Green brick compression molding device

Abstract

The utility model relates to a green brick pressing forming device which comprises a pressing machine mechanism, a first material conveying mechanism, a second material conveying mechanism, a material distribution pushing plate mechanism, a first platform, a second platform and a third platform. And the cloth pushing plate mechanism is arranged on the top surfaces of the first platform, the third platform and the second platform in a reciprocating sliding manner. By arranging the cloth pushing plate mechanism, the purpose of transferring surface materials, backing materials and green bricks can be achieved at the same time, no transferring component needs to be arranged respectively, overall application components of the green brick pressing and forming device are greatly reduced, the overall structure is simpler, manufacturing cost can be greatly reduced, and production efficiency is improved. In addition, one-time transferring of the surface material, the bottom material and the green bricks can be completed only by completing the back-and-forth reciprocating action of the material distribution pushing plate mechanism, the transferring stroke is greatly shortened, and therefore the time spent on completing one-time green brick production is greatly shortened, and the green brick production efficiency is greatly improved.

Description

Technical Field

[0001] The utility model relates to the technical field of ceramic brick machinery, in particular to a brick pressing and forming device. Background Art

[0002] At present, the pressing and forming process of ceramic tile blanks mainly involves filling the outer material and base material into the mold cavity of the ceramic tile press respectively, and then pressing the outer material and base material together through the pressing of the ceramic tile press to obtain ceramic tile blanks. In the existing brick blank pressing and forming device, for example, a technical solution with a patent application number of 201910737953.9 and the name of "A Hydraulic Brick Making Machine and Brick Making Method" is disclosed in the Chinese patent literature. The solution mainly includes a frame structure, a distribution hopper arranged on the left and right sides of the frame structure, and a brick clamping mechanism. The frame structure is provided with an upper mold assembly, a lower mold assembly and a mold frame assembly to form a brick blank press mechanism, one of the distribution hoppers is used to output the outer material, and the other distribution hopper is used to output the base material, and a distribution trolley for conveying powder to the mold frame is provided below the two distribution hoppers. The brick clamping mechanism is provided below one of the distribution hoppers for clamping the pressed and formed brick blanks and transferring the brick blanks to the bottom of the other distribution hopper. Although this solution can realize the automated production of secondary brick blanks, it still has the following shortcomings in actual application:

[0003] First, the transfer of the surface material, base material and brick blanks needs to be achieved through two material distribution hoppers and a brick clamping mechanism respectively, and these three components need to be driven by three driving components respectively, so as to ensure that the three components can operate the transfer work independently. However, this will increase the overall application components of the brick blank pressing and forming device, and the overall structure will become very complicated, which will lead to a relatively high manufacturing cost of the hydraulic brick making machine.

[0004] Secondly, in actual operation, the two material-distributing trolleys and the brick-clamping mechanism need to take turns to complete a back-and-forth movement in order to complete the transfer of the outer material, base material and brick blanks. The round-trip travel of these three components added together will greatly extend the transfer travel, which will greatly extend the time taken to complete a brick blank production, resulting in very low brick blank production efficiency.

[0005] Therefore, in view of the above-mentioned deficiencies of the aforementioned brick blank pressing and forming device, it is very necessary to further improve its structure in order to better meet people's application needs. Utility Model Content

[0006] The purpose of the present utility model is to solve the above-mentioned problems and shortcomings, and to provide a brick blank pressing and forming device. The brick blank pressing and forming device can simultaneously achieve the purpose of transferring the outer material, base material and brick blank by setting a cloth pushing plate mechanism. There is no need to set a transfer component separately, which greatly reduces the overall application components of the brick blank pressing and forming device, making the overall structure simpler, which can help to greatly reduce the manufacturing cost, and only needs to complete the back and forth action of the cloth pushing plate mechanism once to complete the transfer of the outer material, base material and brick blank, which greatly shortens the transfer stroke, thereby greatly shortening the time spent on completing a brick blank production, thereby greatly improving the production efficiency of the brick blank.

[0007] The technical solution of the present utility model is implemented as follows: a brick pressing and forming device, which is characterized in that it includes a pressing mechanism, a first feeding mechanism, a second feeding mechanism, and a cloth pushing plate mechanism, a first platform is provided below the first feeding mechanism, a second platform is provided below the second feeding mechanism, and a third platform is provided below the pressing mechanism, the first feeding mechanism and the second feeding mechanism are respectively arranged on the left and right sides of the pressing mechanism, and the top surfaces of the first platform, the third platform and the second platform are connected together in sequence and arranged flush with each other; a mold cavity is provided on the top surface of the third platform, the cloth pushing plate mechanism is slid back and forth on the top surfaces of the first platform, the third platform and the second platform, and the cloth pushing plate mechanism can transfer the material powder output by the first feeding mechanism and the second feeding mechanism to the mold cavity respectively; a lower mold pushing mechanism that can move vertically is also provided in the mold cavity.

[0008] Preferably, the first platform, the third platform and the second platform are an integrally formed structure.

[0009] Preferably, the fabric pushing plate mechanism includes a fabric pushing plate and a pushing motor, and the fabric pushing plate is slidably arranged on the top surfaces of the first platform, the third platform and the second platform through the pushing motor.

[0010] Preferably, the cloth pushing plate is provided with a first material cavity and a second material cavity which vertically penetrate the upper and lower ends thereof, and the first material cavity and the second material cavity are arranged side by side on the cloth pushing plate.

[0011] Preferably, the cloth pushing plate is further provided with a buffer rubber pad for contacting the brick blank.

[0012] Preferably, an embedding protrusion and an embedding groove that are embedded in each other are provided between the fabric pushing plate and the buffer rubber pad.

[0013] Preferably, the first feeding mechanism and the second feeding mechanism respectively include a feeding funnel, a sealing cover, and a driving cylinder. A discharge port is provided on the bottom surface of the feeding funnel. One end of the sealing cover is hinged to the feeding funnel, and the other end of the sealing cover is driven by the driving cylinder to swing so that the other end of the sealing cover can open and close the discharge port; the feeding funnel is also provided with an anti-collision rubber block for preventing the other end of the sealing cover from colliding with the feeding funnel.

[0014] Preferably, the first feeding mechanism and the second feeding mechanism also include sensors respectively, and the sensors are composed of a contact sensing seat and a movable activation member that can realize activation sensing through contact. The contact sensing seat is arranged on the feeding funnel, and the movable activation member is arranged at the other end of the sealing cover, so that the movable activation member can realize contact and separation with the contact sensing seat as the other end of the sealing cover swings.

[0015] Preferably, the driving cylinder is provided with an air pipe, the contact sensing seat is provided with an electrical connection line, and the feeding funnel is also provided with a pipe laying channel and a wiring channel for arranging the air supply pipe and the electrical connection line.

[0016] Preferably, the utility model also includes a frame, and the pressing mechanism, the first feeding mechanism, the second feeding mechanism and the cloth pushing plate mechanism are respectively arranged on the frame; a brick embryo conveying mechanism is also provided on one side of the frame, and the brick embryo conveying mechanism includes a plurality of conveying rods arranged side by side, and a powder slag gap is formed between each adjacent two conveying rods; a powder slag receiving basin with a movable wheel is also provided under the brick embryo conveying mechanism.

[0017] The beneficial effects of the present invention are as follows: the present invention only requires one material pushing plate mechanism to simultaneously achieve the purpose of transferring the top material, the bottom material, and the brick blanks, without the need for separate transfer components. This significantly reduces the number of components used in the brick blank pressing and forming device, making its overall structure simpler, making the brick blank pressing and forming device easier to manufacture and maintain, and significantly reducing manufacturing costs. Furthermore, in actual operation, only one reciprocating movement of the material pushing plate mechanism is required to complete the transfer of the top material, bottom material, and brick blanks. This significantly shortens the transfer stroke, thereby significantly reducing the time required to complete a brick blank production cycle and significantly improving brick blank production efficiency. By sequentially connecting the top surfaces of the first platform, the third platform, and the second platform and aligning them, the top surfaces of the three platforms are all on the same horizontal plane and remain flat, ensuring that the material pushing plate mechanism can slide back and forth very smoothly. The mold cavity is configured to allow the outer material and base material to be filled into the mold cavity. The press mechanism and the lower mold pusher mechanism then compress the outer material and base material together to form a tile blank. The lower mold pusher mechanism adjusts the depth of the mold cavity, allowing the outer material and base material to be laid flat within the mold cavity. After the blank is pressed, the lower mold pusher mechanism can be moved vertically to lift it out of the third platform. When the top surface of the lower mold pusher mechanism is flush with the top surface of the third platform, the material pusher mechanism can push the blank and transfer it to the outside of the blank pressing and forming device. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1 It is a schematic diagram of the overall structure of the brick pressing and forming device in the present invention.

[0019] Figure 2 It is a schematic diagram of the three-dimensional structure of the first feeding mechanism or the second feeding mechanism in the present invention.

[0020] Figure 3 This is a schematic diagram of the disassembled structure of the fabric pushing plate and the buffer rubber pad in the present invention.

[0021] Figure 4 This is a schematic diagram of the process structure of the utility model in transferring the surface material, base material and brick embryo. DETAILED DESCRIPTION

[0022] like Figure 1As shown, the brick pressing and forming device described in the present invention includes a pressing mechanism 1, a first feeding mechanism 2, a second feeding mechanism 3, and a material pushing plate mechanism 4. A first platform 20 is provided below the first feeding mechanism 2, and a second platform 30 is provided below the second feeding mechanism 3. A third platform 10 is provided below the pressing mechanism 1. The first feeding mechanism 2 and the second feeding mechanism 3 are respectively arranged on the left and right sides of the pressing mechanism 1, and the top surfaces of the first platform 20, the third platform 10 and the second platform 30 are connected together in sequence and arranged in a flush manner; a mold cavity 101 is provided on the top surface of the third platform 10, and the material pushing plate mechanism 4 is slid back and forth on the top surfaces of the first platform 20, the third platform 10 and the second platform 30, and the material pushing plate mechanism 4 can transfer the material powder output by the first feeding mechanism 2 and the second feeding mechanism 3 to the mold cavity 101 respectively; a lower mold pushing mechanism 5 that can move vertically is also provided in the mold cavity 101. The present invention utilizes a single material distribution plate mechanism 4 to simultaneously transfer the top material, base material, and brick blanks, eliminating the need for separate transfer components. This significantly reduces the number of components used in the brick blank pressing and forming apparatus, simplifying the overall structure and significantly reducing manufacturing costs. Furthermore, a single reciprocating motion of the material distribution plate mechanism 4 is all that is required to complete the transfer of the top material, base material, and brick blanks, significantly shortening the transfer stroke and the time required to complete a single brick blank production cycle, thereby significantly improving brick blank production efficiency.

[0023] During actual use, when the first feeding mechanism 2 is used to store fabrics, the second feeding mechanism 3 is used to store base materials; when the first feeding mechanism 2 is used to store base materials, the second feeding mechanism 3 is used to store fabrics; the utility model does not limit the storage position of fabrics and base materials, and ceramic tile blanks can be produced no matter which feeding mechanism is set.

[0024] In actual application, the first platform 20, the third platform 10 and the second platform 30 can be separate structures. As a preference, in order to make the production of the three platforms easier and to make the top surfaces of the three platforms more smoothly connected together, so that the sliding of the cloth pushing plate mechanism 4 is smoother, Figure 1 As shown, the first platform 20, the third platform 10 and the second platform 30 are an integrally formed structure.

[0025] In order to further improve the structure of the cloth pushing plate mechanism 4, make it simple, scientific and reasonable, and easy to manufacture, as Figure 1 As shown, the fabric pushing plate mechanism 4 includes a fabric pushing plate 41 and a pushing motor 42 . The fabric pushing plate 41 is slidable back and forth on the top surfaces of the first platform 20 , the third platform 10 and the second platform 30 via the pushing motor 42 .

[0026] In order to avoid mixing of the surface material and the base material during the transfer process, thereby affecting the production quality of the tiles, the utility model arranges the first feeding mechanism 2 and the second feeding mechanism 3 on the left and right sides of the press mechanism 1 respectively.

[0027] like Figure 1 As shown, the material push plate 41 is provided with a first material cavity 411 and a second material cavity 412 running vertically through its upper and lower ends. The first and second material cavities 411, 412 are arranged side by side on the material push plate 41. During use, the first material cavity 411 receives the powder material output by the first feed mechanism 2, and the second material cavity 412 receives the powder material output by the second feed mechanism 3. This aligns the positions of the first and second feed mechanisms 2, 3, further shortening the round-trip travel of the material push plate 41. This structural design allows the received powder material to be transferred to the mold cavity 101. It also separates the receiving of the top material and the base material, further preventing mixing of the materials. Furthermore, during the filling process of the mold cavity 101, the bottom edges of the first and second material cavities 411, 412 also serve to level the powder material in the mold cavity 101, ensuring a smoother distribution of the powder material. In actual use, the material distribution and pushing plate 41 is also provided with a vibration motor. Through the vibration of the vibration motor, when the first material cavity 411 and the second material cavity 412 transfer the material powder to the mold cavity 101, the material powder remaining in the first material cavity 411 and the second material cavity 412 is also vibrated down and falls into the mold cavity 101, thereby ensuring a consistent amount of powder for each tile blank, thereby ensuring the quality of the tile product.

[0028] When transferring the bricks, in order to reduce the impact force of the material pushing plate 41 on the bricks, Figure 1 As shown, the cloth pushing plate 41 is further provided with a buffer rubber pad 6 for contacting the brick blank.

[0029] In order to further improve the assembly structure of the cloth pushing plate 41 and the buffer rubber pad 6, as shown in FIG. Figure 3 As shown, a mounting protrusion 61 and a mounting groove 413 are provided between the fabric pushing plate 41 and the rubber cushion 6, which are interlocked. This facilitates installation and removal of the rubber cushion 6, making replacement and maintenance of the rubber cushion 6 more convenient. Specifically, the radial cross-sections of the mounting protrusion 61 and the mounting groove 413 are both T-shaped. The mounting protrusion 61 is provided on the rubber cushion 6, and the mounting groove 413 is provided on the fabric pushing plate 41. Of course, the mounting positions of the mounting protrusion 61 and the mounting groove 413 can also be interchanged, and this is not limited here.

[0030] More specifically, Figure 3As shown, the two ends of the embedding groove 413 in the longitudinal direction are arranged with one end extending through the fabric pushing plate 41 and the other end not extending through the fabric pushing plate 41. One end of the embedding groove 413 is covered by a rotating block 414 provided on the fabric pushing plate 41. One end of the rotating block 414 is rotatably mounted on the fabric pushing plate 41 via a rivet, and the other end of the rotating block 414 covers one end of the embedding groove 413. This not only prevents the embedding protrusion 61 from becoming loose from the embedding groove 413, but also makes it very convenient to remove and replace the buffer rubber pad 6.

[0031] In order to further improve the structure of the first feeding mechanism 2 and the second feeding mechanism 3, so that the structure is simple, scientific and reasonable, and easy to manufacture, as shown in FIG. Figure 2 As shown, the first feeding mechanism 2 and the second feeding mechanism 3 respectively include a feeding funnel 21, a sealing cover 22, and a driving cylinder 23. A discharge port 211 is provided on the bottom surface of the feeding funnel 21. One end of the sealing cover 22 is hinged to the feeding funnel 21. The other end of the sealing cover 22 is driven by the driving cylinder 23 to swing so that the other end of the sealing cover 22 can open and close the discharge port 211. The feeding funnel 21 is also provided with an anti-collision rubber block 24 for preventing the other end of the sealing cover 22 from colliding with the feeding funnel 21. By driving the cylinder 23 to control the opening and closing of the discharge port 211 by the sealing cover 22, automatic discharging can be achieved very well. By providing the anti-collision rubber block 24, collisions can be avoided, so that the hinge between the sealing cover 22 and the feeding funnel 21 is not easy to loosen, thereby ensuring the stability of the connection.

[0032] In order to detect whether the sealing cover 22 is fully opened, Figure 2 As shown, the first feeding mechanism 2 and the second feeding mechanism 3 also include sensors 7 respectively. The sensors 7 are composed of a contact sensing seat 71 and a movable activation member 72 that can realize activation sensing by contact. The contact sensing seat 71 is arranged on the feeding funnel 21, and the movable activation member 72 is arranged at the other end of the sealing cover 22, so that the movable activation member 72 can realize contact and separation with the contact sensing seat 71 as the other end of the sealing cover 22 swings. When the other end of the sealing cover 22 swings open, by making the movable activation member 72 touch the contact sensing seat 71, it can be detected that the sealing cover 22 has been opened to ensure that the powder material is successfully discharged and the production quality of the tiles is guaranteed. In actual application, the sensor 7 adopts the common and commonly used contact sensor on the market. Its specific structure and use principle will not be elaborated here.

[0033] like Figure 2As shown, the driving cylinder 23 is provided with an air pipe 231, the contact sensor base 71 is provided with an electrical connection line 711, and the feeding funnel 21 is further provided with a pipe routing channel 212 and a wiring channel 213 for arranging the air supply pipe 231 and the electrical connection line 711. The provision of the pipe routing channel 212 and the wiring channel 213 allows the air pipe 231 and the electrical connection line 711 to be arranged in an orderly manner, thereby preventing them from interfering with the movement of the material distribution push plate mechanism 4, other moving parts, and the brick blanks.

[0034] like Figure 1 As shown, the present invention further includes a frame 8, on which the press mechanism 1, the first feeding mechanism 2, the second feeding mechanism 3 and the cloth pushing plate mechanism 4 are respectively arranged. This allows the various mechanisms to be integrated into one, making it easy to use and install. Figure 1 As shown, a brick embryo conveying mechanism 9 is also provided on one side of the frame 8. The brick embryo conveying mechanism 9 includes a plurality of conveying rollers 91 arranged side by side, and a powder slag gap 92 is formed between each two adjacent conveying rollers 91. This facilitates the transfer of pressed brick embryos, and the setting of the powder slag gap 92 can filter out excess powder slag. A powder slag receiving basin 82 with a moving wheel 81 is also provided below the brick embryo conveying mechanism 9. This can receive fallen powder slag, preventing the powder from falling on the ground and being difficult to clean. The setting of the moving wheel 81 facilitates the movement of the powder slag receiving basin 82.

[0035] In actual application, the press mechanism 1 and the lower mold pushing mechanism 5 adopt the existing press mechanism and lower mold pushing mechanism for pressing brick embryos, and can also adopt a one-open-multiple mold press device designed by the applicant or a company associated with the applicant (the press device has applied for a patent and obtained the patent right, and the Chinese patent application number is 202023035540.3). Its specific structure and use principle will not be elaborated here. The structure of the press mechanism 1 and the lower mold pushing mechanism 5 of the utility model is briefly described below. Figure 4 As shown, the press mechanism 1 is equipped with an upper die 11 capable of vertical movement via a first vertical drive 12. The lower die pushing mechanism 5 comprises a lower die 51 and a second vertical drive 52 that drives the lower die 51 for vertical movement. When pressing the blank, the surface material and base material are compressed to form the blank through the restriction of the mold cavity 101 and the compression between the upper die 11 and the lower die 51. In practice, the first and second vertical drives 12, 52 are hydraulic telescopic rods, which provide excellent compression force.

[0036] The operation process of the utility model is as follows: Figure 4 As shown:

[0037] In the first step, the material pushing plate 41 is located on the top surface of the first platform 20, and the first feeding mechanism 2 fills the material into the first material cavity 411 of the material pushing plate 41. At the same time, the lower mold pushing mechanism 5 pushes the brick blank 100 formed in the last press to the top of the mold cavity 101, and the top surface of the lower mold 51 is flush with the top surface of the third platform 10.

[0038] In the second step, when the fabric pushing plate 41 moves to the third platform 10, the brick blanks that have been pressed and formed in the last time are pushed onto the second platform 30, and the lower mold pushing mechanism 5 is lowered by one level to make room in the mold cavity 101 for filling the fabric. At the same time, the first material cavity 411 is placed above the mold cavity 101, and the fabric is filled into the mold cavity 101.

[0039] In the third step, the material pushing plate 41 moves to the second platform 30, and pushes the brick blanks formed in the last press to the outside of the second platform 30 (that is, pushes the brick blanks to the brick blank conveying mechanism 9 for transfer), and the second feeding mechanism 3 fills the bottom material into the second material cavity 412 of the material pushing plate 41, and the lower mold pushing mechanism 5 is lowered by one layer again to make room in the mold cavity 101 for filling the bottom material.

[0040] In the fourth step, the cloth pushing plate 41 moves back to the third platform 10 . Meanwhile, the second material cavity 412 is placed above the mold cavity 101 , and the base material is filled into the mold cavity 101 .

[0041] In the fifth step, the fabric pushing plate 41 returns to the first platform 20, the upper mold 11 of the press mechanism 1 moves downward, and the upper mold 11 and the lower mold 51 press the surface material and the base material, thus completing one brick production.

[0042] Through the above-mentioned structural design, compared with the technical solution disclosed in the prior art (Chinese patent application number 201910737953.9, entitled "A hydraulic brick-making machine and brick-making method"), the transfer stroke required to complete the surface material, base material and brick blank is shortened, thereby greatly shortening the time taken to complete a brick blank production, thereby greatly improving the production efficiency of the brick blank.

[0043] Note: In order to make the operation process of the utility model more clearly displayed, the brick pressing and forming device of the utility model is attached. Figure 4 The method of omission is used in the text.

Claims

1. A brick pressing and forming device, characterized in that: It includes a press mechanism (1), a first feeding mechanism (2), a second feeding mechanism (3), and a cloth pushing plate mechanism (4). A first platform (20) is provided below the first feeding mechanism (2), a second platform (30) is provided below the second feeding mechanism (3), and a third platform (10) is provided below the press mechanism (1). The first feeding mechanism (2) and the second feeding mechanism (3) are respectively arranged on the left and right sides of the press mechanism (1), and the top surfaces of the first platform (20), the third platform (10) and the second platform (30) are connected in sequence and arranged flush with each other. A mold cavity (101) is provided on the top surface of the third platform (10), and the material pushing plate mechanism (4) is slidably arranged on the top surfaces of the first platform (20), the third platform (10), and the second platform (30), and the material pushing plate mechanism (4) can transfer the material powder output by the first feeding mechanism (2) and the second feeding mechanism (3) to the mold cavity (101) respectively; The mold cavity (101) is also provided with a lower mold pushing mechanism (5) capable of vertical movement.

2. The brick pressing and forming device according to claim 1, characterized in that: The first platform (20), the third platform (10) and the second platform (30) are an integrally formed structure.

3. The brick pressing and forming device according to claim 1, characterized in that: The fabric pushing plate mechanism (4) comprises a fabric pushing plate (41) and a pushing motor (42). The fabric pushing plate (41) is arranged on the top surfaces of the first platform (20), the third platform (10) and the second platform (30) so as to slide back and forth via the pushing motor (42).

4. The brick pressing and forming device according to claim 3, characterized in that: The cloth pushing plate (41) is provided with a first material cavity (411) and a second material cavity (412) vertically penetrating the upper and lower ends thereof, and the first material cavity (411) and the second material cavity (412) are arranged side by side on the cloth pushing plate (41).

5. The brick pressing and forming device according to claim 3, characterized in that: The cloth pushing plate (41) is also provided with a buffer rubber pad (6) for contacting the brick embryo.

6. The brick pressing and forming device according to claim 5, characterized in that: An embedding protrusion (61) and an embedding groove (413) that are embedded with each other are further provided between the fabric pushing plate (41) and the buffer rubber pad (6).

7. The brick pressing and forming device according to claim 1, characterized in that: The first feeding mechanism (2) and the second feeding mechanism (3) respectively comprise a feeding funnel (21), a sealing cover (22), and a driving cylinder (23); a discharge port (211) is provided on the bottom surface of the feeding funnel (21); one end of the sealing cover (22) is hinged to the feeding funnel (21); the other end of the sealing cover (22) is driven by the driving cylinder (23) to swing so that the other end of the sealing cover (22) can open and close the discharge port (211); and an anti-collision rubber block (24) is also provided on the feeding funnel (21) for preventing the other end of the sealing cover (22) from colliding with the feeding funnel (21).

8. The brick pressing and forming device according to claim 7, characterized in that: The first feeding mechanism (2) and the second feeding mechanism (3) further include sensors (7), respectively. The sensors (7) are composed of a contact sensing seat (71) capable of realizing activation sensing through contact and a movable activation member (72). The contact sensing seat (71) is arranged on the feeding funnel (21), and the movable activation member (72) is arranged at the other end of the sealing cover (22), so that the movable activation member (72) can realize contact and separation with the contact sensing seat (71) as the other end of the sealing cover (22) swings.

9. The brick pressing and forming device according to claim 8, characterized in that: The driving cylinder (23) is provided with an air pipe (231), the contact sensing seat (71) is provided with an electrical connection line (711), and the feeding funnel (21) is further provided with a pipe channel (212) and a wiring channel (213) for arranging the air supply pipe (231) and the electrical connection line (711).

10. The brick pressing and forming device according to claim 1, characterized in that: The machine also includes a frame (8), on which the press mechanism (1), the first feeding mechanism (2), the second feeding mechanism (3) and the cloth pushing plate mechanism (4) are respectively arranged; a brick embryo conveying mechanism (9) is also provided on one side of the frame (8); the brick embryo conveying mechanism (9) includes a plurality of conveying rods (91) arranged side by side, and a powder slag gap (92) is formed between each two adjacent conveying rods (91); and a powder slag receiving basin (82) with a moving wheel (81) is also provided below the brick embryo conveying mechanism (9).

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