curve, achieving precise and efficient heat dissipation.

[0045] See Figure 5 As shown, the intermediate compartment 2 includes an intermediate compartment 2 body disposed above the bottom compartment 1 body. A storage drawer 202 is disposed inside the intermediate compartment 2 body. A pull handle 203 is disposed in front of the storage drawer 202. A guard plate 204 is disposed behind the intermediate compartment 2 body. A rail 205 is disposed in front of the guard plate 204. An external storage drawer 206 is disposed between the rails 205. A support 207 is disposed inside the external storage drawer 206. A connecting rod 208 is disposed on the support 207. An external carrier plate 209 is disposed at the end of the connecting rod 208 away from the support 207. A limit bolt 210 is disposed in front of the external carrier plate 209.

[0046] The intermediate compartment 2, located above the lower compartment 1, serves as a storage area for miscellaneous items and a management space for peripheral devices. Its interior employs a modular and reconfigurable design, featuring multiple independent storage zones that can be flexibly disassembled and combined. Each storage zone is constructed of high-strength engineering plastic with a non-slip, wear-resistant surface treatment to ensure stable storage of items. The peripheral device storage area is equipped with an innovative peripheral device retrieval mechanism, including a sliding peripheral device drawer 206 with self-lubricating, silent slide rails, a 360° rotatable connecting rod 208 based on the universal joint principle, and a smoothly lifting and lowering peripheral device carrier plate 209. The peripheral device drawer 206 is connected to the intermediate compartment 2 body via high-precision, high-load-bearing ball bearing slide rails, ensuring smooth sliding and stable load-bearing capacity. The peripheral device carrier plate 209 is connected to the support 207 with adaptive balance adjustment function via the connecting rod 208. When the peripheral device needs to be used, the magnetic limit bolt 210 at the front of the peripheral device carrier plate 209 is pulled, which allows the peripheral device carrier plate 209 to rise precisely to the same level as the peripheral device storage drawer 206 by means of the rotation of the connecting rod 208 and the coordinated movement of the lifting mechanism, effectively avoiding the interference of the drawer baffle 302 on office operations.

[0047] The top compartment 3, positioned above the middle compartment 2, is specifically designed for the stable installation and efficient heat dissipation of the image segmentation display. Inside the top compartment 3 is an advanced multi-angle electrically adjustable display mounting bracket. This bracket, driven by a servo motor and coupled with a high-precision worm gear transmission mechanism, allows for precise adjustment of the display within a horizontal range of ±180° and a vertical range of ±90°. Adjustment can be remotely controlled via a dedicated wireless remote or a customized mobile app, allowing users to easily obtain the optimal viewing angle based on their specific usage scenario and personal needs. A high-strength transparent acrylic protective baffle 302 is installed at the front of the top compartment 3. The baffle 302's surface is treated with anti-glare and anti-fingerprint coatings, providing reliable physical protection against impacts and scratches without affecting the viewing experience. Behind the baffle 302 is an integrated high-efficiency second heat sink 303. This heat sink combines the advantages of liquid cooling and air cooling technologies, featuring an internal microchannel liquid cooling circulation pipeline, coupled with a high-performance cooling fan and heat pipes, forming a highly efficient heat dissipation system to ensure stable operation of the display over extended periods.

[0048] As a preferred option, see Figure 3 and Figure 4 The top compartment 3 includes a main body positioned above the intermediate compartment 2. A baffle 302 is located in front of the top compartment 3, and a second heat dissipation plate 303 is located behind the baffle 302. The bottom compartment 1, intermediate compartment 2, and top compartment 3 are connected via a self-developed standardized quick-plug connection interface. This interface adopts a modular design, integrating power transmission, data communication, and mechanical positioning functions, and features anti-misinsertion, self-calibration, and blind-insertion capabilities. The interface internally uses highly conductive copper alloy material and undergoes special gold plating treatment to ensure low-resistance, high-reliability electrical connections. During connection, a one-button pressing locking mechanism achieves a quick and stable connection between the compartments; during disassembly, simply pressing the unlock button easily separates the compartments, facilitating equipment installation, disassembly, and maintenance.

[0049] As a preferred embodiment, the lower compartment 1 is connected to the hatch 102 via hinges. A concealed external equipment passage is constructed between the intermediate compartment 2 and the lower compartment 1. This passage features a foldable structure, allowing it to be completely stowed away when not in use, saving space; when in use, the passage unfolds via an electric push rod. The passage is equipped with intelligent automatic sensor lighting, using high-brightness, low-energy LED light sources. When the external equipment carrier plate 209 enters the passage, an infrared sensor triggers the lighting, providing ample and uniform illumination. Multi-layered buffer damping devices are installed on both sides of the passage. These devices, composed of high-strength rubber materials and springs, effectively buffer the impact force during the descent of the external equipment carrier plate 209, ensuring the safety of the external equipment.

[0050] As a preferred solution, the middle compartment 2 is slidably connected to the storage drawer 202. The peripheral carrier board 209 integrates various commonly used interfaces, including but not limited to a high-speed USB 3.2 Gen2x2 interface, a multi-functional USB-C interface, an HDMI 2.1 interface supporting 8K video transmission, and a high-fidelity audio interface. These interfaces are all soldered onto the carrier board using surface mount technology (SMT) to ensure stable electrical performance. The surface of the peripheral carrier board 209 is treated with a special frosted anti-slip coating to increase friction when placing peripherals and prevent accidental slippage. Simultaneously, the carrier board features a hidden retractable cable management slot. Through the cooperation of an automatic cable winder and a cable management slot cover, cables are neatly stored and easily accessible, keeping the desktop tidy and organized.

[0051] As a preferred solution, the mounting rail 205 slides into the peripheral storage drawer 206. The control cabinet interior provides ample standardized expansion space and interfaces for installing various expansion modules. The expansion space employs an open slot design, compatible with expansion modules of various sizes. Interfaces include high-speed PCIe, SATA, and M.2 interfaces, meeting the data transmission needs of different expansion modules. Expansion modules encompass network expansion modules, data storage expansion modules, video processing expansion modules, and artificial intelligence acceleration modules. These modules are installed in the control cabinet via plug-in methods and are secured with both elastic clips and positioning pins to ensure a firm installation.

[0052] As a preferred option, this split-architecture image segmentation display installation control cabinet is also equipped with an intelligent device identification and management system. Based on advanced IoT technology and artificial intelligence algorithms, this system consists of a device identification module, a data transmission module, an intelligent control module, and a device status monitoring module. When new devices or expansion modules are installed in the control cabinet, the device identification module reads the device's unique identifier and configuration information, using deep learning algorithms to identify the device type and determine compatibility. The identification information is sent to the intelligent control module via the high-speed data transmission module. The intelligent control module automatically completes the device's driver installation, parameter settings, and network configuration according to preset configuration strategies, ensuring seamless collaboration between devices. The device status monitoring module monitors the device's operating status in real time, including parameters such as temperature, voltage, power, and data transmission rate. Upon detecting any abnormalities, it immediately notifies the user via audible and visual alarms and mobile phone push notifications, and provides a detailed fault diagnosis report and solution.

[0053] As a preferred embodiment, connecting rod 208 is rotatably connected to support 207 and external carrier plate 209. External storage drawer 206 is slidably connected to external carrier plate 209. The main unit mounting bracket in the lower compartment 1 achieves precise adjustment of height, depth, and angle through a high-precision ball screw and guide rail combination structure. The height adjustment range is 50mm to 300mm, the depth adjustment range is 80mm to 250mm, and the angle adjustment range is ±30°. The wiring harness is organized using customized wire channels and high-strength nylon cable ties. The wire channels have an anti-electromagnetic interference shielding layer inside, effectively reducing signal interference between wire harnesses and ensuring stable equipment operation.

[0054] As a preferred option, the storage compartments of the intermediate compartment 2 are made of high-strength engineering plastic, and their modular splicing structure allows for flexible disassembly and adjustment. The size of each storage compartment can be customized according to actual needs, with a maximum load capacity of 10kg. The external carrier plate 209, by pulling the front magnetic limit bolt 210, and with the coordinated movement of the connecting rod 208 and the lifting mechanism, rises to a position flush with the external storage drawer 206 in no more than 3 seconds, and descends to its original position in no more than 2 seconds, ensuring efficient and convenient operation.

[0055] As a preferred option, the electric adjustment device of the monitor mounting bracket in the top compartment 3 is driven by a servo motor and coupled with a high-precision worm gear transmission mechanism, enabling precise adjustment of the monitor within a horizontal range of ±180° and a vertical range of ±90°, with an adjustment accuracy of ±0.1°. The transparent protective baffle 302 is made of high-strength transparent acrylic material, with a thickness of 5mm and a light transmittance of greater than 92%. It has good impact resistance and can effectively withstand an impact force of 50N, protecting the monitor's safety.

[0056] Working principle: After the control cabinet is installed, the main unit and other components are installed in the bottom compartment body 101, miscellaneous items are stored in the storage drawer 202, peripherals such as keyboard and mouse are installed on the peripheral carrier plate 209, and components such as the monitor are installed in the top compartment body 301. When the keyboard and mouse are needed, the peripheral storage drawer 206 is pulled out, and the limit bolt 210 is pulled, so that the peripheral carrier plate 209 drives the connecting rod 208 to rotate relative to the support 207. When the peripheral carrier plate 209 is flush with the upper surface of the peripheral storage drawer 206, the limit bolt 210 on the peripheral carrier plate 209 is removed and used to connect the peripheral storage drawer 206 and the peripheral carrier plate 209, thus completing the fixation of the peripheral carrier plate 209 and avoiding interference from the front panel of the drawer to the operator when using the keyboard and mouse.

[0057] The preferred embodiments of the present invention have been described in detail above with reference to the accompanying drawings. However, the present invention is not limited to the above embodiments. Within the scope of knowledge possessed by those skilled in the art, various changes can be made without departing from the spirit of the present invention.

Claims

1. A split-architecture image segment display installation control cabinet, characterized by: It comprises a bottom cabin (1) for placing the mainframe and arranging the wire harness, an intermediate cabin (2) above the bottom cabin (1) for storing sundries and peripherals, and a top cabin (3) above the intermediate cabin (2) for placing the image partition display; The bottom cabin (1) comprises a bottom cabin body (101), a cabin door (102) arranged at the front of the bottom cabin body (101), and a first heat dissipation plate (103) arranged at the rear of the bottom cabin body (101); the bottom cabin provides basic support and mainframe bearing space for the whole device, and is internally provided with multiple layers of mainframe mounting racks that can be flexibly adjusted; The intermediate cabin (2) comprises an intermediate cabin body (201) arranged above the bottom cabin body (101), a storage drawer (202) arranged in the intermediate cabin body (201), a pull handle (203) arranged at the front of the storage drawer (202), a guard plate (204) arranged at the rear of the intermediate cabin body (201), clamping rails (205) arranged at the front of the guard plate (204), a peripheral storage drawer (206) arranged between the clamping rails (205), a support (207) arranged in the peripheral storage drawer (206), a connecting rod (208) arranged on the support (207), a peripheral carrier plate (209) arranged at the end of the connecting rod (208) away from the support (207), and a limiting bolt (210) arranged at the front of the peripheral carrier plate (209); The top cabin (3) is arranged above the intermediate cabin (2); The top cabin (3) is internally provided with a mounting bracket of a multi-angle electrically adjustable display.

2. The split-architecture image-segmented display mounting control cabinet of claim 1, wherein: The top cabin (3) comprises a top cabin body (301) arranged above the intermediate cabin body (201), a baffle (302) arranged at the front of the top cabin body (301), and a second heat dissipation plate (303) arranged at the rear of the baffle (302).

3. The split-architecture image-segmented display mounting control cabinet of claim 1, wherein: The bottom cabin body (101) and the cabin door (102) are connected through a hinge; a hidden passage is constructed between the intermediate cabin (2) and the bottom cabin body (101); The passage adopts a foldable structure, and is controlled to be unfolded through an electric push rod when in use; when the peripheral carrier plate (209) enters the passage, illumination is triggered through an infrared sensor; multiple layers of buffer damping devices are installed on both sides of the passage.

4. The split-architecture image display and mounting control cabinet of claim 1, wherein: The intermediate cabin body (201) and the storage drawer (202) are connected through sliding; The peripheral carrier plate (209) is integrated with multiple communication interfaces, including a USB 3.2 Gen2x2 interface, a USB-C interface, an HDMI interface, and an audio interface; The surface of the peripheral carrier plate (209) is treated with an anti-slip frosting coating, and the peripheral carrier plate (209) is provided with a hidden telescopic cable storage slot, so that the cable can be stored through the cooperation of an automatic wire winder and a wire slot cover.

5. The split-architecture image-segmented display mounting control cabinet of claim 1, wherein: The clamping rails (205) and the peripheral storage drawer (206) are connected through sliding; The control cabinet is internally provided with standardized expansion space and interfaces, including a high-speed PCIe interface, a SATA interface, and an M.2 interface.

6. The split-architecture image-segmented display mounting control cabinet of claim 1, wherein: The connecting rod (208) is rotationally connected with the support (207) and the peripheral device carrier plate (209); the peripheral device storage drawer (206) is slidingly connected with the peripheral device carrier plate (209); the main engine mounting frame of the bottom cabin is combined with a ball screw and a guide rail to realize the adjustment of height, depth and angle.

7. The split-architecture image-segmented display mounting control cabinet of claim 1, wherein: The size of each storage sub-area of the intermediate cabin (2) can be customized according to actual requirements; the peripheral device carrier plate (209) is pulled by a magnetic limiting pin in front, and is cooperatively moved by the rotation of the connecting rod and the lifting mechanism.

8. The split-architecture image display and mounting control cabinet of claim 1, wherein: The mounting bracket is driven by a servo motor, and can drive the display to be adjusted within a range of ±180° in the horizontal direction and ±90° in the vertical direction.

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