Integrated multifunctional intelligent interconnection method and device

Abstract

The invention belongs to the technical field of intelligent interconnection devices, and particularly discloses an integrated multifunctional intelligent interconnection method and an integrated multifunctional intelligent interconnection device, which are used for solving the problems of the intelligent interconnection device during operation. The device specifically comprises a base, self-locking universal wheels are fixed to the lower end of the base, a fixing disc is fixed to the center of the interior of the base, a spiral cylinder is rotationally arranged in the fixing disc, a spiral column is arranged in the spiral cylinder, a lifting plate is fixed to the upper end of the spiral column, and an adjusting box is fixed to the upper end of the lifting plate; on one hand, the height and angle of the display screen are adjusted through the motor and the electric push rod, operators of different heights can operate the display screen conveniently, and the display screen can be prevented from being irradiated by strong light; and on the other hand, external dust is blocked through the filter plate, the dust is prevented from influencing components in the base, the filter plate can be quickly assembled and disassembled, and cleaning of the filter plate is facilitated.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of intelligent interconnection devices, and particularly relates to an integrated multifunctional intelligent interconnection method and device. BACKGROUND

[0002] Intelligent interconnection refers to the deep integration of network communication technology and intelligent algorithms, efficient connection of various terminals, devices and systems with sensing, computing and control capabilities, and the construction of a closed-loop operation system of "data acquisition-transmission-analysis-decision-execution". As a key physical carrier in the system, the intelligent interconnection device integrates display screens, human-computer interaction modules, data processing units and communication interfaces, realizes information visualization, interactive intelligence and function integration, and effectively promotes the overall landing of intelligent interconnection technology from concept to entity and from dispersion to integration.

[0003] However, in the actual deployment and use of existing intelligent interconnection devices, there is a common problem of insufficient human-machine adaptability. The display screen height and tilt angle of most current devices are usually fixed structures, which are difficult to flexibly adjust according to the height, posture and use habits of different operators, resulting in that tall users need to bend down to operate, while shorter users need to look up at the screen, which easily causes fatigue and affects operation efficiency in the long run. In addition, the display screen is often disturbed by direct light in outdoor or strong light environments, causing glare phenomenon, further reducing visual recognition and overall interactive experience. Therefore, how to realize adaptive adjustment of display screen height and angle in complex use scenarios and effectively resist environmental light interference has become an important direction for optimization of current intelligent interconnection devices. SUMMARY

[0004] The present application aims to realize adaptive adjustment of the display screen height and angle of intelligent interconnection devices and improve the maintainability of their heat dissipation systems, thereby providing an intelligent interconnection method and device with better human-computer interaction and higher reliability.

[0005] The present application is realized by the following technical solution: an integrated multifunctional intelligent interconnection method, which comprises the following steps: S1: receiving height and angle adjustment instructions from a user or a preset program through a control system integrated in a base; wherein the receiving mode of the instructions includes active input through a touch interface of the display screen, or a trigger signal automatically generated by the control system according to pre-stored user preference parameters; S2: in response to the height adjustment instruction, starting the motor and controlling its rotation direction and number of turns, and then accurately driving the spiral cylinder to rotate forward or backward under the limitation of the fixed disc through the meshing transmission of the second gear and the first gear; S3: the rotation of the screw cylinder is converted into the pure linear lifting motion of the screw column relative to the fixed disc by the cooperation of the threads on the inner wall of the screw cylinder and the threads on the outer wall of the screw column; S4: the rigid lifting plate and the entire upper structure carried thereby are synchronously vertically displaced by the linear lifting of the screw column, so that the height of the display screen is steplessly adjusted; S5: in response to an angle adjustment instruction, the extension or retraction motion of the telescopic rod of the electric push rod is independently controlled; S6: the linear pushing force or pulling force generated by the electric push rod is transmitted to the first sliding rod rigidly connected with the adjustment plate through the mounting block and the rotating block hinged to the top end of the telescopic rod of the electric push rod; S7: the sliding pair formed between the first sliding rod and the rotating block is used to adapt to the arc trajectory generated when the adjustment plate rotates; at the same time, the rotation pair formed by the adjustment plate, the rotating column and the adjustment box is used to finally convert the linear force into the precise pitching rotation of the adjustment plate around the axis of the rotating column, so that the observation angle of the display screen is optimally adjusted.

[0006] The present application establishes a complete automatic adjustment logic by decomposing the height and angle adjustment processes into seven precisely controllable electromechanical linkage steps, and realizes the precise control of the position and posture of the display screen through the organic combination of the receiving instruction, gear transmission, screw lifting and electric push rod control links. The method not only solves the inconvenience of operation of users with different heights, but also automatically optimizes the viewing angle according to the ambient light, significantly improves the comfort of human-computer interaction, and the whole adjustment process is clear in logic and accurate in control, which endows the intelligent interconnected device with the self-adaptive ergonomics capability.

[0007] Preferably, in step S4, when the lifting plate is vertically displaced, a plurality of telescopic blocks fixed to the lower surface of the lifting plate simultaneously generate telescopic motion; the lower end of each telescopic block is fixed to the inside of the base, and a distributed support frame is formed to collectively provide uniform auxiliary support for the lifting plate and the load carried thereby, and constrain the motion trajectory, so as to significantly enhance the structural stability and anti-overturning capability of the lifting process when bearing eccentric load or external disturbance. The distributed support design of the telescopic blocks further enhances the stability of the lifting process, and the support frame formed by the plurality of telescopic blocks can provide uniform auxiliary support for the lifting plate, effectively preventing the possible deflection or shaking during the lifting process. This design can significantly enhance the stability and anti-overturning capability of the entire structure, especially when bearing eccentric load or external disturbance, and ensure the smooth and reliable lifting process.

[0008] Preferably, in step S7, the first sliding rod performs axial relative sliding in the channel through the rotating block; the core function of the sliding pair is to dynamically compensate the continuously changing radial and tangential displacement between the connecting point and the telescopic end of the electric push rod when the adjusting plate rotates around the fixed rotating shaft, so as to ensure that the linear output of the electric push rod can be smoothly and low-frictionally converted into the angular displacement of the adjusting plate, and the accuracy and reliability of the angle adjustment are realized. The present scheme optimizes the motion transmission mechanism in the angle adjustment process, realizes more accurate angle control, dynamically compensates the displacement change generated when the adjusting plate rotates by using the sliding pair composed of the first sliding rod and the rotating block, effectively solves the interference problem in the conversion process of linear motion and rotary motion, and the design ensures that the linear output of the electric push rod can be smoothly and low-frictionally converted into the angular displacement of the adjusting plate, so as to realize the accuracy and reliability of the angle adjustment.

[0009] The application also introduces an integrated multifunctional intelligent interconnection device for realizing the above method, which comprises a base, a self-locking universal wheel is fixedly installed at the lower end of the base, and is used for realizing flexible movement and positioning fixation of the device; a fixed disc is fixed at the center of the inside of the base, a spiral cylinder is rotationally arranged in the inside of the fixed disc through a bearing structure, a spiral column matched with the internal thread of the spiral cylinder is arranged in the inside of the spiral cylinder, so that the rotation of the spiral cylinder can drive the spiral column to linearly ascend and descend; the upper end of the spiral column penetrates through the fixed disc and is fixedly connected with a lifting plate, and the upper end of the lifting plate is fixed with an adjusting box; two rotating columns are fixed at the two sides of one end in the inside of the adjusting box, an adjusting plate is rotationally arranged on the side wall of the rotating column through a bearing, and a display screen for human-computer interaction is fixed at the upper end of the adjusting plate; a control box of an integrated control unit is fixed at the other end of the bottom of the inside of the base, a control module electrically connected with the motor, the electric push rod and the display screen is arranged in the control box; a first gear is fixedly sleeved at the lower end of the side wall of the spiral cylinder, a motor is fixed at one end in the inside of the base through a mounting frame, a second gear meshing with the first gear is fixedly sleeved on the output shaft of the motor, and a gear transmission pair is formed; a first sliding rod extending downward is fixed at the lower end of the adjusting plate, an electric push rod is fixed at the lower end of the lifting plate, a mounting block is fixed on the telescopic end of the electric push rod, a rotating block is rotationally arranged on one side of the mounting block through a pin shaft, one end of the first sliding rod penetrates through the rotating block and is in sliding connection with the rotating block, and a connecting rod sliding block mechanism is formed.

[0010] A complete device scheme for implementing the foregoing method is provided herein, which builds a compact and functional integrated device through the optimized integration of base, lifting mechanism, angle adjusting mechanism and other components, and provides flexible movement and positioning capability by the self-locking universal wheel; the gear transmission and screw lifting mechanism ensures the stability of height adjustment; and the connecting rod and sliding block mechanism realizes the accuracy of angle adjustment, and the coordinated work of the components of the whole device provides reliable hardware support for the intelligent interconnection function.

[0011] Preferably, a retractable block is fixed at each of the four corners of the inner bottom of the base, the upper end of the retractable block penetrates through the top wall of the base and is fixedly connected with the lower surface of the lifting plate; the retractable block is a multi-section sleeve structure, the number of sections of which is designed according to the maximum stroke of the lifting plate, for providing stable auxiliary support and guidance when the lifting plate is lifted. This scheme further improves the stability of the device by optimizing the structural design of the retractable block, which uses the multi-section sleeve structure of the retractable block to not only provide reliable guidance for the lifting plate, but also effectively disperse the bearing load through a distributed support mode, which significantly enhances the stability during lifting, especially maintaining good structural rigidity at the maximum stroke, ensuring the reliability of the device during long-term use.

[0012] Preferably, a ventilation box is fixed at the center of each side of the base, a sliding groove is formed at one end of the ventilation box, and a sliding plate is pullably installed in the sliding groove, a filter plate is fixed to the side of the sliding plate facing the inside of the ventilation box, and the contour of the filter plate matches the inner wall of the ventilation box to form effective filtration. Here, the innovative ventilation and filtration system design effectively improves the heat dissipation performance and reliability of the device, and the pullable sliding plate and filter plate combination structure facilitates regular cleaning and maintenance, ensuring that the ventilation channel remains unobstructed at all times, and the close fit of the filter plate with the inner wall of the ventilation box effectively prevents dust from entering the inside of the device, protecting the internal electronic components and ensuring the heat dissipation effect, prolonging the service life of the device.

[0013] Preferably, a fixed plate is fixed to the upper side of each side of the base, a through hole is formed at the upper end of each side of the fixed plate, a second slide rod vertically slidable is arranged through the through hole, and a connecting plate above the sliding plate is fixed to the lower end of the second slide rod. Here, the fixed plate and the second slide rod are designed in cooperation to provide convenience for the maintenance of the filtration system, and the vertical sliding design of the second slide rod allows the connecting plate to be lifted stably, providing a reliable movement basis for the subsequent locking mechanism, which ensures the operational convenience during maintenance and the stability during normal use, achieving the unity of functionality and reliability.

[0014] Preferably, the center of the lower end of the connecting plate is fixed with a downward extending sliding block, the bottom of the sliding block is configured as a circular arc surface or an inclined surface, used for contacting the upper surface of the slide plate and providing smooth sliding when pressed down. The unique design of the sliding block optimizes the operation experience during maintenance of the filter plate. The circular arc surface or inclined surface design of the bottom of the sliding block can provide smooth transition when the slide plate is pressed, making the operation more labor-saving and smooth. This design not only improves the maintenance efficiency, but also reduces the wear between parts and prolongs the service life of related parts.

[0015] Preferably, a spring is fixed between the upper end of the connecting plate and the lower end surface of the fixed plate, and the spring is sleeved outside the second sliding rod; in the natural state, the elastic force of the spring drives the connecting plate and the sliding block to remain in the upper limit position; when the filter plate needs to be disassembled, pressing down the connecting plate can make the sliding block move down and press the slide plate, thereby locking its position. Through the ingenious design of the spring mechanism, the automatic locking function of the filter plate position is realized. The continuous elastic force provided by the spring can not only ensure that the sliding block will not accidentally move down during normal use, but also can be reliably locked by pressing force when maintenance is needed. This automatic reset and locking mechanism greatly simplifies the disassembly process of the filter plate and improves the maintenance convenience.

[0016] Preferably, the control unit integrated in the control box is electrically connected with the motor, the electric push rod and the display screen, and the control unit is configured to execute the stored program to realize receiving height and angle adjustment instructions, and controlling the start and stop, steering and rotation number of the motor and the extension stroke of the electric push rod. Through the optimization of the configuration of the control system, the intelligent level of the whole device is improved. Especially the accurate control of the motor and the electric push rod by the control unit realizes the digital management of height and angle adjustment. Through the execution of the stored program, the device can accurately control the steering and rotation number of the motor and the extension stroke of the electric push rod, ensuring the accuracy and repeatability of the adjustment process, and providing users with a consistent and good use experience.

[0017] Compared with the prior art, the present application has the following beneficial effects: 1、The present application realizes the intelligent adjustment of the height and angle of the display screen through the integrated electromechanical drive system. In terms of height adjustment, the system drives the meshing transmission of the second gear and the first gear through the motor, drives the spiral cylinder to rotate accurately in the fixed disc, converts the rotary motion into the vertical lifting of the spiral column through the screw pair mechanism, and then drives the display screen to rise and fall smoothly to the appropriate height through the lifting plate. At the same time, the telescopic blocks distributed on the four corners of the base are synchronized with the lifting plate, forming a distributed support frame, which effectively enhances the stability and anti-overturning ability during lifting. In terms of angle adjustment, the electric push rod pushes the first sliding rod through the linkage mechanism composed of the mounting block and the rotating block, so that the adjusting plate rotates accurately around the rotating column axis, thereby realizing stepless adjustment of the pitch angle of the display screen. This double adjustment mechanism not only effectively adapts to the viewing angle requirements of operators of different heights, but also avoids direct sunlight by flexibly adjusting the screen angle, significantly improving the comfort and visual clarity of human-computer interaction.

[0018] 2、The present application also innovatively designs a ventilation and filtration system for easy maintenance, realizing the unity of efficient heat dissipation and dust protection. The core of this system is the pull-out integrated structure of the sliding plate and the filter plate. When the filter plate is inserted along the ventilation box sliding groove, the sliding plate inclined surface contacts and extrudes the connecting plate, causing the second sliding rod to compress the spring and slide upward. When the filter plate is completely in place, the restoring force of the spring pushes the connecting plate downward, driving the sliding block to clamp the end of the sliding plate to form a self-locking mechanism, ensuring the stability of the filter plate during equipment operation. When disassembling, simply lift the connecting plate to release the self-locking mechanism, and the filter assembly can be easily pulled out for cleaning and maintenance. This ingenious mechanical self-locking structure not only ensures the reliability of the filter plate installation, but also realizes quick disassembly without tools, improving the convenience of equipment maintenance.

[0019] 3、The present application successfully solves the key technical problems of existing intelligent interconnected devices in terms of human engineering adaptation and environmental adaptability through highly integrated mechanical structure and intelligent control system. The cooperative work of height and angle adjustment functions enables the device to automatically optimize display parameters according to different use scenarios and user needs. The innovative ventilation and filtration system effectively blocks external dust while ensuring heat dissipation efficiency, prolonging the service life of the device. The organic combination of these two technical systems not only improves the practicality and reliability of the device, but also significantly improves user experience through humanized design, providing perfect technical support for the wide application of intelligent interconnected devices in complex environments. BRIEF DESCRIPTION OF DRAWINGS

[0020] The present application will be further described below in conjunction with the drawings: Figure 1 The flowchart of the integrated multifunctional intelligent interconnection method in the present application; Figure 2 The structural perspective view of the integrated multifunctional intelligent interconnected device in the present application; Figure 3 is the internal structure diagram of the base of the device of the present application; Figure 4 is the internal structure diagram of the adjusting box of the device of the present application; Figure 5 is the connection structure diagram of the slide plate and the spring of the device of the present application.

[0021] In the figure: 1, base; 2, self-locking universal wheel; 3, fixed disc; 4, spiral cylinder; 5, spiral column; 6, lifting plate; 7, adjusting box; 8, rotating column; 9, adjusting plate; 10, display screen; 11, control box; 12, first gear; 13, motor; 14, second gear; 15, first slide rod; 16, electric push rod; 17, mounting block; 18, rotating block; 19, lifting and retracting block; 20, ventilation box; 21, slide plate; 22, filter plate; 23, fixed plate; 24, second slide rod; 25, connecting plate; 26, slide block; 27, spring. DETAILED DESCRIPTION

[0022] The technical solutions in the embodiments of the present application will be described clearly and completely below with reference to the accompanying drawings in the embodiments of the present application. Obviously, the described embodiments are only part of the embodiments of the present application, rather than all the embodiments. Based on the embodiments in the present application, all the other embodiments obtained by those skilled in the art without creative work fall within the scope of protection of the present application.

[0023] As Figures 1-5 shown, the present application relates to an integrated multifunctional intelligent interconnection method, which realizes intelligent adjustment of the height and angle of a display screen through a highly integrated electromechanical control system and a precise mechanical transmission structure. The implementation process of the method will be described in detail as follows: The method of the present application first receives height and angle adjustment instructions from a user or a preset program through a control system integrated in a base 1. The receiving mode of the instructions includes active input through a touch interface of the display screen 10, or a trigger signal automatically generated by the control system according to pre-stored user preference parameters.

[0024] In the height adjustment process, the system responds to the height adjustment instruction, starts the motor 13 and accurately controls its rotation direction and number of turns. The motor 13 drives the spiral cylinder 4 to rotate forward or backward under the limitation of the fixed disc 3 through the meshing transmission between the second gear 14 on the output shaft and the first gear 12 fixed at the lower end of the spiral cylinder 4. The threads on the inner wall of the spiral cylinder 4 and the threads on the outer wall of the spiral column 5 cooperate with each other to convert the rotary motion of the spiral cylinder 4 into the pure linear lifting motion of the spiral column 5 relative to the fixed disc 3. The linear lifting of the spiral column 5 in turn rigidly drives the lifting plate 6 fixed thereto and the entire upper structure carried thereby to perform synchronous vertical displacement, the upper structure including the adjustment box 7, the adjustment plate 9 and the display screen 10, thereby achieving stepless adjustment of the height of the display screen 10.

[0025] In this height adjustment process, the multiple telescopic blocks 19 fixed to the four corners of the lower surface of the lifting plate 6 simultaneously produce telescopic motion. The lower ends of these telescopic blocks 19 are fixed to the inside of the base 1, forming a distributed support frame that collectively provides uniform auxiliary support for the lifting plate 6 and the load carried thereby, and effectively constrains the motion trajectory. This design significantly enhances the structural stability and anti-overturning capability of the lifting process when subjected to eccentric load or external disturbance.

[0026] In the angle adjustment stage, the system responds to the angle adjustment instruction to independently control the extension or retraction motion of the telescopic rod of the electric push rod 16. The electric push rod 16 transmits the generated linear pushing or pulling force to the first sliding rod 15 rigidly connected to the adjustment plate 9 through the mounting block 17 and the rotating block 18 hinged to the top end of the telescopic rod of the electric push rod 16, The key to angle adjustment lies in the sliding pair between the first sliding rod 15 and the rotating block 18, and the cooperative work of the rotating pair between the adjustment plate 9 and the adjustment box 7 through the rotating column 8. The first sliding rod 15 performs axial relative sliding in the channel passing through the rotating block 18. The core function of this sliding pair is to dynamically compensate for the continuously changing radial and tangential displacement between the connection point of the adjustment plate 9 and the telescopic end of the electric push rod 16 when the adjustment plate 9 rotates around the fixed rotating shaft. Through this ingenious mechanical design, it is ensured that the linear output of the electric push rod 16 can be smoothly and low-frictionally converted into the angular displacement of the adjustment plate 9, ultimately achieving the accuracy and reliability of the observation angle adjustment of the display screen 10.

[0027] This method enables the intelligent interconnected device to adapt to the operation needs of users of different heights through the cooperative work of the above-mentioned height and angle double adjustment mechanism, and can optimize the display angle according to the environmental light conditions, thereby significantly improving the comfort and use efficiency of human-computer interaction.

[0028] The application also introduces an integrated multifunctional intelligent interconnection device based on the above-mentioned intelligent interconnection method. The device realizes intelligent adjustment of the height and angle of the display screen through the combination of innovative mechanical structure and intelligent control system, and has good mobility, heat dissipation and maintainability. The structure and working principle of the device are described in detail below. The main structure of the device includes a base 1, and a self-locking universal wheel 2 is fixedly installed at the lower end of the base 1. This design not only ensures the flexibility of the device movement, but also realizes stable positioning through the self-locking function when needed. A fixed disc 3 is fixedly installed at the center of the inside of the base 1, a spiral cylinder 4 is rotatably arranged in the inside of the fixed disc 3 through a bearing structure, and a spiral column 5 is arranged in the inside of the spiral cylinder 4 and precisely matches the internal threads of the spiral cylinder 4. This spiral transmission mechanism can accurately convert the rotary motion of the spiral cylinder 4 into the linear lifting motion of the spiral column 5.

[0029] The upper end of the spiral column 5 penetrates through the fixed disc 3 and is fixedly connected with a lifting plate 6, the upper end of the lifting plate 6 is fixedly installed with an adjusting box 7, and telescopic blocks 19 are fixedly arranged at the four corners of the bottom inside the base 1. The upper ends of the telescopic blocks 19 penetrate through the top wall of the base 1 and are fixedly connected with the lower surface of the lifting plate 6. The telescopic blocks 19 adopt a multi-section sleeve structure, the number of sections of which is specially designed according to the maximum stroke of the lifting plate 6, and provides stable auxiliary support and accurate guidance during the lifting process of the lifting plate 6, effectively enhancing the stability and anti-unbalance load capacity of the entire lifting system.

[0030] Two rotating columns 8 are fixedly arranged at both sides of one end of the inside of the adjusting box 7, a rotating plate 9 is rotatably arranged on the side wall of the rotating column 8 through a bearing, a display screen 10 for human-computer interaction is fixedly installed at the upper end of the rotating plate 9, this rotating connection structure provides a reliable mechanical basis for the angle adjustment of the display screen 10, in order to realize accurate angle control, a first sliding rod 15 extending downward is fixedly arranged at the lower end of the rotating plate 9, and an electric push rod 16 is fixedly installed at the lower end of the lifting plate 6, a mounting block 17 is fixedly arranged on the extension end of the electric push rod 16, a rotating block 18 is rotatably arranged on one side of the mounting block 17 through a pin shaft, one end of the first sliding rod 15 penetrates through the rotating block 18 and forms a sliding connection therewith, thereby forming a precise connecting rod and sliding block mechanism.

[0031] On the drive system, the lower end of the side wall of the spiral cylinder 4 is fixedly sleeved with a first gear 12, one end inside the base 1 is fixedly installed with a motor 13 through a mounting frame, a second gear 14 engaged with the first gear 12 is fixedly sleeved on the output shaft of the motor 13, and a complete gear transmission pair is formed. The other end of the bottom of the base 1 is fixedly installed with a control box 11 of an integrated control unit, and a control module electrically connected with the motor 13, the electric push rod 16 and the display screen 10 is arranged in the control box 11. The control unit is configured to execute the stored program, can receive height and angle adjustment instructions, and accurately control the start-stop, steering and rotation number of the motor 13, and the extension stroke of the electric push rod 16.

[0032] On the design of the heat dissipation system, the center of the base 1 is fixedly installed with a ventilation box 20 on both sides, one end of the ventilation box 20 is provided with a sliding groove, and the sliding plate 21 is slidably installed in the sliding groove. The side of the sliding plate 21 towards the inside of the ventilation box 20 is fixedly installed with a filter plate 22, the contour of the filter plate 22 is precisely matched with the inner wall of the ventilation box 20, and effective filtering protection is formed. In order to facilitate the maintenance of the filtering system, the upper side of the base 1 is fixedly installed with a fixed plate 23 on both sides, and the upper end of the fixed plate 23 is provided with a through hole on both sides, and the second sliding rod 24 vertically slidably arranged in the through hole. The lower end of the second sliding rod 24 is fixedly connected with the connecting plate 25 above the sliding plate 21.

[0033] The center of the lower end of the connecting plate 25 is fixedly connected with the sliding block 26 extending downward, and the bottom of the sliding block 26 is specially constructed as a circular arc surface or an inclined surface. This design can maintain good contact with the upper surface of the sliding plate 21 and provide smooth sliding effect when pressed down. The upper end of the connecting plate 25 and the lower end of the fixed plate 23 are fixedly installed with the spring 27 sleeved outside the second sliding rod 24. In the natural state, the elastic force of the spring 27 drives the connecting plate 25 and the sliding block 26 to remain in the upper limit position. When it is necessary to disassemble and clean the filter plate 22, the connecting plate 25 is pressed down to move the sliding block 26 downward and press the sliding plate 21, so as to reliably lock the position.

[0034] The device realizes accurate adjustment of the height and angle of the display screen through the cooperative work of the above-mentioned systems, ensures good heat dissipation performance and convenient maintenance characteristics, and provides high-quality man-machine interaction experience and reliable working performance for intelligent interconnected devices.

[0035] The working principle of the integrated multifunctional intelligent interconnected device is as follows: In the height adjustment process, when the control unit in the control box 11 receives the height adjustment instruction from the touch interface of the display screen 10 or the preset program, the motor 13 is immediately started and the rotating direction and the rotating number of turns are accurately controlled. The second gear 14 on the output shaft of the motor 13 meshes with the second gear 12 at the lower end of the spiral cylinder 4 to drive the spiral cylinder 4 to stably rotate under the bearing support of the fixed disc 3. Since the inner wall of the spiral cylinder 4 and the outer wall of the spiral column 5 are precisely threaded, the rotary motion is accurately converted into the vertical linear motion of the spiral column 5. The spiral column 5 pushes the lifting plate 6 fixedly connected thereto and the adjustment box 7, the adjustment plate 9 and the display screen 10 carried thereon to synchronously lift. In this process, the telescopic blocks 19 fixed to the four corners of the lower surface of the lifting plate 6 are synchronously telescoped. These telescopic blocks 19 with a multi-section sleeve structure form a distributed support frame, which not only provides accurate guidance for the lifting motion, but also significantly enhances the stability and anti-unbalanced load capacity of the entire lifting system by uniformly distributing the load.

[0036] In the angle adjustment process, the control unit independently controls the telescopic rod of the electric push rod 16 to perform accurate extension or retraction motion according to the received angle adjustment instruction. The electric push rod 16 pushes the rotary block 18 to move linearly through the mounting block 17 at the top end of the telescopic rod, and the rotary block 18 transmits the linear thrust to the first sliding rod 15 rigidly connected with the adjustment plate 9. At this time, the first sliding rod 15 forms a sliding pair in the channel penetrating through the rotary block 18, effectively compensating for the motion trajectory deviation caused by the rotation of the adjustment plate 9 around the rotating column 8. At the same time, the adjustment plate 9 accurately converts the linear thrust provided by the electric push rod 16 into the accurate pitching rotation of the adjustment plate 9 around the axis of the rotating column 8 through the rotating pair formed by the rotating column 8 and the adjustment box 7, thereby realizing the optimal adjustment of the observation angle of the display screen 10. This innovative connecting rod and sliding block mechanism ensures the stability and accuracy of the angle adjustment process.

[0037] In terms of heat dissipation maintenance, the device adopts a unique self-locking filter system. When the filter plate 22 needs to be installed, it is pushed into the sliding slot of the ventilation box 20. The inclined surface of the sliding plate 21 contacts the sliding block 26 and pushes the connecting plate 25 upward. The connecting plate 25 drives the second sliding rod 24 to slide in the through hole of the fixed plate 23, while compressing the spring 27. When the filter plate 22 is completely in place, the restoring force of the spring 27 pushes the connecting plate 25 downward, so that the sliding block 26 with a circular arc bottom is tightly pressed against the sliding plate 21, forming a reliable self-locking fixation. When disassembly and cleaning are needed, the self-locking state can be released by pressing the connecting plate 25, and the filter plate 22 can be easily pulled out. This design not only ensures the stability of the filter system during equipment operation, but also realizes the convenience of quick disassembly and assembly, effectively protecting the heat dissipation effect and service life of the equipment. The device of the present application realizes the accurate adjustment of the display screen posture and the convenient maintenance of the equipment through the highly integrated mechanical transmission system, the intelligent control system and the innovative maintenance structure, significantly improving the human-computer interaction experience and the use reliability of the intelligent interconnected equipment.

[0038] Embodiment 1: In the multi-user rotation demonstration scene of a large conference room, the first user A with higher height calls the pre-stored settings through the touch interface of the display screen 10, and the control box 11 immediately starts the motor 13. The second gear 14 is engaged with the first gear 12 to drive the spiral cylinder 4 to rotate, so that the spiral column 5 pushes the lifting plate 6 to rise to the predetermined height, and the four corner distributed telescopic blocks 19 are synchronously stretched to form stable support. Then the electric push rod 16 pushes the rotating block 18 through the mounting block 17, so that the first sliding rod 15 drives the adjusting plate 9 to rotate around the rotating column 8, and the angle fine adjustment of the display screen 10 is completed. When the user B with lower height uses it, the device automatically executes the reverse adjustment process: the motor 13 reverses to make the spiral column 5 drive the display unit to stably descend, and the electric push rod 16 is retracted to adjust to the suitable angle. During the interval of the meeting, the management personnel can press the connecting plate 25 to compress the spring 27, so that the sliding block 26 releases the locking of the sliding plate 21, and the filter plate 22 in the ventilation box 20 can be removed for cleaning. The whole mechanism realizes the complete closed loop of multi-user self-adaptive adjustment and convenient maintenance.

[0039] Embodiment 2: In a well-lit product exhibition hall, when the system light sensor detects strong light directivity, the control box 11 immediately starts the anti-glare mode: the electric push rod 16 drives the first sliding rod 15 to push the adjusting plate 9 to fine-tune the depression angle around the rotating column 8 through the linkage of the mounting block 17 and the rotating block 18, so that the display screen 10 successfully avoids glare. In the face of visitors with different heights, the motor 13 drives the spiral cylinder 4 to rotate through the gear set, drives the spiral column 5 to move up and down, and the four corner telescopic blocks 19 provide stable guidance throughout the process, so that the display unit always maintains the best viewing height. In the continuous running process, the filter plate 22 in the ventilation box 20 effectively blocks dust, and the maintenance personnel can press the connecting plate 25 to make the sliding block 26 disengage from the sliding plate 21, so that the filter system can be quickly disassembled and cleaned, ensuring the heat dissipation efficiency of the control box 11 and the motor 13. The device perfectly realizes the dual functions of self-adaptive adjustment of display posture and continuous heat dissipation protection in a dynamic environment.

[0040] In summary, the application provides an innovative integrated multifunctional intelligent interconnection device and method, which realizes adaptive adjustment of the height and angle of the display screen through the deep cooperation of the intelligent control system and the precision mechanical structure. The scheme adopts a motor-driven gear transmission system to drive a spiral lifting mechanism to realize the stable vertical movement of the display screen, and through the cooperation of the electric push rod and the connecting rod slider mechanism, the accurate control of the pitch angle of the display screen is completed. The device also innovatively designs a self-locking ventilation and filtration system, which realizes the quick disassembly and assembly of the filter plate through a clever spring slider mechanism, ensuring the heat dissipation efficiency and facilitating maintenance and cleaning. The whole system can automatically optimize the display height according to the height of different users, and intelligently adjust the display angle according to the ambient light, effectively solving the problems of fixed viewing angle, glare interference and inconvenient maintenance of traditional equipment, significantly improving the human-computer interaction experience and the reliability of equipment use, and providing a perfect technical solution for the popularization of intelligent interconnection equipment in diversified application scenarios.

[0041] The above is only an example and description of the structure of the application, and those skilled in the art can make various modifications or supplements to the described specific embodiments or replace them with similar ways, as long as they do not deviate from the structure of the application or exceed the scope defined by the present claims, which shall belong to the protection scope of the application.

Claims

1. An integrated multi-functional smart interconnection method, characterized in that, The method comprises the following steps: S1: receiving height and angle adjustment instructions from a user or a preset program through a control system integrated in the base (1); wherein the receiving mode of the instructions comprises active input through the touch interface of the display screen (10), or a trigger signal automatically generated by the control system according to pre-stored user preference parameters; S2: in response to the height adjustment instruction, starting the motor (13) and controlling the rotation direction and number of turns, and then accurately driving the spiral cylinder (4) to rotate forward or reversely under the limitation of the fixed disc (3) through the meshing transmission of the second gear (14) and the first gear (12); S3: converting the rotary motion of the spiral cylinder (4) into the pure linear lifting motion of the spiral column (5) relative to the fixed disc (3) by the cooperation of the threads on the inner wall of the spiral cylinder (4) and the threads on the outer wall of the spiral column (5); S4: through the linear lifting of the spiral column (5), rigidly driving the lifting plate (6) and the entire upper structure (including the adjustment box (7), the adjustment plate (9) and the display screen (10)) carried thereby to perform synchronous vertical displacement, so as to realize stepless adjustment of the height of the display screen; S5: in response to the angle adjustment instruction, independently controlling the extension or retraction motion of the extension rod of the electric push rod (16); S6: through the mounting block (17) and the rotating block (18) hinged at the top end of the extension rod of the electric push rod (16), the linear thrust or pull force generated by the electric push rod (16) is transmitted to the first sliding rod (15) rigidly connected with the adjustment plate (9); S7: utilizing the sliding pair formed between the first sliding rod (15) and the rotating block (18) to adapt to the arc trajectory generated when the adjustment plate (9) rotates; at the same time, utilizing the rotating pair formed by the adjustment plate (9) through the rotating column (8) and the adjustment box (7) to finally convert the linear force into the accurate pitching rotation of the adjustment plate (9) around the axis of the rotating column (8), so as to realize the optimal adjustment of the observation angle of the display screen (10).

2. The integrated multi-functional smart interconnection method of claim 1, wherein, In step S4, when the lifting plate (6) performs vertical displacement, a plurality of extension blocks (19) fixed to the four corners of the lower surface thereof simultaneously perform extension and retraction motion; the lower end of each extension block (19) is fixed to the inside of the base (1), and through the formation of a distributed support frame, the lifting plate (6) and the load carried thereby are uniformly and jointly provided with auxiliary support, and the motion trajectory is constrained, so as to significantly enhance the structural stability and anti-overturning ability of the lifting process when bearing partial load or external disturbance.

3. The integrated multi-functional smart interconnection method of claim 1, wherein, In step S7, the first sliding rod (15) axially slides in the channel penetrating through the rotating block (18); the core function of the sliding pair is to dynamically compensate the continuously changing radial and tangential displacement between the connecting point (first sliding rod 15) and the extension end of the electric push rod (16) when the adjustment plate (9) rotates around the fixed rotating shaft (rotating column 8), so as to ensure that the linear output of the electric push rod (16) can be smoothly and low-frictionally converted into the angular displacement of the adjustment plate (9), and the accuracy and reliability of the angle adjustment are realized.

4. An integrated multifunctional smart interconnection device for implementing the method of any one of claims 1 to 3, comprising a base (1), characterized in that, The lower end of the base (1) is fixedly provided with a self-locking universal wheel (2) for flexible movement and positioning of the device; the center of the base (1) is fixedly provided with a fixed disc (3), the inside of the fixed disc (3) is rotatably provided with a spiral cylinder (4) through a bearing structure, the inside of the spiral cylinder (4) is provided with a spiral column (5) matched with the internal thread, so that the rotation of the spiral cylinder (4) can drive the spiral column (5) to move linearly; the upper end of the spiral column (5) penetrates through the fixed disc (3) and is fixedly connected with a lifting plate (6), the upper end of the lifting plate (6) is fixedly provided with an adjusting box (7); the two sides of one end of the adjusting box (7) are fixedly provided with rotating columns (8), the side wall of the rotating column (8) is rotatably provided with an adjusting plate (9) through a bearing, the upper end of the adjusting plate (9) is fixedly provided with a display screen (10) for human-computer interaction; the other end of the bottom of the base (1) is fixedly provided with a control box (11) of an integrated control unit, the control box (11) is provided with a control module electrically connected with a motor (13), an electric push rod (16) and the display screen (10); the lower end of the side wall of the spiral cylinder (4) is fixedly provided with a first gear (12), one end of the inside of the base (1) is fixedly provided with a motor (13) through a mounting bracket, the output shaft of the motor (13) is fixedly provided with a second gear (14) engaged with the first gear (12), forming a gear transmission pair; the lower end of the adjusting plate (9) is fixedly provided with a first sliding rod (15) extending downward, the lower end of the lifting plate (6) is fixedly provided with an electric push rod (16), the telescopic end of the electric push rod (16) is fixedly provided with a mounting block (17), one side of the mounting block (17) is rotatably provided with a rotating block (18) through a pin shaft, one end of the first sliding rod (15) penetrates through the rotating block (18) and forms a sliding connection therewith, thereby forming a connecting rod and sliding block mechanism.

5. The integrated multifunctional smart interconnection device of claim 4, wherein: The four corners of the bottom of the base (1) are fixedly provided with telescopic blocks (19), the upper end of the telescopic block (19) penetrates through the top wall of the base (1) and is fixedly connected with the lower surface of the lifting plate (6); the telescopic block (19) is a multi-section sleeve structure, the number of sections is designed according to the maximum stroke of the lifting plate (6), for providing stable auxiliary support and guidance when the lifting plate (6) is lifted.

6. The integrated multifunctional smart interconnection device of claim 4, wherein, The centers of the two sides of the base (1) are fixedly provided with ventilation boxes (20), one end of the ventilation box (20) is provided with a sliding groove, a sliding plate (21) is slidably installed in the sliding groove, one side of the sliding plate (21) towards the inside of the ventilation box (20) is fixedly provided with a filter plate (22), the contour of the filter plate (22) is matched with the inner wall of the ventilation box (20) to form effective filtration.

7. The integrated multifunctional smart interconnection device of claim 6, wherein, The upper sides of the two sides of the base (1) are fixedly provided with fixed plates (23), the two sides of the upper end of the fixed plate (23) are provided with through holes, the through holes are provided with second sliding rods (24) which can vertically slide, the lower end of the second sliding rod (24) is fixedly provided with a connecting plate (25) above the sliding plate (21). 8.The integrated multifunctional smart interconnection device of claim 7, wherein: The center of the lower end of the connecting plate (25) is fixed with a downward extending sliding block (26), the bottom of the sliding block (26) is configured as a circular arc surface or an inclined surface, used for contacting the upper surface of the sliding plate (21) and providing smooth sliding when pressed downward.

9. The integrated multifunctional smart interconnection device of claim 8, wherein: A spring (27) is fixed between the upper end of the connecting plate (25) and the lower end surface of the fixed plate (23) and is sleeved on the outside of the second sliding rod (24); in the natural state, the elastic force of the spring (27) drives the connecting plate (25) and the sliding block (26) to remain in the upper limit position; when it is necessary to disassemble the filter plate (22), the sliding block (26) can be moved downward and the sliding plate (21) can be pressed tightly, so as to lock the position.

10. The integrated multifunctional smart interconnection device of claim 4, wherein: The control unit integrated in the control box (11) is electrically connected with the motor (13), the electric push rod (16) and the display screen (10), the control unit is configured to execute the stored program to realize receiving the height and angle adjustment instructions and controlling the start-stop, steering and rotation number of the motor (13) and the extension stroke of the electric push rod (16).

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