Porous medium heat dissipation enhancing assembly of high-thermal-conductivity UVC ceramic support

Abstract

The utility model discloses a porous medium heat dissipation enhancing assembly of a high-thermal-conductivity UVC ceramic support, which belongs to the field of ceramic supports and comprises a ceramic support body, a heat dissipation assembly is arranged at the upper end of the ceramic support body, and positioning holes are formed in corners of the ceramic support body. Positioning columns are fixedly installed at the corners of the lower side of the heat dissipation assembly, the four sets of positioning columns are movably inserted into the four sets of positioning holes, inserting rods are movably inserted into the heat dissipation assembly and the four sets of positioning columns, and locking assemblies are arranged in the four sets of positioning columns. Through the arrangement of the locking assembly, the porous medium heat dissipation enhancing assembly of the high-heat-conductivity UVC ceramic support can be rapidly mounted and dismounted, tedious operation caused by a traditional screw fixing mode is avoided, the working efficiency is greatly improved, meanwhile, due to the fact that screws are not needed for fixing, the phenomenon of thread slipping is avoided, and the service life of the high-heat-conductivity UVC ceramic support is prolonged. And the service life of the assembly is prolonged.

Description

Technical Field

[0001] This utility model relates to the field of ceramic support technology, specifically a porous dielectric heat dissipation enhancement component for a high thermal conductivity UVC ceramic support. Background Technology

[0002] With the rapid development of electronic products, especially the widespread application of ultraviolet sterilization equipment in medical, sanitation, and water treatment fields, higher requirements have been placed on the heat dissipation performance of UVC lamps and their supports.

[0003] In traditional UVC ceramic bracket designs, the limited thermal conductivity often leads to excessively high lamp temperatures during use. This high temperature not only negatively impacts the sterilization effect but also shortens the lamp's lifespan. Existing high thermal conductivity UVC ceramic brackets typically use screws for their porous media heat dissipation enhancement components, requiring manual disassembly of each component. Furthermore, repeated disassembly can easily cause the screws to strip, affecting their reusability.

[0004] Therefore, this invention provides a porous dielectric heat dissipation enhancement component for a high thermal conductivity UVC ceramic bracket to solve the above problems. Utility Model Content

[0005] (a) Technical problems to be solved

[0006] This invention provides a porous dielectric heat dissipation enhancement component for a high thermal conductivity UVC ceramic bracket, which aims to solve the problems mentioned in the background art.

[0007] (II) Technical Solution

[0008] To achieve the above objectives, this utility model provides the following technical solution: it includes a ceramic support body, a heat dissipation component is provided at the upper end of the ceramic support body, positioning holes are provided at the corners of the ceramic support body, positioning posts are fixedly installed at the lower corners of the heat dissipation component, four sets of positioning posts are movably inserted into four sets of positioning holes, insert rods are movably inserted into the heat dissipation component and the four sets of positioning posts, and locking components are provided in the four sets of positioning posts.

[0009] As a preferred technical solution of this application, the locking assembly includes two sets of locking sliders, which are slidably installed in the positioning post. Locking slots are provided in the ceramic bracket bodies on both sides of the locking sliders. The two sets of locking sliders are movably inserted into the two sets of locking slots. Guide rods are fixedly installed in both the front and rear ends of the positioning post. The front and rear ends of the two sets of locking sliders are sleeved on the two sets of guide rods in the front and rear ends of the positioning post. Return springs are sleeved on both the left and right ends of the four sets of guide rods. The four sets of return springs are in contact with the two sets of locking sliders. A pressing block is fixedly installed at the lower end of the insertion rod.

[0010] As a preferred technical solution of this application, the edges of the two sets of locking sliders inserted into the two sets of locking grooves are arc-shaped, and the openings of the two sets of locking grooves are flared.

[0011] As a preferred technical solution of this application, the cross-section of the extrusion block is triangular, and the upper side of the opposite end of the two sets of locking sliders is inclined.

[0012] As a preferred technical solution of this application, the lower end of the positioning column is symmetrically provided with limiting grooves, and limiting springs are installed in both sets of limiting grooves. Limiting blocks are slidably installed in both sets of limiting grooves, and the lower side of the opposite end of the two sets of limiting blocks is in contact with the upper side of the left and right ends of the extrusion block.

[0013] As a preferred technical solution of this application, a triangular mark is provided at the eccentric circle at the upper end of the insertion rod.

[0014] (III) Beneficial Effects

[0015] This invention, by setting a locking component, enables the rapid installation and disassembly of the porous medium heat dissipation enhancement component of the high thermal conductivity UVC ceramic bracket, avoiding the cumbersome operation brought about by the traditional screw fixing method, greatly improving work efficiency. At the same time, since it does not rely on screws for fixing, it avoids the occurrence of thread stripping and extends the service life of the component. Attached Figure Description

[0016] Figure 1 A front view schematic diagram of a porous dielectric heat dissipation enhancement component for a high thermal conductivity UVC ceramic support;

[0017] Figure 2 A front view of the porous dielectric heat dissipation enhancement component for a high thermal conductivity UVC ceramic support;

[0018] Figure 3 A front view cross-sectional schematic diagram of a porous dielectric heat dissipation enhancement component for a high thermal conductivity UVC ceramic support;

[0019] Figure 4 for Figure 3 A magnified structural diagram at point A.

[0020] In the picture:

[0021] 1. Ceramic bracket body; 2. Heat dissipation assembly; 3. Positioning hole; 4. Positioning post; 5. Locking slider; 6. Guide rod; 7. Return spring; 8. Locking groove; 9. Insert rod; 10. Pressing block; 11. Limiting groove; 12. Limiting spring; 13. Limiting block. Detailed Implementation

[0022] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0023] This utility model provides a porous dielectric heat dissipation enhancement component for a high thermal conductivity UVC ceramic bracket, such as... Figure 1-4 As shown, the porous medium heat dissipation enhancement component of the high thermal conductivity UVC ceramic bracket includes a ceramic bracket body 1, a heat dissipation component 2 is provided at the upper end of the ceramic bracket body 1, positioning holes 3 are provided at the corners of the ceramic bracket body 1, positioning posts 4 are fixedly installed at the lower corners of the heat dissipation component 2, four sets of positioning posts 4 are movably inserted into four sets of positioning holes 3, and insertion rods 9 are movably inserted into the heat dissipation component 2 and the four sets of positioning posts 4, and locking components are provided in the four sets of positioning posts 4.

[0024] First, the heat dissipation component 2 is movably inserted into the four sets of positioning holes 3 of the ceramic bracket body 1 through the four sets of positioning pins 4. Then, by pressing the locking component, the four sets of positioning pins 4 are fixed in the four sets of positioning holes 3, thus completing the fixed connection between the heat dissipation component 2 and the ceramic bracket body 1.

[0025] The locking assembly includes two sets of locking sliders 5, which are slidably installed inside the positioning post 4. The ceramic bracket body 1 on both sides of the locking slider 5 is provided with locking grooves 8. The two sets of locking sliders 5 are movably inserted into the two sets of locking grooves 8. Guide rods 6 are fixedly installed in the front and rear ends of the positioning post 4. The front and rear ends of the two sets of locking sliders 5 are sleeved on the two sets of guide rods 6 in the front and rear ends of the positioning post 4. The left and right ends of the four sets of guide rods 6 are sleeved with return springs 7. The four sets of return springs 7 are in contact with the two sets of locking sliders 5. A pressing block 10 is fixedly installed at the lower end of the insertion rod 9.

[0026] When the pressing rod 9 causes the squeezing block 10 to slide downward, the squeezing block 10 at the lower end of the rod 9 squeezes and slides open the two sets of locking sliders 5. After the two sets of locking sliders 5 slide open, they are inserted into the two sets of locking slots 8, thus completing the efficient installation of the heat dissipation component 2 on the ceramic bracket body 1.

[0027] The two sets of locking sliders 5 are inserted into the two sets of locking slots 8 at one end edge, which are both arc-shaped, and the openings of the two sets of locking slots 8 are both flared.

[0028] The arc-shaped design makes it easier for the two sets of locking sliders 5 to be inserted into the two sets of locking slots 8. At the same time, the flared design also facilitates the insertion of the two sets of locking sliders 5, avoiding jamming during installation and thus improving installation efficiency.

[0029] The cross-section of the extrusion block 10 is triangular, and the upper side of the opposite end of the two sets of locking sliders 5 is inclined.

[0030] The triangular pressing block 10 design allows the pressing block 10 to be accurately inserted between the two sets of locking sliders 5 when the pressing rod 9 drives the pressing block 10 to slide downward. The inclined surface design also allows the two sets of locking sliders 5 to slide open more smoothly when subjected to pressing force, further improving installation efficiency.

[0031] The lower end of the positioning column 4 is symmetrically provided with limiting grooves 11. Limiting springs 12 are installed in both sets of limiting grooves 11. Limiting blocks 13 are slidably installed in both sets of limiting grooves 11. The lower side of the opposite end of the two sets of limiting blocks 13 is in contact with the upper side of the left and right ends of the extrusion block 10.

[0032] When the extrusion block 10 slides downward and presses the two sets of limiting blocks 13, the two sets of limiting blocks 13 slide downward in the two sets of limiting grooves 11 and are fully inserted into the lower end of the positioning post 4 after the extrusion block 10 is aligned, the two sets of limiting blocks 13 slide back to their original position under the action of the limiting spring 12 in the two sets of limiting grooves 11. The lower side of the opposite end of the two sets of limiting blocks 13 is attached to the upper side of the left and right ends of the extrusion block 10, thereby limiting the extrusion block 10 and preventing the extrusion block 10 from moving upward and resetting.

[0033] A triangular mark is set at the eccentric circle at the upper end of the insertion rod 9.

[0034] The triangular markers ensure that the rotating rod 9 and the pressing block 10 can be rotated and reset after being pulled upwards.

[0035] Working principle: In use, the heat dissipation component 2 is first inserted into the four positioning holes 3 of the ceramic bracket body 1 through four sets of positioning pins 4, so that the heat dissipation component 2 is initially connected to the ceramic bracket body 1. Then, by pressing the insertion rod 9, the pressing block 10 is driven to slide downward. During the sliding process, the pressing block 10 presses the two sets of locking sliders 5, so that the two sets of locking sliders 5 slide open along the inner wall of the positioning pins 4 with the cooperation of the four sets of guide rods 6. After the two sets of locking sliders 5 slide open, they are inserted into the two sets of locking slots 8, thus completing the fixed installation of the heat dissipation component 2 on the ceramic bracket body 1. The lower end of the pressing block 10 presses and slides open the two sets of limiting blocks 13, and the pressing block 10 is fully inserted into the lower end of the positioning pin 4. Afterwards, the two sets of limiting blocks 13 slide back to their original position under the recoil force of the limiting springs 12 in the two sets of limiting grooves 11. The lower side of the opposite end of the two sets of limiting blocks 13 is attached to the upper side of the left and right ends of the pressing block 10. When it is necessary to remove the heat dissipation component 2 from the ceramic bracket body 1, simply rotate the plug rod 9 in the opposite direction to drive the pressing block 10 to move upward. During the movement, the pressing block 10 slides upward between the two sets of locking sliders 5 and the two sets of limiting blocks 13. After the pressing block 10 is completely moved to the upper side of the two sets of locking sliders 5, the two sets of locking sliders 5 slide out from the two sets of locking grooves 8 under the recoil force of the four sets of reset springs 7, thereby releasing the fixation of the heat dissipation component 2. At this time, the heat dissipation component 2 can be removed from the ceramic bracket body 1.

[0036] The above description is only a preferred embodiment of the present utility model, but the protection scope of the present utility model is not limited thereto. Any equivalent substitutions or changes made by those skilled in the art within the technical scope disclosed in the present utility model, based on the technical solution and the inventive concept of the present utility model, should be included within the protection scope of the present utility model.

Claims

1. A porous dielectric heat dissipation enhancement component with a high thermal conductivity UVC ceramic support, comprising a ceramic support body (1), characterized in that: The upper end of the ceramic support body (1) is provided with a heat dissipation component (2). The corners of the ceramic support body (1) are provided with positioning holes (3). The lower corners of the heat dissipation component (2) are fixedly installed with positioning posts (4). The four sets of positioning posts (4) are movably inserted into the four sets of positioning holes (3). Insert rods (9) are movably inserted into the heat dissipation component (2) and the four sets of positioning posts (4). The four sets of positioning posts (4) are provided with locking components.

2. The porous dielectric heat dissipation enhancement component of the high thermal conductivity UVC ceramic bracket according to claim 1, characterized in that: The locking assembly includes two sets of locking sliders (5), which are slidably installed in the positioning post (4). The ceramic bracket body (1) on both sides of the locking slider (5) is provided with locking grooves (8). The two sets of locking sliders (5) are movably inserted into the two sets of locking grooves (8). The positioning post (4) is fixedly installed with guide rods (6) at both ends. The two sets of locking sliders (5) are sleeved on the two sets of guide rods (6) at both ends of the positioning post (4). The four sets of guide rods (6) are sleeved with return springs (7) at both ends. The four sets of return springs (7) are in contact with the two sets of locking sliders (5). The lower end of the insertion rod (9) is fixedly installed with a pressing block (10).

3. The porous dielectric heat dissipation enhancement component of the high thermal conductivity UVC ceramic bracket according to claim 2, characterized in that: The two sets of locking sliders (5) are inserted into the two sets of locking grooves (8) at one end edge, which is arc-shaped, and the openings of the two sets of locking grooves (8) are flared.

4. The porous dielectric heat dissipation enhancement component of the high thermal conductivity UVC ceramic bracket according to claim 2, characterized in that: The cross-section of the extrusion block (10) is triangular, and the upper side of the opposite end of the two sets of locking sliders (5) is inclined.

5. The porous dielectric heat dissipation enhancement component of the high thermal conductivity UVC ceramic bracket according to claim 2, characterized in that: The lower end of the positioning column (4) is symmetrically provided with limiting grooves (11). Limiting springs (12) are installed in both sets of limiting grooves (11). Limiting blocks (13) are slidably installed in both sets of limiting grooves (11). The lower side of the opposite end of the two sets of limiting blocks (13) is in contact with the upper side of the left and right ends of the extrusion block (10).

6. The porous dielectric heat dissipation enhancement component of the high thermal conductivity UVC ceramic bracket according to claim 2, characterized in that: A triangular mark is provided at the eccentric circle at the upper end of the insertion rod (9).

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