High-efficiency cooling system of high-temperature precision glass mold pressing equipment

Abstract

The invention relates to the technical field of precise glass optical element production equipment, in particular to an efficient cooling system for high-temperature precise glass mold pressing equipment, which comprises a mold pressing chamber, a loading assembly and a load feedback assembly are respectively arranged at the top and the bottom in the mold pressing chamber, and assembly boxes are fixedly arranged on the outer side walls of the left side and the right side of the mold pressing chamber; the first cooling assembly comprises an outer sleeve and an inner sleeve and is embedded in the outer surface of the loading assembly in a sleeving manner, and a first cooling water path is arranged between the outer sleeve and the inner sleeve; the second cooling assembly comprises an upper cooling disc and a lower cooling disc and is arranged at the top of the load feedback assembly, and a second cooling water path is arranged between the upper cooling disc and the lower cooling disc; the two third cooling assemblies are installed in assembling boxes on the two sides of the mold pressing chamber correspondingly. Through mutual cooperation of the multiple cooling assemblies, heat of the mold pressing core area is effectively isolated and dissipated, the high-temperature precision glass mold pressing equipment achieves the efficient cooling effect, and it is guaranteed that the mold pressing chamber and the loading and load feedback assembly work within the proper working temperature range.

Description

Technical Field

[0001] The present invention relates to the technical field of precision glass optical element production equipment, and specifically relates to a high-efficiency cooling system for high-temperature precision glass molding equipment. Background Art

[0002] Glass molding equipment is an important mechanical equipment for glass molding. In its production process, it requires the cooperation of multiple mechanisms such as heating, molding, and cooling. The cooling mechanism plays a vital role in the production process. It can enable the molding machine to work normally at a precise temperature, improve the accuracy of the glass molding equipment, and ensure the sealing of vacuum components. In the molding chamber of the glass molding equipment, the loading device applies a predetermined load to the glass specimen to achieve precise molding. The load feedback component is used to monitor and feedback the actual load conditions during the loading process. The problem with the prior art is that there is no efficient cooling device for high-temperature precision glass molding equipment in current research. Summary of the invention

[0003] The purpose of the present invention is to provide an efficient cooling system for high-temperature precision glass molding equipment. Through the mutual cooperation of multiple cooling components, the high-temperature precision glass molding equipment can achieve the optimal cooling effect and ensure that the high-temperature precision glass molding equipment is always within the operating temperature range.

[0004] To achieve the above-mentioned purpose, the present invention provides the following technical solutions: a high-efficiency cooling system for high-temperature precision glass molding equipment, comprising a molding chamber, wherein a loading assembly and a load feedback assembly are respectively provided at the top and bottom of the molding chamber, and assembly boxes are fixedly provided on the outer side walls on the left and right sides of the molding chamber, characterized in that it also includes: a first cooling assembly, which is sleeved on the outer surface of the loading assembly, the first cooling assembly includes an outer sleeve and an inner sleeve, and a first cooling water path is provided between the outer sleeve and the inner sleeve; a second cooling assembly, which is arranged on the top of the load feedback assembly, the second cooling assembly includes an upper cooling plate and a lower cooling plate, and a second cooling water path is provided between the upper cooling plate and the lower cooling plate; two third cooling assemblies, which are respectively installed in the assembly boxes on both sides of the molding chamber.

[0005] Preferably, the molding chamber includes: a side panel, which is U-shaped and has an opening facing forward; a top cooling plate fixedly disposed on the top of the side panel; a bottom cooling plate fixedly disposed on the bottom of the side panel; a front cooling plate disposed at the front end of the side panel and hinged to the front end of the side panel, and a third cooling water circuit is disposed inside the front cooling plate, inside the top cooling plate and inside the bottom cooling plate.

[0006] Preferably, the two third cooling components are respectively arranged in the two assembly boxes, and the structures are mirror-symmetrical, and avoidance channels are provided on the two opposite side walls of the side panels, and the interior of the assembly box is connected with the interior of the molding chamber through the avoidance channels; the third cooling component includes a heat absorbing support plate and a first driving component, the position of the avoidance channel corresponds to the position of the heat absorbing support plate, and the first driving component is used to drive the heat absorbing support plate to reciprocate between the interior of the molding chamber and the interior of the assembly box.

[0007] Preferably, the third cooling component also includes: two heat absorbing plates, the heat absorbing plates are arc-shaped plates, the first driving component is arranged between the two heat absorbing plates, the inner concave surface of the heat absorbing plate faces the first driving component, the output end of the first driving component is connected to the heat absorbing plate, the interior of the heat absorbing plate is provided with an assembly cavity, the outer convex surface of the heat absorbing plate is provided with a plurality of assembly holes arranged in a matrix shape, each of the assembly holes is provided with a heat absorbing support plate, and the bottom of the heat absorbing support plate is hinged to the inner side wall of the assembly hole; two second driving components are respectively arranged inside the two assembly cavities, and the second driving components are used to drive a plurality of the heat absorbing support plates to rotate synchronously.

[0008] Preferably, the second driving assembly comprises: an adjusting frame, which can slide along the inner wall of the assembly cavity, and the adjusting frame comprises a plurality of transverse connecting rods, and the plurality of transverse connecting rods are evenly spaced from top to bottom, and vertical connecting rods are provided at both ends of the transverse connecting rod, and the transverse connecting rod is fixedly connected to the vertical connecting rod, and the assembly cavity passes through the top surface of the heat absorbing plate, and the top of the vertical connecting rod extends to the top of the heat absorbing plate and is fixedly connected to the transverse adjusting rod, and the tops of both ends of the transverse adjusting rod are provided with arc-shaped guide surfaces, and a force frame is respectively provided on the top inner wall of the molding chamber and on the left and right sides of the first cooling assembly, and the structures of the two force frames are mirror-symmetrical, and the bottom end height of the force frame is lower than the top surface height of the transverse adjusting rod, and when the heat absorbing plate fully enters the molding chamber, the transverse adjusting rod is located at the force frame Directly below the force frame; two return springs are respectively arranged below the two ends of the transverse connecting rod at the bottom layer, and the two ends of the return spring are respectively fixedly connected to the heat absorbing plate and the transverse connecting rod; a plurality of bearing rings are fixedly arranged on the inner wall of the heat absorbing plate close to the first driving assembly, and respectively correspond to the positions of a plurality of the heat absorbing support plates; a plurality of avoidance grooves are arranged on the side wall of the transverse connecting rod, and the plurality of avoidance grooves respectively correspond to the positions of a plurality of the bearing rings, and a pull rope is provided on the inner side of each of the bearing rings, and the two ends of the pull rope are respectively located on the inner and outer sides of the bearing ring, the first end of the pull rope is fixedly connected to the top surface of the most adjacent transverse connecting rod, the second end of the pull rope passes through the avoidance groove and is fixedly connected to the bottom of the most adjacent heat absorbing support plate, and the height of the first end of the pull rope is higher than the second end.

[0009] Preferably, a weight-reducing cavity is provided inside the top of the heat-absorbing support plate, a heat-conducting support plate is provided on the outer side wall of the bottom of the heat-absorbing support plate, and the heat-conducting support plate is provided on a side close to the first driving component.

[0010] Preferably, it also includes two heat absorption components, which are respectively arranged in the two assembly boxes, and the heat absorption components include: a water storage tank, fixedly arranged at the bottom of the assembly box, and the third cooling component is arranged above the water storage tank; a first cooling box, the first cooling box is an arc-shaped structure, the first cooling box is arranged on the side away from the molding chamber, the inner concave surface of the first cooling box faces the molding chamber, the heat absorption plate can slide along the outer side wall of the first cooling box, and when the heat absorption plate completely enters the assembly box, the heat absorption plate fits with the inner concave surface of the first cooling box; a first water pump, fixedly arranged on the top surface of the water storage tank, the water inlet end of the first water pump is connected to the interior of the water storage tank, the water outlet end of the first water pump is connected to the interior of the first cooling box, and the interior of the first cooling box is connected to the interior of the water storage tank through a water pipe.

[0011] Preferably, the first driving component comprises: two second cooling boxes, which are respectively fixedly arranged on the side walls of the two heat absorbing plates on the side close to each other, the second cooling boxes are in an arc-shaped structure, and the outer convex surface of the second cooling box is in contact with the inner concave surface of the heat absorbing plate; a driving disk is arranged between the two second cooling boxes, the interior of the driving disk is a cavity, the interior of the driving disk is provided with a water dividing baffle, the water dividing baffle divides the interior of the driving disk into two water inlet chambers and two water outlet chambers, and the inner concave surfaces of the two second cooling boxes are provided with a water inlet hard pipe and a water outlet hard pipe, the two water inlet chambers are communicated with the interiors of the two second cooling boxes through the two water inlet hard pipes, and the two water outlet chambers are communicated with the two second cooling boxes through the two water outlet hard pipes. The interior of the cooling box is connected; a rotating motor is fixedly arranged on the inner top surface of the assembly box, the output end of the rotating motor faces downward and is fixedly connected to the top surface of the driving disk; two water inlet hoses are respectively arranged below the two water inlet cavities, the first ends of the two water inlet hoses are respectively connected to the two water inlet cavities, the second ends of the two water inlet hoses are respectively connected to the water outlet end of a second water pump, the second water pump is fixedly arranged on the top surface of the water storage box, the water inlet end of the second water pump is connected to the interior of the water storage box; two water outlet hoses are respectively arranged below the two water outlet cavities, the first ends of the two water outlet hoses are respectively connected to the two water outlet cavities, and the second ends of the two water outlet hoses are both connected to the interior of the water storage tank.

[0012] Compared with the prior art, the present invention has the following beneficial effects: (i) In the present invention, the first cooling component can cool the loading component, and the second cooling component can cool the load feedback component. When the present invention is in use, through the mutual cooperation of multiple cooling components, the high-temperature precision glass molding equipment can achieve the best cooling effect, ensuring that the high-temperature precision glass molding equipment is always within the working temperature range.

[0013] (ii) The present invention further comprises two third cooling components and two heat absorbing components. The third cooling component comprises a heat absorbing support plate and a first driving component. The first driving component can drive the heat absorbing support plate to reciprocate between the interior of the molding chamber and the interior of the assembly box, so that the temperature inside the molding chamber is continuously reduced. When the heat absorbing support plate moves into the assembly box, the heat absorbing component can absorb the heat of the heat absorbing support plate. BRIEF DESCRIPTION OF THE DRAWINGS

[0014] Figure 1 It is an axonometric diagram of the present invention when the third cooling assembly is in a stored state; Figure 2 It is a front cross-sectional view of the present invention when the third cooling assembly is in a stored state; Figure 3is an axonometric diagram of the present invention when the third cooling assembly is in use; Figure 4 It is a front cross-sectional view of the present invention when the third cooling assembly is in use; Figure 5 It is an axial exploded view of the molding chamber in the present invention; Figure 6 It is a front cross-sectional view of the front cooling plate in the present invention; Figure 7 It is an axonometric exploded view of the first cooling assembly in the present invention; Figure 8 is an axonometric exploded view of the second cooling assembly in the present invention; Fig. 9 It is an axonometric diagram of the third cooling component and the heat absorption component in the present invention; Fig.10 It is an axonometric view of the heat absorbing support plate in the present invention; Fig.11 It is a front cross-sectional view of the heat absorbing support plate in the present invention; Fig.12 It is an axonometric view of the heat absorbing plate in the present invention; Fig.13 is an axonometric cross-sectional view of the heat absorbing plate in the present invention; Fig.14 It is an axonometric view of the position adjustment frame and the return spring in the present invention; Fig.15 It is a front cross-sectional view of the heat absorbing plate in the present invention when the heat absorbing support plate is not rotating; Fig.16 for Fig.15 The enlarged view of point A in the middle; Fig.17 It is a front cross-sectional view of the heat absorbing plate of the present invention after the heat absorbing support plate rotates; Fig.18 for Fig.17 The enlarged view of point B in the middle; Fig.19 is an axonometric exploded view of the first drive assembly in the present invention; Fig. 20 It is an axonometric view of the heat absorption component in the present invention.

[0015] Reference numerals include: Molding chamber, 11-side panel, 111-avoidance channel, 12-top cooling plate, 13-bottom cooling plate, 14-front cooling plate, 141-third cooling water channel, 15-force frame, 2-loading assembly, 3-load feedback assembly, 4-first cooling assembly, 41-outer sleeve, 42-inner sleeve, 43-first cooling water channel, 5-second cooling assembly, 51-upper cooling plate, 52-lower cooling plate, 53-second cooling water channel, 6-third cooling assembly, 61-heat absorbing support plate, 611-weight reduction cavity, 612-heat conducting support plate, 62-first drive assembly, 621-second cooling box, 622-drive plate, 6221-water dividing baffle, 6222-water inlet cavity , 6223-water outlet cavity, 623-water inlet hard pipe, 624-water outlet hard pipe, 625-rotating motor, 626-water inlet hose, 627-second water pump, 628-water outlet hose, 63-heat absorbing plate, 631-assembly cavity, 632-assembly hole, 64-second drive assembly, 641-position adjustment frame, 6411-transverse connecting rod, 64111-avoidance groove, 6412-vertical connecting rod, 6413-transverse adjusting rod, 64131-arc guide surface, 642-reset spring, 643-bearing ring, 644-pull rope, 7-assembly box, 8-heat absorbing assembly, 81-water storage tank, 82-first cooling box, 83-first water pump, 84-water pipe. DETAILED DESCRIPTION

[0016] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0017] Embodiment 1

[0018] See also Figure 1-20 The present invention provides a technical solution: a high-efficiency cooling system for high-temperature precision glass molding equipment, comprising a molding chamber 1, a loading component 2 and a load feedback component 3, a first cooling component 4 and a second cooling component 5. The first cooling component 4 is sleeved on the outer surface of the loading component 2 and can cool the loading component 2. The second cooling component 5 is arranged on the top of the load feedback component 3 and can cool the load feedback component 3.

[0019] See also Figure 1-7The first cooling assembly 4 includes an outer sleeve 41 and an inner sleeve 42, and a first cooling water path 43 is provided between the outer sleeve 41 and the inner sleeve 42. A water inlet and a water outlet are provided at the top of the outer sleeve 41, and external cooling water can continuously enter the first cooling water path 43 through the water inlet. The cooling water can absorb the heat generated by the loading assembly 2 through the outer sleeve 41 and the inner sleeve 42, and the cooling water after absorbing the heat is finally discharged through the water outlet.

[0020] See also Figure 1-8 The second cooling assembly 5 includes an upper cooling plate 51 and a lower cooling plate 52, and a second cooling water path 53 is provided between the upper cooling plate 51 and the lower cooling plate 52. A water inlet and a water outlet are provided at the bottom of the lower cooling plate 52, and external cooling water can continuously enter the second cooling water path 53 through the water inlet. The cooling water can absorb the heat generated by the load feedback assembly 3 through the upper cooling plate 51 and the lower cooling plate 52, and the cooling water after absorbing the heat is finally discharged through the water outlet.

[0021] See also Figure 1-8 The molding chamber 1 includes a side panel 11, a top cooling plate 12, a bottom cooling plate 13 and a front cooling plate 14. When the front cooling plate 14 is in a closed state, the molding chamber 1 has good airtightness and a vacuum environment can be formed inside. The top cooling plate 12, the bottom cooling plate 13 and the front cooling plate 14 are all provided with a third cooling water circuit 141, and a water inlet and a water outlet are provided on the side walls. When external cooling water enters the top cooling plate 12, the bottom cooling plate 13 and the front cooling plate 14 through the water inlet, the top cooling plate 12 can absorb heat from the loading component 2 and the side panel 11, and the bottom cooling plate 13 can absorb heat from the load feedback component 3. The water circuit inside the bottom cooling plate 13 is connected to the water circuit inside the lower cooling plate 52, so the lower cooling plate 52 obtains cooling water through the bottom cooling plate 13, and the front cooling plate 14 can absorb heat from the side panel 11 and the inside of the molding chamber 1. When the present invention is in use, the high-temperature precision glass molding equipment achieves an optimal cooling effect through the mutual cooperation of multiple cooling components, ensuring that the high-temperature precision glass molding equipment is always within the working temperature range.

[0022] Embodiment 2

[0023] Based on Example 1, please refer to Figure 1-9The present invention also includes two third cooling components 6, which are respectively arranged in two assembly boxes 7 on the left and right sides of the molding chamber 1. The interior of the assembly box 7 is connected to the interior of the molding chamber 1 through the avoidance channel 111 on the side wall of the side panel 11. The assembly box 7 has good sealing performance to ensure that external air does not enter the molding chamber 1 through the assembly box 7. The third cooling component 6 includes a heat absorbing support plate 61 and a first driving component 62. When the third cooling component 6 is not working, the third cooling component 6 is in a storage state, and the first driving component 62 drives the heat absorbing support plate 61 to be stored in the assembly box 7. When the third cooling component 6 is working, the first driving component 62 drives the heat absorbing support plate 61 to pass through the avoidance channel 111 and move into the molding chamber 1, and the heat absorbing support plate 61 absorbs the heat inside the molding chamber 1. When the heat absorbing support plate 61 absorbs enough heat, the first driving assembly 62 drives the heat absorbing support plate 61 back to the assembly box 7. After the heat absorbing support plate 61 releases heat and cools down, the first driving assembly 62 drives the heat absorbing support plate 61 again to move to the molding chamber 1 to continue absorbing heat. The first driving assembly 62 can drive the heat absorbing support plate 61 to reciprocate between the inside of the molding chamber 1 and the inside of the assembly box 7, so that the temperature inside the molding chamber 1 continues to decrease, ensuring that the high-temperature precision glass molding equipment is always within the working temperature range.

[0024] See also Figure 1-14 The third cooling assembly 6 further includes two heat absorbing plates 63 and two second driving assemblies 64. The output end of the first driving assembly 62 is connected to the heat absorbing plate 63. An assembly cavity 631 is provided inside the heat absorbing plate 63. A plurality of assembly holes 632 arranged in a matrix are provided on the outer convex surface of the heat absorbing plate 63. A heat absorbing support plate 61 is provided in each assembly hole 632. The bottom of the heat absorbing support plate 61 is hinged to the inner side wall of the assembly hole 632. The second driving assembly 64 is provided inside the assembly cavity 631.

[0025] See also Figure 1-14 , the first driving assembly 62 can drive the two heat absorbing plates 63 to rotate synchronously, so that the two heat absorbing plates 63 are both stored inside the assembly box 7, or the two heat absorbing plates 63 are respectively inside the molding chamber 1 and the assembly box 7. When the heat absorbing plate 63 is inside the molding chamber 1, the second driving assembly 64 works to drive the plurality of heat absorbing support plates 61 to rotate synchronously, and the heat absorbing support plates 61 rotate from the disposal state to the tilted state, and the heat absorbing plate 63 and the plurality of tilted heat absorbing support plates 61 complete the heat absorbing work together. When the heat absorbing plate 63 is inside the assembly box 7, the second driving assembly 64 does not work, and the tilted heat absorbing support plate 61 can automatically return to the vertical state, and the heat absorbing plate 63 and the plurality of tilted heat absorbing support plates 61 complete the heat release work together, waiting to enter the molding chamber 1 for the next heat absorbing work.

[0026] See also Figure 1-18The second driving assembly 64 includes a positioning frame 641, two return springs 642, a plurality of bearing rings 643 and a plurality of pull ropes 644. The positioning frame 641 includes a plurality of horizontal connecting rods 6411, two vertical connecting rods 6412 and a horizontal positioning rod 6413. The tops of both ends of the horizontal positioning rod 6413 are provided with arc-shaped guide surfaces 64131. A force frame 15 is provided on the top inner wall of the molding chamber 1 and on the left and right sides of the first cooling assembly 4. The bottom end height of the force frame 15 is lower than the top surface height of the horizontal positioning rod 6413.

[0027] See also Figure 1-18 In the process of the heat absorbing plate 63 gradually entering the molding chamber 1, the bottom end of the force applying frame 15 first contacts the arc-shaped guide surface 64131, and the force applying frame 15 slides along the arc-shaped guide surface 64131 to the top surface of the horizontal adjustment rod 6413, and applies pressure to the adjustment frame 641, so that the adjustment frame 641 moves downward, and the return spring 642 is compressed to store elastic potential energy. At this time, the horizontal connecting rod 6411 drives the first end of the pull rope 644 to move downward, and the bearing ring 643 provides support for the pull rope 644, and the pull rope 644 slides along the outer surface of the bearing ring 643. The second end of the pull rope 644 drives the bottom of the heat absorbing support plate 61 to move upward, so that the heat absorbing support plate 61 rotates. Since the pull rope 644 is in the avoidance groove 64111 on the side wall of the horizontal connecting rod 6411, the horizontal connecting rod 6411 will not hinder the movement of the pull rope 644.

[0028] See also Figure 1-18 As the heat absorbing plate 63 gradually enters the assembly box 7, the force applying frame 15 slides along the arc-shaped guide surface 64131 until it leaves the top surface of the horizontal adjustment rod 6413, and the return spring 642 releases its elastic potential energy and stretches, and the adjustment frame 641 moves upward. At this time, the horizontal connecting rod 6411 drives the first end of the pull rope 644 to move upward, and the heat absorbing support plate 61 can automatically rotate in the opposite direction under the action of gravity, return to the vertical state, and straighten the second end of the pull rope 644.

[0029] See also Figure 1-18 A weight-reducing cavity 611 is provided inside the top of the heat-absorbing support plate 61, so the density of the top and bottom of the heat-absorbing support plate 61 is different, ensuring that the heat-absorbing support plate 61 can smoothly rotate to a vertical state under the action of gravity. A heat-conducting support plate 612 is provided on the outer wall of the bottom of the heat-absorbing support plate 61. When the heat-absorbing support plate 61 rotates to an inclined state, the heat-conducting support plate 612 abuts against the inner wall of the assembly cavity 631, ensuring that the heat of the heat-absorbing support plate 61 can be transferred to the side wall of the heat-absorbing plate 63 close to the first driving assembly 62 through the heat-conducting support plate 612.

[0030] Embodiment 3

[0031] Based on Example 2, please refer to Figure 1-20 The present invention also includes two heat absorbing components 8, which are respectively arranged in two assembly boxes 7. The heat absorbing component 8 includes a water storage tank 81, a first cooling box 82, a first water pump 83 and a water pipe 84. When the heat absorbing plate 63 enters the assembly box 7, the outer convex surface of the heat absorbing plate 63 can fit with the inner concave surface of the first cooling box 82, and the first water pump 83 pumps the cooling water in the water storage tank 81 into the first cooling box 82. After the cooling water absorbs the heat of the heat absorbing plate 63 and a plurality of heat absorbing support plates 61 through the first cooling box 82, it is discharged back to the water storage tank 81 through the water pipe 84. When the temperature of the cooling water in the water storage tank 81 gradually increases, the cooling water in the water storage tank 81 can be discharged to the outside of the assembly box 7 through the water outlet on the side wall of the water storage tank 81, and the water inlet on the side wall of the water storage tank 81 continuously enters new cooling water with a lower temperature. (The water inlet and outlet on the water storage tank 81 are not shown in the figure.) See also Figure 1-20 The first driving assembly 62 includes two second cooling boxes 621, a driving disk 622, two water inlet hard pipes 623, two water outlet hard pipes 624, a rotating motor 625, two water inlet hoses 626, two second water pumps 627 and two water outlet hoses 628. The two second cooling boxes 621 are respectively fixedly arranged on the side walls of the two heat absorbing plates 63 close to each other. The interior of the driving disk 622 is a cavity, and a water dividing baffle 6221 is arranged inside the driving disk 622. The water dividing baffle 6221 divides the interior of the driving disk 622 into two water inlet chambers 6222 and two water outlet chambers 6223. The inner concave surfaces of the two second cooling boxes 621 are both provided with a water inlet hard pipe 623 and a water outlet hard pipe 624. The rotating motor 625 is fixedly arranged on the inner top surface of the assembly box 7, and the output end of the rotating motor 625 is connected to the driving disk 622. The first ends of the two water inlet hoses 626 are respectively connected to the two water inlet chambers 6222, and the second ends of the two water inlet hoses 626 are respectively connected to the water outlet end of a second water pump 627, and the water inlet end of the second water pump 627 is connected to the inside of the water storage tank 81. The first ends of the two water outlet hoses 628 are respectively connected to the two water outlet chambers 6223, and the second ends of the two water outlet hoses 628 are both connected to the inside of the water storage tank 81.

[0032] See also Figure 1-20When the first driving assembly 62 is working, the rotating motor 625 drives the driving disk 622 to rotate, and the second cooling box 621 can be driven to rotate through the water inlet hard pipe 623 and the water outlet hard pipe 624. The second cooling box 621 can drive the heat absorbing plate 63 to move together, so that the heat absorbing plate 63 moves into the molding chamber 1 or the assembly box 7. No matter where the heat absorbing plate 63 is, the second water pump 627 can pump the cooling water inside the water storage tank 81 into the water inlet cavity 6222 through the water inlet hose 626, and the cooling water in the water inlet cavity 6222 then enters the second cooling box 621 through the water inlet hard pipe 623. After the cooling water in the second cooling box 621 absorbs the heat of the heat absorbing plate 63, it is discharged into the water outlet cavity 6223 through the water outlet hard pipe 624, and then returns to the inside of the water storage tank 81 through the water outlet hose 628. In this embodiment, the rotating motor 625 drives the driving disk 622 to rotate 180° forward first and then 180° reversely, thereby driving the heat absorbing support plate 61 to reciprocate between the inside of the molding chamber 1 and the inside of the assembly box 7, wherein a plurality of heat absorbing support plates 61 on one side absorb heat while a plurality of heat absorbing support plates 61 on the other side release heat. In addition, since the driving disk 622 does not rotate 360°, the two water inlet hoses 626 and the two water outlet hoses 628 will not be entangled with each other. The two water inlet hoses 626 and the two water outlet hoses 628 are both of sufficient length, and the water inlet hoses 626 and the water outlet hoses 628 will not fall off.

[0033] It will be apparent to those skilled in the art that the invention is not limited to the details of the exemplary embodiments described above and that the invention can be implemented in other specific forms without departing from the spirit or essential features of the invention. Therefore, the embodiments should be considered exemplary and non-limiting in all respects, and the scope of the invention is defined by the appended claims rather than the foregoing description, and it is intended that all variations falling within the meaning and scope of the equivalent elements of the claims be included in the invention. Any reference numeral in a claim should not be considered as limiting the claim to which it relates.

[0034] In addition, it should be understood that although the present specification is described according to implementation modes, not every implementation mode contains only one independent technical solution. This description of the specification is only for the sake of clarity. Those skilled in the art should regard the specification as a whole. The technical solutions in each embodiment may also be appropriately combined to form other implementation modes that can be understood by those skilled in the art.

Claims

1. An efficient cooling system for high-temperature precision glass molding equipment, comprising a molding chamber, wherein a loading assembly and a load feedback assembly are respectively arranged on the top and bottom of the molding chamber, and an assembly box is fixedly arranged on the outer side walls on both sides of the molding chamber, characterized in that: Also includes: A first cooling assembly, sleeved on the outer surface of the loading assembly, the first cooling assembly comprising an outer sleeve and an inner sleeve, a first cooling water channel being provided between the outer sleeve and the inner sleeve; A second cooling assembly is arranged on the top of the load feedback assembly, the second cooling assembly comprises an upper cooling plate and a lower cooling plate, and a second cooling water channel is arranged between the upper cooling plate and the lower cooling plate; The third cooling assembly is respectively installed in the assembly boxes on both sides of the molding chamber.

2. The high-efficiency cooling system for high-temperature precision glass molding equipment according to claim 1 is characterized in that: The molding chamber comprises: A side panel, wherein the side panel is in a U-shaped structure, and an opening of the side panel faces forward; A top cooling plate, fixedly arranged on the top of the side panel; A bottom cooling plate, fixedly arranged at the bottom of the side panel; A front cooling plate is arranged at the front end of the side panel and is hinged to the front end of the side panel. A third cooling water channel is arranged inside the front cooling plate, inside the top cooling plate and inside the bottom cooling plate.

3. The high-efficiency cooling system for high-temperature precision glass molding equipment according to claim 2 is characterized in that: The two third cooling assemblies are respectively arranged in the two assembly boxes, and the structures are mirror-symmetrical. The two oppositely arranged side walls of the side panel are provided with avoidance channels, and the interior of the assembly box is connected with the interior of the molding chamber through the avoidance channels. The third cooling component includes a heat absorbing support plate and a first driving component. The position of the avoidance channel corresponds to the position of the heat absorbing support plate. The first driving component is used to drive the heat absorbing support plate to reciprocate between the inside of the molding chamber and the inside of the assembly box.

4. The high-efficiency cooling system for high-temperature precision glass molding equipment according to claim 3 is characterized in that: The third cooling assembly also includes: Two heat absorbing plates, the heat absorbing plates are arc-shaped plates, the first driving assembly is arranged between the two heat absorbing plates, the inner concave surface of the heat absorbing plate faces the first driving assembly, the output end of the first driving assembly is connected to the heat absorbing plate, the heat absorbing plate is provided with an assembly cavity inside, the outer convex surface of the heat absorbing plate is provided with a plurality of assembly holes arranged in a matrix, each of the assembly holes is provided with a heat absorbing support plate, and the bottom of the heat absorbing support plate is hinged to the inner side wall of the assembly hole; Two second driving components are respectively arranged inside the two assembly cavities, and the second driving components are used to drive a plurality of the heat absorbing support plates to rotate synchronously.

5. The high-efficiency cooling system for high-temperature precision glass molding equipment according to claim 4 is characterized in that: The second driving assembly comprises: The adjusting frame can slide along the inner wall of the assembly cavity, and the adjusting frame includes a plurality of transverse connecting rods, and the plurality of transverse connecting rods are evenly spaced from top to bottom, and both ends of the transverse connecting rod are provided with vertical connecting rods, and the transverse connecting rod is fixedly connected to the vertical connecting rod, and the assembly cavity passes through the top surface of the heat absorbing plate, and the top of the vertical connecting rod extends to the top of the heat absorbing plate and is fixedly connected to the transverse adjusting rod, and the tops of both ends of the transverse adjusting rod are provided with arc-shaped guide surfaces, and a force frame is respectively provided on the top inner wall of the molding chamber and on the left and right sides of the first cooling component, and the structures of the two force frames are mirror-symmetrical, and the bottom end height of the force frame is lower than the top surface height of the transverse adjusting rod, and when the heat absorbing plate is fully entered into the molding chamber, the transverse adjusting rod is located directly below the force frame; Two return springs are respectively arranged below the two ends of the transverse connecting rod at the bottom layer, and the two ends of the return spring are respectively fixedly connected to the heat absorbing plate and the transverse connecting rod; A plurality of carrying rings are fixedly arranged on the inner wall of the heat absorbing plate on one side close to the first driving component, and respectively correspond to the positions of the plurality of the heat absorbing support plates. A plurality of avoidance grooves are arranged on the side wall of the transverse connecting rod, and the plurality of avoidance grooves respectively correspond to the positions of the plurality of the carrying rings. A pull rope is arranged on the inner side of each of the carrying rings, and the two ends of the pull rope are respectively located on the inner and outer sides of the carrying ring. The first end of the pull rope is fixedly connected to the top surface of the most adjacent transverse connecting rod, and the second end of the pull rope passes through the avoidance groove and is fixedly connected to the bottom of the most adjacent heat absorbing support plate. The height of the first end of the pull rope is higher than that of the second end.

6. The high-efficiency cooling system for high-temperature precision glass molding equipment according to claim 5 is characterized in that: A weight-reducing cavity is provided inside the top of the heat-absorbing support plate, and a heat-conducting support plate is provided on the outer side wall of the bottom of the heat-absorbing support plate. The heat-conducting support plate is arranged on a side close to the first driving component.

7. The high-efficiency cooling system for high-temperature precision glass molding equipment according to claim 4, characterized in that: It also includes two heat absorbing components, which are respectively arranged in the two assembly boxes, and the heat absorbing components include: A water storage tank is fixedly arranged at the bottom of the assembly box, and the third cooling assembly is arranged above the water storage tank; A first cooling box, wherein the first cooling box is in an arc-shaped structure, and is arranged at a side away from the molding chamber, and an inner concave surface of the first cooling box faces the molding chamber, and the heat absorbing plate can slide along the outer side wall of the first cooling box, and when the heat absorbing plate is completely entered into the assembly box, the heat absorbing plate is in contact with the inner concave surface of the first cooling box; The first water pump is fixedly arranged on the top surface of the water storage tank, the water inlet end of the first water pump is connected with the interior of the water storage tank, the water outlet end of the first water pump is connected with the interior of the first cooling box, and the interior of the first cooling box is connected with the interior of the water storage tank through a water pipe.

8. The high-efficiency cooling system for high-temperature precision glass molding equipment according to claim 7, characterized in that: The first driving assembly comprises: Two second cooling boxes are respectively fixedly arranged on the side walls of the two heat absorbing plates close to each other, the second cooling boxes are in an arc-shaped structure, and the outer convex surface of the second cooling box is in contact with the inner concave surface of the heat absorbing plate; A driving disk is arranged between the two second cooling boxes, the interior of the driving disk is a cavity, a water dividing baffle is arranged inside the driving disk, the water dividing baffle divides the interior of the driving disk into two water inlet chambers and two water outlet chambers, a water inlet hard pipe and a water outlet hard pipe are arranged on the inner concave surfaces of the two second cooling boxes, the two water inlet chambers are respectively communicated with the interiors of the two second cooling boxes through the two water inlet hard pipes, and the two water outlet chambers are respectively communicated with the interiors of the two second cooling boxes through the two water outlet hard pipes; A rotating motor is fixedly arranged on the inner top surface of the assembly box, with the output end of the rotating motor facing downward and fixedly connected to the top surface of the driving disk; Two water inlet hoses are respectively arranged below the two water inlet chambers, the first ends of the two water inlet hoses are respectively communicated with the two water inlet chambers, the second ends of the two water inlet hoses are respectively communicated with the water outlet end of a second water pump, the second water pump is fixedly arranged on the top surface of the water storage tank, and the water inlet end of the second water pump is communicated with the interior of the water storage tank; Two water outlet hoses are respectively arranged below the two water outlet chambers, the first ends of the two water outlet hoses are respectively communicated with the two water outlet chambers, and the second ends of the two water outlet hoses are both communicated with the interior of the water storage tank.

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