Multi-screen synchronous information spreading device for multi-dimensional digital media application technology

Abstract

The invention provides a multi-screen synchronous information spreading device for a multi-dimensional digital media application technology, which structurally comprises a synchronous generator, a constant-temperature positioning structure, a protective shell, a balance block and a bearing bottom block, the synchronous generator is embedded into the protective shell through a constant-temperature positioning structure, the outer edge of the protective shell is fixedly connected with the balance block, and a vertical bearing bottom block is loaded at the bottom of the protective shell. After a constant-temperature positioning structure is improved, the multiple sets of synchronous generators are stably separated through the partition blocks, then the positions of the edge cooling structures are determined by means of the distance between the partition blocks, and meanwhile the temperature of the synchronous generators can be effectively and accurately reduced integrally in combination with surface cooperation of the refrigeration plates; the situation that heat energy in the synchronous generator cannot be effectively treated due to original common heat dissipation is replaced, then the positioning firmness of the synchronous generator can be further improved through a clamping body of a cooling structure, and therefore the overall use strength effect of the device can be effectively improved.

Description

Technical Field

[0001] This invention relates to the field of multi-screen synchronous information dissemination technology, and more specifically to a multi-screen synchronous information dissemination device for multi-dimensional digital media application technology. Background Technology

[0002] Multidimensional digital media application technology refers to the technical field of creating and realizing digital media content and applications that surpass traditional 2D screens and offer a more immersive, interactive, and multi-sensory experience by comprehensively utilizing various cutting-edge technologies such as computer graphics, human-computer interaction, sensing technology, artificial intelligence, and network communication. Based on multi-dimensional digital media application technology, its multi-screen synchronous information dissemination device can be electrically connected to the LED video wall through the built-in synchronization generator, so as to effectively disseminate relevant video information synchronously. At the same time, by using precise synchronization control technology, the scattered screens are "integrated" to create a borderless and highly immersive visual information environment for the audience. In summary, the inventors have found that existing multi-screen synchronous information transmission devices have the following main defects: When the multiple synchronization generators built into the current multi-screen synchronous information transmission devices are operating, they usually use ordinary heat dissipation (wind-guided heat dissipation) to control the temperature inside the device. This ordinary heat dissipation only removes heat energy, but the internal temperature of the multiple synchronization generators is still relatively high. As a result, overheating and frame drops are very likely to occur in hot weather, which ultimately affects the stability of multi-screen synchronous information transmission. Summary of the Invention

[0003] The technical solution adopted by the present invention to achieve the technical objective is: a multi-screen synchronous information transmission device for multi-dimensional digital media application technology, the structure of which includes: a synchronization generator, a constant temperature positioning structure, a protective shell, a balance block, and a load-bearing base block. The synchronization generator is embedded inside the protective shell through the constant temperature positioning structure, and the outer edge of the protective shell is fixedly connected to the balance block. A vertical load-bearing base block is loaded at the bottom of the protective shell.

[0004] As a further improvement of the present invention, the constant temperature positioning structure is provided with an electric block, one end of which is connected to a cooling plate, and the surface of the cooling plate is parallel to a parallel plate and connected to a partition block. A cooling structure is also mounted through the spacing between the partition blocks.

[0005] As a further improvement of the present invention, the cooling structure is also provided with a locking groove, which is opened in the positioning block and a temperature guiding plate is connected to the side of the positioning block. The temperature guiding plate is connected to the upper and lower parts of the splicing block and the surface is also opened with a flow groove. A clamping body is also connected to the center of the side of the positioning block.

[0006] As a further improvement of the present invention, the refrigeration plate of the constant temperature positioning structure is electrically connected to the external main power supply through the energizing block. Then, the refrigeration plate determines the position of the partition block and the cooling structure through the parallel plate. The refrigeration plate and the clamping body of the cooling structure position the synchronous generator on the temperature conducting plate and make them contact each other.

[0007] As a further improvement of the present invention, the synchronization generator is positioned inside the protective shell by a constant temperature positioning structure and arranged in a vertical orientation. The protective shell has two balance blocks set in a symmetrical orientation, and the load-bearing base block is set in a vertical orientation.

[0008] As a further improvement of the present invention, the energized block is solid and there are two blocks on the cooling plate. The cooling plate and the parallel plate are parallel to each other, and after the temperature of the parallel plate is reduced, the operation continues to cool down the partition block and the synchronous generator.

[0009] As a further improvement of the present invention, the locking groove is also equipped with a locking bolt on the positioning block. There is one positioning block at each end of the temperature guiding plate. The flow groove provided on the surface of the temperature guiding plate penetrates the back of the protective shell and contacts the synchronizing generator. The clamping body is set in a symmetrical orientation at the center of the side of the two positioning blocks and clamps and fixes the edge of the synchronizing generator.

[0010] As a further improvement of the present invention, the clamping body is provided with a fixing block, one end of the fixing block is connected to a spring member, and the other end of the spring member is connected to a sleeve. The sleeve has a slot and the cooling block is positioned through the slot.

[0011] As a further improvement of the present invention, the fixing block is a metal product and has an external thread embedded in the positioning block for electrical connection with the cooling plate. The spring is set in a lateral position. The slot shape of the jacket matches the edge shape of the synchronous generator. The cooling block and the cooling plate operate on the same principle, but their shapes differ.

[0012] As a further improvement of the present invention, the spring component is further provided with an elastic body, and the elastic body is provided with a connecting end and an anti-deviation plate at both ends, and a conductive shaft is connected at the center position. A splicing block is connected at both ends of the conductive shaft.

[0013] As a further improvement of the present invention, the connecting end of the elastic body and the anti-deviation plate are respectively connected to the fixing block and one end of the jacket, and the conductive shaft at the center position is set in a lateral direction and is electrically connected to the fixing block and the cooling block through the splicing block.

[0014] As a further improvement of the present invention, the partition block is provided with a connecting groove, which is opened at the upper and lower positions of both ends of the block. A clamping frame is connected at the upper and lower positions of the middle position of the block to determine the position of the vertical groove. An overlapping end is also provided on the side of the clamping frame.

[0015] As a further improvement of the present invention, the shape of the connecting groove matches the shape of the positioning block, the frame of the block is rectangular and combined with the vertical groove to allow the splicing block to be embedded, and the overlapping end makes overlapping contact with the upper and lower layers of the synchronization generator.

[0016] As a further improvement of the present invention, the overlapping end is also provided with a bolt, which passes through both ends of the insulating pad and is threadedly connected to the block. The bolt position of the insulating pad is also connected with an insulating protrusion, which covers its surface after the bolt is locked.

[0017] As a further improvement of the present invention, the bolts are set symmetrically at both ends of the insulating pad, the insulating pad is rectangular in shape and the lower edge of the synchronizing generator is restrained by the insulating protrusions at both ends.

[0018] Compared with the prior art, the present invention has the following beneficial effects: 1. This invention improves upon the constant temperature positioning structure by using partition blocks to stably separate multiple sets of synchronous generators. The spacing of the partition blocks determines the position of the edge cooling structure, and the surface fit of the cooling plate effectively and precisely reduces the overall temperature of the synchronous generators. This replaces the problem of ineffective heat dissipation inside the synchronous generators, which is a consequence of conventional heat dissipation. Furthermore, the clamping body of the cooling structure further enhances the positioning stability of the synchronous generators, thus effectively improving the overall strength and performance of the device.

[0019] 2. The improved clamping body of this invention effectively enhances the fixed connection between the clamping body and the positioning block by using a fixed block with external threads. At the same time, the metal material itself allows for a stable electrical connection with the cooling plate. Electrical energy is then conducted to the cooling block through the conductive shaft. Simultaneously, the spring rebound effect allows the jacket to carry the cooling block and stably clamp the edge of the synchronizing generator, enabling precise suppression of the temperature at the edge of the synchronizing generator within the jacket, further improving the cooling effect on the edge temperature of the synchronizing generator.

[0020] 3. The improved partition block of this invention effectively enhances the perpendicularity of the insertion and connection with the positioning block through the connecting groove in the block, resulting in a stable arrangement of multiple blocks. Then, the clamping frame in the block allows the splicing block of the temperature-conducting plate to be embedded through the vertical groove, ensuring the parallelism between the temperature-conducting plate and the parallel plate, and improving the stability of temperature conduction. Furthermore, the insulating pad set on the overlapping end can directly contact the outside of the synchronous generator, achieving an external protection effect. At the same time, after the bolts at both ends of the insulating pad are locked, the insulating protrusion can cover it, allowing it to be embedded in the lower position of the synchronous generator through the cooperation of the insulating protrusion, forming a further positioning constraint. Attached Figure Description

[0021] Figure 1 This is a structural diagram of a multi-screen synchronous information dissemination device, which is a type of multi-dimensional digital media application technology.

[0022] Figure 2 This is a three-dimensional structural diagram of an improved constant temperature positioning structure.

[0023] Figure 3 This is a cross-sectional schematic diagram of an improved cooling structure.

[0024] Figure 4 This is a cross-sectional structural diagram of an improved clamping body.

[0025] Figure 5 This is a front view schematic diagram of an improved spring component.

[0026] Figure 6 This is a schematic diagram of a three-dimensional structure of an improved partition block.

[0027] Figure 7 This is a top-view structural diagram of an improved overlapping end design.

[0028] In the diagram: 1. Synchronizer; 2. Thermostatic positioning structure; 3. Protective outer shell; 4. Balance block; 5. Load-bearing base block; 21. Power-conducting block; 22. Cooling plate; 23. Parallel plate; 24. Partition block; 25. Cooling structure; Locking groove 251, positioning block 252, temperature guiding plate 253, splicing block 254, flow groove 255, clamping body 256; Fixing block 2561, spring component 2562, clip 2563, slot 2564, cooling block 2565; Elastic body 5621, connecting end 5622, anti-deviation plate 5623, conductive shaft 5624, splicing block 5625; Connecting groove 241, block 242, clamping frame 243, vertical groove 244, overlapping end 245; Bolt 2451, insulating washer 2452, insulating bump 2453. Detailed Implementation

[0029] The present invention will be further described below with reference to the accompanying drawings: Example 1: Figures 1 to 5 As shown: This invention provides a multi-screen synchronous information transmission device for multi-dimensional digital media application technology. Its structure includes: a synchronization generator 1, a constant temperature positioning structure 2, a protective shell 3, a balance block 4, and a load-bearing base block 5. The synchronization generator 1 is embedded inside the protective shell 3 through the constant temperature positioning structure 2, and the outer edge of the protective shell 3 is fixedly connected to the balance block 4. The bottom of the protective shell 3 is equipped with a vertical load-bearing base block 5.

[0030] The constant temperature positioning structure 2 is provided with an electric block 21. One end of the electric block 21 is connected to a cooling plate 22, and the surface of the cooling plate 22 is parallel to a parallel plate 23 and connected to a partition block 24. A cooling structure 25 is also mounted through the spacing between the partition blocks 24.

[0031] The cooling structure 25 is also provided with a locking groove 251, which is opened in the positioning block 252 and the side of the positioning block 252 is connected to a temperature guiding plate 253. The temperature guiding plate 253 is connected to the upper and lower parts of the splicing block 254 and the surface is also opened with a flow groove 255. A clamping body 256 is also connected to the center of the side of the positioning block 252.

[0032] In this process, the cooling plate 22 of the constant temperature positioning structure 2 is electrically connected to the external main power supply through the power block 21. Then, the cooling plate 22 determines the position of the partition block 24 and the cooling structure 25 through the parallel plate 23. The cooling plate 22, together with the clamping body 256 of the cooling structure 25, positions the synchronous generator 1 on the temperature conducting plate 253 and makes them contact each other.

[0033] The synchronous generator 1 is positioned inside the protective shell 3 by the constant temperature positioning structure 2 and arranged in a vertical orientation. The protective shell 3 has two balance blocks 4 and is set in a symmetrical orientation. The load-bearing base block 5 is set in a vertical orientation.

[0034] The energized block 21 is solid and there are two of them on the cooling plate 22. The cooling plate 22 and the parallel plate 23 are parallel to each other. After the temperature of the parallel plate 23 is reduced, the operation continues to cool down the partition block 24 and the synchronous generator 1.

[0035] The locking groove 251 is also equipped with a locking bolt on the positioning block 252. The positioning block 252 is provided at both ends of the temperature guiding plate 253. The flow groove 255 provided on the surface of the temperature guiding plate 253 penetrates the back of the protective shell 3 and contacts the synchronizing generator 1. The clamping body 256 is set in a symmetrical position at the center of the side of the two positioning blocks 252 and clamps and fixes the edge of the synchronizing generator 1.

[0036] The clamping body 256 is provided with a fixing block 2561. One end of the fixing block 2561 is connected to a spring member 2562, and the other end of the spring member 2562 is connected to a sleeve 2563. The sleeve 2563 has a slot 2564 and the cooling block 2565 is positioned through the slot 2564.

[0037] The fixing block 2561 is a metal product and has an external thread that is embedded in the positioning block 252 and electrically connected to the cooling plate 22. The spring 2562 is set in a lateral position. The shape of the slot 2564 of the jacket 2563 matches the edge shape of the synchronous generator 1. The cooling block 2565 and the cooling plate 22 have the same working principle, but their shapes are different.

[0038] The spring component 2562 is further provided with an elastic body 5621. The elastic body 5621 has a connecting end 5622 and an anti-deviation plate 5623 at both ends, and a conductive shaft 5624 is connected at the center. Splicing blocks 5625 are connected at both ends of the conductive shaft 5624.

[0039] The connecting end 5622 and the anti-deviation plate 5623 of the elastic body 5621 are respectively connected to one end of the fixing block 2561 and the sleeve 2563. The conductive shaft 5624 at the center position is set in a horizontal direction and is electrically connected to the fixing block 2561 and the cooling block 2565 through the splicing block 5625.

[0040] The specific functions and operation procedures of this embodiment are as follows: In this invention, the multi-screen synchronous information transmission device is first moved by the balance block 4 on the outer edge of the protective shell 3. After reaching the designated position, the load-bearing base block 5 contacts the ground. Then, the internal constant temperature positioning structure 2, the synchronization generator 1, and the external power supply are connected to start operation. During the information transmission process of the synchronization generator 1 in conjunction with the display screen, the constant temperature positioning structure 2 can replace the original ordinary heat dissipation to provide precise and comprehensive heat dissipation for the synchronization generator 1, avoiding overheating and frame drops caused by continuous heat accumulation inside the body. This effectively improves the durability of the transmission device. The multiple sets of partition blocks 24 of the constant temperature positioning structure 2 are combined with the parallel plate 23 and the cooling plate. Positioned inside the protective casing 3, the cooling plate 22 connects to an external power source via the energizing block 21, activating the cooling plate 22 for cooling operations. Simultaneously, it lowers the temperature of the balance plate 23 and the partition block 24, thus reducing the temperature of the synchronous generator 1 installed between the partition blocks 24, achieving a cooling effect and replacing the original ordinary heat dissipation process. Furthermore, the cooling structure 25 at the edge of the partition block 24 uses two positioning blocks 252 and a locking groove 251 to position the heat-conducting plate 253 on the surface of the parallel plate 23. The upper and lower splicing blocks 254 of the heat-conducting plate 253 are then embedded at the edge of the partition block 24, achieving a parallel effect and enabling... The clamping body 256 is in contact with the synchronizing generator 1 and is connected to the outside world via the flow channel 255. The clamping body 256 is fixed to the positioning block 252 via the fixing block 2561 with external threads, and electrically connected to the cooling plate 22. This allows the conductive shaft 5624 in the spring 2562 to stably conduct electrical energy to the cooling block 2565 via the splicing block 5625. When the synchronizing generator 1 is embedded in the slot 2564 of the clamping sleeve 2563, its edge can directly contact the cooling block 2565, thus achieving edge temperature suppression and improving the overall temperature balance of the synchronizing generator 1. When the generator 1 is embedded inside the sleeve 2563, the elastic body 5621 of the spring member 2562 can be squeezed, and then the rebound can improve the clamping and positioning effect of the synchronous generator 1, so that the fixing effect of the synchronous generator 1 can be improved while cooling. At the same time, the elastic body 5621 can be spliced ​​to one end of the fixing block 2561 through the connecting end 5622. Conversely, the anti-deviation plate 5623 carried at the other end will be parallel to the outside of the sleeve 2563, ensuring that the sleeve 2563 is used in a vertical and stable state to prevent tilting. At the same time, the conductive shaft 5624 and the splicing block 5625 can pass through, ensuring the mutual power supply effect between the components.

[0041] Example 2: Figures 6 to 7 As shown: This invention provides a multi-screen synchronous information transmission device for multi-dimensional digital media application technology. Its structure includes that the partition block 24 is provided with a connecting groove 241, the connecting groove 241 is opened at the upper and lower positions of both ends of the block 242, and a clamping frame 243 is connected at the upper and lower positions of the middle position of the block 242 to determine the position of the vertical groove 244. An overlapping end 245 is also provided on the side of the clamping frame 243.

[0042] The shape of the connecting groove 241 matches the shape of the positioning block 252. The clamping frame 243 of the block 242 is rectangular and combined with the vertical groove 244 to allow the splicing block 254 to be embedded. The overlapping end 245 overlaps and contacts the upper and lower layers of the synchronization generator 1.

[0043] The overlapping end 245 is also provided with a bolt 2451, which passes through both ends of the insulating pad 2452 and is threadedly connected to the block 242. The position of the bolt 2451 of the insulating pad 2452 is also connected to an insulating protrusion 2453, which covers the surface of the insulating protrusion 2453 after the bolt 2451 is locked.

[0044] The bolts 2451 are symmetrically positioned at both ends of the insulating pad 2452. The insulating pad 2452 is rectangular and the lower edge of the synchronizing generator 1 is restrained by the insulating protrusions 2453 at both ends.

[0045] The specific functions and operation procedures of this embodiment are as follows: In this invention, the block 242 of the partition block 24 can be inserted and positioned with the end of the positioning block 252 through the connecting groove 241. Then, the clamping frame 243 on the block 242 determines the position of the vertical groove 244, so that the splicing block 254 of the temperature conducting plate 253 can be accurately inserted into the vertical groove 244, achieving the effect of precise assembly. Then, the overlapping end 245 of the block 242 can contact the synchronous generator 1. When in contact, it can cover and protect the surface of the synchronous generator 1 with the insulating pad 2452 carried on its surface. Then, after the bolts 2451 at both ends of the insulating pad 2452 are locked, they can be covered by the insulating protrusion 2453. So, through the cooperation of the insulating protrusion 2453, it can be embedded in the lower edge position of the synchronous generator 1, further enhancing the position restraint strength of the synchronous generator 1, preventing automatic detachment when manually transported by the balance block 4, and ensuring the positional stability of the overall components.

[0046] Any technical solution that achieves the above-mentioned technical effects by utilizing the technical solutions described in this invention, or by designing similar technical solutions by those skilled in the art under the inspiration of the technical solutions described in this invention, falls within the protection scope of this invention.

Claims

1. A multi-screen synchronous information dissemination device for multi-dimensional digital media application technology, the structure of which includes: The system comprises a synchronizing generator (1), a thermostatic positioning structure (2), a protective shell (3), a counterweight (4), and a load-bearing base (5). The synchronizing generator (1) is embedded inside the protective shell (3) through the thermostatic positioning structure (2), and the outer edge of the protective shell (3) is fixedly connected to the counterweight (4). The bottom of the protective shell (3) is equipped with a vertical load-bearing base (5). The constant temperature positioning structure (2) is provided with an electric block (21), one end of which is connected to a cooling plate (22), and the surface of the cooling plate (22) is parallel to a parallel plate (23) and connected to a partition block (24). A cooling structure (25) is also mounted through the gap between the partition blocks (24). The cooling structure (25) is also provided with a locking groove (251), which is opened in the positioning block (252) and the side of the positioning block (252) is connected to a heat-conducting plate (253). The heat-conducting plate (253) is connected to the upper and lower parts of the splicing block (254) and the surface is also opened with a flow groove (255). A clamping body (256) is also connected to the center of the side of the positioning block (252). The cooling plate (22) of the constant temperature positioning structure (2) is electrically connected to the external main power supply through the power block (21). Then, the cooling plate (22) determines the position of the partition block (24) and the cooling structure (25) through the parallel plate (23). The cooling plate (22) and the clamping body (256) of the cooling structure (25) position the synchronous generator (1) on the temperature conducting plate (253) and make them contact each other.

2. The multi-screen synchronous information transmission device for multi-dimensional digital media application technology according to claim 1, characterized in that: The synchronous generator (1) is positioned inside the protective shell (3) by a constant temperature positioning structure (2) and arranged in a vertical orientation. The protective shell (3) has two balance blocks (4) and is set in a symmetrical orientation. The load-bearing base block (5) is set in a vertical orientation.

3. The multi-screen synchronous information transmission device for multi-dimensional digital media application technology according to claim 1, characterized in that: The energized block (21) is solid and there are two of them on the cooling plate (22). The cooling plate (22) and the parallel plate (23) are parallel to each other. After the temperature of the parallel plate (23) is reduced, the operation continues to cool down the partition block (24) and the synchronous generator (1).

4. The multi-screen synchronous information transmission device for multi-dimensional digital media application technology according to claim 1, characterized in that: The locking groove (251) is also equipped with a locking bolt on the positioning block (252). The positioning block (252) is provided at both ends of the temperature guiding plate (253). The flow groove (255) provided on the surface of the temperature guiding plate (253) penetrates the back of the protective shell (3) and contacts the synchronous generator (1). The clamping body (256) is set in a symmetrical position at the center of the side of the two positioning blocks (252) and clamps and fixes the edge of the synchronous generator (1).

5. The multi-screen synchronous information transmission device for multi-dimensional digital media application technology according to claim 1, characterized in that: The clamping body (256) is provided with a fixing block (2561), one end of the fixing block (2561) is connected to a spring (2562), and the other end of the spring (2562) is also connected to a sleeve (2563). The sleeve (2563) has a slot (2564) and the cooling block (2565) is positioned through the slot (2564). The fixing block (2561) is a metal product and has an external thread embedded in the positioning block (252) to be electrically connected to the cooling plate (22). The spring (2562) is set in a lateral position. The shape of the slot (2564) of the jacket (2563) matches the edge shape of the synchronous generator (1). The cooling block (2565) and the cooling plate (22) have the same working principle, but there is a difference in shape between them.

6. The multi-screen synchronous information transmission device for multi-dimensional digital media application technology according to claim 5, characterized in that: The spring component (2562) is also provided with an elastic body (5621). The elastic body (5621) is provided with a connecting end (5622) and an anti-deviation plate (5623) at both ends, and a conductive shaft (5624) is connected at the center. A splicing block (5625) is connected at both ends of the conductive shaft (5624). The connecting end (5622) and anti-deviation plate (5623) of the elastic body (5621) are connected to one end of the fixing block (2561) and the sleeve (2563), respectively. The conductive shaft (5624) at the center position is set in a horizontal direction and is electrically connected to the fixing block (2561) and the cooling block (2565) through the splicing block (5625).

7. The multi-screen synchronous information transmission device for multi-dimensional digital media application technology according to claim 1, characterized in that: The partition block (24) is provided with a connecting groove (241). The connecting groove (241) is opened at the upper and lower ends of the block (242). A clamping frame (243) is connected at the upper and lower positions of the middle position of the block (242) to determine the position of the vertical groove (244). An overlapping end (245) is also provided on the side of the clamping frame (243). The shape of the connecting groove (241) matches the shape of the positioning block (252). The clamping frame (243) of the block (242) is rectangular and combined with the vertical groove (244) to allow the splicing block (254) to be embedded. The overlapping end (245) overlaps and contacts the upper and lower layers of the synchronous generator (1).

8. A multi-screen synchronous information transmission device for multi-dimensional digital media application technology according to claim 7, characterized in that: The overlapping end (245) is also provided with a bolt (2451), which passes through both ends of the insulating pad (2452) and is threadedly connected to the block (242). The insulating pad (2452) is also connected to the bolt (2451) position with an insulating bump (2453), which covers the surface of the insulating bump (2453) after the bolt (2451) is locked. The bolts (2451) are set symmetrically at both ends of the insulating pad (2452). The insulating pad (2452) is rectangular and the lower edge of the synchronizing generator (1) is restrained by the insulating protrusions (2453) at both ends.

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