Self-adaptive adjustment cordierite honeycomb ceramic forming equipment

Abstract

The invention discloses self-adaptive adjustment cordierite honeycomb ceramic forming equipment, and relates to the field of cordierite honeycomb ceramic forming processing. The device comprises a forming mechanism and a receiving and cutting mechanism, and the forming mechanism stably supports an extrusion forming device through an L-shaped supporting frame; the bearing cutting mechanism comprises a bearing base, a supporting assembly, an angle adjusting assembly, a position adjusting assembly and a cutting part, the supporting assembly supports the position adjusting assembly through an L-shaped mounting base, the position adjusting assembly can flexibly adjust the spatial position of the angle adjusting assembly, and the angle adjusting assembly can adjust the overall or local bearing angle of the bearing table; and the cutting component can synchronously complete cutting. The equipment solves the problems that existing equipment is unstable in supporting, inflexible in adjustment, low in machining efficiency and the like, and the forming precision, the adaptability and the machining efficiency are improved.

Description

Technical Field

[0001] This invention relates to the field of cordierite honeycomb ceramic forming and processing technology, and more specifically to an adaptively adjustable cordierite honeycomb ceramic forming device. Background Technology

[0002] In the field of cordierite honeycomb ceramic molding and processing, existing molding equipment generally suffers from several technical pain points: First, the support structure lacks stability. Extrusion molding components often vibrate or shift during molding due to insufficient support rigidity, leading to deviations in the dimensional accuracy of honeycomb ceramic extrusion and affecting product quality. Second, the spatial position adjustment flexibility of the receiving components is poor, mostly involving translation in a single direction or fixed angle adjustment, making it difficult to accurately adapt to subtle changes in the extrusion path, easily resulting in misalignment and damage to the green body. Third, the receiving angle adjustment method is singular, mostly involving overall angle adjustment, unable to make fine adjustments to local angles for different extrusion directions or green body shapes, resulting in poor adaptability. Fourth, the molding and cutting stages are mostly designed separately, requiring manual or additional equipment to transport the green body for cutting, which not only increases processing steps and time costs but may also cause deformation of the green body during transport. Fifth, the overall structural coordination is insufficient, with low precision in the movement of various components, easily affecting the continuity of molding due to lag in position or angle adjustment, resulting in low production efficiency and low product qualification rate.

[0003] To address the aforementioned issues, an adaptive adjustment cordierite honeycomb ceramic molding device is proposed. Summary of the Invention

[0004] In view of the shortcomings of the existing technology, the purpose of this invention is to provide an adaptive adjustment cordierite honeycomb ceramic molding device.

[0005] To achieve the above objectives, the present invention provides the following technical solution:

[0006] As a further improvement of the present invention, it includes: a forming mechanism and a receiving and cutting mechanism;

[0007] The forming mechanism includes a support frame with an L-shaped side projection, and an extruder for extruding honeycomb ceramics is fixedly installed on one end of the support frame.

[0008] The receiving and cutting mechanism includes a bearing base, a support component, an angle adjustment component, and a position adjustment component. The support component is fixedly mounted on the upper surface of the bearing base. The support component includes a mounting seat fixedly mounted on the bearing base. The side projection of the mounting seat is L-shaped. A position adjustment component is fixedly mounted on the mounting seat. An angle adjustment component is fixedly mounted on the position adjustment component. The position adjustment component includes a position drive cylinder. The position adjustment component is used to adjust the spatial position of the angle adjustment component by driving the position drive cylinder. The angle adjustment component includes a receiving platform. The angle adjustment component is used to adjust the receiving angle of the receiving platform.

[0009] Preferably, the position adjustment assembly further includes a triangular support fixedly mounted on the mounting base. The triangular support has three ends, each of which is hinged with a swing arm. The position drive cylinder is fixedly mounted on the end and is used to drive the swing arm to rotate.

[0010] Preferably, a through hole is provided on the other end of the swing arm, and a connecting shaft is rotatably provided in the through hole. A support rod is fixedly provided at one end of the connecting shaft, and a balance bar is fixedly provided at the other end of the support rod. The two ends of the balance bar are respectively fixedly connected to the other ends of the two support rods.

[0011] Preferably, a universal joint is fitted at the center of the outer periphery of the balance bar, and the universal joint is rotatably connected to the balance bar; the position adjustment assembly also includes a linkage seat, which is located between the three universal joints, and the adjacent ends of the three universal joints are all connected to the outer periphery of the linkage seat.

[0012] Preferably, the angle adjustment assembly includes a first adjustment drive, a second adjustment drive, and a third adjustment drive that are evenly distributed circumferentially along the axis on the upper surface of the linkage seat. The top ends of the first adjustment drive, the second adjustment drive, and the third adjustment drive are respectively fixedly connected to a first drive gear a, a second drive gear a, and a third drive gear a.

[0013] Preferably, a central support column is fixedly provided at the center of the upper end face of the linkage seat, a second driven gear b is rotatably provided at the top of the central support column, a first driven gear b is rotatably provided on the second driven gear b, and a third driven gear b is rotatably provided on the first driven gear b; the first drive gear a, the second drive gear a and the third drive gear a respectively mesh with the first driven gear b, the second driven gear b and the third driven gear b.

[0014] Preferably, the angle adjustment assembly further includes a second angle adjustment rod, a first angle adjustment rod, and a third angle adjustment rod; the second angle adjustment rod passes through the third driven gear b and the first driven gear b, and its bottom outer periphery is fixedly connected to the inner periphery of the second driven gear b; the first angle adjustment rod is sleeved on the outer periphery of the second angle adjustment rod, its bottom end passes through the third driven gear b, and its outer periphery is fixedly connected to the inner periphery of the first driven gear b; the bottom end of the third angle adjustment rod passes through the first angle adjustment rod and the second angle adjustment rod, and its bottom outer periphery is fixedly connected to the inner periphery of the third driven gear b.

[0015] Preferably, a mounting hole is provided on the other end of the mounting base away from the position adjustment component, and a cutting shaft is rotatably mounted in the mounting hole. A cutting drive motor is fixedly mounted on this end of the mounting base. The output end of the cutting drive motor is connected to one end of the cutting shaft and is used to drive the cutting shaft to rotate. A blade for cutting honeycomb ceramics is fixedly mounted on the outer periphery of the other end of the cutting shaft.

[0016] The beneficial effects of this invention are:

[0017] This invention ensures the stability of the honeycomb ceramic extrusion molding process by providing stable support to the extruder through an L-shaped support frame in the molding mechanism. In the receiving and cutting mechanism, the position adjustment component, with the aid of a drive unit, can flexibly achieve spatial translation, lifting, or fine-tuning of the angle adjustment component, ensuring that the receiving platform is accurately aligned with the extrusion path. The angle adjustment component, through the coordinated or individual action of multiple adjustment drive components, combined with gears, connecting rods, and other structures, can flexibly adjust the overall or partial angle of the receiving platform to adapt to different extrusion directions. Simultaneously, the cutting drive motor on the mounting base drives the blade to rotate, completing the cutting operation synchronously during the receiving process. This integrated design effectively improves processing efficiency. In the overall structure, the L-shaped support component and other elements enhance the stability of the equipment, and the coordinated work of each part achieves precise coordination of molding, receiving, and cutting, significantly improving the adaptability and reliability of the molding process. Attached Figure Description

[0018] Figure 1 This is a schematic diagram of the isometric structure of the present invention;

[0019] Figure 2 For the present invention Figure 1 Schematic diagram of a partial structure;

[0020] Figure 3 This is a schematic diagram of the dynamic position adjustment component structure of the present invention;

[0021] Figure 4 For the present invention Figure 3 Partial structural diagram;

[0022] Figure 5 This is a schematic diagram of the angle adjustment component of the present invention;

[0023] Figure 6 For the present invention Figure 5 A magnified schematic diagram of the structure at point A in the middle.

[0024] Explanation of reference numerals in the attached drawings: 100, forming mechanism; 101, extrusion molding machine; 102, support frame;

[0025] 200. Cutting mechanism; 201. Support base; 202. Support assembly; 2021. Mounting base; 2022. Cutting shaft; 2023. Cutting drive motor; 203. Angle adjustment assembly; 2031. First adjustment drive component; 2031a. First drive gear; 2032. Second adjustment drive component; 2032a. Second drive gear; 2033. Third adjustment drive component; 2033a. Third drive gear; 2034. Central support column; 2032b. Second driven gear; 2031b. First driven gear; 20 33b. Third driven gear; 2035. Second angle adjusting rod; 2036. First angle adjusting rod; 2037. Third angle adjusting rod; 2035a. Second angle connecting rod; 2036a. First angle connecting rod; 2037a. Third angle connecting rod; 2038. Receiving platform; 204. Position adjusting assembly; 2041. Triangular support seat; 2042. Position drive cylinder; 2043. Swing arm; 2044. Connecting shaft; 2045. Support connecting rod; 2046. Balance bar; 2047. Universal joint; 2048. Linkage seat. Detailed Implementation

[0026] To make the objectives, technical solutions, and advantages of the embodiments of this disclosure clearer, the technical solutions of the embodiments of this disclosure will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only a part of the embodiments of this disclosure, and not all of them. The components of the embodiments of this disclosure described and shown herein can generally be arranged and designed in various different configurations. Therefore, the following detailed description of the embodiments of this disclosure is not intended to limit the scope of the claimed disclosure, but merely represents selected embodiments of this disclosure. All other embodiments obtained by those skilled in the art based on the embodiments of this disclosure without inventive effort are within the scope of protection of this disclosure.

[0027] Example 1

[0028] refer to Figures 1-6 The image shows a specific embodiment of an adaptively adjustable cordierite honeycomb ceramic forming device of the present invention, which includes a forming mechanism 100 and a receiving and cutting mechanism 200.

[0029] The molding mechanism 100 includes a support frame 102 with an L-shaped side projection, and an extruder 101 for extruding honeycomb ceramics is fixedly provided on one end of the support frame 102.

[0030] The receiving and cutting mechanism 200 includes a bearing base 201, a support component 202, an angle adjustment component 203, and a position adjustment component 204. The support component 202 is fixedly disposed on the upper end face of the bearing base 201. The support component 202 includes a mounting seat 2021 fixedly mounted on the bearing base 201. The side projection of the mounting seat 2021 is L-shaped. The position adjustment component 204 is fixedly disposed on the mounting seat 2021. The angle adjustment component 203 is fixedly disposed on the position adjustment component 204. The position adjustment component 204 includes a position drive cylinder 2042. The position adjustment component 204 is used to adjust the spatial position of the angle adjustment component 203 by driving the position drive cylinder 2042. The angle adjustment component 203 includes a receiving platform 2038. The angle adjustment component 203 is used to adjust the receiving angle of the receiving platform 2038.

[0031] In the molding mechanism 100, an L-shaped support frame 102 in the side projection of the forming mechanism 100 fixes and supports the extruder 101 used for honeycomb ceramic extrusion molding, placing it in a preset working posture. In the receiving and cutting mechanism 200, the support base 201 serves as the foundation to support the support component 202 on its upper surface. The support component 202 is stably supported by the position adjustment component 204 through the mounting seat 2021, which is fixedly installed on the support base 201 and has an L-shaped side projection. The position adjustment component 204 carries the angle adjustment component 203 and the receiving platform 2038 to complete the initial positioning. Subsequently, the position adjustment component 204 is activated, and the spatial position of the angle adjustment component 203 is adjusted by the driving force of the position drive cylinder 2042, so that the receiving platform 2038 moves to the area corresponding to the extrusion path of the extruder 101. Then, the angle adjustment component 203 operates to adjust the receiving angle of the receiving platform 2038, so that it forms an adaptive angle with the extrusion direction of the extruder 101. Finally, the extruder 101 performs the extrusion molding of honeycomb ceramics under the stable support of the support frame 102, while the receiving platform 2038 accurately receives the extruded honeycomb ceramics at the receiving angle adjusted by the angle adjustment component 203 and at the spatial position adjusted by the position adjustment component 204 through the position drive cylinder 2042.

[0032] The position adjustment assembly 204 includes a triangular support 2041 fixedly mounted on the mounting base 2021. The triangular support 2041 has three ends, each hinged with a swing arm 2043. A position drive cylinder 2042 for driving the swing arm 2043 to rotate is also fixedly mounted on each end. A through hole is formed at the other end of the swing arm 2043, and a connecting shaft 2044 is rotatably mounted within the through hole. A support connecting rod 2045 is fixedly mounted at the upper end of the connecting shaft 2044. A balance bar 2046 is fixedly provided at the other end of the rod 2045. The two ends of the balance bar 2046 are respectively fixedly connected to the other ends of the two support rods 2045. A universal joint 2047 is sleeved at the center of the outer periphery of the balance bar 2046. The universal joint 2047 is rotatably connected to the balance bar 2046. It also includes a linkage seat 2048, which is located between the three universal joints 2047. The adjacent ends of the three universal joints 2047 are all connected to the outer periphery of the linkage seat 2048.

[0033] In the workflow of the receiving cutting mechanism 200, the operation of the position adjustment component 204 is the core adjustment link: the triangular support 2041 is fixedly installed on the mounting base 2021, and its three ends are respectively hinged to the swing arm 2043. The position drive cylinder 2042 at each end provides rotational power to the swing arm 2043. The other end of the swing arm 2043 is rotatably connected to the connecting shaft 2044 through the through hole. The connecting shaft 2044 is connected to the balance bar 2046 through the support link 2045. The two ends of the balance bar 2046 are connected to the two support links 2045 to form a stable structure. The universal joint 2047 is sleeved on the outer center of the balance bar 2046 and can rotate relative to it. The near ends of the three universal joints 2047 are connected to the outer surface of the linkage seat 2048. The linkage seat 2048 is associated with the angle adjustment component 203 to transmit the position adjustment action.

[0034] When the three position drive cylinders 2042 are started simultaneously: each position drive cylinder 2042 synchronously drives the corresponding swing arm 2043 to rotate around the end of the triangular support seat 2041. The swing arm 2043 drives the support connecting rod 2045 and the balance bar 2046 to move synchronously through the connecting shaft 2044. The balance bar 2046 drives the universal joint 2047 to move synchronously. The three universal joints 2047 jointly push or pull the linkage seat 2048 to move along the same direction or the same trajectory, thereby driving the angle adjustment component 203 to realize the translation or synchronous lifting of the spatial position, so that the receiving platform 2038 can quickly reach the area corresponding to the extrusion path of the extruder 101.

[0035] When the three position drive cylinders 2042 are not activated simultaneously: the rotation angle of the corresponding swing arm 2043 driven by the different position drive cylinders 2042 is different, resulting in different displacement amplitudes or directions of the corresponding support link 2045, balance bar 2046, and universal joint 2047. The three universal joints 2047 form an unbalanced push or pull force on the linkage seat 2048. Under the synergistic effect of the three, the linkage seat 2048 tilts or undergoes local fine adjustment, thereby driving the angle adjustment component 203 to achieve fine adjustment of the spatial angle, so that the receiving platform 2038 can more accurately adapt to the extrusion path of the extruder 101 in spatial position.

[0036] After the position adjustment component 204 adjusts the spatial position of the angle adjustment component 203, the angle adjustment component 203 operates to adjust the receiving angle of the receiving platform 2038. Finally, the extruder 101 extrudes honeycomb ceramics under the support of the support frame 102, and the receiving platform 2038 completes the receiving with the adjusted position and angle.

[0037] The angle adjustment assembly 203 includes a first adjustment drive member 2031, a second adjustment drive member 2032, and a third adjustment drive member 2033, which are evenly distributed circumferentially along the axis on the upper surface of the linkage seat 2048. The top ends of the first adjustment drive member 2031, the second adjustment drive member 2032, and the third adjustment drive member 2033 are respectively fixedly connected to a first drive gear 2031a, a second drive gear 2032a, and a third drive gear 2033a. The heights of the second adjustment drive member 2032, the first adjustment drive member 2031, and the third adjustment drive member 2033 increase sequentially. A central support column 2034 is fixedly provided at the center of the upper surface of the linkage seat 2048. A second driven gear 2032b is rotatably mounted on the top end of the central support column 2034, and a first driven gear 2031b is rotatably mounted on the second driven gear 2032b. A third driven gear 2033b is rotatably mounted on the driven gear 2031b. A second angle adjusting rod 2035 is rotatably mounted on the third driven gear 2033b and the first driven gear 2031b. The outer periphery of the bottom end of the second angle adjusting rod 2035 is fixedly connected to the inner periphery of the second driven gear 2032b. A first angle adjusting rod 2036 is sleeved on the outer periphery of the second angle adjusting rod 2035. The bottom end of the first angle adjusting rod 2036 passes through the third driven gear 2033b and the outer periphery of the first angle adjusting rod 2036 is fixedly connected to the inner periphery of the first driven gear 2031b. The bottom end of the third angle adjusting rod 2037 passes through the first angle adjusting rod 2036 and the second angle adjusting rod 2035 and the outer periphery of the bottom end of the third angle adjusting rod 2037 is fixedly connected to the inner periphery of the third driven gear 2033b.

[0038] The extension ends of the second angle adjusting rod 2035, the first angle adjusting rod 2036, and the third angle adjusting rod 2037 are respectively hinged with a second angle connecting rod 2035a, a first angle connecting rod 2036a, and a third angle connecting rod 2037a. The rod also includes a receiving platform 2038 located on the upper end of the central support column 2034. The other ends of the second angle connecting rod 2035a, the first angle connecting rod 2036a, and the third angle connecting rod 2037a are all hinged to the outer periphery of the receiving platform 2038 and are evenly distributed circumferentially along the axis of the receiving platform 2038.

[0039] The first drive gear 2031a, the second drive gear 2032a and the third drive gear 2033a respectively mesh with the first driven gear 2031b, the second driven gear 2032b and the third driven gear 2033b;

[0040] The operation of the angle adjustment component 203 is based on the activation states of the first adjustment drive 2031, the second adjustment drive 2032, and the third adjustment drive 2033:

[0041] When the first adjusting drive component 2031, the second adjusting drive component 2032, and the third adjusting drive component 2033 are activated simultaneously, they respectively drive the first drive gear 2031a, the second drive gear 2032a, and the third drive gear 2033a, which are fixedly connected to their top ends, to move synchronously. Since the first drive gear 2031a meshes with the first driven gear 2031b, the second drive gear 2032a meshes with the second driven gear 2032b, and the third drive gear 2033a meshes with the third driven gear 2033b, they will drive the first driven gear 2031b, the second driven gear 2032b, and the third driven gear 2033b to rotate collaboratively. The second angle adjusting rod 2035 (fixedly connected to the second driven gear 2032b and passing through the third driven gear 2033b and the first driven gear 2031b), the first angle adjusting rod 2036 (fixedly connected to the inner circumference of the first driven gear 2031b on its outer periphery), and the third angle adjusting rod 2037 (fixedly connected to the inner circumference of the third driven gear 2033b on its bottom outer periphery) simultaneously change position. The second angle connecting rod 2035a, the first angle connecting rod 2036a, and the third angle connecting rod 2037a, which are hinged at the extension ends of the three rods, move in unison to pull or push the receiving platform 2038, thereby achieving overall adjustment of the receiving angle of the receiving platform 2038.

[0042] When the first adjustment drive 2031, the second adjustment drive 2032, and the third adjustment drive 2033 are not activated simultaneously:

[0043] If only the first adjustment drive component 2031 is activated, it drives the first drive gear 2031a to mesh with the first driven gear 2031b and rotate, causing the first angle adjustment rod 2036 to move with the first driven gear 2031b. Through the first angle connecting rod 2036a, the corresponding side of the receiving platform 2038 is pulled to adjust the local angle of the receiving platform 2038.

[0044] If only the second adjustment drive component 2032 is activated, the second drive gear 2032a meshes with the second driven gear 2032b and rotates. The second angle adjustment rod 2035 moves with the second driven gear 2032b, and drives the middle part of the receiving platform 2038 through the second angle connecting rod 2035a, changing its receiving angle.

[0045] If only the third adjustment drive component 2033 is activated, the third drive gear 2033a meshes with the third driven gear 2033b and rotates. The third angle adjustment rod 2037 moves with the third driven gear 2033b and pushes the corresponding side of the receiving platform 2038 through the third angle connecting rod 2037a to adjust the local angle.

[0046] If both are activated, the corresponding two sets of components will work together, and the receiving platform 2038 will form a compound angle adjustment through the cooperation of two sets of rods in the second angle connecting rod 2035a, the first angle connecting rod 2036a, and the third angle connecting rod 2037a.

[0047] A mounting hole is provided on the other end of the mounting base 2021 away from the position adjustment component 204. A cutting shaft 2022 is rotatably mounted in the mounting hole. A cutting drive motor 2023 is fixedly mounted on this end of the mounting base 2021. The output end of the cutting drive motor 2023 is connected to one end of the cutting shaft 2022 and is used to drive the cutting shaft 2022 to rotate. A blade for cutting honeycomb ceramics is fixedly mounted on the outer periphery of the other end of the cutting shaft 2022.

[0048] In summary, the workflow of this adaptive cordierite honeycomb ceramic molding equipment is as follows: The L-shaped support frame 102 in the molding mechanism 100 (side projection) fixes and supports the extruder 101 to a preset working position. The support base 201 in the cutting mechanism 200 supports the upper support component 202. The support component 202 is stably supported by the L-shaped mounting seat 2021 (side projection) to the position adjustment component 204. The position adjustment component 204, carrying the angle adjustment component 203 and the receiving platform 2038, completes its initial positioning. Subsequently, the position adjustment component 204 is activated, and the triangular support base 204... The three ends of 1 are driven by position drive cylinders 2042 to rotate the swing arm 2043. The swing arm 2043 drives the linkage seat 2048 via the connecting shaft 2044, support rod 2045, balance bar 2046, and universal joint 2047. If the three position drive cylinders 2042 are activated simultaneously, the linkage seat 2048 drives the angle adjustment component 203 to move horizontally or move vertically synchronously. If they are not activated simultaneously, the angle adjustment component 203 can be finely adjusted in space to align the receiving platform 2038 with the extrusion path of the extruder 101. Then the angle adjustment component 203 operates along the... The first adjusting drive component 2031, the second adjusting drive component 2032, and the third adjusting drive component 2033, which are circumferentially distributed on the upper end of the linkage seat 2048, drive the first drive gear 2031a, the second drive gear 2032a, and the third drive gear 2033a, respectively, which mesh with and drive the first driven gear 2031b, the second driven gear 2032b, and the third driven gear 2033b. This, in turn, causes the second angle adjusting rod 2035, the first angle adjusting rod 2036, and the third angle adjusting rod 2037 to pass through the second angle connecting rod 2035a and the first angle connecting rod 2036a. The third angle linkage 2037a adjusts the receiving angle of the receiving platform 2038. If all three are started simultaneously, the overall angle is adjusted. If they are not started simultaneously, the local or compound angle adjustment is achieved through individual or combined actions. Then, the extruder 101 performs honeycomb ceramic extrusion molding under the support of the support frame 102. The receiving platform 2038 receives the extruded material at the adjusted position and angle. At the same time, the cutting drive motor 2023 on the mounting base 2021 drives the cutting shaft 2022 in the mounting hole to rotate. The blades on the outer periphery of the cutting shaft 2022 cut the extruded honeycomb ceramic, completing the entire molding process.

[0049] Finally, it should be noted that the above-described embodiments are merely specific implementations of this disclosure, used to illustrate the technical solutions of this disclosure, and not to limit it. The protection scope of this disclosure is not limited thereto. Although this disclosure has been described in detail with reference to the foregoing embodiments, those skilled in the art should understand that any person skilled in the art can still modify or easily conceive of changes to the technical solutions described in the foregoing embodiments, or make equivalent substitutions for some of the technical features, within the scope of the technology disclosed in this disclosure. Such modifications, changes, or substitutions do not cause the essence of the corresponding technical solutions to deviate from the spirit and scope of the technical solutions of the embodiments of this disclosure, and should all be covered within the protection scope of this disclosure. Therefore, the protection scope of this disclosure should be determined by the scope of the claims.

Claims

1. An adaptively adjustable cordierite honeycomb ceramic molding device, characterized in that, It includes a forming mechanism (100) and a receiving and cutting mechanism (200); The forming mechanism (100) includes a support frame (102) with an L-shaped side projection, and an extruder (101) for extruding honeycomb ceramics is fixedly provided on one end of the support frame (102). The receiving and cutting mechanism (200) includes a bearing base (201), a support component (202), an angle adjustment component (203), and a position adjustment component (204). The support component (202) is fixedly mounted on the upper surface of the bearing base (201). The support component (202) includes a mounting seat (2021) fixedly mounted on the bearing base (201). The side projection of the mounting seat (2021) is L-shaped. The position adjustment component (204) is fixedly mounted on the mounting seat (2021). The angle adjustment component (203) is fixedly mounted on the position adjustment component (204). The position adjustment component (204) includes a position drive cylinder (2042). The position adjustment component (204) is used to adjust the spatial position of the angle adjustment component (203) by driving the position drive cylinder (2042). The angle adjustment component (203) includes a receiving platform (2038). The angle adjustment component (203) is used to adjust the receiving angle of the receiving platform (2038).

2. The device according to claim 1, characterized in that, The position adjustment assembly (204) also includes a triangular support (2041) fixedly mounted on the mounting base (2021). The triangular support (2041) has three ends, and a swing arm (2043) is hinged to each end. The position drive cylinder (2042) is fixedly mounted on the end and is used to drive the swing arm (2043) to rotate.

3. The device according to claim 2, characterized in that, A through hole is provided on the other end of the swing arm (2043), and a connecting shaft (2044) is rotatably provided in the through hole. A support rod (2045) is fixedly provided at one end of the connecting shaft (2044), and a balance rod (2046) is fixedly provided at the other end of the support rod (2045). The two ends of the balance rod (2046) are respectively fixedly connected to the other ends of the two support rods (2045).

4. The device according to claim 3, characterized in that, A universal joint (2047) is fitted at the center of the outer periphery of the balance bar (2046), and the universal joint (2047) is rotatably connected to the balance bar (2046); the position adjustment assembly (204) also includes a linkage seat (2048), which is located between the three universal joints (2047), and the adjacent ends of the three universal joints (2047) are all connected to the outer periphery of the linkage seat (2048).

5. The device according to claim 1, characterized in that, The angle adjustment assembly (203) includes a first adjustment drive member (2031), a second adjustment drive member (2032), and a third adjustment drive member (2033) that are evenly distributed circumferentially along the axis on the upper surface of the linkage seat (2048). The top ends of the first adjustment drive member (2031), the second adjustment drive member (2032), and the third adjustment drive member (2033) are respectively fixedly connected to the first drive gear (2031a), the second drive gear (2032a), and the third drive gear (2033a).

6. The device according to claim 5, characterized in that, A central support column (2034) is fixedly provided at the center of the upper end face of the linkage seat (2048). A second driven gear (2032b) is rotatably provided at the top of the central support column (2034). A first driven gear (2031b) is rotatably provided on the second driven gear (2032b). A third driven gear (2033b) is rotatably provided on the first driven gear (2031b). The first drive gear (2031a), the second drive gear (2032a), and the third drive gear (2033a) respectively mesh with the first driven gear (2031b), the second driven gear (2032b), and the third driven gear (2033b).

7. The device according to claim 6, characterized in that, The angle adjustment assembly (203) further includes a second angle adjustment rod (2035), a first angle adjustment rod (2036), and a third angle adjustment rod (2037); the second angle adjustment rod (2035) passes through the third driven gear (2033b) and the first driven gear (2031b), and its bottom outer periphery is fixedly connected to the inner periphery of the second driven gear (2032b); the first angle adjustment rod (2036) is sleeved on the outer periphery of the second angle adjustment rod (2035), its bottom end passes through the third driven gear (2033b), and its outer periphery is fixedly connected to the inner periphery of the first driven gear (2031b); the bottom end of the third angle adjustment rod (2037) passes through the first angle adjustment rod (2036) and the second angle adjustment rod (2035), and its bottom outer periphery is fixedly connected to the inner periphery of the third driven gear (2033b).

8. The device according to claim 1, characterized in that, A mounting hole is provided on the other end of the mounting base (2021) away from the position adjustment component (204). A cutting shaft (2022) is rotatably mounted in the mounting hole. A cutting drive motor (2023) is fixedly mounted on this end of the mounting base (2021). The output end of the cutting drive motor (2023) is connected to one end of the cutting shaft (2022) and is used to drive the cutting shaft (2022) to rotate. A blade for cutting honeycomb ceramics is fixedly mounted on the outer periphery of the other end of the cutting shaft (2022).

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