Ceramic press mold with pressure feedback sensor

Abstract

The utility model provides a kind of ceramic press machine mould with pressure feedback sensor, support base, upper and lower die module, upper and lower die module is set in the upper of support base, upper and lower die module is used for processing ceramic press blank;Upper and lower die module includes support frame, support frame is connected with the top of support base, support frame below is provided with distribution upper die module, distribution upper die module below is provided with pressure feedback lower die module, multi-source ejection assembly, multi-source ejection assembly is set in the inboard of pressure feedback lower die module, multi-source ejection assembly is used for the ceramic press blank formed in pressure feedback lower die module is ejected.The utility model is detected, feedback by setting multiple pressure sensor one and pressure sensor two, the pressure that pressure feedback lower die module bears when mould is made, avoid the influence of too large or too small pressure on ceramic press blank forming, facilitate the forming of ceramic press blank, facilitate the use of mould;Multi-source ejection assembly can be used mechanical ejection and gas ejection cooperation, and ejection efficiency is higher.

Description

Technical Field

[0001] This utility model relates to the field of molds, and in particular to a ceramic blank press mold with a pressure feedback sensor. Background Technology

[0002] Mold making refers to the various molds and tools used in industrial production to obtain desired products through methods such as injection molding, blow molding, extrusion, die casting, forging, smelting, and stamping. In short, molds are important process equipment in industrial production used to shape products. Through a cavity or core of a specific shape, raw materials such as metals, plastics, rubber, and ceramics undergo physical or chemical changes under pressure, temperature, and other conditions to ultimately obtain parts or products with the desired shape, size, and properties. Molds are widely used in blanking, die forging, cold heading, extrusion, powder metallurgy part pressing, pressure casting, and compression molding or injection molding of engineering plastics, rubber, and ceramics. Molds have specific contours or internal cavity shapes. Using a contour shape with cutting edges allows the blank to be separated according to the contour line shape (blanking). Using the internal cavity shape allows the blank to obtain a corresponding three-dimensional shape. A mold generally consists of two parts: a moving mold and a fixed mold (or a punch and a die), which can be separated and joined. When separated, the part is removed; when joined, the blank is injected into the mold cavity for shaping. Molds are precision tools with complex shapes. They withstand the expansion force of blanks and have high requirements for structural strength, rigidity, surface hardness, surface roughness and machining accuracy. The development level of mold production is one of the important indicators of the level of mechanical manufacturing.

[0003] A ceramic blank press mold is a mold used to make ceramic blanks. In the Chinese utility model patent "Announcement No.: CN222135368U, Name: A Demolding Device for an Alumina Ceramic Dry Press", it is found that by installing a main body mechanism, multiple blanks in the mold can be easily ejected, which improves production efficiency and reduces the labor intensity of workers. However, in the above application and existing technology, the formed material is generally ejected by ejector pins. However, ejector pins are prone to breakage during use, or excessive force can damage the material, affecting the yield of ceramic blanks and the efficiency of ceramic blank production. Utility Model Content

[0004] The technical problem to be solved by this utility model is to overcome the defect of low material ejection efficiency in the prior art and to provide a ceramic compact mold with a pressure feedback sensor.

[0005] The present invention solves the above-mentioned technical problems through the following technical solution: This utility model provides a ceramic compact mold with a pressure feedback sensor, including a support base. Upper and lower modules are disposed above the support base and are used for processing ceramic blanks; The upper and lower modules include a support frame connected to the top of the support base. An upper distribution module is provided below the support frame, and a lower pressure feedback module is provided below the upper distribution module. The lower pressure feedback module is connected to the top of the support base. A lifting power assembly is provided, wherein the upper distribution module is slidably connected to the support frame via the lifting power assembly, and the lifting power assembly is used to control the height of the upper distribution module. A multi-source ejection assembly is disposed inside the pressure feedback module and is used to eject the ceramic blank formed inside the pressure feedback module.

[0006] In this technical solution, by setting multiple pressure sensors 1 and 2, the pressure borne by the module under pressure feedback during mold making can be detected and fed back, avoiding the influence of excessive or insufficient pressure on the ceramic compact forming, facilitating the forming of the ceramic compact, and facilitating the use of the mold. By using a multi-source ejection assembly, mechanical ejection and gas ejection can be combined, resulting in higher ejection efficiency. Furthermore, gas ejection can reduce the force exerted by mechanical ejection on the ceramic compact, preventing damage to the ceramic compact and thus avoiding affecting the yield of the ceramic compact, thereby improving the production efficiency of the ceramic compact.

[0007] Preferably, the support frame includes a top support block and support guide columns, with multiple support guide columns connected to the bottom of the top support block, and the bottom ends of the support guide columns connected to the top of the support base.

[0008] In this technical solution, a support frame can be used to support structures such as the lifting power component and the distributed upper module.

[0009] Preferably, the upper distribution module includes an upper mold body, an injection pipe connected to the top of the upper mold body, a distribution cavity provided in the inner cavity of the upper mold body, and the injection pipe and the distribution cavity are connected. The bottom surface of the upper mold body has multiple injection holes, which are connected to the inner cavity of the upper mold body.

[0010] In this technical solution, ceramic blanks can be produced by using a distributed upper module in conjunction with a pressure feedback lower module.

[0011] Preferably, the top of the inner cavity of the upper mold body is provided with an installation groove, and a heat-conducting plate is connected to the side wall of the installation groove; A preheating wire spool is provided above the heat-conducting plate, and the preheating wire spool is connected to the top wall of the mounting groove.

[0012] In this technical solution, the upper mold body can be preheated using a preheating wire disc, thereby improving the production efficiency of ceramic blanks.

[0013] Preferably, the lifting power assembly includes a lifting plate, the bottom of which is connected to a plurality of fixed columns, the bottom ends of which are connected to the top of the upper mold body; The top of the lifting plate is connected to a lifting device, and the top of the lifting device is connected to the bottom of the top support block.

[0014] In this technical solution, the position of the distributed modules can be adjusted by the lifting power component.

[0015] Preferably, two symmetrically distributed guide slides are connected to the front and rear sides of the lifting plate and the front and rear sides of the upper mold body, and the guide slides are slidably sleeved on the surface of the support guide column.

[0016] In this technical solution, the movement trajectory of distributed modules and other structures can be limited by using guide slides and support guide columns.

[0017] Preferably, the pressure feedback lower module includes a lower mold body, the bottom of which is connected to the top of the support base; The lower mold body is provided with a forming groove and a receiving cavity. Multiple pressure sensors are embedded in the bottom wall of the forming groove and multiple pressure sensors are embedded in the side wall of the forming groove. The accommodating cavity is equipped with a multi-source ejection assembly.

[0018] In this technical solution, the pressure feedback lower module, in conjunction with the distributed upper module, can produce ceramic blanks.

[0019] Preferably, a guide ring plate is connected to the top surface of the lower mold body, the guide ring plate is disposed below the upper mold body, a guide groove is opened on the bottom surface of the upper mold body, and a flexible sealing ring is connected to the top wall of the guide groove; The width of the blocking ring plate is smaller than the width of the guide groove.

[0020] In this technical solution, the blocking ring plate and guide groove are used to guide the mold closing of the upper mold body and the lower mold body.

[0021] Preferably, the multi-source ejection assembly includes an ejection plate disposed in the receiving cavity of the lower mold body, and an elastic sealing strip is connected to the side of the ejection plate, with the side of the elastic sealing strip away from the ejection plate connected to the inner wall of the receiving cavity of the lower mold body. The bottom of the ejector plate is connected to a telescopic device, and the bottom of the telescopic device is connected to the bottom wall of the accommodating cavity of the lower mold body; The top of the ejector plate is connected to multiple ejector pins, which are slidably connected through the bottom wall of the forming groove of the lower mold body.

[0022] In this technical solution, a multi-source ejection assembly can be used to demold ceramic blanks through a combination of mechanical ejection and gas ejection.

[0023] Preferably, the multi-source ejection assembly further includes an air source, which is connected to the top of the support base, and the outlet of the air source is connected to an air distribution pipeline, which is connected to the side of the lower mold body. The lower mold body has multiple entry holes on its side, and the accommodating cavity of the lower mold body is connected to the gas distribution pipeline. The bottom wall of the forming groove of the lower mold body is provided with multiple vertical outlet holes, and the side of the lower mold body is provided with multiple side outlet holes. The vertical outlet hole and the side outlet hole are respectively connected to the forming groove and the receiving cavity of the lower mold body.

[0024] In this technical solution, the gas source, vertical outlet hole and side outlet hole are used to assist in demolding the bottom and sides of the ceramic blank.

[0025] Based on common knowledge in the field, the above-mentioned preferred conditions can be combined arbitrarily to obtain various preferred embodiments of this utility model.

[0026] The positive and progressive effects of this utility model are as follows: This utility model can detect and provide feedback on the pressure borne by the module under pressure feedback during mold making by setting multiple pressure sensors 1 and 2, so as to avoid the influence of excessive or insufficient pressure on the ceramic blank forming, facilitate the forming of ceramic blanks, and facilitate the use of molds. The multi-source ejection assembly can combine mechanical ejection and gas ejection, resulting in higher ejection efficiency. Furthermore, gas ejection can reduce the force exerted by mechanical ejection on the ceramic compact, preventing damage to the ceramic compact and thus improving the yield of the ceramic compact and increasing the production efficiency of the ceramic compact. Furthermore, the position of the spray pipe can be adjusted by the retractable components and other structures, allowing the spray pipe to extend and retract. When the spray pipe extends, it can spray release agent into the lower mold body, making the spraying of release agent more comprehensive and convenient. Thus, the release agent is used to assist in the demolding of ceramic blanks, further improving the demolding efficiency of ceramic blanks. Attached Figure Description

[0027] Figure 1 This is a schematic diagram of the structure of a ceramic blank press mold with a pressure feedback sensor according to an embodiment of the present invention.

[0028] Figure 2 for Figure 1 The diagram shows the overall three-dimensional structure of a ceramic compact mold with a pressure feedback sensor.

[0029] Figure 3 for Figure 1 The diagram shows the overall internal structure of a ceramic compact die with a pressure feedback sensor.

[0030] Figure 4 for Figure 1 The diagram shows a side view of the internal structure of the pressure feedback lower module of a ceramic compact die with a pressure feedback sensor.

[0031] Figure 5 for Figure 3 The diagram shows a partially enlarged view of point A of the ceramic compact die with a pressure feedback sensor.

[0032] Figure 6 for Figure 3 The diagram shows a partially enlarged view of point B of the ceramic compact die with a pressure feedback sensor.

[0033] Figure 7 for Figure 1 The diagram shows a top view of the unfolding and retracting assembly of a ceramic compact die with a pressure feedback sensor.

[0034] Explanation of reference numerals in the attached figures 1. Support base; 2. Support frame; 21. Top support block; 22. Support guide column; 3. Upper mold assembly; 31. Upper mold body; 32. Injection piping; 33. Distribution cavity; 34. Heat-conducting plate; 35. Preheating coil; 4. Pressure feedback lower module; 41. Lower mold body; 42. Pressure sensor one; 43. Pressure sensor two; 44. Resistance ring plate; 45. Guide groove; 46. Flexible sealing ring; 5. Lifting power assembly; 51. Lifting platform; 52. Fixing column; 53. Lifting device; 54. Guide slide plate; 6. Multi-source ejection assembly; 61. Ejection plate; 62. Elastic sealing strip; 63. Telescopic device; 64. Ejector pin; 65. Air source; 66. Air distribution pipeline; 67. Inlet hole; 68. Vertical outlet hole; 69. Side outlet hole; 7. Fixed frame; 8. Retraction and extension assembly; 81. Cross connector; 82. Rotary seat; 83. Sliding guide plate; 84. Guide column; 85. Moving plate; 86. Two-way stud; 87. Drive source; 88. Anti-deviation rail; 9. Mobile frame; 10. Reinforce the support structure; 11. Spray supply assembly; 111. Storage tank; 112. Spray pump; 113. Liquid inlet pipe; 114. Liquid outlet hose; 115. Spray pipe. Detailed Implementation

[0035] The present invention will be further illustrated by way of embodiments below, but the present invention is not limited to the scope of the embodiments described herein.

[0036] Figures 1 to 7 The diagram shown is a structural schematic of an embodiment of the ceramic pressing machine mold with pressure feedback sensor of this utility model. The ceramic pressing machine mold with pressure feedback sensor includes a support base 1. Upper and lower modules are disposed above the support base 1 and are used for processing ceramic blanks; The upper and lower modules include a support frame 2, which is connected to the top of the support base 1. A distribution upper module 3 is provided below the support frame 2, and a pressure feedback lower module 4 is provided below the distribution upper module 3. The pressure feedback lower module 4 is connected to the top of the support base 1. The lifting power component 5 is used to control the height of the distribution module 3; A multi-source ejection assembly 6 is disposed inside the pressure feedback module 4, and is used to eject the ceramic blank formed inside the pressure feedback module 4.

[0037] In this technical solution, by setting multiple pressure sensors 42 and 43, the pressure borne by module 4 under pressure feedback during mold making can be detected and fed back, avoiding the influence of excessive or insufficient pressure on the ceramic blank forming, facilitating the forming of ceramic blanks, and facilitating the use of molds. The multi-source ejection component 6 can utilize a combination of mechanical ejection and gas ejection, resulting in higher ejection efficiency. Furthermore, gas ejection can reduce the force exerted by mechanical ejection on the ceramic compact, preventing damage to the ceramic compact and thus avoiding affecting the yield of the ceramic compact, thereby improving the production efficiency of the ceramic compact.

[0038] The support frame 2 includes a top support block 21 and support guide columns 22. The bottom of the top support block 21 is connected to a plurality of support guide columns 22, and the bottom end of the support guide columns 22 is connected to the top of the support base 1.

[0039] In this technical solution, the support frame 2 can be used to support the lifting power component 5 and the distributed upper module 3 and other structures.

[0040] The upper module 3 includes an upper mold body 31, and the top of the upper mold body 31 is connected to an injection pipe 32. In use, the injection pipe 32 is connected to the raw material injection system.

[0041] A distribution cavity 33 is provided in the inner cavity of the upper mold body 31, and the injection pipeline 32 is connected to the distribution cavity 33. The bottom surface of the upper mold body 31 is provided with a plurality of injection holes, which are connected to the inner cavity of the upper mold body 31.

[0042] In this technical solution, ceramic blanks can be produced by using the upper distributed module 3 in conjunction with the lower pressure feedback module 4.

[0043] The upper mold body 31 has an installation groove at the top of its inner cavity, and a heat-conducting plate 34 is connected to the side wall of the installation groove. A preheating wire disc 35 is provided above the heat-conducting plate 34, and the preheating wire disc 35 is connected to the top wall of the mounting groove.

[0044] In this technical solution, the preheating wire disc 35 can be used to preheat the upper mold body 31, thereby improving the production efficiency of ceramic blanks.

[0045] The lifting power assembly 5 includes a lifting plate 51, and a plurality of fixed columns 52 are connected to the bottom of the lifting plate 51. The bottom end of the fixed columns 52 is connected to the top of the upper mold body 31. The top of the lifting plate 51 is connected to a lifting device 53, and the top of the lifting device 53 is connected to the bottom of the top support block 21.

[0046] In this technical solution, the position of the distributed upper module 3 can be adjusted by the lifting power component 5.

[0047] The lifting plate 51 and the upper mold body 31 are each connected to two symmetrically distributed guide slide plates 54, which are slidably sleeved on the surface of the support guide column 22.

[0048] In this technical solution, the guide slide plate 54 and the support guide post 22 can be used to limit the movement trajectory of the distributed upper module 3 and other structures.

[0049] The pressure feedback lower module 4 includes a lower mold body 41, the bottom of which is connected to the top of the support base 1; The lower mold body 41 is provided with a forming groove and a receiving cavity. Multiple pressure sensors 42 are embedded in the bottom wall of the forming groove, and multiple pressure sensors 43 are embedded in the side wall of the forming groove. During installation, after pressure sensor 1 42 and pressure sensor 2 43 are embedded into the inner wall of the lower mold body 41, they are fixed with high-temperature resistant adhesives such as alumina ceramic adhesive, and the orifices are sealed with threaded plugs.

[0050] The accommodating cavity is provided with a multi-source ejection assembly 6.

[0051] In this technical solution, the pressure feedback lower module 4, in conjunction with the upper module 3, can produce ceramic blanks.

[0052] The top surface of the lower mold body 41 is connected to a guide ring plate 44, the guide ring plate 44 is disposed below the upper mold body 31, the bottom surface of the upper mold body 31 is provided with a guide groove 45, and the top wall of the guide groove 45 is connected to a flexible sealing ring 46. The width of the guide ring plate 44 is smaller than the width of the guide groove 45.

[0053] In this technical solution, the blocking ring plate 44 and the guide groove 45 are used to guide the mold closing of the upper mold body 31 and the lower mold body 41.

[0054] During manufacturing, the lifting device 53 is used to drive the lifting plate 51 to move down, thereby driving the fixed column 52 and the upper mold body 31 to move in the same direction. When the fixed column 52 and the upper mold body 31 move, the guide slide plate 54 moves in the same direction along the support guide column 22, so that the bottom of the upper mold body 31 is close to the bottom of the lower mold body 41 until the upper mold body 31 and the lower mold body 41 are in contact with each other. Then, the preheating spool 35 is used to heat the upper mold body 31. At the same time, the injection system and injection pipeline 32 are used to inject material into the distribution cavity 33. The heat from the preheating spool 35 can prevent the slurry entering the upper mold body 31 from getting cold and affecting normal flow. Then the slurry in the distribution cavity 33 enters the lower mold body 41 through the injection hole. The setting of multiple injection holes makes the injection more uniform and faster. Then, the lifting device 53 and the upper mold body 31 cooperate with the lower mold body 41 to form the ceramic blank; In the above process, pressure sensor 42 and pressure sensor 43 can detect pressure and provide feedback, which can improve the uniformity of the density of the pressed billet and reduce cracking defects.

[0055] The multi-source ejection assembly 6 includes an ejection plate 61, which is disposed in the accommodating cavity of the lower mold body 41. An elastic sealing strip 62 is connected to the side of the ejection plate 61, and the side of the elastic sealing strip 62 away from the ejection plate 61 is connected to the inner wall of the accommodating cavity of the lower mold body 41. The bottom of the ejector plate 61 is connected to a telescopic device 63, and the bottom of the telescopic device 63 is connected to the bottom wall of the accommodating cavity of the lower mold body 41. The top of the ejector plate 61 is connected to a plurality of ejector pins 64, which are slidably connected through the bottom wall of the forming groove of the lower mold body 41.

[0056] In this technical solution, the multi-source ejection component 6 can be used to demold the ceramic blank through a combination of mechanical ejection and gas ejection.

[0057] The multi-source ejection assembly 6 also includes an air source 65, which is connected to the top of the support base 1. The outlet of the air source 65 is connected to an air distribution pipe 66, which is connected to the side of the lower mold body 41. The lower mold body 41 has multiple inlet holes 67 on its side, and the accommodating cavity of the lower mold body 41 is connected to the gas distribution pipeline 66. The bottom wall of the forming groove of the lower mold body 41 is provided with a plurality of vertical outlet holes 68, and the side of the lower mold body 41 is provided with a plurality of side outlet holes 69. The vertical outlet hole 68 and the side outlet hole 69 are respectively connected to the forming groove and the receiving cavity of the lower mold body 41.

[0058] In this technical solution, the gas source 65, the vertical outlet hole 68, and the side outlet hole 69 are used to assist in demolding the bottom and sides of the ceramic blank.

[0059] During demolding, the lifting power component 5 drives the upper distribution module 3 to move upward, and then the telescopic device 63 drives the ejector plate 61 to move upward, thereby driving the ejector pin 64 to move in the same direction, and using the ejector pin 64 to eject the ceramic blank in the lower mold body 41. Simultaneously, the gas source 65, gas distribution pipe 66, and inlet hole 67 are used to inject the material into the accommodating cavity of the lower mold body 41. Then, air is blown from the bottom into the lower mold body 41 through the vertical outlet hole 68 and from the side outlet hole 69 into the lower mold body 41, which loosens the ceramic blank and makes it easier for the bottom air blowing and the ejector pin 64 to eject the ceramic blank in the lower mold body 41, thereby improving the efficiency of mold demolding. Example

[0060] As one embodiment of this application, its difference from other embodiments is that spraying units are respectively provided on both sides of the upper and lower modules, and the two spraying units are respectively connected to the top of the support base 1; The spraying unit includes a fixed frame 7 and a movable frame 9, which are connected by a retraction assembly 8. The bottom of the fixed frame 7 is connected to two symmetrically distributed reinforcing brackets 10, and the top of the fixed frame 7 and the sides of the movable frame 9 are respectively connected to the spray supply assembly 11.

[0061] The retractable assembly 8 includes a cross connecting frame 81, with a rotating seat 82 rotatably connected to each of the two ends of the cross connecting frame 81. One of the rotating seats 82 is connected to one side of the sliding guide plate 83. The sliding guide plate 83 is slidably sleeved on the surface of the guide post 84. Both ends of the guide post 84 are respectively connected to the inner wall of the movable frame 9. The rotating seat 82 on the other side is connected to one side of the movable plate 85. The movable plate 85 is threaded to the surface of the bidirectional stud 86. One end of the bidirectional stud 86 is rotatably connected to one side of the fixed frame 7. The other end of the bidirectional stud 86 is rotatably connected to the other side of the fixed frame 7. The end of the bidirectional stud 86 away from the fixed frame 7 is connected to the output end of the drive source 87. The drive source 87 is connected to the outside of the fixed frame 7.

[0062] The surface of the bidirectional stud 86 is threaded with two symmetrically distributed movable plates 85; The inner wall of the fixed frame 7 is connected to a plurality of anti-deviation rails 88, and the surface of the anti-deviation rails 88 is slidably connected to the movable plate 85.

[0063] The cross-connecting frame 81 is composed of two intersecting fixed bars, the center of each fixed bar is rotatably connected to a pin, and both ends of each fixed bar are rotatably connected to a rotating seat 82. The rotating seat 82 is composed of a central shaft and side plates. The side plates are connected to both ends of the central shaft. The surface of the central shaft is rotatably connected to the fixed strip. The side plates are connected to one side of the sliding guide plate 83 or the moving plate 85.

[0064] The spray supply assembly 11 includes a storage tank 111 and a spray pump 112. The storage tank 111 is connected to the top of the support base 1, and the spray pump 112 is connected to the top of the fixed frame 7. The inlet end of the spraying pump 112 is connected to an inlet pipe 113. The end of the inlet pipe 113 away from the spraying pump 112 extends into the inner cavity of the storage tank 111. The outlet end of the spraying pump 112 is connected to an outlet hose 114. The end of the outlet hose 114 away from the spraying pump 112 is connected to a spraying pipe 115. One side of the spraying pipe 115 is connected to one side of the movable frame 9. Multiple spraying ports are installed at the bottom of the spraying pipe 115.

[0065] Before using the mold to make ceramic blanks, the drive source 87 drives the bidirectional stud 86 to rotate. When the bidirectional stud 86 rotates, it drives the moving plates 85 on both sides to move towards or away from each other along the anti-deviation track 88. At this time, under the action of the rotating seat 82, the cross connecting frame 81 rotates, thereby driving the moving frame 9 to move, and then driving the spray pipe 115 to move in the same direction. When the spray pipe 115 moves to the upper part of the lower mold body 41, the release agent in the storage tank 111 is introduced into the spray pump 112 from the liquid inlet pipe 113, and then sent into the liquid outlet hose 114 and the spray pipe 115. It is then sprayed into the lower mold body 41 through the spray port, so that the release agent is sprayed while the spray pipe 115 is above the lower mold body 41. When the spray pipe 115 moves to the middle of the lower mold body 41, the spray pipe 115 and other structures return in the opposite way to their initial positions, and then the ceramic blank is made.

[0066] The lifting device 53 and the telescopic device 63 are hydraulic lifting cylinders or other devices with autonomous telescopic functions.

[0067] The drive source 87 is a motor set or other device that can output rotational kinetic energy.

[0068] While specific embodiments of this utility model have been described above, those skilled in the art should understand that these are merely illustrative examples, and the scope of protection of this utility model is defined by the appended claims. Those skilled in the art can make various changes or modifications to these embodiments without departing from the principles and essence of this utility model, but all such changes and modifications fall within the scope of protection of this utility model.

Claims

1. A ceramic compact mold with a pressure feedback sensor, comprising a support base (1), characterized in that, The ceramic blank press mold with pressure feedback sensor also includes: upper and lower modules, which are arranged above the support base (1) and are used to process ceramic blanks; The upper and lower modules include a support frame (2), the support frame (2) is connected to the top of the support base (1), a distribution upper module (3) is provided below the support frame (2), a pressure feedback lower module (4) is provided below the distribution upper module (3), and the pressure feedback lower module (4) is connected to the top of the support base (1). The lifting power assembly (5) is used to control the height of the distribution module (3). The distribution module (3) is slidably connected to the support frame (2) through the lifting power assembly (5). Multi-source ejection assembly (6) is disposed inside the pressure feedback module (4) and is used to eject the ceramic blank formed inside the pressure feedback module (4). The multi-source ejection assembly (6) includes an ejection plate (61), which is disposed in the accommodating cavity of the lower mold body (41). An elastic sealing strip (62) is connected to the side of the ejection plate (61), and the side of the elastic sealing strip (62) away from the ejection plate (61) is connected to the inner wall of the accommodating cavity of the lower mold body (41). The bottom of the ejector plate (61) is connected to a telescopic device (63), and the bottom of the telescopic device (63) is connected to the bottom wall of the accommodating cavity of the lower mold body (41). The top of the ejector plate (61) is connected to a plurality of ejector pins (64), and the ejector pins (64) are slidably connected through the bottom wall of the forming groove of the lower mold body (41). The multi-source ejection assembly (6) also includes an air source (65), which is connected to the top of the support base (1). The outlet of the air source (65) is connected to the air distribution pipe (66), which is connected to the side of the lower mold body (41). The lower mold body (41) has multiple inlet holes (67) on its side, and the accommodating cavity of the lower mold body (41) is connected to the gas distribution pipeline (66). The bottom wall of the forming groove of the lower mold body (41) is provided with multiple vertical outlet holes (68), and the side of the lower mold body (41) is provided with multiple side outlet holes (69). The vertical outlet hole (68) and the side outlet hole (69) are respectively connected to the molding groove and the receiving cavity of the lower mold body (41).

2. The ceramic compact die with pressure feedback sensor as described in claim 1, characterized in that: The support frame (2) includes a top support block (21) and support guide columns (22). The bottom of the top support block (21) is connected to multiple support guide columns (22), and the bottom end of the support guide columns (22) is connected to the top of the support base (1).

3. The ceramic compact die with pressure feedback sensor as described in claim 1, characterized in that: The upper distribution module (3) includes an upper mold body (31), the top of the upper mold body (31) is connected to an injection pipe (32), and a distribution cavity (33) is provided in the inner cavity of the upper mold body (31). The injection pipe (32) and the distribution cavity (33) are connected. The bottom surface of the upper mold body (31) is provided with a plurality of injection holes, which are connected to the inner cavity of the upper mold body (31).

4. The ceramic compact die with pressure feedback sensor as described in claim 3, characterized in that: The upper mold body (31) has an installation groove at the top of its inner cavity, and a heat-conducting plate (34) is connected to the side wall of the installation groove. A preheating wire disc (35) is provided above the heat-conducting plate (34), and the preheating wire disc (35) is connected to the top wall of the mounting groove.

5. The ceramic compact die with pressure feedback sensor as described in claim 1, characterized in that: The lifting power assembly (5) includes a lifting plate (51), and a plurality of fixed columns (52) are connected to the bottom of the lifting plate (51). The bottom end of the fixed column (52) is connected to the top of the upper mold body (31). The top of the lifting plate (51) is connected to a lifting device (53), and the top of the lifting device (53) is connected to the bottom of the top support block (21).

6. The ceramic compact die with pressure feedback sensor as described in claim 5, characterized in that: The lifting plate (51) and the upper mold body (31) are connected to two symmetrically distributed guide slides (54), which are slidably sleeved on the surface of the support guide column (22).

7. The ceramic compact die with pressure feedback sensor as described in claim 1, characterized in that: The pressure feedback lower module (4) includes a lower mold body (41), the bottom of which is connected to the top of the support base (1); The lower mold body (41) is provided with a molding groove and a receiving cavity. Multiple pressure sensors (42) are embedded in the bottom wall of the molding groove, and multiple pressure sensors (43) are embedded in the side wall of the molding groove. The accommodating cavity is provided with a multi-source ejection assembly (6).

8. The ceramic compact die with pressure feedback sensor as described in claim 7, characterized in that: The lower mold body (41) is connected to a guide ring plate (44) on its top surface. The guide ring plate (44) is located below the upper mold body (31). The bottom surface of the upper mold body (31) is provided with a guide groove (45). The top wall of the guide groove (45) is connected with a flexible sealing ring (46). The width of the blocking ring plate (44) is smaller than the width of the guide groove (45).

Images