A cooling device for forming microcrystalline glass

Abstract

This utility model discloses a cooling device for microcrystalline glass forming, including a corner-folding housing. The surface of the corner-folding housing is provided with a first cooling air inlet protrusion, a second cooling air inlet protrusion, and a third cooling air inlet protrusion. Heat-absorbing bearing plates are fixedly connected to the inner surfaces of the first, second, and third cooling air inlet protrusions. The outer end surface of the corner-folding housing is provided with a flow guide port, and a turbine fan is fixedly connected to the outer surface of the flow guide port. The heat-absorbing bearing plates are evenly distributed and fixedly connected to the inner surfaces of the first, second, and third cooling air inlet protrusions. By using cooling air inlets on the surface of the corner-folding housing and heat-absorbing bearing plate assemblies inside the cooling air inlets, glass can be placed on the surface of the heat-absorbing bearing plates and cooled by drawing airflow, which can also remove the absorbed heat. This allows for rapid cooling of the glass, and the placement and removal of the glass are convenient. The cooling mechanism is simple and the cost is low.

Description

Technical Field

[0001] This utility model relates to the field of cooling devices for forming microcrystalline glass, and more specifically, to a cooling device for forming microcrystalline glass. Background Technology

[0002] Microcrystalline glass refers to a base glass with a specific composition containing nucleating agents. Under a certain temperature regime, it undergoes crystallization heat treatment, resulting in the uniform precipitation of numerous tiny crystals within the glass, forming a dense multiphase composite of microcrystalline and glass phases. By controlling the type, quantity, and size of the microcrystals, transparent microcrystalline glass, microcrystalline glass with zero expansion coefficient, surface-strengthened microcrystalline glass, and microcrystalline glass in different colors or that can be machined can be obtained. Currently, in traditional technologies, the processing of microcrystalline glass requires cooling. A common method is to directly cool it in air. For high-quality glass, impurities in the air can severely affect the quality of the glass, resulting in low-quality microcrystalline glass. Furthermore, the slow cooling rate in air affects the processing speed of microcrystalline glass, presenting certain drawbacks.

[0003] In existing technologies for cooling microcrystalline glass, such as the present invention disclosed in patent announcement number CN214193038U, a cooling device for microcrystalline glass forming belongs to the technical field of microcrystalline glass manufacturing equipment. It includes a housing with a cavity containing water. The inner wall of the housing is fixedly connected to the outer wall of a ventilation plate. A rotating cover is rotatably connected to the top of the housing via a spiral spring. The rotating cover also has a cavity. The top of the inner wall of the cavity is fixedly connected to one end of a sliding rod, and the other end of the sliding rod is fixedly connected to the bottom of the cavity. A slider is slidably connected to the sliding rod. The water in the cavity keeps the temperature of the inner wall of the housing suitable for cooling the microcrystalline glass. A fixed sleeve is slidably connected to the rotating cover, so that without external force, the outer wall of the fixed sleeve fits against the top of the inner wall of the housing, fixing the rotating cover to the top of the housing and stabilizing the entire device.

[0004] By setting up a shell structure, water cannot be conducted to the glass when added in the interlayer, and the mechanism is complicated. The glass is placed at the inner end, making cooling and unloading inconvenient. Cooling is achieved by blowing air downwards, but the air cooling effect is not good, and the cooling mechanism is complicated and costly. Utility Model Content

[0005] To address the problems existing in the prior art, the purpose of this utility model is to provide a cooling device for microcrystalline glass forming. By adopting a folded housing surface with a cooling air inlet protrusion, a heat-absorbing support plate assembly is set inside the cooling air inlet protrusion. The glass can be placed on the surface of the heat-absorbing support plate and cooled by drawing airflow, which can also remove the absorbed heat. This allows for rapid cooling of the glass, and the placement and removal of the material are convenient. The cooling mechanism is simple and the cost is low.

[0006] To solve the above problems, the present invention adopts the following technical solution.

[0007] A cooling device for forming microcrystalline glass includes a folding housing. The surface of the folding housing is provided with a first cooling air inlet, a second cooling air inlet, and a third cooling air inlet. Heat-absorbing bearing plates are fixedly connected to the inner surfaces of the first, second, and third cooling air inlets. An air guide is provided on the outer surface of the folding housing, and a turbine fan is fixedly connected to the outer surface of the air guide. The heat-absorbing bearing plates are evenly distributed and fixedly connected to the inner surfaces of the first, second, and third cooling air inlets. By using cooling air inlets on the surface of the folding housing and heat-absorbing bearing plate assemblies within these inlets, glass can be placed on the surface of the heat-absorbing bearing plates. Cooling is achieved by drawing airflow, which also removes the absorbed heat, allowing for rapid cooling of the glass. The device is convenient for placement and removal, has a simple cooling mechanism, and is low in cost.

[0008] Furthermore, the heat-absorbing support sheet adopts a T-shaped square plate structure, its thickness is three millimeters, and it is made of aluminum metal plate.

[0009] Furthermore, a flow guiding groove is formed on the middle surface of the heat-absorbing support sheet, and the flow guiding groove is disposed on the middle surface of the heat-absorbing support sheet.

[0010] Furthermore, the upper surface of the heat-absorbing support sheet is provided with a raised surface, the surface of which is set as a smooth surface, and the corners around the outer end are provided with chamfers.

[0011] Furthermore, support side plates are fixedly connected to the lower surfaces of the left and right sides of the turbine fan.

[0012] Furthermore, a support leg is fixedly connected to the lower surface of the angle-folding housing, and the support leg is distributed and fixed at both ends of the lower end surface of the angle-folding housing.

[0013] Furthermore, the angled housing adopts a square housing structure with an angled structure, and its inner end is set as a cavity structure. Its first cooling air inlet protrusion, second cooling air inlet protrusion, and third cooling air inlet protrusion are square protrusions and are set on the upper surface of the angled housing.

[0014] Compared with existing technologies, the advantages of this utility model are:

[0015] (1) By adopting a folded housing surface with a cooling air inlet protrusion, a heat-absorbing bearing plate assembly is set inside the cooling air inlet protrusion. The glass can be placed on the surface of the heat-absorbing bearing plate and cooled by drawing airflow. It can also remove the heat absorbed, cool the glass quickly, and is convenient to place and remove. The cooling mechanism is simple and low in cost. Attached Figure Description

[0016] Figure 1 This is a first schematic diagram of the overall structure of this utility model;

[0017] Figure 2 This is a second schematic diagram of the overall structure of this utility model;

[0018] Figure 3 This is a third schematic diagram of the overall structure of this utility model;

[0019] Figure 4 This is a top view of the overall structure of this utility model;

[0020] Figure 5 This is a schematic cross-sectional view of the overall structure of this utility model;

[0021] Figure 6 This is a partial structural diagram of the heat-absorbing support sheet of this utility model.

[0022] Explanation of the labels in the diagram:

[0023] 1. Folded casing; 2. First cooling air inlet protrusion; 3. Second cooling air inlet protrusion; 4. Third cooling air inlet protrusion; 5. Heat-absorbing support plate; 6. Turbine fan; 7. Air outlet; 8. Support leg; 50. Raised surface; 51. Air guide groove. Detailed Implementation

[0024] 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.

[0025] Example 1

[0026] Please see Figure 1-5A cooling device for forming microcrystalline glass includes a folding housing 1. The surface of the folding housing 1 is provided with a first cooling air inlet 2, a second cooling air inlet 3, and a third cooling air inlet 4. Heat-absorbing bearing plates 5 are fixedly connected to the inner surfaces of the first cooling air inlet 2, the second cooling air inlet 3, and the third cooling air inlet 4. An air guide port is provided on the outer surface of the folding housing 1, and a turbine fan 6 is fixedly connected to the outer surface of the air guide port. An air outlet 7 is provided at the outer end of the turbine fan 6. The heat-absorbing bearing plates 5 are evenly distributed and fixedly connected to the inner surfaces of the first cooling air inlet 2, the second cooling air inlet 3, and the third cooling air inlet 4. By using cooling air inlets on the surface of the folding housing and heat-absorbing bearing plate assemblies inside the cooling air inlets, glass can be placed on the surface of the heat-absorbing bearing plates and cooled by drawing airflow. This process also removes the absorbed heat, allowing for rapid cooling of the glass. Furthermore, the device is convenient for placement and removal, has a simple cooling mechanism, and is low in cost.

[0027] The heat-absorbing support plate 5 adopts a T-shaped square plate structure. The thickness of the heat-absorbing support plate 5 is three millimeters, and the heat-absorbing support plate 5 is made of aluminum metal plate. Due to its economy and wide applicability, aluminum metal is still the first choice as the heat sink material, and it has good heat absorption and heat dissipation performance.

[0028] A flow guide groove 51 is provided on the middle surface of the heat-absorbing support plate 5. The flow guide groove 51 is provided on the middle surface of the heat-absorbing support plate 5. When the turbine fan 6 draws in air, it can simultaneously draw in air through the first cooling air inlet 2, the second cooling air inlet 3, and the third cooling air inlet 4 at the upper end. When it draws in air, it can facilitate flow guidance and facilitate the cooling of the glass.

[0029] The upper surface of the heat-absorbing support plate 5 is provided with a raised surface 50, the surface of which is a smooth surface, and the corners around the outer end are chamfered; the microcrystalline glass can be placed on the surface of the raised surface 50 of the heat-absorbing support plate 5, which can be placed stably and will not wear the glass placement surface; the lower end of the heat-absorbing support plate 5 is provided with a groove, which is evenly and densely distributed on the surface of the heat-absorbing support plate 5, which improves heat dissipation performance, and the airflow is fast, which can quickly remove heat;

[0030] The lower surfaces of the left and right sides of the turbine fan 6 are fixedly connected with supporting side plates; it is placed on the ground for stable support.

[0031] A support leg 8 is fixedly connected to the lower surface of the angle-folding housing 1. The support leg 8 is distributed and fixed at both ends of the lower end surface of the angle-folding housing 1; thus supporting the stability of the angle-folding housing 1.

[0032] The angled housing 1 adopts a square housing structure with an angled structure. Its inner end is set as a cavity structure. Its first cooling air inlet 2, second cooling air inlet 3, and third cooling air inlet 4 are square protrusions, which are set on the upper surface of the angled housing 1 to facilitate air intake and cooling of the glass above.

[0033] In use, the surface of the angled housing 1 is provided with a first cooling air inlet 2, a second cooling air inlet 3, and a third cooling air inlet 4. A heat-absorbing support plate 5 is fixedly connected to the inner surface of the first cooling air inlet 2, the second cooling air inlet 3, and the third cooling air inlet 4. The upper surface of the heat-absorbing support plate 5 is provided with a raised surface 50, the surface of which is a smooth surface, and the corners around the outer end are chamfered. In use, the microcrystalline glass can be placed on the surface of the raised surface 50 of the heat-absorbing support plate 5, which can be placed stably and will not damage the glass placement surface.

[0034] Furthermore, the outer surface of the angled housing 1 is provided with a guide port, and a turbine fan 6 is fixedly connected to the outer surface of the guide port. The outer end of the turbine fan 6 is provided with an air outlet 7. When in use, the turbine fan 6 is started, and airflow is drawn in through the air inlet of the turbine fan 6. The airflow is drawn in through the guide port and then through the first cooling air inlet protrusion 2, the second cooling air inlet protrusion 3, and the third cooling air inlet protrusion 4. Its heat-absorbing bearing plate 5 can absorb the heat dissipated from the glass. When the airflow enters, the heat-absorbing bearing plate 5... A flow guiding groove 51 is provided on the end surface, and the flow guiding groove 51 is set on the middle end surface of the heat-absorbing support plate 5. When the turbine fan 6 draws in air, it can simultaneously draw in air through the first cooling air inlet 2, the second cooling air inlet 3, and the third cooling air inlet 4 at the upper end. When it draws in air, it can facilitate flow guidance and facilitate the cooling of the glass. It can quickly remove heat and dissipate heat from the glass. When the glass is placed on the surface of the heat-absorbing support plate 5, it can quickly remove heat, improve cooling performance, and is convenient to place, remove, and load / unload.

Claims

1. A cooling device for forming microcrystalline glass, comprising a bendable housing (1), characterized in that: The surface of the angled housing (1) is provided with a first cooling air inlet protrusion (2), a second cooling air inlet protrusion (3), and a third cooling air inlet protrusion (4). A heat-absorbing bearing plate (5) is fixedly connected to the inner surface of the first cooling air inlet protrusion (2), the second cooling air inlet protrusion (3), and the third cooling air inlet protrusion (4). A guide port is provided on the outer end surface of the angled housing (1), and a turbine fan (6) is fixedly connected to the outer surface of the guide port. An air outlet (7) is provided at the outer end of the turbine fan (6). The heat-absorbing bearing plate (5) is evenly distributed and fixedly connected to the inner surface of the first cooling air inlet protrusion (2), the second cooling air inlet protrusion (3), and the third cooling air inlet protrusion (4).

2. The cooling device for forming microcrystalline glass according to claim 1, characterized in that: The heat-absorbing support plate (5) adopts a T-shaped square plate structure, the thickness of the heat-absorbing support plate (5) is three millimeters, and the heat-absorbing support plate (5) is made of aluminum metal plate.

3. The cooling device for forming microcrystalline glass according to claim 1, characterized in that: A flow guide groove (51) is provided on the middle surface of the heat-absorbing support plate (5). The flow guide groove (51) is provided on the middle surface of the heat-absorbing support plate (5).

4. The cooling device for forming microcrystalline glass according to claim 1, characterized in that: The upper surface of the heat-absorbing support sheet (5) is provided with a raised surface (50), the surface of the raised surface (50) is provided with a smooth surface, and the corners around the outer end are provided with chamfers.

5. The cooling device for forming microcrystalline glass according to claim 1, characterized in that: The lower surfaces of the left and right sides of the turbine fan (6) are fixedly connected with supporting side plates.

6. The cooling device for forming microcrystalline glass according to claim 1, characterized in that: The lower surface of the angled housing (1) is fixedly connected with support legs (8), which are distributed and fixed at both ends of the lower surface of the angled housing (1).

7. The cooling device for forming microcrystalline glass according to claim 1, characterized in that: The angled housing (1) adopts a square housing structure with angled structure. Its inner end is set as a cavity structure. Its first cooling air inlet protrusion (2), second cooling air inlet protrusion (3) and third cooling air inlet protrusion (4) are square protrusions and are set on the upper surface of the angled housing (1).

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