Energy-saving filling forming device for concrete cover plate production

Abstract

The invention relates to the field of concrete cover plate production, and discloses an energy-saving filling forming device for concrete cover plate production, which comprises a forming mechanism and a mold, the forming mechanism comprises a rack, the rack is provided with a lower support member and an upper filling member, the lower support member comprises a support table mounted on the rack through a lower connecting piece, and the upper filling member comprises a lower connecting piece; the upper filling component comprises a third movable support capable of moving in a three-dimensional coordinate system, an upper support is mounted on the third movable support through an upper connecting piece, an upper compacting plate is arranged at the bottom of the upper support, an upper vibrator is arranged on the upper support, and a lower vibrator is arranged on the lower vibrator. A vertically-arranged avoiding hole is formed in the end face of the upper compaction plate, an avoiding pipe is arranged at the position of an upper hole opening of the avoiding hole, a storage tank is arranged on the third movable support, a discharging pipe is arranged at the bottom of the storage tank, the bottom of the discharging pipe coaxially stretches into the avoiding pipe and is close to a lower hole opening of the avoiding hole, and the outer diameter of the discharging pipe is smaller than the inner diameter of the avoiding pipe.

Description

Technical Field

[0001] The present invention relates to the field of production of concrete products, specifically to the field of production of concrete covers, and particularly to an energy-saving filling and forming device for the production of concrete covers. Background Art

[0002] Concrete covers are a common building material, widely used in various engineering and construction projects. During production, first, the steel bar framework and concrete are made. Then, a layer of release agent is applied to the mold, the mold is transported to the vibrating table, the steel bar framework is placed into the mold, and concrete is poured into the mold. While pouring, the vibrating table is started to vibrate the concrete into shape. After the concrete pouring is completed, vibration continues for a preset time, and then a plate vibrator is used to vibrate and level the surface of the concrete to make its surface flat. Finally, after it is formed, the concrete cover is demolded and taken out. Among them, vibration makes the concrete evenly distributed and vibrating and leveling compacts the concrete and makes its surface flat, which is one of the factors affecting the production quality of concrete covers. For example, the Chinese invention patent application with the application publication number CN117822589A discloses a construction process for large-volume concrete buildings, which vibrates the concrete through a vibrating rod and levels the vibrated concrete to form a concrete slab.

[0003] In the above-mentioned prior art, there are some deficiencies. For example: when the vibrating table technology is used, although it can vibrate and feed materials at the same time, as the thickness of the concrete increases, the effect brought by vibration will inevitably weaken and needs to be improved; the vibrating method of the vibrating rod needs to be used after the concrete feeding is completed, with relatively low efficiency, and the concrete is prone to precipitation and solidification phenomena, and there is an easy problem of untimely vibration; when compacting and leveling the concrete, it occurs after the concrete feeding is completed, and there are also problems of untimely compaction and low efficiency.

[0004] Based on the above, the present invention proposes an energy-saving filling and forming device for the production of concrete covers. Summary of the Invention

[0005] To solve the problems mentioned in the above background, the present invention provides an energy-saving filling and forming device for the production of concrete covers.

[0006] To achieve the above technical objectives, the technical solutions adopted by the present invention are as follows.

[0007] An energy-saving filling and forming device for the production of concrete covers includes a forming mechanism and a mold. The forming mechanism includes a frame, and a lower support member and an upper filling member are arranged on the frame; The lower support member includes a support table installed on the frame through a lower connecting member, and a lower vibrator is arranged at the bottom of the support table; The upper feeding member includes a movable bracket three that can move in a three-dimensional coordinate system. The movable bracket three is located above the support table. An upper bracket is installed on the movable bracket three through an upper connecting member. A upper compaction plate is provided at the bottom of the upper bracket. An upper vibrator is provided on the upper bracket. An avoidance hole arranged vertically is formed at the end face of the upper compaction plate. An avoidance pipe is provided at the upper orifice of the avoidance hole. A storage tank is provided on the movable bracket three. A discharge pipe is provided at the bottom of the storage tank. The bottom of the discharge pipe coaxially extends into the avoidance pipe and is close to the lower orifice of the avoidance hole. The outer diameter of the discharge pipe is smaller than the inner diameter of the avoidance pipe.

[0008] As a further improvement and optimization of the present invention, a screw conveyor is provided in the discharge pipe. The upper end of the screw conveyor passes through the storage tank and is power-connected to an electric motor provided at the upper end of the storage tank.

[0009] As a further improvement and optimization of the present invention, a side pipe is provided on each side of the upper compaction plate. A liquid inlet nozzle and a liquid spraying nozzle are provided on the outer surface of the side pipe. The end of the liquid inlet nozzle is used to receive the release agent and spray the release agent downward through the liquid spraying nozzle.

[0010] As a further improvement and optimization of the present invention, both the lower connecting member and the upper connecting member include guide rods. The guide rods are arranged vertically and fixedly provided on the support table or the upper bracket. Mounting holes are provided on both the machine frame and the movable bracket three. The guide rods coaxially pass through the mounting holes. An outer ring is provided in the mounting hole. An inner ring is provided on the outer part of the guide rod. Elastic pieces are provided between the inner ring and the outer ring. The elastic pieces are in an arc shape and a plurality of them are arranged in an array along the circumferential direction of the inner ring. A spring is provided on each of the upper and lower sides of the inner ring.

[0011] As a further improvement and optimization of the present invention, a connecting pipe is provided at the end of the liquid inlet nozzle. A water pump is provided at the end of the connecting pipe. The liquid inlet end of the water pump is connected to a liquid tank filled with the release agent.

[0012] As a further improvement and optimization of the present invention, the inside of the support table is hollow and an electromagnet is provided. The mold is made of iron.

[0013] As a further improvement and optimization of the present invention, convex frames are provided at both ends of the mold. An auxiliary component is provided on each side of the support table. The auxiliary component includes a side bracket slidably arranged vertically on the machine frame and a linear module one for driving the side bracket to move. A conveyor belt is provided on the side bracket. The conveying direction of the conveyor belt is horizontally arranged. When the mold is placed on the support table, the two convex frames are respectively located above the conveyor belts of the two auxiliary components.

[0014] As a further improvement and optimization of the present invention, the upper filling component includes a movable bracket 1 slidably arranged on the frame in a horizontal direction and a linear module 2 for driving the movable bracket 1 to move; A movable bracket 2 is slidably arranged on the movable bracket 1 in a vertical direction, and the movable bracket 2 is driven to move by a linear module 3 arranged on the movable bracket 1; A movable bracket three is slidably arranged on the movable bracket two in a horizontal direction. The movable bracket three is driven by the linear module four-drive arranged on the movable bracket two, and the moving direction of the movable bracket three is perpendicular to the moving direction of the movable bracket one.

[0015] As a further improvement and optimization of the present invention, a counterweight block is provided on one side of the movable bracket facing away from the storage tank.

[0016] Compared with the prior art, the present invention has the following beneficial effects: 1. One of the cores of this solution is: the upper compaction plate, the discharge pipe and the upper vibrator are integrated in the design. The advantage is that, on the one hand, the discharge pipe moves while pouring into the mold, so that the concrete can be poured into the mold as evenly as possible. On the other hand, while pouring, the upper vibrator and the lower vibrator are started, and the upper compaction plate is attached to the upper surface of the concrete, and the upper surface of the concrete is compacted and smoothed while pouring the concrete into the mold. There is no need to wait until the concrete pouring is completed before compacting and smoothing. Therefore, the compaction and smoothing efficiency and effect of the concrete can be improved. In addition, the cooperation of the upper vibrator and the lower vibrator, one applies vibration to the concrete from the bottom, and the other applies vibration to the concrete from the top, the cooperation of the two can make the concrete just poured into the mold also be subjected to sufficiently effective vibration, further improving the vibration compaction effect of the concrete. On the one hand, when the concrete pouring is completed, the compaction and smoothing of the concrete is also completed. Therefore, the efficiency is higher, and the effect of compaction and smoothing while pouring is better than the effect of compaction and smoothing after the concrete pouring is completed. On the contrary, in the prior art, the material is poured first, and at the same time, the mold is vibrated by a vibration table. After the material is poured, the surface of the concrete is vibrated and leveled by a flat vibrator. Compared with the present solution, this method is less efficient, and as the concrete is poured into the mold, the thickness of the concrete increases, and the effect of transmitting the vibration energy to the upper part of the concrete will be weakened. Therefore, the effect brought by the vibration is poor. 2. Another core of this solution is that the structural design of the upper connecting parts and the lower connecting parts can achieve comprehensive buffering of the upper bracket or the support platform without dead angles. Therefore, the vibration energy consumed on the frame or the movable bracket is relatively small, which can play the role of transmitting the vibration energy to the concrete in the mold as much as possible, thereby further improving the vibration, compaction and leveling effect of the concrete. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 It is a schematic structural diagram of the present invention; Figure 2 It is a schematic diagram of the lower support member and the mold; Figure 3 It is a schematic diagram of the support table from a bottom view; Figure 4 It is a schematic structural diagram of the upper feeding member; Figure 5 It is a partial schematic diagram of the upper feeding member; Figure 6 It is a schematic structure of the upper compaction plate Figure 1 ; Figure 7 It is a schematic structure of the upper compaction plate Figure 2 ; Figure 8 It is a cross-sectional view of the upper compaction plate and the discharge pipe; Figure 9 It is a schematic diagram of the upper connecting member or the lower connecting member.

[0018] The reference numerals in the drawings are: 100, mold; 101, convex frame; 200, lower support member; 201, linear module one; 202, side bracket; 203, conveyor belt; 204, support table; 205, lower vibrator; 206, lower connecting member; 300, upper feeding member; 301, linear module two; 302, movable bracket one; 303, linear module three; 304, movable bracket two; 305, linear module four; 306, movable bracket three; 307, counterweight; 308, storage tank; 309, discharge pipe; 310, motor; 311, auger; 312, upper compaction plate; 3121, avoidance hole; 313, upper bracket; 314, upper connecting member; 315, upper vibrator; 316, avoidance pipe; 317, side pipe; 3171, liquid inlet nozzle; 3172, liquid spraying nozzle; 400, guide rod; 401, inner ring; 402, outer ring; 403, elastic sheet; 404, spring. Detailed implementation manners

[0019] To further elaborate on the technical means and effects adopted by the present invention to achieve the predetermined invention purpose, the following, in conjunction with the drawings and preferred embodiments, details the specific implementation manners, structures, features and their effects of the present invention as follows.

[0020] Referring to Figures 1-9 , an energy-saving feeding and forming device for producing concrete covers includes a forming mechanism and a mold 100. The mold 100 can be realized by existing technologies and will not be elaborated too much. In order to facilitate the handling of the mold 100, convex frames 101 are provided at both ends of the mold 100.

[0021] The forming mechanism includes a frame, on which a lower support member 200 and an upper filling member 300 are arranged. The former is used to place the mold 100, and the latter is used to inject concrete into the mold 100. During the injection process, the lower support member 200 cooperates with the upper filling member 300 to vibrate and compact and level the concrete while injecting the concrete. The vibration includes the vibration applied to the concrete from below and the vibration applied to the concrete from above, which will be elaborated in detail later.

[0022] Referring to Figure 2 and Figure 3 , the lower support member 200 includes a support table 204 installed on the frame through a lower connecting member 206. A lower vibrator 205 is arranged at the bottom of the support table 204. The inside of the support table 204 is hollow and is provided with an electromagnet (not shown in the figure). The mold 100 is made of a magnetic material such as iron. After the mold 100 is placed on the support table 204, the electromagnet is activated, and the mold 100 is restricted on the support table 204 by magnetic adsorption.

[0023] In a preferred embodiment, the mold 100 can be manually carried to the support table 204. However, after the concrete filling is completed, when the mold 100 is manually carried down, since the concrete has not completely solidified and formed, and since it is difficult to ensure that the upper surface of the concrete is not inclined during manual handling, therefore, to solve this problem, referring to Figure 2 , the lower support member 200 further includes an auxiliary component. There are two auxiliary components and they are respectively located on both sides of the support table 204. The auxiliary component includes a side bracket 202 slidably arranged on the frame in the vertical direction and a linear module one 201 for driving the side bracket 202 to move. A conveyor belt 203 is arranged on the side bracket 202. The conveying direction of the conveyor belt 203 is horizontally arranged. A support rod for supporting the conveyor belt 203 is arranged on the side bracket 202. When the mold 100 is placed on the support table 204, the two convex frames 101 on both sides of the mold 100 are respectively located above the conveyor belts 203 of the two auxiliary components. Therefore, the electromagnet is powered off, and then the side bracket 202 is driven to move upward by the linear module one 201. The two convex frames 101 are respectively supported by the two conveyor belts 203, and then the mold 100 is pulled out by the conveyor belt 203, and the upper surface of the concrete in the mold 100 will not be inclined.

[0024] Referring to Figures 4-8 , the upper filling member 300 includes a movable bracket one 302 slidably arranged on the frame in the horizontal direction and a linear module two 301 for driving the movable bracket one 302 to move.

[0025] A movable bracket two 304 is slidably arranged on the movable bracket one 302 in the vertical direction. The movable bracket two 304 is driven to move by a linear module three 303. The linear module three 303 is arranged on the movable bracket one 302.

[0026] A movable support three 306 is slidably arranged on the upper edge of the movable support two 304 in the horizontal direction. The movable support three 306 is driven to move by a linear module four 305. The linear module four 305 is arranged on the movable support two 304. The moving direction of the movable support three 306 is perpendicular to the moving direction of the movable support one 302.

[0027] Through the cooperation of the linear module two 301, the linear module three 303 and the linear module four 305, the movable support three 306 can be driven to move within a three-dimensional coordinate system. In addition, the movable support three 306 is located above the support table 204.

[0028] An upper support 313 is installed on the movable support three 306 through an upper connecting piece 314. A upper compaction plate 312 is arranged at the bottom of the upper support 313. An upper vibrator 315 is arranged on the upper support 313.

[0029] An avoidance hole 3121 arranged vertically is formed in the end face of the upper compaction plate 312. An avoidance pipe 316 is arranged at the upper orifice of the avoidance hole 3121.

[0030] A storage tank 308 is arranged on the movable support three 306. A discharge pipe 309 is arranged at the bottom of the storage tank 308. The bottom of the discharge pipe 309 coaxially extends into the avoidance pipe 316 and is close to the lower orifice of the avoidance hole 3121. The outer diameter of the discharge pipe 309 is smaller than the inner diameter of the avoidance pipe 316, so there is a gap between the two.

[0031] An auger 311 is arranged in the discharge pipe 309. The upper end of the auger 311 passes through the storage tank 308 and is power-connected to a motor 310 arranged at the upper end of the storage tank 308. By driving the auger 311 to rotate by the motor 310, the auger 311 can traction the concrete in the storage tank 308 to flow downward when rotating, so as to be output outward through the discharge pipe 309. In addition, if there is concrete in the storage tank 308 and the outward output is temporarily stopped, the auger 311 can be driven to rotate reversely to traction the concrete at the bottom of the storage tank 308 to move upward, playing a stirring effect to prevent the phenomenon of concrete precipitation.

[0032] Refer to Figure 6 And Figure 7, on both sides of the upper pressing plate 312, there is a side pipeline 317 respectively. The outer surface of the side pipeline 317 is provided with a liquid inlet nozzle 3171 and a liquid spraying nozzle 3172. The end of the liquid inlet nozzle 3171 is used to receive the release agent and spray the release agent downward through the liquid spraying nozzle 3172. For example, the end of the liquid inlet nozzle 3171 is provided with a connecting pipeline, the end of the connecting pipeline is provided with a water pump, the liquid inlet end of the water pump is connected to a liquid tank filled with the release agent, the release agent is injected into the side pipeline 317 through the water pump, and finally sprayed downward through the liquid spraying nozzle 3172. The connecting pipeline, the water pump and the liquid tank are not shown in the figure.

[0033] Working principle of the molding mechanism: First, place the mold 100 on the support table 204. At the same time, put concrete into the storage tank 308. During the putting process, the motor 310 drives the auger 311 to rotate in reverse, which plays a role in blocking the discharge pipe 309 and preventing the concrete from settling. Then, through the cooperation of the linear module two 301, the linear module three 303 and the linear module four 305, drive the movable support three 306 to move in the three-dimensional coordinate system. The movable support three 306 drives components such as the upper pressing plate 312, the storage tank 308, the side pipeline 317 and the discharge pipe 309 to move together. First, spray the release agent into the inner cavity of the mold 100 through the side pipeline 317. After spraying, the motor 310 drives the auger 311 to rotate forward, and the auger 311 pulls the concrete to fall downward into the mold 100 through the discharge pipe 309. During this process: On the one hand, the movement of the discharge pipe 309 can pour the concrete into the mold 100 as evenly as possible; On the other hand, the upper vibrator 315 and the lower vibrator 205 are started at the same time. The upper pressing plate 312 is attached to the upper surface of the concrete. The advantage of this integrated design is that while pouring the concrete into the mold 100, the upper surface of the concrete is compacted and leveled, without waiting to compact and level the concrete after the pouring is completed. Therefore, the efficiency and effect of compacting and leveling the concrete can be improved. In addition, the cooperation of the upper vibrator 315 and the lower vibrator 205, one applies vibration to the concrete from below and the other applies vibration to the concrete from above. The two cooperate to enable the concrete just poured into the mold 100 to also receive sufficient and effective vibration, further improving the vibration compaction effect of the concrete; When the concrete pouring is completed, the compaction and leveling of the concrete are also completed. Therefore, the efficiency is higher, and the effect of compacting and leveling while pouring is better than that of compacting and leveling after the pouring is completed.

[0034] In a preferred embodiment, vibration is one of the factors affecting the compaction and leveling effect. Therefore, it is very necessary to conduct vibration energy to the concrete as much as possible. In the prior art, generally, the connection between the support table 204 and the frame and the connection between the upper bracket 313 and the movable bracket three 306 are achieved through technologies such as springs. However, the spring can only achieve buffering in the direction of its own axis. Therefore, there is a situation where part of the vibration energy acts on the frame or the movable bracket three 306. Also, since the frame is generally fixed to the ground and there is a storage tank 308 on the movable bracket three 306 with a relatively large weight, the vibration energy consumed on the frame or the movable bracket three 306 is relatively large. Therefore, in order to conduct vibration energy to the concrete as much as possible, the structures of the lower connecting member 206 and the upper connecting member 314 are improved.

[0035] Specifically, referring to Figure 9 , the structures of the lower connecting member 206 and the upper connecting member 314 are the same, and both include a guide rod 400. The guide rod 400 is arranged vertically and is fixedly provided on the support table 204 or the upper bracket 313.

[0036] Installation holes are provided on both the frame and the movable bracket three 306. The guide rod 400 coaxially passes through the installation holes. An outer ring 402 is arranged in the installation holes, and an inner ring 401 is arranged outside the guide rod 400. An elastic sheet 403, for example, made of an elastic metal sheet, is arranged between the inner ring 401 and the outer ring 402. The elastic sheet 403 is in an arc shape, and a plurality of elastic sheets 403 are arranged in an array along the circumferential direction of the inner ring 401.

[0037] A spring 404 is respectively arranged on the upper and lower sides of the inner ring 401.

[0038] At least one installation hole is provided on the frame or the movable bracket three 306. For example, in this solution, two installation holes are provided. Therefore, two inner rings 401 and two outer rings 402 are correspondingly arranged, and the two springs 404 are respectively located on the opposite sides of the two inner rings 401.

[0039] The advantage is that during the startup process of the upper vibrator 315 or the lower vibrator 205, the cooperation of the spring 404 and the elastic sheet 403 can achieve comprehensive and dead - angle - free buffering of the upper bracket 313 or the support table 204. Therefore, the vibration energy consumed on the frame or the movable bracket three 306 is relatively less, and it can play a role in conducting vibration energy to the concrete in the mold 100 as much as possible, thereby further improving the vibration, compaction, and leveling effect on the concrete.

[0040] In a preferred embodiment, referring to Figure 4 , the storage tank 308 is relatively heavy. Therefore, a counterweight 307 can be arranged on the back of the movable bracket one 302 to play a balancing role.

[0041] The above are only the preferred embodiments of the present invention, and do not impose any form of limitation on the present invention. Although the present invention has been disclosed above with the preferred embodiments, it is not intended to limit the present invention. Any person skilled in the art can make some changes or modifications to equivalent embodiments by using the above-disclosed technical content within the scope of the technical solution of the present invention. However, as long as it does not depart from the content of the technical solution of the present invention, any brief modifications, equivalent changes and modifications made to the above embodiments based on the technical essence of the present invention still fall within the scope of the technical solution of the present invention.

Claims

1. An energy-saving pouring and molding device for producing concrete cover plates, comprising a molding mechanism and a mold (100), characterized in that: The molding mechanism comprises a frame, on which a lower supporting component (200) and an upper filling component (300) are arranged; The lower support member (200) comprises a support platform (204) mounted on the frame via a lower connecting member (206), and a lower vibrator (205) is arranged at the bottom of the support platform (204); The upper filling component (300) includes a movable bracket (306) that can move in a three-dimensional coordinate system. The movable bracket (306) is located above the support platform (204). An upper bracket (313) is installed on the movable bracket (306) via an upper connecting member (314). An upper compacting plate (312) is provided at the bottom of the upper bracket (313). An upper vibrator (315) is provided on the upper bracket (313). The end surface of the upper compacting plate (312) is provided with a A vertically arranged avoidance hole (3121) is provided, an avoidance pipe (316) is provided at the upper opening of the avoidance hole (3121), a material storage tank (308) is provided on the movable bracket (306), a discharge pipe (309) is provided at the bottom of the material storage tank (308), the bottom of the discharge pipe (309) coaxially extends into the avoidance pipe (316) and is close to the lower opening of the avoidance hole (3121), and the outer diameter of the discharge pipe (309) is smaller than the inner diameter of the avoidance pipe (316).

2. The energy-saving pouring and forming device for concrete cover plate production according to claim 1 is characterized in that: An auger (311) is disposed in the discharge pipe (309), and the upper end of the auger (311) passes through the material storage tank (308) to form a power connection with a motor (310) disposed at the upper end of the material storage tank (308).

3. The energy-saving pouring and forming device for concrete cover plate production according to claim 2 is characterized in that: A side pipe (317) is provided on each side of the upper compacting plate (312); a liquid inlet nozzle (3171) and a liquid spray nozzle (3172) are provided on the outer surface of the side pipe (317); the end of the liquid inlet nozzle (3171) is used to receive a release agent and spray the release agent downward through the liquid spray nozzle (3172).

4. The energy-saving pouring and forming device for producing concrete cover plates according to claim 3 is characterized in that: The lower connecting member (206) and the upper connecting member (314) both include a guide rod (400), and the guide rod (400) is arranged vertically and fixedly mounted on the support platform (204) or the upper bracket (313); The frame and the movable bracket (306) are both provided with mounting holes, the guide rod (400) passes through the mounting hole coaxially, an outer ring (402) is provided in the mounting hole, an inner ring (401) is provided outside the guide rod (400), an elastic sheet (403) is provided between the inner ring (401) and the outer ring (402), and a plurality of the elastic sheets (403) are arc-shaped and are arranged in an array along the circumferential direction of the inner ring (401); A spring (404) is respectively provided on the upper and lower sides of the inner ring (401).

5. The energy-saving pouring and forming device for concrete cover plate production according to claim 3 is characterized in that: A connecting pipe is provided at the end of the liquid inlet nozzle (3171), a water pump is provided at the end of the connecting pipe, and a liquid inlet end of the water pump is connected to a liquid tank containing a release agent.

6. The energy-saving pouring and forming device for concrete cover plate production according to claim 1 is characterized in that: The interior of the support platform (204) is hollow and is provided with an electromagnet, and the mold (100) is made of iron.

7. The energy-saving pouring and forming device for producing concrete cover plates according to claim 1, characterized in that: Both ends of the mold (100) are provided with protrusions (101); An auxiliary component is respectively arranged on both sides of the support platform (204), and the auxiliary component comprises a side bracket (202) slidably arranged on the frame in the vertical direction and a linear module (201) for driving the side bracket (202) to move. A conveyor belt (203) is arranged on the side bracket (202), and the conveying direction of the conveyor belt (203) is arranged horizontally. When the mold (100) is placed on the support platform (204), the two protrusions (101) are respectively located above the conveyor belts (203) of the two auxiliary components.

8. The energy-saving pouring and forming device for producing concrete cover plates according to claim 4, characterized in that: The upper filling component (300) comprises a movable bracket (302) slidably arranged on a frame in a horizontal direction and a linear module (301) for driving the movable bracket (302) to move. A movable bracket 2 (304) is slidably arranged on the movable bracket 1 (302) in a vertical direction, and the movable bracket 2 (304) is driven to move by a linear module 3 (303) arranged on the movable bracket 1 (302); A movable bracket three (306) is slidably arranged on the movable bracket two (304) in a horizontal direction. The movable bracket three (306) is driven to move by a linear module four (305) arranged on the movable bracket two (304). The moving direction of the movable bracket three (306) is perpendicular to the moving direction of the movable bracket one (302).

9. The energy-saving pouring and forming device for producing concrete cover plates according to claim 8, characterized in that: A counterweight block (307) is provided on one side of the movable bracket (302) facing away from the material storage tank (308).

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