Ceramic fiber paper production device

Abstract

The invention relates to the technical field of ceramic fiber paper production, in particular to a ceramic fiber paper production device which comprises a base, a storage pool is arranged on the base, driving assemblies are symmetrically arranged on the two sides of the storage pool, each driving assembly is provided with a feeding device, and the two feeding devices are arranged in a mirror image opposite mode. A trigger assembly is arranged at the side end of each feeding device, a receiving box is arranged between the two feeding devices, a fourdrinier former is arranged in the receiving box, and the four corners of the fourdrinier former are movably connected with the inner wall of the receiving box through a plurality of evenly-distributed tension springs. The two sides of the fourdrinier forming device are provided with release assemblies which are arranged in a mirror image opposite mode, and the feeding device comprises an inclined assembly and a force storage assembly. Through work of the feeding device and the releasing assembly, the interior of the fourdrinier former can be fully filled while the surface of the fourdrinier former is smooth after material taking, and the forming quality and convenience are greatly improved.

Description

Technical Field

[0001] This invention relates to the field of ceramic fiber paper production technology, specifically to a ceramic fiber paper production apparatus. Background Technology

[0002] Ceramic fiber paper is a lightweight heat-insulating and refractory material made by melting minerals at high temperatures, spinning them into ceramic fibers, and finally producing them through a wet forming process. It is a commonly used thermal insulation material in industrial production and has excellent performance.

[0003] In the existing technology, during the production of ceramic fiber paper, a wire mesh forming device is usually used to enter from above the storage tank and rise up to collect the raw pulp and obtain the ceramic fiber paper to be dried. Because the wire mesh forming device has a certain size, when it enters the flowing raw pulp vertically, the raw pulp will converge from all sides of the wire mesh forming device, resulting in an uneven surface of the dried ceramic fiber paper and low forming quality. At the same time, this material collection method is prone to insufficient filling around the ceramic fiber paper, which leads to the need for screening after forming, which is not convenient. Therefore, there is a need for a device that can make the surface of the wire mesh forming device flat after material collection and ensure that its interior is fully filled, so as to avoid low forming quality and inconvenience. Summary of the Invention

[0004] The purpose of this invention is to provide a ceramic fiber paper production apparatus to solve the problems mentioned in the background art. To achieve the above objective, this invention provides the following technical solution: A ceramic fiber paper production apparatus includes a base, a storage tank on the base, drive components symmetrically arranged on both sides of the storage tank, a feeding device on each drive component, two feeding devices arranged in mirror images of each other, a trigger component on the side of each feeding device, a receiving box between the two feeding devices, a wire forming device inside the receiving box, a number of evenly distributed tension springs at the four corners of the wire forming device being movably connected to the inner wall of the receiving box, release components arranged in mirror images of each other on both sides of the wire forming device, the feeding device including a tilting component and a power storage component, the tilting component being located on one side of the receiving box, and the power storage component being located on the side of the tilting component.

[0005] Preferably, the drive assembly includes a drive plate disposed on the side of the storage tank. The bottom of the drive plate is connected to the base. An arc-shaped toothed frame is provided on the side of the drive plate. A drive crank is rotatably connected to the middle of the drive plate. The other end of the drive crank is connected to the center of a drive bevel gear. The toothed end of the drive bevel gear meshes with the arc-shaped toothed frame. A servo motor is disposed on the side of the drive plate away from the drive crank. The output end of the servo motor is connected to the end of the drive crank. A connecting plate is eccentrically disposed on the side of the drive bevel gear away from the drive plate. The center of the connecting plate is connected to the middle of the displacement box. The displacement box is slidably connected in a sliding frame. The side of the sliding frame is slidably disposed in a slide rail through a connecting block. The side of the slide rail is connected to the drive plate.

[0006] Preferably, the tilting assembly includes a rotating shaft disposed in the middle of the displacement box, a control bevel gear sleeved on the rotating shaft, the center of the control bevel gear being connected to the rotating shaft via a one-way bearing, the end of the rotating shaft away from the drive plate sliding through the side end of the displacement box and rotatably connected to the connecting sleeve, the outer end of the connecting sleeve being rotatably connected to the center of the control panel via a coil spring, a silicone damping pad to increase rotational resistance being laid on the outer side of the connecting sleeve, the bottom of the control panel being connected to the bottom of the displacement box via an L-shaped rod, the end of the connecting sleeve away from the rotating shaft being connected to the side end of the receiving box, a support rod being provided on the side end of the connecting sleeve, an abutment rod being provided on the end of the support rod away from the connecting sleeve, and two limiting rods being provided on the control panel to limit the rotation angle of the support rod.

[0007] Preferably, the rotating shaft is provided with an L-shaped frame on the side end outside the displacement box. The L-shaped frame has a movable groove, and a pressing block is slidably provided in the movable groove. The side end of the pressing block is movably connected to the inner wall of the movable groove through a telescopic spring. The side end of the pressing block is provided with a pressing element that can cooperate with the abutment rod. The side end of the pressing element is provided with a pressing rod located on the pressing block. The top of the displacement box is provided with a wedge-shaped rod. The end of the wedge-shaped rod away from the displacement box is located at the side end of one of the limiting rods. When the rotating shaft rotates and drives the L-shaped frame to rotate, it can drive the pressing rod and the wedge-shaped rod to cooperate with each other, thereby driving the pressing block to compress the telescopic spring.

[0008] Preferably, the power storage assembly includes an output shaft disposed on the side end of the L-shaped frame. The output shaft is rotatably disposed within an elastic sleeve inside an opening on the side end of the receiving box. The output shaft is rotatably connected to the side wall of the receiving box. One end of the output shaft located outside the receiving box is located inside a ring clamp. The other end of the ring clamp is connected to a connecting member. A connecting shaft is slidably connected inside the connecting member. The other end of the connecting shaft is eccentrically connected to a rotating disk. The center of the rotating disk is rotatably connected to an auxiliary frame on the side end of the receiving box via a control shaft. The outer side of the control shaft is rotatably connected to the auxiliary frame via a coil spring.

[0009] Preferably, a plurality of slots are evenly provided on the outer side of the control shaft, and a rotating frame is fitted on the outer side of the control shaft. A locking rod is slidably arranged on the rotating frame. The bottom of the locking rod is embedded in one of the slots and one side of the bottom of the locking rod is inclined. The two sides of the locking rod are movably connected to the top of the rotating frame through symmetrically arranged first spring telescopic rods. The top of the locking rod is provided with a horizontally arranged inclined rod. The side end of the control shaft is provided with a toggle rod that can cooperate with the pressing rod. The end of the toggle rod away from the control shaft is arc-shaped.

[0010] Preferably, the triggering assembly includes a triggering toothed rod slidably disposed on the side end of the sliding frame. The toothed end of the triggering toothed rod can mesh with the toothed end of the control bevel gear. Both ends of the triggering toothed rod located outside the sliding frame are movably connected to the sliding frame through a second spring telescopic rod. The side end of the triggering toothed rod is provided with an abutment plate, which is connected to the drive plate.

[0011] Preferably, the release assembly includes a release rod that can cooperate with the inclined rod, the release rod is connected to the side end of the slide rail, the bottom of the long mesh forming device is movably connected to the bottom of the receiving box through evenly distributed control springs, the output shaft is provided with a main magnet, and the bottom of the receiving box is provided with a secondary magnet that cooperates with the main magnet.

[0012] Compared with the prior art, the beneficial effects of the present invention are as follows:

[0013] In this invention, by controlling two drive components to work synchronously, the receiving box is driven to enter the storage tank from an oblique position. A trigger component drives a tilting component, causing the long screen forming device to enter at an angle. Simultaneously, a power storage component is controlled to operate. Under the action of the drive components, the long screen forming device moves horizontally within the storage tank. After the movement is complete, the tilting component restores the long screen forming device to a horizontal position and raises it obliquely, thus removing it from the storage tank. During removal, a release component controls the long screen forming device to vibrate, thereby quickly and evenly spreading the raw pulp. Subsequently, in another... Under the control of the feeding device on one side, the wire mesh forming device is tilted to the opposite state to enter the storage tank. After being moved horizontally out, it is shaken to complete the extraction of raw pulp. During this process, when the wire mesh forming device switches to the tilt state, the raw pulp can flow over its surface, making its surface uniform and flat. The shaking completes the rapid filling of raw pulp, thereby preventing the raw pulp from pooling around the wire mesh forming device and making the surface of the formed ceramic fiber paper uneven, thus improving the forming quality. At the same time, it ensures that the ceramic fiber paper is fully formed around its edges, further improving the convenience of the production process.

[0014] In this invention, the coordinated use of components such as the drive assembly facilitates the automatic oblique downward movement of the long screen forming device into the storage tank for operation and removal. Furthermore, the reciprocating operation of the servo motor enables the receiving of raw pulp twice, thereby improving the practicality of the device.

[0015] In this invention, by using components such as the feeding device in combination, the wire mesh forming machine adopts an inclined feeding method, which effectively reduces the phenomenon of raw pulp converging around the wire mesh forming machine. When switching to the inclined state, the raw pulp can flow over its surface and be shaken to form a uniform and flat surface, thereby improving the surface flatness of the ceramic fiber paper.

[0016] In this invention, by using components such as the triggering component and the release component in combination, the device achieves uniform distribution of the pulp in the long wire forming machine through the synergistic effect of horizontal movement and shaking, thereby improving the forming quality. At the same time, it ensures that the ceramic fiber paper is fully filled around the edges, significantly improving the uniformity of internal filling of the ceramic fiber paper, and further improving the convenience of the production process. Attached Figure Description

[0017] Figure 1 This is a three-dimensional structural diagram of the present invention;

[0018] Figure 2 This is a partial three-dimensional structural diagram of the present invention. Figure 1 ;

[0019] Figure 3 This is a partial three-dimensional structural diagram of the driving component in this invention. Figure 1 ;

[0020] Figure 4 This is a cross-sectional view of the displacement box in this invention;

[0021] Figure 5 This is a partial three-dimensional structural diagram of the driving component in this invention. Figure 2 ;

[0022] Figure 6 This is a partial three-dimensional structural diagram of the present invention. Figure 2 ;

[0023] Figure 7 This is a partial three-dimensional structural diagram of the feeding device in this invention. Figure 1 ;

[0024] Figure 8 This is a partial three-dimensional structural diagram of the feeding device in this invention. Figure 2 ;

[0025] Figure 9 This is a partial three-dimensional structural diagram of the driving component in this invention. Figure 3 ;

[0026] Figure 10 This is a cross-sectional view of the receiving box in this invention. Figure 1 ;

[0027] Figure 11 This is a partial cross-sectional view of the energy storage component in this invention;

[0028] Figure 12 This is a cross-sectional view of the rotating frame in this invention;

[0029] Figure 13 This is a cross-sectional view of the receiving box in this invention. Figure 2 .

[0030] In the diagram: 1. Base; 2. Storage tank; 3. Drive assembly; 31. Drive plate; 32. Arc-shaped toothed frame; 33. Drive crank; 34. Drive bevel gear; 35. Servo motor; 36. Connecting plate; 37. Displacement box; 38. Sliding frame; 39. Connecting block; 40. Slide rail; 5. Feeding device; 51. Inclining assembly; 511. Rotating shaft; 512. Control bevel gear; 513. One-way bearing; 514. Connecting sleeve; 515. Control panel; 516. L-shaped rod; 517. Support rod; 518. Abutment rod; 519. Limiting rod; 520. L-shaped frame; 521. Movable groove; 522. Extrusion block; 523. Telescopic spring; 524. Extrusion part; 5 25. Extrusion rod; 526. Wedge rod; 53. Power storage assembly; 531. Output shaft; 532. Opening; 533. Ring clamp; 534. Connecting piece; 535. Connecting shaft; 536. Rotary disk; 537. Control shaft; 538. Auxiliary frame; 539. Slot; 540. Rotating frame; 541. Positioning rod; 542. First spring telescopic rod; 543. Angled rod; 544. Actuating rod; 6. Trigger assembly; 61. Trigger toothed rod; 62. Second spring telescopic rod; 63. Contact plate; 7. Receiving box; 8. Long net forming device; 9. Tension spring; 10. Release assembly; 11. Release rod; 12. Control spring; 13. Main magnet; 14. Secondary magnet. Detailed Implementation

[0031] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0032] Please see Figures 1 to 13This invention provides a technical solution: a ceramic fiber paper production device, including a base 1, a storage pool 2 on the base 1, drive components 3 symmetrically arranged on both sides of the storage pool 2, a feeding device 5 on each drive component 3, two feeding devices 5 arranged in mirror image, a trigger component 6 on the side end of each feeding device 5, a receiving box 7 between the two feeding devices 5, a long wire forming device 8 inside the receiving box 7, the four corners of the long wire forming device 8 being movably connected to the inner wall of the receiving box 7 by several evenly distributed tension springs 9, release components 10 arranged in mirror image on both sides of the long wire forming device 8, the feeding device 5 including an inclined component 51 and a power storage component 53, the inclined component 51 being arranged on one side of the receiving box 7, and the power storage component 53 being arranged on the side end of the inclined component 51.

[0033] In this embodiment, as Figures 1 to 5 As shown, the drive assembly 3 includes a drive plate 31 disposed on the side of the storage tank 2. The bottom of the drive plate 31 is connected to the base 1. An arc-shaped toothed frame 32 is provided on the side of the drive plate 31. A drive crank 33 is rotatably connected to the middle of the drive plate 31. The other end of the drive crank 33 is connected to the center of the drive bevel gear 34. The toothed end of the drive bevel gear 34 meshes with the arc-shaped toothed frame 32. A servo motor 35 is provided on the side of the drive plate 31 away from the drive crank 33. The output end of the servo motor 35 is connected to the end of the drive crank 33. A connecting plate 36 is eccentrically disposed on the side of the drive bevel gear 34 away from the drive plate 31. The center of the connecting plate 36 is connected to the middle of the displacement box 37. The displacement box 37 is slidably connected in the sliding frame 38. The side of the sliding frame 38 is slidably disposed in the slide rail 40 through a connecting block 39. The side of the slide rail 40 is connected to the drive plate 31.

[0034] In this embodiment, as Figures 6 to 12As shown, the tilting assembly 51 includes a rotating shaft 511 disposed in the middle of the displacement box 37. A control bevel gear 512 is sleeved on the rotating shaft 511. The center of the control bevel gear 512 is connected to the rotating shaft 511 through a one-way bearing 513. The end of the rotating shaft 511 away from the drive plate 31 slides through the side of the displacement box 37 and is rotatably connected to the connecting sleeve 514. The outer side of the end of the connecting sleeve 514 is rotatably connected to the center of the control disk 515 through a coil spring. A silicone damping pad to increase rotational resistance is laid on the outer side of the connecting sleeve 514. The bottom of the control disk 515 is connected to the bottom of the displacement box 37 through an L-shaped rod 516. The end of the connecting sleeve 514 away from the rotating shaft 511 is connected to the side of the receiving box 7. A support rod 517 is provided on the side of the connecting sleeve 514. An abutment rod 518 is provided on the end of the support rod 517 away from the connecting sleeve 514. Two limiting rods 519 are provided on the control disk 515 to limit the rotation angle of the support rod 517.

[0035] The rotating shaft 511 is provided with an L-shaped frame 520 on the side of the displacement box 37. The L-shaped frame 520 has a movable groove 521. A pressing block 522 is slidably provided in the movable groove 521. The side end of the pressing block 522 is movably connected to the inner wall of the movable groove 521 through a telescopic spring 523. The side end of the pressing block 522 is provided with a pressing element 524 that can cooperate with the abutment rod 518. The side end of the pressing element 524 is provided with a pressing rod 525 and is located on the pressing block 522. The top of the displacement box 37 is provided with a wedge rod 526. The end of the wedge rod 526 away from the displacement box 37 is located on the side end of one of the limiting rods 519. When the rotating shaft 511 rotates and drives the L-shaped frame 520 to rotate, it can drive the pressing rod 525 and the wedge rod 526 to cooperate with each other, thereby driving the pressing block 522 to compress the telescopic spring 523.

[0036] The power storage component 53 includes an output shaft 531 disposed on the side of the L-shaped frame 520. The output shaft 531 is rotatably disposed in an elastic soft sleeve within an opening 532 on the side of the receiving box 7. The output shaft 531 is rotatably connected to the side wall of the receiving box 7. One end of the output shaft 531 located outside the receiving box 7 is located inside a ring 533. The other end of the ring 533 is connected to a connecting member 534. A connecting shaft 535 is slidably connected inside the connecting member 534. The other end of the connecting shaft 535 is eccentrically connected to a rotating disk 536. The center of the rotating disk 536 is rotatably connected to an auxiliary frame 538 on the side of the receiving box 7 via a control shaft 537. The outer side of the control shaft 537 is rotatably connected to the auxiliary frame 538 via a coil spring.

[0037] The control shaft 537 has several slots 539 evenly distributed on its outer side. A rotating frame 540 is fitted on the outer side of the control shaft 537. A locking rod 541 is slidably mounted on the rotating frame 540. The bottom of the locking rod 541 is embedded in one of the slots 539 and one side of the bottom of the locking rod 541 is inclined. The two sides of the locking rod 541 are movably connected to the top of the rotating frame 540 through symmetrically arranged first spring telescopic rods 542. The top of the locking rod 541 is provided with a horizontally arranged inclined rod 543. The side end of the control shaft 537 is provided with a toggle rod 544 that can cooperate with the pressing rod 525. The end of the toggle rod 544 away from the control shaft 537 is arc-shaped.

[0038] In this embodiment, as Figures 5 to 13 As shown, the trigger assembly 6 includes a trigger toothed rod 61 slidably disposed on the side of the sliding frame 38. The toothed end of the trigger toothed rod 61 can mesh with the toothed end of the control bevel gear 512. Both ends of the trigger toothed rod 61 located outside the sliding frame 38 are movably connected to the sliding frame 38 through a second spring telescopic rod 62. The side end of the trigger toothed rod 61 is provided with an abutment plate 63, which is connected to the drive plate 31.

[0039] The release assembly 10 includes a release rod 11 that can cooperate with the inclined rod 543. The release rod 11 is connected to the side end of the slide rail 40. The bottom of the long mesh forming device 8 is movably connected to the bottom of the receiving box 7 through evenly distributed control springs 12. The output shaft 531 is provided with a main magnet 13. The bottom of the receiving box 7 is provided with a secondary magnet 14 that cooperates with the main magnet 13.

[0040] The invention relates to a method of use and advantages of a ceramic fiber paper production apparatus, the operation of which is as follows:

[0041] like Figures 1 to 13 As shown, by controlling two servo motors 35 to reciprocate synchronously, the drive crank 33 is driven to swing. During the swing, the drive bevel gear 34 moves and rotates along the arc-shaped toothed frame 32. Through the eccentrically set connecting plate 36, the displacement box 37 first moves down along the direction of the sliding frame 38. After moving down to the extreme, the sliding frame 38 moves horizontally along the slide rail 40 through the connecting block 39. After moving into position, under the continuous action of the drive bevel gear 34, the displacement box 37 moves up along the sliding frame 38, which facilitates the automatic oblique downward movement of the long net forming device 8 into the storage tank 2 for work and removal. The reciprocating work of the servo motor 35 is used to receive the raw pulp twice, thereby improving the practicality of the device.

[0042] When the displacement box 37 moves downward, it drives the control bevel gear 512 to mesh and rotate with the trigger toothed rod 61, thereby driving the rotating shaft 511 to rotate synchronously. Through the one-way bearing 513, the two control bevel gears 512 can only rotate in one direction, thereby driving the L-shaped frame 520 to rotate synchronously. Through the cooperation of the extrusion member 524 and the abutment rod 518, the connecting sleeve 514 rotates synchronously. The receiving box 7 and the long mesh forming device 8 tilt synchronously, and the coil spring stores force until the extrusion rod 525 and the wedge rod 526 cooperate. At this time, the side end of the support rod 517 abuts against the side end of one of the limiting rods 519. Under the action of the wedge rod 526, the extrusion rod 525 slides along the movable groove 521 through the extrusion block 522 and compresses the telescopic spring 523, causing the extrusion piece 524 to disengage from the abutment rod 518. At this time, under the action of the coil spring, the connecting sleeve 514 gradually completes its reset on the control panel 515, and the reset angle of the support rod 517 is limited by another limiting rod 519, so that the long mesh forming device 8 returns to the horizontal state, and under the action of the silicone resistance pad, it extends... The L-shaped frame 520 continues to rotate during the process of delayed reset until the long mesh forming device 8 moves obliquely out horizontally from the other side of the arc-shaped toothed frame 32. After the extruder 524 disengages from the contact rod 518, the reset extruder 525, in conjunction with the actuating rod 544, causes the actuating rod 544 to deflect until it disengages. This causes the control shaft 537 to deflect under the action of the slot 539 and the locking rod 541, and completes self-locking under the action of the first spring telescopic rod 542 and the locking rod 541. The control shaft 537 then accumulates force under the action of the coil spring. During the power accumulation process, the control shaft 537 drives the rotating disk 536 to rotate synchronously. Under the action of the connecting shaft 535 and the connecting piece 534, the output shaft 531 is driven to deflect in the opening 532 through the ring hoop 533. The initial shaking is completed through the cooperation with the release component 10, so that the long wire forming device 8 adopts the inclined feeding method, which effectively reduces the phenomenon of the raw pulp converging to the periphery of the long wire forming device 8. When switching the inclined state, the raw pulp can flow over its surface, and the shaking makes its surface form a uniform and flat state, improving the surface flatness of the ceramic fiber paper.

[0043] When the drive assembly 3 moves the long wire forming device 8 to the other side, the long wire forming device 8 moves horizontally out of the storage tank 2. Because the trigger toothed rod 61 on one side moves away from the abutment plate 63, it disengages from the control bevel gear 512. The side end of the trigger toothed rod 61 on the other side abuts against the side end of the abutment plate 63 on the other side. Under the action of the second spring telescopic rod 62, it engages with the adjacent control bevel gear 512. Through the cooperation of the release rod 11 and the inclined rod 543, the locking rod 541 moves upward along the rotating frame 540, causing the bottom of the locking rod 541 to disengage from the slot 539, releasing the control shaft 537. During the release process, the rotating disk 536 rotates, thereby driving the output shaft 531. The material deflects within the opening 532 and vibrates under the control of the spring 12 and tension spring 9 through the intermittent cooperation between the main magnet 13 and the auxiliary magnet 14 until there is no magnetic contact between the main magnet 13 and the auxiliary magnet 14. This allows the long wire forming device 8 to complete multi-directional vibration after horizontal movement, completing the secondary vibration and leveling. After the servo motor 35 reciprocates, the long wire forming device 8 enters the storage tank 2 at the opposite tilt angle through the tilting component 51 on the other side. Through the synergistic effect of horizontal movement and vibration, the pulp is evenly distributed within the long wire forming device 8, thereby improving the forming quality. At the same time, it ensures that the ceramic fiber paper is fully filled around the edges, significantly improving the uniformity of internal filling of the ceramic fiber paper and further enhancing the convenience of the production process.

[0044] The foregoing has shown and described the basic principles, main features, and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited to the above embodiments. The embodiments and descriptions in the specification are merely preferred examples and are not intended to limit the invention. Various changes and modifications can be made to the invention without departing from its spirit and scope, and all such changes and modifications fall within the scope of the present invention as claimed. The scope of protection of the present invention is defined by the appended claims and their equivalents.

Claims

1. A ceramic fiber paper production apparatus, comprising a base (1) and a storage tank (2) provided on the base (1); Its features are: The storage tank (2) is symmetrically provided with drive components (3) on both sides. Each drive component (3) is provided with a feeding device (5). The two feeding devices (5) are arranged in a mirror image. Each feeding device (5) is provided with a trigger component (6) on its side. A receiving box (7) is provided between the two feeding devices (5). A long net forming device (8) is provided inside the receiving box (7). The four corners of the long net forming device (8) are movably connected to the inner wall of the receiving box (7) by several evenly arranged tension springs (9). The two sides of the long net forming device (8) are provided with release components (10) arranged in a mirror image. The feeding device (5) includes an inclined component (51) and a power storage component (53). The inclined component (51) is provided on one side of the receiving box (7), and the power storage component (53) is provided on the side of the inclined component (51).

2. The ceramic fiber paper production apparatus according to claim 1, characterized in that: The drive assembly (3) includes a drive plate (31), the bottom of which is connected to the base (1); The drive plate (31) is provided with an arc-shaped toothed frame (32) on its side end. The drive plate (31) is rotatably connected to a drive crank (33) at the middle, and the other end of the drive crank (33) is connected to a drive bevel gear (34). The tooth groove end of the drive bevel gear (34) meshes with the arc-shaped tooth groove frame (32). The drive plate (31) has a servo motor (35) on the side away from the drive crank (33), and the output end of the servo motor (35) is connected to the end of the drive crank (33). The drive bevel gear (34) is eccentrically provided with a connecting disc (36) on the side away from the drive plate (31). The center of the connecting plate (36) is connected to the middle of the displacement box (37), and the displacement box (37) is slidably connected in the sliding frame (38); The side end of the sliding frame (38) is slidably mounted in the slide rail (40) via a connecting block (39); The side end of the slide rail (40) is connected to the drive plate (31).

3. The ceramic fiber paper production apparatus according to claim 2, characterized in that: The tilting assembly (51) includes a rotating shaft (511) disposed in the middle of the displacement box (37), and a control bevel gear (512) is sleeved on the rotating shaft (511). The center of the control bevel gear (512) is connected to the rotating shaft (511) via a one-way bearing (513); The end of the rotating shaft (511) away from the drive plate (31) slides through the side end of the displacement box (37) and is rotatably connected in the connecting sleeve (514); The outer end of the connecting sleeve (514) is rotatably connected to the center of the control panel (515) by a coil spring, and a silicone damping pad to increase rotational resistance is laid on the outer side of the connecting sleeve (514). The bottom of the control panel (515) is connected to the bottom of the displacement box (37) via an L-shaped rod (516), and the end of the connecting sleeve (514) away from the rotating shaft (511) is connected to the side end of the receiving box (7). The connecting sleeve (514) is provided with a support rod (517) at one end, and an abutment rod (518) is provided at the end of the support rod (517) away from the connecting sleeve (514). The control panel (515) is provided with two limiting rods (519) that limit the rotation angle of the support rod (517).

4. The ceramic fiber paper production apparatus according to claim 3, characterized in that: The rotating shaft (511) is provided with an L-shaped frame (520) on the side end outside the displacement box (37). The L-shaped frame (520) is provided with a movable groove (521), and a pressing block (522) is slidably provided in the movable groove (521). The side end of the extrusion block (522) is movably connected to the inner wall of the movable groove (521) via a telescopic spring (523); The side end of the extrusion block (522) is provided with an extrusion member (524) that can cooperate with the abutment rod (518), and the side end of the extrusion member (524) is provided with an extrusion rod (525) and located on the extrusion block (522); The top of the displacement box (37) is provided with a wedge rod (526), ​​and one end of the wedge rod (526) away from the displacement box (37) is located at the side end of one of the limiting rods (519). When the rotating shaft (511) rotates and drives the L-shaped frame (520) to rotate, it can drive the extrusion rod (525) and the wedge rod (526) to cooperate with each other, thereby driving the extrusion block (522) to compress the telescopic spring (523).

5. The ceramic fiber paper production apparatus according to claim 4, characterized in that: The power storage component (53) includes an output shaft (531) disposed on the side of the L-shaped frame (520), and the output shaft (531) is rotatably disposed in an elastic soft sleeve inside the opening (532) on the side of the receiving box (7); The output shaft (531) is rotatably connected to the side wall of the receiving box (7), and one end of the output shaft (531) located outside the receiving box (7) is located inside the ring (533); The other end of the ring (533) is connected to the connector (534), and the connector (534) has a connecting shaft (535) slidably connected inside. The other end of the connecting shaft (535) is eccentrically connected to the rotating disk (536), and the center of the rotating disk (536) is rotatably connected to the auxiliary frame (538) on the side of the receiving box (7) via the control shaft (537); The control shaft (537) is rotatably connected to the auxiliary frame (538) via a coil spring on the outside.

6. The ceramic fiber paper production apparatus according to claim 5, characterized in that: The control shaft (537) has several slots (539) evenly distributed on its outer side; A rotating frame (540) is sleeved on the outside of the control shaft (537), and a locking rod (541) is slidably arranged on the rotating frame (540). The bottom of the locking rod (541) is embedded in one of the slots (539) and the bottom side of the locking rod (541) is set at an angle; The locking rod (541) is movably connected to the top of the rotating frame (540) on both sides by symmetrically arranged first spring telescopic rods (542); The top of the locking rod (541) is provided with a horizontally arranged inclined rod (543), and the side end of the control shaft (537) is provided with a toggle rod (544) that can cooperate with the pressing rod (525). The end of the lever (544) away from the control shaft (537) is arc-shaped.

7. The ceramic fiber paper production apparatus according to claim 3, characterized in that: The triggering component (6) includes a triggering toothed rod (61) that is slidably disposed on the side of the sliding frame (38). The toothed end of the trigger toothed rod (61) can mesh with the toothed end of the control bevel gear (512); The trigger toothed rod (61) is movably connected to the sliding frame (38) at both ends outside the sliding frame (38) via a second spring telescopic rod (62); The trigger toothed rod (61) has a contact plate (63) on its side end, and the contact plate (63) is connected to the drive plate (31).

8. The ceramic fiber paper production apparatus according to claim 5, characterized in that: The release assembly (10) includes a release rod (11) that can cooperate with the diagonal rod (543). The release rod (11) is connected to the side end of the slide rail (40), and the bottom of the long net forming device (8) is movably connected to the bottom of the receiving box (7) through evenly distributed control springs (12); The output shaft (531) is provided with a main magnet (13); The bottom of the receiving box (7) is provided with a secondary magnet (14) that works in conjunction with the main magnet (13).

Images