High-temperature melt cooling forming device

Abstract

The invention relates to the technical field of high-temperature melt processing, in particular to a high-temperature melt cooling and forming device which comprises a cooling water tank, a forming device and a cooling device. Cooling liquid is stored on the inner side of the cooling water tank; the multifunctional rapid heat dissipation unit is connected with the cooling water tank and arranged on the outer side of the mold in a sleeving mode. The dust removal type air inlet unit is arranged on the outer side of the bottom end of the cooling water tank and connected with the multifunctional rapid heat dissipation unit; the connecting frame is rotationally connected with a rotating shaft connected with the cooling water tank; a conveying belt connected with the connecting frame is arranged on the inner side of the mounting bracket; wherein the multifunctional rapid heat dissipation unit comprises a sleeving type multiple cooling assembly, a gas-liquid synchronous flow guide assembly and a flow guide type circulating cooling assembly, by arranging the multifunctional rapid heat dissipation unit, multiple rapid cooling of a mold can be achieved, cooling liquid after heat absorption can be cooled in time, and then the cooling effect of equipment is guaranteed; and the high-temperature melt forming efficiency is greatly improved.

Description

Technical Field

[0001] The present invention relates to the technical field of high-temperature melt processing, and particularly to a high-temperature melt cooling and forming device. Background Art

[0002] High-temperature melt is a transitional product in the production of multiple fields such as metallurgy and refractories, and is divided into two categories: metal melts (such as ferrosilicon, silicomanganese alloy, and ferric aluminum, hereinafter collectively referred to as ferroalloys) and non-metal oxide melts (such as brown fused alumina, calcium aluminate, and calcium silicate, hereinafter collectively referred to as oxides). The temperature of these transitional products is between 1200°C and 2000°C, and they need to be cooled, crystallized, solidified, and crushed into a certain block shape (or powder) before they can be sold to users as products for use.

[0003] After the high-temperature melt is formed, it needs to be cooled and then solidified. The existing cooling device has a relatively simple structure. During the cooling process, the mold box generates heat, which will heat the water body. After the equipment runs for a long time, the cooling efficiency of the cooling water will be reduced. Therefore, in view of the above situation, there is an urgent need to develop a high-temperature melt cooling and forming device to overcome the deficiencies in current practical applications. Summary of the Invention

[0004] The purpose of the present invention is to provide a high-temperature melt cooling and forming device to solve the problems raised in the above background art.

[0005] To achieve the above purpose, the present invention provides the following technical solutions: A high-temperature melt cooling and forming device, comprising: a cooling water tank, in which coolant is stored inside the cooling water tank; a multi-functional rapid heat dissipation unit, which is connected to the cooling water tank and sleeved outside the mold, and is used to cooperate with the coolant arranged inside the cooling water tank to complete multiple rapid heat dissipation of the mold; a dust-removing air intake unit, which is arranged outside the bottom end of the cooling water tank and is connected to the multi-functional rapid heat dissipation unit, and is used to cooperate with the multi-functional rapid heat dissipation unit to achieve auxiliary cooling of the mold and complete the cooling of the coolant flowing back inside the multi-functional rapid heat dissipation unit; a connecting frame, which is arranged outside the cooling water tank, and rotating shafts fixedly connected to the cooling water tank are rotatably connected to the inner wall of both ends of the connecting frame; a mounting bracket, which is arranged outside the production furnace, and a conveyor belt connected to the connecting frame is arranged inside the mounting bracket, and a plurality of the connecting frames are evenly and equidistantly distributed on the conveyor belt, and are used to cooperate with the operation of the conveyor belt to complete continuous processing; wherein, the multi-functional rapid heat dissipation unit includes: a set-type multi-cooling component, a gas-liquid synchronous diversion component and a diversion-type circulating cooling component, the set-type multi-cooling component is fixedly connected to the outside of the top end of the cooling water tank and is arranged around the outside of the mold, the set-type multi-cooling component is connected to the gas-liquid synchronous diversion component arranged inside the cooling water tank, and the gas-liquid synchronous diversion component is also connected to the dust-removing air intake unit, and is used to realize the synchronous and independent transportation of the coolant and cold air, and cooperate with the set-type multi-cooling component to achieve multiple rapid heat dissipation of the mold, a diversion-type circulating cooling component is also arranged between the set-type multi-cooling component and the cooling water tank, the diversion-type circulating cooling component is arranged at the top inside the cooling water tank and is connected to the set-type multi-cooling component, and is used to cooperate with the set-type multi-cooling component to realize the recovery and diversion of the coolant after heat absorption, and cooperate with the gas-liquid synchronous diversion component to realize the continuous cooling of the coolant.

[0006] Compared with the prior art, the beneficial effects of the present invention are: When the device is running, each mold is successively clamped inside the corresponding set of multi-layer cooling components. The conveyor belt, in conjunction with the connecting frame, drives each mold to move, achieving continuous molding. The high-temperature melt is discharged from the inside of the production furnace and falls into the inside of the mold. When molding inside the mold, the gas-liquid synchronous diversion component cooperates with the dust-removing air intake unit to transport the coolant and air. During the transportation process, the coolant can cool the air to a certain extent. Both the coolant and air are sent into the inside of the set of multi-layer cooling components, and together with the set of multi-layer cooling components, they complete the multi-layer rapid heat dissipation of the mold. After absorbing heat, the coolant enters the inside of the diversion-type circulating cooling component. The gas-liquid synchronous diversion component assists the diversion-type circulating cooling component to continuously cool the heat-absorbed coolant, preventing the coolant from heating up. The cooled coolant flows back to the cooling water tank, completing the circulating cooling of the mold, greatly improving the molding efficiency of the high-temperature melt. Compared with the prior art, the cooling device structure of the present application is relatively simple. During the cooling process of the mold box, heat is generated, which will heat the water body. After the equipment runs for a long time, the cooling efficiency of the cooling water will be reduced. By setting up a multi-functional rapid heat dissipation unit and cooperating with the dust-removing air intake unit, it can achieve multi-layer rapid cooling of the mold and timely cool the heat-absorbed coolant, thereby ensuring the cooling effect of the equipment and greatly improving the molding efficiency of the high-temperature melt. Description of the Drawings

[0007] Figure 1 It is a schematic structural diagram of a high-temperature melt cooling and molding device.

[0008] Figure 2 It is a cross-sectional view of a high-temperature melt cooling and molding device.

[0009] Figure 3 It is a schematic structural diagram of the set of multi-layer cooling components in a high-temperature melt cooling and molding device.

[0010] Figure 4 It is a schematic structural diagram of the serpentine cooling pipe in a high-temperature melt cooling and molding device.

[0011] Figure 5 It is a schematic structural diagram of the gas-liquid synchronous diversion component in a high-temperature melt cooling and molding device.

[0012] Figure 6 It is a schematic structural diagram of the combined conveying component in a high-temperature melt cooling and molding device.

[0013] Figure 7 It is a schematic structural diagram of the diversion-type circulating cooling component in a high-temperature melt cooling and molding device.

[0014] Figure 8 It is a schematic structural diagram of the dust-removing air intake unit in a high-temperature melt cooling and molding device.

[0015] Figure 9It is a schematic structural diagram of an inductive cleaning component in a high-temperature melt cooling and forming device.

[0016] Figure 10 It is Figure 9 an enlarged structural diagram at position A in

[0017] Figure 11 a schematic structural diagram during continuous processing of a high-temperature melt cooling and forming device.

[0018] In the figure: 1 - cooling water tank, 2 - rotating shaft, 3 - multifunctional rapid heat dissipation unit, 4 - dust removal air intake unit, 5 - sleeve-type multiple cooling component, 6 - gas-liquid synchronous diversion component, 7 - diversion-type circulating cooling component, 8 - cooling seat, 9 - heat sink, 10 - return conduit, 11 - serpentine cooling pipe, 12 - infusion conduit, 13 - infusion pump, 14 - liquid extraction pipe, 15 - liquid inlet pipe, 16 - combined conveying component, 17 - air supply pipe, 18 - blowing box, 19 - blowing pipe, 20 - exhaust pipe, 21 - gas transmission pipe, 22 - diversion column, 23 - air guide groove, 24 - liquid guide groove, 25 - U-shaped receiving box, 26 - heat conducting plate, 27 - flow blocking partition, 28 - water outlet pipe, 29 - heat conduction block, 30 - semiconductor refrigeration chip, 31 - control box, 32 - power source, 33 - power rod, 34 - air supply box, 35 - fan, 36 - air suction pipe, 37 - impurity filtering box, 38 - connecting conduit, 39 - impurity filtering frame, 40 - air inlet conduit, 41 - air extraction pipe, 42 - inductive cleaning component, 43 - induction box, 44 - response pipe, 45 - trigger pipe, 46 - pressure control part, 47 - synchronous guide plate, 48 - cleaning brush, 49 - push slide rod, 50 - induction part, 51 - positioning slider, 52 - mounting bracket, 53 - conveyor belt, 54 - connecting frame, 55 - center of gravity stabilizing block. Detailed implementation manners

[0019] The technical solutions of this patent will be further described in detail below in combination with the detailed implementation manners.

[0020] The embodiments of this patent will be described in detail below. The examples of the embodiments are shown in the drawings, where the same or similar reference numerals denote the same or similar elements or elements with the same or similar functions throughout. The embodiments described below by referring to the drawings are exemplary and are only used to explain this patent and should not be construed as a limitation to this patent.

[0021] Please refer to Figure 1 , Figure 2 and Figure 11, in an embodiment of the present invention, a high-temperature melt cooling and forming device includes: a cooling water tank 1, in which a coolant is stored inside the cooling water tank 1; a multi-functional rapid heat dissipation unit 3, which is connected to the cooling water tank 1 and sleeved outside the mold, and is used to cooperate with the coolant arranged inside the cooling water tank 1 to complete multiple rapid heat dissipation of the mold; a dust-removing air intake unit 4, which is arranged outside the bottom end of the cooling water tank 1 and is connected to the multi-functional rapid heat dissipation unit 3, and is used to cooperate with the multi-functional rapid heat dissipation unit 3 to realize the auxiliary cooling of the mold and complete the cooling of the coolant flowing back inside the multi-functional rapid heat dissipation unit 3; a connecting frame 54, which is arranged outside the cooling water tank 1, and rotating shafts 2 fixedly connected to the cooling water tank 1 are rotatably connected to the inner wall at both ends; a mounting bracket 52, which is arranged outside the production furnace, and a conveyor belt 53 connected to the connecting frame 54 is arranged inside, and a plurality of the connecting frames 54 are evenly and equidistantly distributed on the conveyor belt 53, and are used to cooperate with the operation of the conveyor belt 53 to complete continuous processing; wherein, the multi-functional rapid heat dissipation unit 3 includes: a set-type multi-layer cooling component 5, a gas-liquid synchronous diversion component 6 and a diversion-type circulating cooling component 7, the set-type multi-layer cooling component 5 is fixedly connected to the outside of the top end of the cooling water tank 1 and is arranged around the mold, the set-type multi-layer cooling component 5 is connected to the gas-liquid synchronous diversion component 6 arranged inside the cooling water tank 1, and the gas-liquid synchronous diversion component 6 is also connected to the dust-removing air intake unit 4, and is used to realize the synchronous and independent transportation of the coolant and cold air, and cooperate with the set-type multi-layer cooling component 5 to complete multiple rapid heat dissipation of the mold, a diversion-type circulating cooling component 7 is further arranged between the set-type multi-layer cooling component 5 and the cooling water tank 1, the diversion-type circulating cooling component 7 is arranged at the top inside the cooling water tank 1 and is connected to the set-type multi-layer cooling component 5, and is used to cooperate with the set-type multi-layer cooling component 5 to realize the recovery and diversion of the coolant after heat absorption, and cooperate with the gas-liquid synchronous diversion component 6 to realize the continuous cooling of the coolant.

[0022] In this embodiment, when the device is running, each mold is sequentially clamped inside the corresponding nested multi-cooling component 5. The conveyor belt 53 cooperates with the connecting frame 54 to drive each mold to move, realizing continuous molding. The high-temperature melt is discharged from the inside of the production furnace and falls into the inside of the mold. When molding inside the mold, the gas-liquid synchronous diversion component 6 cooperates with the dust-removing air intake unit 4 to transport the coolant and air. During the transportation process, the coolant can cool the air to a certain extent. Both the coolant and air are sent into the inside of the nested multi-cooling component 5, and cooperate with the nested multi-cooling component 5 to complete the multi-stage rapid heat dissipation of the mold. After that, the heat-absorbed coolant enters the inside of the diversion-type circulating cooling component 7. The gas-liquid synchronous diversion component 6 assists the diversion-type circulating cooling component 7 to continuously cool the heat-absorbed coolant, avoiding the coolant from heating up. The cooled coolant flows back to the cooling water tank 1, completing the circulating cooling of the mold, greatly improving the molding efficiency of the high-temperature melt. Compared with the prior art, the cooling device of the present application has a relatively simple structure. During the cooling process of the mold box, heat is generated, which will heat the water body. After the equipment runs for a long time, the cooling efficiency of the cooling water will be reduced. By setting the multi-functional rapid heat dissipation unit 3 and cooperating with the dust-removing air intake unit 4, multi-stage rapid cooling of the mold can be achieved, and the heat-absorbed coolant can be cooled in time, thereby ensuring the cooling effect of the equipment and greatly improving the molding efficiency of the high-temperature melt.

[0023] In one embodiment of the present invention, please refer to Figure 3 and Figure 4 , the nested multi-cooling component 5 includes: a cooling seat 8, heat dissipation fins 9, a return conduit 10, a serpentine cooling pipe 11, and an infusion conduit 12. The cooling seat 8 is fixedly connected and arranged on the outer side of the top end of the cooling water tank 1, fixedly connected to the cooling water tank 1, and covers the outside of the mold, and is clamped with the mold, and is used to cooperate with the cooling water tank 1 to realize the support and positioning of the mold. On the inner sides of the shell walls on both sides of the cooling seat 8, serpentine cooling pipes 11 are fixedly connected and arranged. The input end of the serpentine cooling pipe 11 is connected to the gas-liquid synchronous diversion component 6 through the infusion conduit 12, and the output end is fixedly connected to the return conduit 10 leading to the inside of the diversion-type circulating cooling component 7. On the remaining two sides of the shell wall of the cooling seat 8, a plurality of heat dissipation fins 9 are fixedly connected and arranged. The heat dissipation fins 9 are arranged opposite to the gas-liquid synchronous diversion component 6, and are used to cooperate with the cold air output by the gas-liquid synchronous diversion component 6 to realize the heat dissipation and cooling of the cooling seat 8.

[0024] In this embodiment, the serpentine cooling pipe 11 is fixedly connected and arranged inside the left and right side walls of the cooling seat 8, and the heat dissipation fins 9 are fixedly connected and arranged on the front and rear outer walls of the cooling seat 8. The coolant enters the inner side of the serpentine cooling pipe 11 along the gas-liquid synchronous diversion assembly 6 and the infusion catheter 12, absorbs the heat on the cooling seat 8 during the flow inside the serpentine cooling pipe 11, and then takes away the heat contained inside the mold. At the same time, the cold air will be discharged along the gas-liquid synchronous diversion assembly 6, and part of the cold air directly acts on the heat dissipation fins 9. The heat dissipation fins 9 absorb the heat on the cooling seat 8, and the cold air cools down the heat dissipation fins 9, enabling the heat dissipation fins 9 to continuously absorb the heat of the cooling seat 8 and greatly improving the heat absorption efficiency. By setting the nested multi-cooling assembly 5, not only can the support and positioning of the mold be completed, but also the multi-fast heat dissipation of the cooling seat 8 can be realized in cooperation with the gas-liquid synchronous diversion assembly 6, thereby realizing the rapid molding of the high-temperature melt and greatly improving the processing efficiency of the equipment.

[0025] In one embodiment of the present invention, please refer to Figure 5 , the gas-liquid synchronous diversion assembly 6 includes: an infusion pump 13, a liquid extraction pipe 14, a liquid inlet pipe 15, a combined delivery assembly 16, a gas supply pipe 17, a blowing box 18, a blowing pipe 19, an exhaust pipe 20, and a gas transmission pipe 21. The infusion pump 13 is fixedly connected and arranged inside the cooling water tank 1. The input end of the infusion pump 13 is connected to the liquid extraction pipe 14, and the output end is connected to the combined delivery assembly 16 arranged inside the cooling water tank 1 through the liquid inlet pipe 15. The combined delivery assembly 16 is connected to the dust-removing air intake unit 4 through the gas supply pipe 17 and is also connected to the infusion catheter 12. The two sides of the top of the combined delivery assembly 16 are symmetrically provided with gas transmission pipes 21. One end of each gas transmission pipe 21 is connected to the combined delivery assembly 16, and the other end is fixedly connected to the blowing box 18 fixedly connected to the outer side of the top of the cooling water tank 1. A plurality of blowing pipes 19 arranged opposite to the heat dissipation fins 9 are fixedly connected to the top wall of the blowing box 18. A plurality of exhaust pipes 20 arranged opposite to the diversion type circulating cooling assembly 7 are also fixedly connected to the wall of the blowing box 18 for cooling the diversion type circulating cooling assembly 7.

[0026] In this embodiment, a blowing box 18 fixedly connected to the cooling water tank 1 is provided on the lower side of each of the two radiating fins 9. The blowing pipe 19 is fixedly connected to the top wall of the blowing box 18, and the exhaust pipe 20 is fixedly connected to the side wall of the blowing box 18. The infusion pump 13 extracts the coolant inside the cooling water tank 1 through the liquid extraction pipe 14. The extracted coolant enters the inside of the combined conveying assembly 16 along the liquid inlet pipe 15. At the same time, the dust-removing air intake unit 4 conveys clean air along the air supply pipe 17 into the inside of the combined conveying assembly 16. The air and the coolant are synchronously conveyed inside the combined conveying assembly 16, and during the conveying process, the coolant can cool the air to a certain extent. The coolant inside the combined conveying assembly 16 enters the inside of the serpentine cooling pipe 11 along the infusion catheter 12, and the mold is cooled by using the coolant. The air inside the combined conveying assembly 16 enters the inside of the blowing box 18 along the air delivery pipe 21. Part of the cold air is discharged from the blowing pipe 19, and the discharged air cooperates with the radiating fin 9 to cool the mold. The other part of the cold air is discharged from the exhaust pipe 20 to cool the diversion-type circulating cooling assembly 7, ensuring the stability of the diversion-type circulating cooling assembly 7 during operation. By providing the gas-liquid synchronous diversion assembly 6, the independent conveyance of the coolant and the air can be completed simultaneously, and then the multiple cooling of the mold can be completed in cooperation with the sleeve-type multiple cooling assembly 5, greatly improving the high-temperature melt forming efficiency.

[0027] In one embodiment of the present invention, please refer to Figure 6 , the combined conveying assembly 16 includes: a diversion column 22, a gas guide groove 23, and a liquid guide groove 24. The diversion column 22 is arranged inside the cooling water tank 1. A gas guide groove 23 is arranged inside the diversion column 22. The bottom end of the gas guide groove 23 is connected to the air supply pipe 17, and the top end is connected to the air delivery pipe 21. A liquid guide groove 24 surrounding the outside of the gas guide groove 23 is further arranged inside the diversion column 22. The bottom end of the liquid guide groove 24 is connected to the liquid inlet pipe 15, and the top end is connected to the infusion catheter 12.

[0028] In this embodiment, the gas guide groove 23 and the liquid guide groove 24 are sequentially arranged from the inside to the outside inside the diversion column 22. The liquid guide groove 24 surrounds the inside of the gas guide groove 23. Thus, when the coolant and the air are conveyed, the coolant can keep in continuous contact with the air, thereby cooling the air to a certain extent and ensuring the subsequent cooling effect. Among them, the heat absorbed by the coolant from the air is much lower than the heat contained in the mold. Therefore, the coolant that has absorbed the heat of the air can still stably absorb heat and cool the mold, and the four sides of the cooling seat 8 can be effectively cooled, ensuring the cooling effect.

[0029] In one embodiment of the present invention, please refer to Figure 7, the flow guiding type circulating cooling component 7 includes: a U-shaped receiving box 25, a heat conducting plate 26, a flow blocking partition 27, a water outlet pipe 28, a heat guiding block 29 and a semiconductor refrigeration chip 30. The U-shaped receiving box 25 is fixedly connected and arranged at the inner top of the cooling water tank 1. The U-shaped receiving box 25 is connected to the output end of the reflux conduit 10, and a water outlet pipe 28 is fixedly connected and arranged on the box wall on the side away from the cooling water tank 1. The water outlet pipe 28 and the output end of the reflux conduit 10 are respectively arranged on the two side box walls of the U-shaped receiving box 25. A plurality of flow blocking partitions 27 are arranged in the U-shaped receiving box 25 in a staggered manner. The flow blocking partitions 27 are fixedly connected to the inner wall of the U-shaped receiving box 25. Heat guiding blocks 29 are fixedly connected and arranged on the outer walls on both sides of the U-shaped receiving box 25. One end of the heat guiding block 29 away from the U-shaped receiving box 25 is connected to the semiconductor refrigeration chip 30. The hot end of the semiconductor refrigeration chip 30 is arranged opposite to the output end of the exhaust pipe 20. A plurality of heat conducting plates 26 leading to the outside of the cooling water tank 1 are fixedly connected and arranged on the remaining two outer walls of the U-shaped receiving box 25.

[0030] In this embodiment, the heat guiding blocks 29 are arranged on the front and rear side box walls of the U-shaped receiving box 25, and the heat conducting plates 26 are arranged on the left and right side box walls of the U-shaped receiving box 25. After the heat-absorbed coolant enters the inside of the U-shaped receiving box 25 along the reflux conduit 10, it moves towards the side of the water outlet pipe 28. The flow blocking partitions 27 can guide the flow of the coolant and can extend the residence time of the coolant inside the U-shaped receiving box 25. During the process of the coolant flowing inside the U-shaped receiving box 25, on the one hand, the semiconductor refrigeration chip 30 cools down the coolant through the heat guiding blocks 29, and on the other hand, the heat conducting plates 26 absorb the heat of the coolant and discharge the heat to the outside of the device, thereby effectively cooling the heat-absorbed coolant. By setting the flow guiding type circulating cooling component 7, the heat-absorbed coolant can be cooled quickly in multiple ways, thereby ensuring the cooling effect of the device and greatly improving the high-temperature melt forming efficiency.

[0031] In an embodiment of the present invention, please refer to Figure 8, the dust-removing air intake unit 4 includes: a control box 31, a power source 32, a power rod 33, an air supply box 34, a fan 35, a filter box 37, a filter frame 39 and an inductive cleaning component 42. The control box 31 is fixedly connected and arranged on the outer side of the bottom end of the cooling water tank 1. The power source 32 is fixedly connected and arranged at the bottom inside of the control box 31. The output end of the power source 32 is fixedly connected to the power rod 33. The other end of the power rod 33 leads to the inside of the air supply box 34. The air supply box 34 is fixedly connected to the control box 31 and is provided with a fan 35 fixedly connected to the power rod 33 inside. The top box wall of the air supply box 34 is connected to the gas-liquid synchronous diversion component 6, and the bottom box wall is fixedly connected and arranged with an air suction pipe 36. The air suction pipe 36 is symmetrically arranged on both sides of the power rod 33. The outer side of the other end of the air suction pipe 36 is slidably connected and arranged with a connecting conduit 38. On both sides of the power rod 33, there is also a filter box 37 slidably connected to the control box 31. One end box wall of the filter box 37 is fixedly connected to the connecting conduit 38 on the same side, and the other end box wall is fixedly connected and arranged with a plurality of air intake conduits 40. The other end of the air intake conduit 40 is slidably connected to an air extraction pipe 41 fixedly connected to the control box 31. Between the two filter boxes 37, there is a cam fixedly connected to the power rod 33 in contact. A spring is fixedly connected between the box wall of the filter box 37 far from the cam and the control box 31, which is used to cooperate with the rotation of the power rod 33 to realize the reciprocating movement of the filter box 37. The filter frame 39 is fixedly connected and arranged inside the filter box 37, and the inductive cleaning component 42 connected to the control box 31 is arranged outside the filter frame 39, which is used to cooperate with the movement of the filter box 37 to realize the automatic cleaning of the filter frame 39.

[0032] In this embodiment, the power source 32 is a driving motor. The output end of the power source 32 is fixedly connected to the power rod 33. The top box wall of the air supply box 34 is fixedly connected to the air supply pipe 17. The power source 32 drives the power rod 33 to rotate, and the power rod 33 drives the fan 35 to rotate. The outside air enters the inside of the filter box 37 along the air extraction pipe 41 and the air intake conduits 40. The filter frame 39 removes dust from the air. The air after dust removal enters the inside of the air supply box 34 along the connecting conduit 38 and the air suction pipe 36, and enters the inside of the air guide groove 23 along the air supply pipe 17. The power rod 33 also drives the cam to rotate, and cooperates with the spring to drive the filter box 37 to perform reciprocating movement. During the movement of the filter box 37, the inductive cleaning component 42 completes the automatic cleaning of the filter frame 39. By setting the dust-removing air intake unit 4, it can drive the air flow around the equipment, complete the dust removal of the air, and cooperate with the gas-liquid synchronous diversion component 6 to realize the heat dissipation and cooling of the mold and the semiconductor refrigeration chip 30, which is beneficial to improving the heat dissipation efficiency of the equipment.

[0033] In an embodiment of the present invention, please refer to Figure 9 and Figure 10, the inductive cleaning assembly 42 includes: an induction box 43, a response pipe 44, a trigger pipe 45, a synchronous guide plate 47, a cleaning brush 48, a push slide rod 49, and a positioning slider 51. The induction box 43 is arranged outside the filter impurity box 37 and fixedly connected to the control box 31. A trigger pipe 45 fixedly connected to the induction box 43 is arranged between the induction box 43 and the filter impurity box 37. A pressure control member 46 fixedly connected to the filter impurity box 37 is slidably connected inside the trigger pipe 45, and is used to cooperate with the movement of the pressure control member 46 inside the trigger pipe 45 to realize the air flow inside the induction box 43. A response pipe 44 is also fixedly connected to the induction box 43. A synchronous guide plate 47 slidably connected to the control box 31 is arranged between the response pipe 44 and the filter impurity box 37. A push slide rod 49 is fixedly connected to the synchronous guide plate 47. The push slide rod 49 is slidably connected to the wall of the filter impurity box 37 and fixedly connected to the cleaning brush 48 abutted against the outside of the filter impurity frame 39. An induction member 50 is slidably connected inside the response pipe 44. A positioning slider 51 is fixedly connected to the outside of the induction member 50. The positioning slider 51 is slidably connected to the positioning groove arranged on the wall of the synchronous guide plate 47, and is used to cooperate with the air flow inside the induction box 43 to drive the synchronous guide plate 47 to move, so as to realize the cleaning of the filter impurity frame 39 by the cleaning brush 48.

[0034] In this embodiment, the pressure control member 46 includes a first piston slidably connected inside the trigger pipe 45 and a first push rod fixedly connected to the first piston. The other end of the first push rod is fixedly connected to the filter impurity box 37. The induction member 50 includes a second piston slidably connected inside the response pipe 44 and a second push rod fixedly connected to the second piston. The other end of the second push rod is fixedly connected to the positioning slider 51. When the filter impurity box 37 moves towards the induction box 43, the first piston is driven to move inside the trigger pipe 44, and the air inside the induction box 43 enters the inside of the response pipe 44. The second piston moves inside the response pipe 44, and cooperates with the synchronous guide plate 47 and the push slide rod 49 to realize the movement of the cleaning brush 48, and complete the cleaning of the filter impurity frame 39. By arranging the inductive cleaning assembly 42, the automatic cleaning of the filter impurity frame 39 can be completed in cooperation with the movement of the filter impurity box 37, avoiding blockage during the operation of the equipment and ensuring the stability of the air flow.

[0035] In an embodiment of the present invention, gravity stabilizing blocks 55 are fixedly connected to the side wall and the bottom of the control box 31, so that when the conveyor belt 53 is conveying, both the cooling water tank 1 and the multi-functional heat dissipation unit 3 can be kept stable, thereby ensuring the safety and stability during the high-temperature melt forming.

[0036] The high-temperature melt cooling and forming device, by setting the multi-functional rapid heat dissipation unit 3 and cooperating with the dust-removing air intake unit 4, can achieve multiple rapid temperature drops of the mold, and can also timely cool the coolant after heat absorption, thereby ensuring the cooling effect of the equipment and greatly improving the forming efficiency of the high-temperature melt. By setting the nested multi-cooling component 5, it can not only complete the support and positioning of the mold, but also cooperate with the gas-liquid synchronous diversion component 6 to achieve multiple rapid heat dissipation of the cooling seat 8, thereby realizing the rapid forming of the high-temperature melt and greatly improving the processing efficiency of the equipment. By setting the gas-liquid synchronous diversion component 6, it can simultaneously complete the independent transportation of the coolant and air, and then cooperate with the nested multi-cooling component 5 to complete multiple cooling of the mold, greatly improving the forming efficiency of the high-temperature melt. By setting the diversion-type circulating temperature reduction component 7, it can achieve multiple rapid temperature drops of the coolant after heat absorption, thereby ensuring the cooling effect of the equipment and greatly improving the forming efficiency of the high-temperature melt. By setting the dust-removing air intake unit 4, it can drive the air flow around the equipment, complete the dust removal of the air, and cooperate with the gas-liquid synchronous diversion component 6 to achieve heat dissipation and temperature reduction of the mold and the semiconductor refrigeration chip 30, which is beneficial to improving the heat dissipation efficiency of the equipment. By setting the induction-type cleaning component 42, it can cooperate with the movement of the filter box 37 to automatically clean the filter frame 39, avoid blockage during the operation of the equipment, and ensure the stability of the air flow.

[0037] The above are only the preferred embodiments of the present invention. It should be noted that for those skilled in the art, without departing from the concept of the present invention, several deformations and improvements can be made, which should also be regarded as the protection scope of the present invention, and these will not affect the implementation effect of the present invention and the practicality of the patent.

Claims

1. A high-temperature melt cooling and forming device, characterized in that Including: A cooling water tank, in which coolant is stored inside the cooling water tank; A multi-functional rapid heat dissipation unit, which is connected to the cooling water tank and sleeved outside the mold, and is used to cooperate with the coolant arranged inside the cooling water tank to complete multiple rapid heat dissipations of the mold; A dust-removing air intake unit, which is arranged outside the bottom end of the cooling water tank and is connected to the multi-functional rapid heat dissipation unit, and is used to cooperate with the multi-functional rapid heat dissipation unit to achieve auxiliary cooling of the mold and complete the cooling of the coolant flowing back inside the multi-functional rapid heat dissipation unit; A connecting frame, which is arranged outside the cooling water tank, and rotating shafts fixedly connected to the cooling water tank are rotatably connected to the inner wall of both ends of the connecting frame; An installation bracket, which is arranged outside the production furnace, and a conveyor belt connected to the connecting frame is arranged inside. A plurality of the connecting frames are evenly and equidistantly distributed on the conveyor belt, and are used to cooperate with the operation of the conveyor belt to complete continuous processing; Among them, the multi-functional rapid heat dissipation unit includes: a set-type multiple cooling component, a gas-liquid synchronous diversion component and a diversion-type circulating cooling component. The set-type multiple cooling component is fixedly connected and arranged outside the top end of the cooling water tank and surrounds the outside of the mold. The set-type multiple cooling component is connected to the gas-liquid synchronous diversion component arranged inside the cooling water tank. The gas-liquid synchronous diversion component is also connected to the dust-removing air intake unit, and is used to realize the synchronous and independent transportation of the coolant and cold air, and cooperate with the set-type multiple cooling component to achieve multiple rapid heat dissipations of the mold. A diversion-type circulating cooling component is also arranged between the set-type multiple cooling component and the cooling water tank. The diversion-type circulating cooling component is arranged at the top inside the cooling water tank and is connected to the set-type multiple cooling component, and is used to cooperate with the set-type multiple cooling component to realize the recovery and diversion of the coolant after heat absorption, and cooperate with the gas-liquid synchronous diversion component to realize the continuous cooling of the coolant.

2. The high-temperature melt cooling and forming device according to claim 1, wherein, The set-type multiple cooling component includes: a cooling seat, heat dissipation fins, a return conduit, a serpentine cooling pipe and an infusion conduit. The cooling seat is fixedly connected and arranged outside the top end of the cooling water tank, is fixedly connected to the cooling water tank, and covers the outside of the mold and is clamped with the mold, and is used to cooperate with the cooling water tank to realize the support and positioning of the mold. Serpentine cooling pipes are fixedly connected to the inner sides of the shell walls on both sides of the cooling seat. The input end of the serpentine cooling pipe is connected to the gas-liquid synchronous diversion component through the infusion conduit, and the output end is fixedly connected to the return conduit leading to the inside of the diversion-type circulating cooling component. A plurality of heat dissipation fins are fixedly connected to the remaining two sides of the cooling seat and the driving shell wall. The heat dissipation fins are arranged opposite to the gas-liquid synchronous diversion component, and are used to cooperate with the cold air output by the gas-liquid synchronous diversion component to realize the heat dissipation and cooling of the cooling seat.

3. The high-temperature melt cooling and forming device according to claim 2, characterized in that The gas-liquid synchronous diversion assembly includes: an infusion pump, a liquid extraction pipe, a liquid inlet pipe, a combined conveying assembly, a gas supply pipe, a blowing box, a blowing pipe, an exhaust pipe, and a gas transmission pipe. The infusion pump is fixedly connected and arranged inside the cooling water tank. The input end of the infusion pump is connected to the liquid extraction pipe, and the output end is connected to the combined conveying assembly arranged inside the cooling water tank through the liquid inlet pipe. The combined conveying assembly is connected to the dust-removing air intake unit through the gas supply pipe and is also connected to the infusion catheter. On both sides of the top of the combined conveying assembly, gas transmission pipes are symmetrically arranged. One end of the gas transmission pipe is connected to the combined conveying assembly, and the other end is fixedly connected to the blowing box fixedly arranged outside the top of the cooling water tank. On the top box wall of the blowing box, a plurality of blowing pipes are fixedly connected and arranged opposite to the heat dissipation fins. On the box wall of the blowing box, a plurality of exhaust pipes are also fixedly connected and arranged opposite to the diversion-type circulating cooling assembly for cooling the diversion-type circulating cooling assembly.

4. The high-temperature melt cooling and forming device according to claim 3, wherein The combined conveying assembly includes: a diversion column, a gas guide groove, and a liquid guide groove. The diversion column is arranged inside the cooling water tank. A gas guide groove is arranged inside the diversion column. The bottom end of the gas guide groove is connected to the gas supply pipe, and the top end is connected to the gas transmission pipe. A liquid guide groove is also arranged inside the diversion column and is arranged around the outside of the gas guide groove. The bottom end of the liquid guide groove is connected to the liquid inlet pipe, and the top end is connected to the infusion catheter.

5. The high-temperature melt cooling and forming device according to claim 4, wherein The diversion-type circulating cooling assembly includes: a U-shaped receiving box, a heat conduction plate, a flow blocking partition, a water outlet pipe, a heat conduction block, and a semiconductor refrigeration chip. The U-shaped receiving box is fixedly connected and arranged at the top inside the cooling water tank. The U-shaped receiving box is connected to the output end of the return conduit, and a water outlet pipe is fixedly connected to the box wall on the side away from the cooling water tank. The water outlet pipe and the output end of the return conduit are respectively arranged on the two side box walls of the U-shaped receiving box. A plurality of flow blocking partitions are arranged in a staggered manner inside the U-shaped receiving box. The flow blocking partitions are fixedly connected to the inner wall of the U-shaped receiving box. Heat conduction blocks are fixedly connected to the outer walls on both sides of the U-shaped receiving box. One end of the heat conduction block away from the U-shaped receiving box is connected to the semiconductor refrigeration chip. The hot end of the semiconductor refrigeration chip is arranged opposite to the output end of the exhaust pipe. A plurality of heat conduction plates leading to the outside of the cooling water tank are fixedly connected to the remaining two outer walls of the U-shaped receiving box.

6. The high-temperature melt cooling and forming device according to claim 1, characterized in that, The dust-removing air intake unit includes: a control box, a power source, a power rod, an air supply box, a fan, a filter box, a filter frame, and an inductive cleaning component. The control box is fixedly connected to the outer side of the bottom end of the cooling water tank. The power source is fixedly connected to the inner bottom of the control box. The output end of the power source is fixedly connected to the power rod. The other end of the power rod extends into the inner side of the air supply box. The air supply box is fixedly connected to the control box and is provided with a fan fixedly connected to the power rod inside. The top box wall of the air supply box is connected to the gas-liquid synchronous diversion component, and the bottom box wall is fixedly connected with an air suction pipe. The air suction pipes are symmetrically arranged on both sides of the power rod. The outer side of the other end of the air suction pipe is slidably connected with a connecting conduit. On both sides of the power rod, there is also a filter box slidably connected to the control box. One end box wall of the filter box is fixedly connected to the same-side connecting conduit, and the other end box wall is fixedly connected with a plurality of air intake conduits. The other end of the air intake conduit is slidably connected to an air extraction pipe fixedly connected to the control box. A cam fixedly connected to the power rod is abutted between the two filter boxes. A spring is fixedly connected between the box wall of the filter box far from the cam and the control box, which is used to cooperate with the rotation of the power rod to realize the reciprocating movement of the filter box. A filter frame is fixedly connected to the inner side of the filter box, and an inductive cleaning component connected to the control box is arranged outside the filter frame, which is used to cooperate with the movement of the filter box to realize the automatic cleaning of the filter frame.

7. The high-temperature melt cooling and forming device according to claim 6, characterized in that, The inductive cleaning component includes: an induction box, a response pipe, a trigger pipe, a synchronous guide plate, a cleaning brush, a push slide rod, and a positioning slider. The induction box is arranged outside the filter box and is fixedly connected to the control box. A trigger pipe fixedly connected to the induction box is arranged between the induction box and the filter box. A pressure control member fixedly connected to the filter box is slidably connected to the inner side of the trigger pipe, which is used to cooperate with the movement of the pressure control member inside the trigger pipe to realize the air flow inside the induction box. A response pipe is also fixedly connected to the induction box. A synchronous guide plate slidably connected to the control box is arranged between the response pipe and the filter box. A push slide rod is fixedly connected to the synchronous guide plate. The push slide rod is slidably connected to the box wall of the filter box and is fixedly connected to the cleaning brush abutted outside the filter frame. An induction member is slidably connected to the inner side of the response pipe. A positioning slider is fixedly connected to the outer side of the induction member. The positioning slider is slidably connected to a positioning groove arranged on the wall of the synchronous guide plate, which is used to cooperate with the air flowing inside the induction box to drive the synchronous guide plate to move and realize the cleaning of the filter frame by the cleaning brush.

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