CN111409169A - Wall panel forming poke system - Google Patents

Abstract

The invention relates to the technical field of wallboard manufacturing equipment, and particularly discloses a wallboard forming die poking system which comprises a fixed seat and a pouring cavity arranged on the fixed seat, wherein a stirring mechanism is arranged above the pouring cavity, and a driving mechanism used for driving the stirring mechanism to eccentrically stir slurry in the pouring cavity is arranged on the fixed seat. According to the invention, the stirring mechanism is used for automatically and eccentrically stirring the slurry, so that bubbles in the slurry can escape, the problem that the quality of the wallboard is influenced because a large amount of bubbles are easily remained in the wallboard during wallboard forming in the prior art is solved, and the wallboard forming quality is improved.

Description

Wall panel forming poke system

technical field

The invention relates to the technical field of wallboard manufacturing equipment, in particular to a wallboard forming poking die system.

Background technique

Due to its advantages of light weight, economy, fire prevention, heat insulation, heat preservation, moisture resistance, waterproof, sound insulation, environmental protection, earthquake resistance, good integrity and thin body, cast wall panels are widely used in building walls. In the forming process of pouring wall panels for construction, it usually goes through processes such as mold support, mixing, pouring, forming, and mold removal. In the mold support process, the mold is assembled into a pouring cavity for pouring wall panels. The pouring cavity is generally in the shape of a long plate; the mixing process is to stir and mix raw materials including river sand, gravel and additives into slurry; the pouring process is to pour the slurry into the pouring cavity, so that the slurry is evenly filled in the pouring cavity. The forming process is that the slurry is solidified in the pouring cavity to form a wall; the demolding process is to remove the mold after the wall is completely formed.

In the actual wallboard forming process, the depth of the pouring cavity is generally up to 3.5m, and in order to improve the quality of the outer wall of the wallboard after forming, the calcium silicate board will be fixed on the inner wall of the mold. When the slurry is poured into the pouring cavity, The slurry and the calcium silicate board are in contact with each other and compounded. After the slurry is solidified, a smooth and beautiful lightweight composite wallboard is compounded on the outer wall of the wallboard. , the matching grooves, edge corners and other structures will be set on the mold.

In the prior art, because the depth of the pouring cavity is relatively deep, and during the pouring process, the slurry is poured downward from the top of the pouring cavity, and there are often residual bubbles inside the wallboard during the pouring process, which makes the wallboard less dense. And the strength is weakened. At the same time, due to the existence of air bubbles, the calcium silicate board cannot be well compounded with the wallboard. As a result, the calcium silicate board is easily deformed or even falls off when the wallboard is installed, which seriously affects the appearance of the wallboard.

SUMMARY OF THE INVENTION

The present invention is intended to provide a wallboard forming poke system to solve the problem in the prior art that a large number of air bubbles are easily left inside the wallboard during the wallboard forming, which affects the quality of the wallboard.

In the face of the above problems, the applicant conducted an in-depth analysis of the causes of the problem, and believed that the main reason for the low quality of the wallboard was that the wallboard contained a large number of air bubbles. Therefore, in the preliminary stage, the applicant tried to improve in the mixing stage, mainly It is to improve the mixing operation of the mixer. In the early stage of mixing, the various raw materials are stirred by rapid stirring, and the low-speed stirring is used in the pouring cavity to avoid the generation of a large number of bubbles due to stirring, and at the same time, the slurry is kept as much as possible. Air bubbles escape. However, the applicant found that no matter how to control the stirring in the mixing stage, when the slurry falls into the pouring cavity during pouring, the slurry still has a large amount of In this regard, the applicant proposed to use a vibration pump to vibrate the slurry entering the pouring cavity, so as to vibrate out the bubbles in the slurry. When the vibrating pump is used to vibrate the mixture, the raw materials in the slurry will be delaminated, resulting in damage to the quality of the wallboard. Finally, the applicant adopts the method of manually stirring the slurry to remove air bubbles in the slurry. The slurry creeps, and the air bubbles in the slurry escape, so as to reduce the air bubbles in the slurry. However, there are still the following problems when using manual stirring of the mold rod: 1. When manually stirring the mold rod, the stirring range of different people is different, and the stirring range of the same person in different periods may be different, which makes the stirring of the mold rod. The effect is different, and the quality of the wall panel forming cannot be guaranteed; 2. The depth of the pouring cavity can reach 3.5m. When manually stirring with a die rod, the slurry at the bottom of the pouring cavity cannot be stirred, so that the quality of the lower part of the wallboard cannot be 3. Due to the deep depth of the pouring cavity, the labor intensity of manually punching the mold is high, and the efficiency of punching the mold is low.

In order to solve the above-mentioned problems, the technical scheme of the present invention is as follows: a wall panel forming poke mold system, including a fixed seat and a pouring cavity arranged on the fixed seat, a stirring mechanism is arranged above the pouring cavity, and a stirring mechanism for driving the stirring mechanism is arranged on the fixed seat. The drive mechanism for eccentric stirring of the slurry in the pouring cavity.

The principle of this technical solution is: the pouring cavity is used to pour the slurry and form the wallboard, the driving mechanism is used to drive the stirring mechanism to eccentrically stir the slurry in the pouring cavity, and the stirring mechanism is used to eccentrically stir the slurry. No bubbles are generated, and at the same time, the slurry can be creeping, so that the bubbles in the slurry can escape to the outside of the slurry under the action of the slurry creeping. When the slurry is formed, the bubbles inside the slurry are greatly reduced, thereby obtaining denser At the same time, due to the stirring effect of the stirring mechanism, when the slurry creeps, the slurry can friction and run-in with the silicate plates on both sides of the pouring cavity, so that the slurry can better interact with the silicate. The panels are composited to improve the surface quality of the wall panels.

The beneficial effects of this technical solution are:

1. A wallboard with good compactness can be obtained: Compared with the prior art, a large amount of air bubbles remain inside the wallboard after the wallboard is formed and on the composite surface of the wallboard and the silicate board, and the quality of the wallboard is poor. In the present application, the slurry in the pouring cavity is eccentrically stirred by the stirring mechanism, thereby reducing the content of air bubbles in the slurry and improving the quality of the wallboard after molding. When the slurry is eccentrically stirred by the stirring mechanism, the slurry can be fully stirred. Creep and mix evenly, while avoiding the stratification of the raw materials in the slurry.

2. Can improve the composite of silicate board and slurry: Compared with pouring the slurry directly into the pouring cavity, the relative movement between the silicate board and the slurry is less, so that the slurry and the silicate board The compounding is poor. In this application, when the slurry is eccentrically stirred by the stirring mechanism, the slurry creeps in the pouring cavity, thereby improving the running-in compounding of the slurry and the silicate board, so that the silicate board can be well compounded on the wallboard , to improve the appearance quality of the wall panel.

3. Improve the molding quality at the corners of the wallboard: Compared with the prior art, the slurry is poured into the pouring cavity and then directly formed. The slurry can be filled sufficiently so that the wallboard can be shaped precisely to the dimensions of the mold.

4. Effectively reduce manual labor intensity and save costs: Compared with the way of manually punching the mold in the prior art, in this application, the driving mechanism is used to drive the stirring mechanism to automatically complete the eccentric stirring, which effectively reduces the labor intensity and saves labor costs. During eccentric stirring, the stirring range and rhythm are stable, so that the quality of the successively formed wall panels is stable.

Further, the stirring mechanism includes a driving motor and a die rod, the driving motor is connected with the driving mechanism, and an eccentric connecting piece for driving the eccentric rotation of the die rod is arranged between the die rod and the driving motor.

In this solution, the drive motor is used to drive the eccentric connecting piece to rotate, so that the eccentric connecting piece drives the die rod to rotate eccentrically, so that the die stick eccentrically stirs the slurry in the pouring cavity.

Further, the driving mechanism includes a vertical guide rail and a pushing member fixedly connected to the vertical guide rail, and the driving motor is connected to the pushing member and slidably connected to the vertical guide rail.

In this scheme, the pusher is fixedly connected to the vertical guide rail, and the pusher is used to push the drive motor to move vertically. When the drive motor moves vertically, it will push the die bar to move vertically, and at the same time, the drive motor drives the die bar to rotate eccentrically, so that The poke rod can also eccentrically stir the slurry while moving vertically; at the same time, the drive motor is slidably connected to the vertical guide rail, which provides guidance and limit for the drive motor, so that the drive motor can move It is more precise and stable, and it is convenient for the die rod to achieve stable eccentric stirring of the slurry.

Further, the number of vertical guide rails is two, the two vertical guide rails are located on both sides of the casting cavity, a sliding plate is slidably connected between the two vertical guide rails, and the driving motor is fixedly connected to the sliding plate.

In this solution, the number of vertical guide rails is set to two, and the two vertical guide rails are located on both sides of the pouring cavity, and the two guide rails are used to provide guidance and limit to the sliding plate at the same time, so that the sliding vertical sliding of the sliding plate is more stable and accurate. , so that the drive motor can accurately drive the vertical movement of the die rod, and realize more stable eccentric stirring of the slurry.

Further, the eccentric connecting piece includes a flange rotatably connected to the driving motor, and the die rod and the flange are eccentrically and detachably connected.

In this solution, the drive motor is used to drive the flange to rotate, the structure is simple and the transmission of large torque can be realized; the stab bar is eccentrically connected to the flange, the operation is simple, and the stab bar and the flange are detachably connected It is convenient to disassemble and assemble the mold rod, and when the mold rod is damaged, the mold rod can be replaced easily and quickly, so as to avoid the long replacement time and affect the efficiency of wall panel forming.

Further, the number of punching bars in the pouring cavity is several, and the plurality of punching bars are evenly arranged along the length direction of the pouring cavity.

In this scheme, several die bars are arranged in the pouring cavity to improve the die efficiency of the die bars. Several die bars are evenly arranged along the length of the pouring cavity, and the distances between adjacent die bars are equal. Each poke rod can stir the mixture in the pouring cavity along the length direction of the pouring cavity with the same intensity, so that the mixture is evenly stirred, and the compactness of each part of the wallboard is ensured to be consistent when forming.

Further, the distance between the center of the poke rod and the center of the flange is 10-15mm.

In this scheme, the distance between the center of the die bar and the center of the flange is set to 10-15mm. When the eccentric size of the die bar is within this range, it can avoid setting the eccentric size of the die bar too much. Large enough to cause a large amount of agitation to the slurry when the die rod rotates, so that the slurry is layered, and at the same time, the stirring effect of the die rod can be optimized, so that the air bubbles in the slurry can fully escape.

Further, the bottom of the die rod is fixedly connected with a mesh cone portion.

In this solution, a mesh cone is fixedly connected to the bottom of the die rod, and the mesh cone is in the shape of a cone. The mesh cone can be used to guide the die rod into the pouring cavity, preventing the bottom of the die rod from touching the top of the formwork. At the same time, the mesh cone is in the shape of a mesh cone, so that after the die rod enters the pouring cavity, the mesh cone rotates with the die rod to stir the slurry, thereby further improving the slurry. The creeping of the slurry makes the bubbles in the slurry escape more fully, and the forming quality of the wallboard is improved.

Further, the number of pouring cavities is several, the several pouring cavities are arranged side by side, the outer side of the pouring cavity is provided with lateral guide rails along the arrangement direction of the several pouring cavities, and the vertical guide rails are slidably connected to the lateral guide rails.

In the actual mixing process, the mixing operation is carried out in the mixer. In order to make the mixer operate efficiently, the amount of each mixing of the mixer reaches the rated amount, so the amount of each mixing of the mixer is Fixed and the mixer can pour multiple pouring cavities after mixing at one time. In this solution, multiple pouring cavities are arranged side by side, and lateral guide rails are arranged on the outside of the pouring cavity along the arrangement direction of the multiple pouring cavities, and the vertical guide rails are slidably connected to the lateral guide rails, so that the die bar can follow the vertical guide rails It slides laterally along the lateral guide rail, so that the die rods eccentrically stir the slurry in the adjacent pouring cavity successively, so as to improve the efficiency of wall panel forming.

Further, the cross section of the die rod is one or more combinations of circle, square, ellipse or rhombus.

The cross section of the die bar is set to one or more combinations of circle, square, ellipse or diamond, and the cross section of the die bar is circular, which can reduce the wear of the die bar and make the use of the die bar. Longer life; compared with the circular cross section of the die bar, the cross section of the die bar is set to a square, ellipse or diamond shape, and during the eccentric rotation of the die bar, the stirring range of the die bar to the slurry is higher. The larger it is, the better the stirring effect is.

Description of drawings

FIG. 1 is a schematic diagram of the connection between the stirring mechanism and the driving mechanism in the wallboard forming poke mold system in the first embodiment of the present invention.

FIG. 2 is a schematic diagram of the connection between the piercing rod and the mesh cone in the wallboard forming piercing system according to the second embodiment of the present invention.

FIG. 3 is a schematic diagram of the connection between the punching rod and the mesh cone in the wallboard forming punching system according to the fifth embodiment of the present invention.

Detailed ways

The following is further described in detail by specific embodiments:

The reference signs in the drawings include: mold base 1, pouring cavity 2, transverse guide rail 3, vertical guide rail 4, transverse motor 5, fixing plate 6, vertical hydraulic cylinder 7, piercing mold rod 8, sliding plate 9, drive Motor 10 , flange 11 , mesh cone 12 .

Example 1

Embodiment 1 is basically as shown in accompanying drawing 1: the wall panel forming poke mold system includes a fixed seat and a mold base 1 arranged in the fixed seat, the mold base 1 is provided with a pouring cavity 2, and the pouring cavity 2 is formed by splicing the formwork. , the number of pouring cavities 2 is multiple (in this embodiment, the number of pouring cavities 2 is five rows of ten, two in each row, but the number of pouring cavities 2 can be determined according to the actual production situation in actual use), multiple rows of pouring cavities 2 are evenly arranged in the front and rear directions in Fig. 1, a stirring mechanism is arranged above the pouring cavity 2, and a driving mechanism for driving the stirring mechanism to eccentrically stir the slurry in the pouring cavity 2 is provided on the mold frame 1.

As shown in FIG. 1 , the top of the fixed seat is fixedly connected with horizontal guide rails 3 arranged in the front and rear directions by bolts. The horizontal guide rails 3 are located on the top of the mold base 1. Parallel, in this embodiment, the set length of the lateral guide rail 3 can be reasonably set according to the actual use requirements, and is not limited to the length value in FIG. 1 . In this embodiment, the driving mechanism includes a vertical guide rail 4 and a pusher. The bottom of the vertical guide rail 4 is laterally slidably connected to the horizontal guide rail 3 , and the vertical guide rail 4 is provided with a vertical guide rail 4 for pushing the vertical guide rail 4 to slide along the horizontal guide rail 3 The specific driving method of the horizontal motor 5 is as follows: the bottom of the vertical guide rail 4 is connected with a roller through a pin shaft, and the horizontal motor 5 and the roller are connected by a chain and a gear, so that the horizontal motor 5 can drive the roller when it rotates. The rollers drive the vertical guide rails 4 to slide; the tops of the two vertical guide rails 4 are fixedly connected with a fixed plate 6 by screws, and the pusher includes a vertical hydraulic cylinder 7 fixedly connected to the bottom of the fixed plate 6 by screws, and the vertical hydraulic cylinder 7 with the output shaft facing down.

As shown in Figure 1, the stirring mechanism includes a drive motor 10 and a poking die rod 8 with a circular cross-section, and a sliding plate 9 is vertically slidably connected between the two vertical guide rails 4 through a roller connection. The top surface of the sliding plate 9 is connected to the The output shaft of the vertical hydraulic cylinder 7 is fixedly connected by screws, the drive motor 10 is fixedly connected to the slide plate 9 by screws, and an eccentric connector is connected between the drive motor 10 and the die rod 8. In this embodiment, the eccentric connector Including six flanges 11, the six flanges 11 are all connected to the bottom surface of the slide plate 9 through the bearing rotation, the bottom of each flange 11 is welded with an eccentric sleeve, and the top of the die rod 8 can be inserted into the sleeve. The cylinder is fixedly connected by the stop nut. The eccentricity of the die rod 8 and the flange 11 is 15mm. When the flange 11 is rotated by the driving motor 10, the flange 11 can be used to drive the eccentricity of the die rod 8. Rotate, so as to realize the eccentric stirring of the slurry in the pouring cavity 2 by the die rod 8 . In this embodiment, the specific connection method for driving the flange 11 to rotate by the driving motor 10 is as follows: the output shaft of the driving motor 10 is arranged horizontally, the output shaft of the driving motor 10 is fixedly connected with a worm wheel through a flat key, and the sliding plate 9 is connected by a bearing. The worm is rotatably connected with the worm gear, the worm is fixedly connected with the driving wheel through the flat key, and the flange 11 is fixedly connected with the rotating shaft through the flat key, and the rotating shaft is fixedly connected with the driven wheel through the flat key. Since the use of a worm gear and a gear transmission is a conventional technique in the art, the schematic diagram of the connection is not repeated here.

The specific implementation is as follows:

When pouring the slurry into the pouring cavity 2, the horizontal motor 5 is used to push the vertical guide rail 4 to slide along the horizontal guide rail 3, and the vertical guide rail 4 slides to drive the fixed plate 6, the sliding plate 9, the driving motor 10 and the poke rod 8 to slide at the same time , until the die rod 8 slides to the top of the casting cavity 2 to stop the drive of the transverse motor 5; then simultaneously start the drive motor 10 and the vertical hydraulic cylinder 7, the vertical hydraulic cylinder 7 pushes the slide plate 9 downward at a constant speed, and the slide plate 9 drives The drive motor 10 and the die rod 8 slide down, and the drive motor 10 rotates through the worm wheel, the worm, the driving wheel, the driven wheel and the rotating shaft in turn, so that the rotating shaft drives the flange 11 to rotate, and when the flange 11 rotates, it drives the die rod. 8 is rotated eccentrically, so that the die rod 8 produces eccentric stirring to the slurry in the pouring cavity 2, and the eccentric stirring effect of the die rod 8 makes the air bubbles in the slurry escape, and finally the inner dense and smooth wall is obtained when the wall panel is formed. For a uniform wallboard, in this embodiment, the downward sliding speed of the die bar 8 is set to 60mm/s, and the eccentric rotation speed of the die bar 8 is 2r/s, so that the die bar 8 can produce suitable strength for the slurry. It can not only avoid the stratification of the raw material of the slurry caused by the excessive rotation of the die rod 8, but also make the stirring effect of the die rod 8 on the slurry to remove the bubbles in the slurry as much as possible.

When the bottom of the punching rod 8 moves down to be close to the bottom of the casting cavity 2, the vertical hydraulic cylinder 7 pulls the slide plate 9 upward and slides, so that the sliding plate 9 drives the driving motor 10 and the punching rod 8 to move upward until the punching rod 8 is completely withdrawn from the pouring cavity 2, so that the mold bar 8 completes a poke operation on the pouring cavity 2; when a poke operation is completed, the transverse motor 5 pushes the vertical guide rail 4 to slide, thereby making the vertical guide rail 4 Push the moulding rod 8 to the top of the pouring cavity 2 adjacent to the pouring cavity 2 after the moulding operation has been completed, repeat the above-mentioned moulding operation again, and gradually complete the moulding operation for the slurry in all the pouring cavities 2.

Embodiment 2

The difference between the second embodiment and the first embodiment is: as shown in FIG. 2 , the bottom of the die rod 8 is welded with a mesh cone portion 12 in the shape of a mesh cone. In this embodiment, the mesh cone portion 12 includes three steel bars of the same size. , the bottoms of the three steel bars are welded at the same point, the tops of the three steel bars are welded to the bottom of the die rod 8, and the three steel bars are enclosed in a cone shape with the apex facing down.

If the die bar 8 is bent or the alignment between the die bar 8 and the pouring cavity 2 is not accurate, so that the die bar 8 cannot enter the pouring cavity 2, the die bar 8 may be opposed to the template and The situation that the punching rod 8 is broken or the template is damaged increases the cost and affects the rhythm of the wall panel forming. In this embodiment, since the mesh cone portion 12 is in the shape of a mesh cone, the mesh cone portion 12 will first enter the pouring cavity 2 before the moulding rod 8 enters the pouring cavity 2, even if the moulding rod 8 is aligned with the pouring cavity 2 In the case of inaccuracy, the mesh cone portion 12 will provide a guiding effect to the die rod 8, thereby avoiding the situation where the die rod 8 is broken or the template is damaged; During operation, since the die bar 8 rotates continuously when the die is operated, the die bar 8 will drive the mesh cone 12 to rotate together, so that the steel bars of the mesh cone 12 have a stirring effect on the slurry, which further improves the The slurry stirring effect enables the air bubbles in the slurry to be more fully discharged, thereby improving the quality of the wallboard.

Embodiment 3

The difference between the third embodiment and the first embodiment is that the cross section of the die bar 8 is one of square, oval or diamond shape, so that the die bar 8 can stir the slurry more greatly when the die bar 8 rotates eccentrically, thereby Improve the stirring effect, so that the air bubbles can be discharged as much as possible, effectively improving the quality of the wall panel forming; at the same time, when the die bar 8 itself has a greater stirring effect, in this embodiment, the eccentric rotation of the die bar 8 The amplitude is 10mm, and the eccentric rotation amplitude of the die rod 8 is appropriately reduced to achieve the purpose of suitable stirring of the slurry.

Embodiment 4

The difference between Embodiment 4 and Embodiment 1 is: the number of the die bars 8 is twelve, and the twelve die bars 8 are equally divided into two groups and each die bar 8 is correspondingly connected to a flange 11, and each The group of mold rods 8 are arranged in a row according to the setting mode in the first embodiment, the distance between the two rows of mold rods 8 is equal to the distance between the adjacent pouring cavities 2, and the driving motor 10 is used to drive twelve molds simultaneously. The rod 8 is rotated, so that the sliding plate 9 is vertically circulated once, and the two adjacent pouring cavities 2 can be eccentrically stirred at the same time, thereby improving the stirring efficiency. At the same time, in the present embodiment, the number of the moulding rods 8 is twelve in two rows, but the form of eighteen rods and three rows can also be used to carry out the moulding operation on the three adjacent pouring cavities 2 at one time, or other For more quantity, the specific set quantity can be set according to the actual production situation.

Embodiment 5

The difference between the fifth embodiment and the second embodiment is: as shown in Figure 3, the number of flanges 11 connected between the die rod 8 and the rotating shaft is two, and the two flanges 11 are superimposed up and down and eccentrically arranged, and two The eccentric distance of the flange 11 is 12mm, the rotating shaft is coaxial with the flange 11 above and fixed with bolts, and the die rod 8 is coaxial with the flange 11 below. The poke rod 8 and the rotating shaft are respectively connected on the flange 11, and at the same time, the force of the poke rod 8 on the lower flange 11 can be located at the center of the flange 11. The die rod 8 and the flange 11 are eccentrically arranged, and the flange 11 is more uniformly applied by the die rod 8, so as to prevent the die rod 8 from exerting different loads on each screw fixing the flange 11, resulting in the length of the flange 11. In the case of fatigue damage to the screw subjected to a large load after time use, the force of the die rod 8 on the screw is transferred to the screw connected between the two flanges 11 through the two superimposed flanges 11 . Thereby extending the life of the screw.

The above are only examples of the present invention, and common knowledge such as well-known specific technical solutions and/or characteristics in the solutions are not described too much here. It should be pointed out that for those skilled in the art, some modifications and improvements can be made without departing from the technical solution of the present invention, which should also be regarded as the protection scope of the present invention, and these will not affect the implementation of the present invention. effect and the applicability of the patent. The scope of protection claimed in this application shall be based on the content of the claims, and the descriptions of the specific implementation manners in the description can be used to interpret the content of the claims.

Claims (10)

1. Wallboard shaping die-poking system includes the fixing base and sets up the chamber of pouring on the fixing base, its characterized in that: the upper portion of pouring the chamber is equipped with rabbling mechanism, be equipped with on the fixing base and be used for driving rabbling mechanism to pour the actuating mechanism that intracavity thick liquids carry out eccentric stirring.

2. The wall panel molding barrel system of claim 1, wherein: the stirring mechanism comprises a driving motor and a die poking rod, the driving motor is connected with the driving mechanism, and an eccentric connecting piece used for driving the eccentric rotation of the die poking rod is arranged between the die poking rod and the driving motor.

3. The wall panel molding barrel system of claim 2, wherein: the driving mechanism comprises a vertical guide rail and a pushing part fixedly connected to the vertical guide rail, and the driving motor is connected to the pushing part and is in sliding connection with the vertical guide rail.

4. A wall panel molding barrel system as claimed in claim 3, wherein: the number of the vertical guide rails is two, the two vertical guide rails are located on two sides of the pouring cavity, a sliding plate is connected between the two vertical guide rails in a sliding mode, and the driving motor is fixedly connected to the sliding plate.

5. The wall panel molding barrel system of claim 4, wherein: the eccentric connecting piece comprises a flange plate rotationally connected to the driving motor, and the die poking rod is eccentrically detachably connected with the flange plate.

6. The wall panel molding barrel system of any one of claims 2-5, wherein: the number of disclosing the mould pole in pouring the chamber is a plurality of, and a plurality of disclosing the mould pole evenly arranges along the length direction who pours the chamber.

7. The wall panel molding barrel system of claim 6, wherein: the distance between the center of the die poking rod and the center of the flange plate is 10-15 mm.

8. The wall panel molding barrel system of claim 7, wherein: the bottom of the die poking rod is fixedly connected with a net cone part.

9. The wall panel molding barrel system of claim 8, wherein: the number of pouring the chamber is a plurality of, and a plurality of pours the chamber and arranges side by side, pours the chamber outside and is equipped with transverse guide along a plurality of arrangement directions of pouring the chamber, vertical guide sliding connection is on transverse guide.

10. A wall panel molding barrel system according to any one of claims 2 to 5 and 7 to 9, wherein: the cross section of the die poking rod is one or a combination of a plurality of circular shapes, square shapes, oval shapes or diamond shapes.

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