Discharging structure of brick and metal mesh punch forming equipment

Abstract

The application discloses a discharging structure of a brick belt metal mesh punch forming equipment, relates to the brick belt metal mesh processing equipment technology, and aims to solve the problem that the discharging mode of a traditional punch forming equipment cannot meet the continuous processing and discharging of the brick belt metal mesh. The discharging structure of the brick belt metal mesh punch forming equipment comprises fixing plates, driving members and a discharging roller group. The fixing plates are provided in two, the two fixing plates are arranged on one side of a bearing plate, and the two fixing plates are distributed in a spaced mode. The driving members are fixedly arranged on the fixing plates and are arranged below a discharging port. The discharging roller group comprises a lower roller body and an upper roller body. The axis of the upper roller body and the axis of the lower roller body are arranged in a vertical and parallel mode. A discharging groove is formed between the upper roller body and the lower roller body. The driving members are in transmission connection with one of the upper roller body and the lower roller body. A strip-shaped single-hole metal mesh plate is arranged on the bearing plate.

Description

Technical Field

[0001] This application relates to the technical field of brick strip metal mesh processing equipment, and in particular to the discharge structure of a brick strip metal mesh stamping and forming equipment. Background Technology

[0002] Brick-reinforced metal mesh is a commonly used reinforcing material in building wall construction. It typically consists of long, single-hole strips embedded within the building to improve the wall's integrity and crack resistance. During the processing of brick-reinforced metal mesh, the stability of the output stage directly affects the product's dimensional accuracy and its compatibility with subsequent masonry work.

[0003] Traditional stamping equipment uses conveyor belts or single-roller guides for material discharge. When conveyed by a conveyor belt, the brick strip metal mesh is prone to shift along its width due to its elongated shape, resulting in misaligned single holes and affecting its fit with the bricks. Single-roller guides rely on support from only one side, making it difficult to balance the elongated force on the brick strip metal mesh. This can easily lead to bending deformation in the middle and cannot meet the needs of continuous production, thus restricting the continuous operation of the preceding stamping process and reducing the batch processing efficiency of the brick strip metal mesh. Utility Model Content

[0004] This application provides a discharge structure for a brick strip metal mesh stamping and forming equipment, which solves the problem that the discharge method of traditional stamping equipment cannot meet the continuous processing and discharge of brick strip metal mesh.

[0005] This application provides a discharge structure for a brick strip metal mesh stamping and forming equipment, which is located on one side of the discharge port of a support plate and includes a fixed plate, a driving component, and a discharge roller assembly. Two fixed plates are provided, positioned on one side of the support plate and spaced apart. The driving component is fixedly mounted on the fixed plate and located below the discharge port. The discharge roller assembly includes a lower roller and an upper roller, with the axes of the upper and lower rollers being vertically aligned and parallel. A discharge groove is formed between the upper and lower rollers. The driving component is connected to one of the upper and lower rollers. A strip-shaped single-hole metal mesh plate is provided on the support plate and slides towards the discharge port of the support plate. The width of the discharge groove is greater than the width of the strip-shaped single-hole metal mesh plate, and the height of the discharge groove is less than or equal to the height of the strip-shaped single-hole metal mesh plate.

[0006] The double fixing plates in this application provide stable support for the overall structure, ensuring the stability of the transmission of single-hole elongated metal mesh for construction; the upper and lower parallel rollers form a discharge trough that adapts to the size of the mesh plate, accurately matching the shape characteristics of the single-hole elongated metal mesh, and avoiding deviation or jamming during transmission.

[0007] The drive unit drives the roller assembly to operate, which, in conjunction with the sliding of the single-hole elongated metal mesh towards the discharge port, enables continuous discharge of the single-hole elongated metal mesh. This can directly support the continuous operation of preceding processing steps such as stamping, avoiding processing stagnation caused by interruption of discharge and significantly improving overall processing efficiency.

[0008] During the discharge process, the discharge chute guides the brick strip mesh, and the lower and upper rollers drive the brick strip mesh to be continuously discharged along the direction of the discharge chute. It can also be coordinated with the sliding speed and stamping frequency of the brick strip mesh itself to prevent the brick strip mesh from bending or breaking during the discharge process. The height of the discharge chute is equal to or less than the thickness of the brick strip mesh, so that the stamped brick strip mesh can be crushed by the lower and upper rollers, which facilitates its shaping and avoids the local thickness from exceeding the predetermined thickness due to stamping.

[0009] In some embodiments of this application, the drive unit is connected to the lower roller via a transmission belt, and the lower roller and the upper roller are connected via a transmission gear.

[0010] The drive unit is connected to the lower roller via a transmission belt, ensuring smooth transmission and good cushioning, reducing the impact on the single-hole elongated metal mesh. The lower and upper rollers operate synchronously via transmission gears, ensuring that the mesh is subjected to balanced force in the discharge trough and preventing deformation of the elongated mesh due to unilateral pulling. The synchronous transmission characteristics ensure the stability of continuous discharge of the single-hole elongated metal mesh, ensuring that previous processing processes (such as stamping) can be carried out continuously, avoiding processing interruptions due to unstable transmission, and further improving efficiency.

[0011] In some embodiments of this application, 2-4 transmission belts are provided, which are spaced apart and parallel to each other. The 2-4 spaced parallel transmission belts increase the transmission contact area, enhance transmission torque, prevent slippage or overload of a single transmission belt, and ensure stable power transmission.

[0012] Stable transmission performance is suitable for the continuous output requirements of single-hole long strip metal mesh for construction, and can support the continuous operation of the preceding processing for a long time, reducing downtime caused by transmission failure and ensuring processing efficiency.

[0013] In some embodiments of this application, a cylindrical first protruding ring extends outward from the middle of the lower roller body, and a second protruding ring is provided on the upper roller body at a position corresponding to the first protruding ring. A discharge groove is formed between the first and second protruding rings.

[0014] The first raised ring of the lower roller body and the second raised ring of the upper roller body are precisely aligned, so that the discharge groove is concentrated in the middle of the roller body. This is specifically adapted to the long strip shape of the single-hole long strip metal mesh, which strengthens the positioning of the mesh plate transmission path and reduces side offset. The raised ring structure reduces the contact area with the mesh plate, reduces frictional resistance, ensures smooth and continuous discharge of the long strip mesh plate, supports the uninterrupted operation of the preceding processing process, and improves the overall processing efficiency.

[0015] In some embodiments of this application, the first protruding ring is provided with an annular groove, and the outer annular surface of the second protruding ring forms an annular protrusion. The annular protrusion extends into the annular recess and is provided with a gap between it and the bottom wall of the annular groove. A discharge trough is formed between the annular protrusion and the annular groove.

[0016] The nested fit of the annular protrusions and annular grooves precisely matches the thickness of the single-hole elongated metal mesh, avoiding excessive compression that could deform the mesh and preventing side warping during long-distance transport. This structure enhances the positioning accuracy of the elongated mesh, ensuring consistent continuous output, guaranteeing stable and continuous operation of the preceding processing technology, reducing rework or downtime caused by mesh deformation, and improving efficiency.

[0017] In some embodiments of this application, the transmission belt is a reduction gear transmission, and the transmission speed ratio of the transmission gears is 1:1. The reduction gear transmission allows for flexible adjustment of the discharge speed, ensuring precise matching with the rhythm of preceding processing steps such as stamping; the 1:1 speed ratio of the transmission gears ensures consistent rotational speeds of the upper and lower rollers, preventing the long strip mesh from being stretched due to uneven force; speed matching and synchronous transmission together ensure the rhythmic stability of continuous discharge of single-hole long strip metal mesh, preventing material accumulation or excessively fast transmission, supporting continuous preceding processing, and improving overall processing efficiency.

[0018] In some embodiments of this application, both the lower roller and the upper roller are rotatably connected to the fixed plate, and both ends of the lower roller and the upper roller pass through the fixed plate. The transmission belt and the transmission gear are arranged on opposite sides of the lower roller.

[0019] The rotatable connection between the roller and the fixed plate ensures smooth operation and reduces mechanical wear; the roller has two ends that pass through the fixed plate and the transmission components are located on both sides to avoid structural interference and create a compact layout; the smooth operation and reasonable layout ensure that the equipment can operate stably for a long time, adapt to the continuous output requirements of single-hole long strip metal mesh, support the uninterrupted operation of the preceding processing technology, reduce equipment maintenance downtime, and improve efficiency.

[0020] In some embodiments of this application, the driving member is disposed between two fixed plates, and the driving shaft of the driving member passes through one of the fixed plates and is connected to the lower roller body via a transmission belt.

[0021] The drive unit is located between two fixed plates, making full use of space to make the structure compact; the short-path transmission of the drive shaft reduces power loss and improves transmission efficiency; the efficient and compact transmission design ensures continuous and stable power output, adapting to the continuous output requirements of single-hole long strip metal mesh, avoiding the impact of insufficient power or interruption on the continuity of previous processing, and improving overall efficiency.

[0022] In some embodiments of this application, the discharge structure of the brick strip metal mesh stamping and forming equipment further includes a partition plate, and the discharge roller group and drive unit are located on both sides of the partition plate.

[0023] The separator isolates the discharge roller assembly (discharge area) from the drive unit (transmission area), preventing oil contamination of the single-hole elongated metal mesh from the transmission components. It also protects the transmission components from external interference, improving the stability of equipment operation. The isolation protection ensures the long-term stable operation of the transmission system, guarantees the stability of continuous discharge of the single-hole elongated metal mesh and the cleanliness of the product, supports the continuous operation of the preceding processing technology, reduces downtime caused by contamination or malfunction, and improves efficiency. Attached Figure Description

[0024] The accompanying drawings are provided to further illustrate the technical solution of this utility model and constitute a part of the specification. They are used together with the embodiments of this application to explain the technical solution of this utility model and do not constitute a limitation on the technical solution of this utility model.

[0025] Figure 1 This is one of the schematic diagrams of the discharge structure of a brick strip metal mesh stamping and forming equipment provided in this application embodiment.

[0026] Figure 2 This is a second schematic diagram of the discharge structure of a brick strip metal mesh stamping and forming equipment provided in this application embodiment.

[0027] Figure 3 This is one of the three-dimensional schematic diagrams of the discharge structure of a brick strip metal mesh stamping and forming equipment provided in the embodiments of this application.

[0028] Figure 4 This is a second perspective view of the discharge structure of a brick strip metal mesh stamping and forming equipment provided in an embodiment of this application.

[0029] Reference numerals in the attached drawings: 1-bearing plate; 11-discharge port; 2-fixed plate; 21-partition plate; 3-discharge roller assembly; 31-lower roller body; 32-upper roller body; 33-transmission belt; 34-transmission gear; 35-first raised ring; 351-annular groove; 36-second raised ring; 361-annular protrusion; 4-driving component; 5-discharge trough. Detailed Implementation

[0030] The technical solutions of the embodiments of this application will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of this application, and not all embodiments. Based on the embodiments of this application, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of this application.

[0031] It should be noted that all directional indicators (such as up, down, left, right, front, back, etc.) in this utility model embodiment are only used to explain the relative positional relationship and movement of each component in a certain specific posture (as shown in the figure). If the specific posture changes, the directional indicator will also change accordingly.

[0032] The terms "first" and "second" are used for descriptive purposes only and should not be construed as indicating or implying relative importance or implicitly specifying the number of technical features indicated. Therefore, a feature defined as "first" or "second" may explicitly or implicitly include one or more of that feature. In the description of this application, unless otherwise stated, "a plurality of" means two or more.

[0033] In the description of this application, it should be noted that, unless otherwise expressly specified and limited, the terms "connected" and "linked" should be interpreted broadly, for example, as a fixed connection, a detachable connection, or an integral connection. Those skilled in the art can understand the specific meaning of the above terms in this application based on the specific circumstances. Furthermore, when describing pipelines, the terms "connected" and "linked" as used in this application have the meaning of establishing electrical connection. The specific meaning needs to be understood in conjunction with the context.

[0034] In the embodiments of this application, the terms "exemplary" or "for example" are used to indicate that something is an example, illustration, or description. Any embodiment or design that is described as "exemplary" or "for example" in the embodiments of this application should not be construed as being more preferred or advantageous than other embodiments or design. Specifically, the use of the terms "exemplary" or "for example" is intended to present the relevant concepts in a specific manner.

[0035] Brick-reinforced metal mesh is a commonly used reinforcing material in building wall construction. It typically consists of long, single-hole strips embedded within the building to improve the wall's integrity and crack resistance. During the processing of brick-reinforced metal mesh, the stability of the output stage directly affects the product's dimensional accuracy and its compatibility with subsequent masonry work.

[0036] Traditional stamping equipment uses conveyor belts or single-roller guides for material discharge. When conveyed by a conveyor belt, the brick strip metal mesh is prone to shift along its width due to its elongated shape, resulting in misaligned single holes and affecting its fit with the bricks. Single-roller guides rely on support from only one side, making it difficult to balance the elongated force on the brick strip metal mesh. This can easily lead to bending deformation in the middle and cannot meet the needs of continuous production, thus restricting the continuous operation of the preceding stamping process and reducing the batch processing efficiency of the brick strip metal mesh.

[0037] Therefore, please refer to Figure 1 and Figure 2 This application provides a discharge structure for a brick strip metal mesh stamping and forming equipment, which is set on one side of the discharge port of the bearing plate and includes a fixed plate 2, a driving component 4, and a discharge roller group 3.

[0038] Please refer to Figure 3 Two fixing plates 2 are provided, located on one side of the bearing plate 1 and spaced apart. The two fixing plates 2 are made of Q235 steel plate and are rectangular flat plates (approximately 500mm long, 200mm wide, and 10mm thick). The two fixing plates 2 are spaced apart along the width of the bearing plate 1 (the spacing is adapted to the conveying path of the brick-belt metal mesh), and are fixed to the side of the bearing plate 1 with M10 bolts, providing rigid support for the overall structure.

[0039] Please refer to Figure 3 The drive component 4 is fixedly mounted on the fixed plate 2 and positioned below the discharge port 11. The drive component 4, fixed to the fixed plate 2, is a three-phase asynchronous motor (approximately 1.5kW in power), with a cast iron housing in the shape of a cuboid (approximately 150mm long, 100mm wide, and 120mm high). It is bolted to the surface of the fixed plate 2 facing the inner side of the support plate 1 and is located directly below the discharge port 11, providing power to the discharge roller assembly 3.

[0040] Please refer to Figure 3 The discharge roller assembly 3 includes a lower roller body 31 and an upper roller body 32. The axis of the upper roller body 32 and the axis of the lower roller body 31 are vertically and parallel. A discharge groove 5 is formed between the upper roller body 32 and the lower roller body 31. The driving component 4 is connected to one of the upper roller body 32 and the lower roller body 31 for transmission.

[0041] Please refer to Figure 3 The discharge roller assembly 3 includes a lower roller body 31 and an upper roller body 32, both forged from 45# steel and chrome-plated (chrome plating thickness 0.05mm), and are cylindrical. The axis of the upper roller body 32 is parallel to the axis of the lower roller body 31 (the spacing is designed according to the thickness of the metal mesh of the brick strip), and both ends are rotatably connected to the fixed plate 2 through tapered roller bearings. A discharge trough 5 is formed between the upper roller body 32 and the lower roller body 31. The driving component 4 is connected to the lower roller body 31 to drive the roller assembly.

[0042] Please refer to Figure 3 A strip-shaped single-hole metal mesh plate is provided on the bearing plate 1, and the strip-shaped single-hole metal mesh plate slides towards the discharge port 11 of the bearing plate 1. The strip-shaped single-hole metal mesh plate on the bearing plate 1 is a brick-reinforced metal mesh, made of low carbon steel (Q195) by stamping, with a thickness of 0.5-3mm. A single long hole (about 20mm wide) is opened in the middle along the length direction for fixing the reinforcing bars during masonry; the brick-reinforced metal mesh can slide along the surface of the bearing plate 1 towards the discharge port 11.

[0043] Please refer to Figure 1-3 The width of the discharge trough 5 is greater than the width of the strip-shaped single-hole metal mesh plate, and the height of the discharge trough 5 is less than or equal to the height of the strip-shaped single-hole metal mesh plate. The width of the discharge trough 5 is 1-12mm greater than the width of the strip-shaped single-hole metal mesh plate, and the width of the discharge trough 5 is 0-0.2mm less than the height of the strip-shaped single-hole metal mesh plate, so as to produce a better extrusion and conveying effect.

[0044] Please refer to Figure 3 The double fixed plate 2 in this application provides stable support for the overall structure, ensuring the stability of the transmission of the single-hole long strip metal mesh for construction; the upper and lower parallel rollers form a discharge trough 5 that is adapted to the size of the mesh plate, accurately matching the shape characteristics of the single-hole long strip metal mesh, and avoiding deviation or jamming during transmission.

[0045] The drive unit 4 drives the roller group to operate, which, together with the sliding of the single-hole elongated metal mesh towards the discharge port 11, realizes the continuous discharge of the single-hole elongated metal mesh. This can directly support the continuous operation of the preceding stamping and other processing processes, avoid processing stagnation caused by material discharge interruption, and significantly improve the overall processing efficiency.

[0046] During the discharge process, the discharge chute 5 can guide the brick strip metal mesh, and drive the brick strip metal mesh through the lower roller 31 and the upper roller 32, so that it is continuously discharged along the direction of the discharge chute 5. It can also be coordinated with the sliding speed and stamping frequency of the brick strip metal mesh itself to avoid bending or breaking of the brick strip metal mesh during the discharge process. The height of the discharge chute 5 is equal to or less than the thickness of the brick strip metal mesh, so that the stamped brick strip metal mesh can be rolled by the lower roller 31 and the upper roller 32, which facilitates its shaping and avoids the local thickness from exceeding the predetermined thickness due to stamping.

[0047] Please refer to Figure 3 In some examples, the drive unit 4 is connected to the lower roller 31 via a drive belt 33, and the lower roller 31 and the upper roller 32 are connected via a drive gear 34.

[0048] The drive unit 4 is connected to the lower roller 31 via the transmission belt 33, ensuring smooth transmission and good buffering, thus reducing the impact on the single-hole elongated metal mesh. The lower roller 31 and the upper roller 32 operate synchronously via the transmission gear 34, ensuring that the mesh plate is subjected to balanced force in the discharge trough 5 and avoiding deformation of the elongated mesh plate due to unilateral pulling. The synchronous transmission characteristics ensure the stability of continuous discharge of the single-hole elongated metal mesh, ensuring that the preceding processing processes (such as stamping) can be carried out continuously, avoiding processing interruptions caused by unstable transmission, and further improving efficiency.

[0049] For example, the drive unit 4 and the lower roller 31 should be equipped with corresponding pulleys that cooperate with the transmission belt 33. The lower roller 31 and the upper roller 32 should also be equipped with bearings for rotating connection with the fixed plate 2. The gears between the lower roller 31 and the upper roller 32 can use the same gears for transmission to ensure synchronous transmission between the two.

[0050] In some examples, there are 2-4 drive belts 33, which are spaced apart and parallel to each other. The 2-4 spaced parallel drive belts 33 increase the transmission contact area, improve the transmission torque, prevent slippage or overload of a single drive belt 33, and ensure stable power transmission.

[0051] Stable transmission performance is suitable for the continuous output requirements of single-hole long strip metal mesh for construction, and can support the continuous operation of the preceding processing for a long time, reducing downtime caused by transmission failure and ensuring processing efficiency.

[0052] For example, the drive belt 33 can be set to 2, 3, 4 or other quantities, and all drive belts 33 can be exactly the same.

[0053] Please refer to Figure 3 In some examples, the lower roller body 31 extends outward from the middle to form a cylindrical first protruding ring 35, and the upper roller body 32 is provided with a second protruding ring 36 corresponding to the position of the first protruding ring 35. The discharge groove 5 is formed between the first protruding ring 35 and the second protruding ring 36.

[0054] The first protruding ring 35 of the lower roller body 31 and the second protruding ring 36 of the upper roller body 32 are precisely aligned, so that the discharge groove 5 is concentrated in the middle of the roller body. This is specifically adapted to the long strip shape of the single-hole long strip metal mesh, which strengthens the positioning of the mesh plate transmission path and reduces side offset. The protruding ring structure reduces the contact area with the mesh plate, reduces frictional resistance, ensures smooth and continuous discharge of the long strip mesh plate, supports the uninterrupted operation of the preceding processing process, and improves the overall processing efficiency.

[0055] The first protruding ring 35 can be integrally formed with the lower roller body 31, or it can be fixedly connected by welding or other means; the second protruding ring 36 can be integrally formed with the upper roller body 32.

[0056] Please refer to Figure 3 In some examples, the first protruding ring 35 is provided with an annular groove 351, and the outer annular surface of the second protruding ring 36 forms an annular protrusion 361. The annular protrusion 361 extends into the annular recess and is provided with a gap between it and the bottom wall of the annular groove 351. A discharge groove 5 is formed between the annular protrusion 361 and the annular groove 351.

[0057] The nested fit between the annular protrusion 361 and the annular groove 351 precisely matches the thickness of the single-hole elongated metal mesh, avoiding excessive compression that could cause mesh deformation and preventing side warping during long-distance transmission. This structure enhances the positioning accuracy of the elongated mesh, ensuring consistent continuous output, guaranteeing stable and continuous operation of the preceding processing technology, reducing rework or downtime caused by mesh deformation, and improving efficiency.

[0058] The width of the annular groove 351 is greater than the width of the annular protrusion 361 of the second protruding ring 36, so that the second protruding ring 36 can extend into the annular groove 351. At the same time, the depth of the annular groove 351 should be greater than the thickness of the material so that there is a squeezing effect between the lower roller body 31 and the upper roller body 32.

[0059] Please refer to Figure 4 In some examples, the drive belt 33 is a reduction drive; please refer to [reference needed]. Figure 3 The transmission speed ratio of the transmission gear 34 is 1:1. The transmission belt 33 can flexibly adjust the discharge speed to precisely match the rhythm of the preceding stamping and other processing processes; the 1:1 speed ratio of the transmission gear 34 ensures that the upper and lower rollers 31 rotate at the same speed, avoiding the long strip mesh from being stretched due to uneven force; the speed matching and synchronous transmission together ensure the rhythm stability of the continuous discharge of the single-hole long strip metal mesh, prevent material accumulation or excessive transmission speed, support the continuous processing of the preceding processes, and improve the overall processing efficiency.

[0060] Please refer to Figure 4 In some examples, the transmission belt 33 is a toothed belt to ensure good transmission accuracy.

[0061] Please refer to Figure 3 In some examples, both the lower roller 31 and the upper roller 32 are rotatably connected to the fixed plate 2, and both ends of the lower roller 31 and the upper roller 32 pass through the fixed plate 2. The transmission belt 33 and the transmission gear 34 are arranged on opposite sides of the lower roller 31.

[0062] The roller body is rotatably connected to the fixed plate 2 to ensure smooth operation and reduce mechanical wear; the roller body passes through the fixed plate 2 at both ends and the transmission components are located on both sides to avoid structural interference and make the layout compact; the smooth operation and reasonable layout ensure that the equipment can operate stably for a long time, adapt to the continuous output requirements of single-hole long strip metal mesh, support the uninterrupted operation of the preceding processing technology, reduce equipment maintenance downtime, and improve efficiency.

[0063] Please refer to Figure 3 In some examples, the drive element 4 is positioned between two fixed plates 2, and the drive shaft of the drive element 4 passes through one of the fixed plates 2 and is connected to the lower roller body 31 via a transmission belt 33.

[0064] The drive unit 4 is located between the two fixed plates 2, making full use of space to make the structure compact; the short path transmission of the drive shaft reduces power loss and improves transmission efficiency; the efficient and compact transmission design ensures continuous and stable power output, adapts to the continuous output requirements of single-hole long strip metal mesh, avoids the impact of insufficient power or interruption on the continuity of previous processing, and improves overall efficiency.

[0065] Please refer to Figure 4 In some examples, the discharge structure of the brick strip metal mesh stamping and forming equipment also includes a partition plate 21, with the discharge roller group 3 and the drive component 4 located on both sides of the partition plate 21.

[0066] The separator 21 separates the discharge roller group 3 (discharge area) from the drive component 4 (transmission area), preventing oil contamination of the single-hole elongated metal mesh from the transmission components, while protecting the transmission components from external interference and improving the stability of equipment operation. The isolation protection ensures the long-term stable operation of the transmission system, guarantees the stability of continuous discharge of the single-hole elongated metal mesh and the cleanliness of the product, supports the continuous operation of the preceding processing technology, reduces downtime caused by contamination or failure, and improves efficiency.

[0067] The partition plate 21 can be integrally formed with the fixing plate 2, or it can be fixed relative to the fixing plate 2, for example, by bolts.

[0068] In some examples, the drive unit 4 is connected to the lower roller 31 via a transmission belt 33, and the lower roller 31 and the upper roller 32 are synchronously driven by a transmission gear 34, which is suitable for processing medium batches of brick strip metal mesh.

[0069] The output shaft of the drive component 4 is connected to and fixed to the drive pulley via a key. One end of the lower roller body 31 is connected to the driven pulley via a key. The transmission belt 33 is a polyurethane synchronous belt, with a total of 3 belts arranged in parallel at 10mm intervals. They are respectively fitted into the grooves of the drive pulley and the driven pulley to form a speed reduction transmission, which is adapted to the rhythm of the preceding stamping.

[0070] The other end of the lower roller 31 is connected to the driving gear via a key, and the corresponding end of the upper roller 32 is connected to the driven gear via a key. The two gears mesh (transmission ratio 1:1) to ensure that the upper and lower rollers 31 rotate at the same speed. The lower roller 31 and the upper roller 32 pass through the fixed plate 2 at both ends. The transmission belt 33 and the transmission gear 34 are located on both sides of the lower roller 31 (pulley on the left, gear on the right) to avoid interference. The drive unit 4 is located between the two fixed plates 2, and its output shaft passes through the left fixed plate 2 and connects to the driving pulley, reducing the power transmission path.

[0071] In addition, the structure also includes a partition plate 21, made of 304 stainless steel plate, which is horizontally welded between two fixed plates 2 to isolate the discharge roller group 3 from the drive component 4, preventing oil stains from the transmission components from contaminating the surface of the brick belt metal mesh and ensuring its cleanliness when in contact with the bricks.

[0072] During operation, the brick-belt metal mesh slides from the discharge port 11 of the bearing plate 1 into the discharge trough 5. The drive component 4 drives the lower roller 31 to rotate through the transmission belt 33. The lower roller 31 drives the upper roller 32 to rotate synchronously through the gear. The upper and lower rollers 31 generate friction on the mesh plate, continuously conveying it to the next process to achieve stable discharge.

[0073] In the description of this specification, specific features, structures, materials, or characteristics may be combined in any suitable manner in one or more embodiments or examples.

[0074] The above description is merely a specific embodiment of this application, but the scope of protection of this application is not limited thereto. Any changes or substitutions within the technical scope disclosed in this application should be included within the scope of protection of this application. Therefore, the scope of protection of this application should be determined by the scope of the claims.

Claims

1. A discharge structure for a brick-and-metal mesh stamping and forming equipment, disposed on one side of the discharge port of a bearing plate, characterized in that, include: Two fixing plates are provided, which are disposed on one side of the bearing plate and are spaced apart. A driving component is fixedly mounted on the fixed plate, and the driving component is located below the discharge port; The discharge roller assembly includes a lower roller body and an upper roller body. The axes of the upper roller body and the lower roller body are vertically and parallel. A discharge groove is formed between the upper roller body and the lower roller body. The driving component is connected to one of the upper roller body and the lower roller body in a transmission connection. The support plate is provided with a strip-shaped single-hole metal mesh plate, which slides toward the discharge port of the support plate; The width of the discharge trough is greater than the width of the strip-shaped single-hole metal mesh plate, and the height of the discharge trough is less than or equal to the height of the strip-shaped single-hole metal mesh plate.

2. The discharge structure of the brick strip metal mesh stamping and forming equipment according to claim 1, characterized in that, The driving component is connected to the lower roller via a transmission belt, and the lower roller and the upper roller are connected via a transmission gear.

3. The discharge structure of the brick strip metal mesh stamping and forming equipment according to claim 2, characterized in that, The transmission belts are configured as 2-4 belts, which are spaced apart and distributed in parallel.

4. The discharge structure of the brick strip metal mesh stamping and forming equipment according to any one of claims 1 to 3, characterized in that, The lower roller extends outward from the middle to form a cylindrical first protruding ring, and a second protruding ring is provided on the upper roller at the position corresponding to the first protruding ring. The discharge groove is formed between the first protruding ring and the second protruding ring.

5. The discharge structure of the brick strip metal mesh stamping and forming equipment according to claim 4, characterized in that, The first protruding ring is provided with an annular groove, and the outer annular surface of the second protruding ring forms an annular protrusion. The annular protrusion extends into the annular recess and has a gap with the bottom wall of the annular groove. The discharge groove is formed between the annular protrusion and the annular groove.

6. The discharge structure of the brick strip metal mesh stamping and forming equipment according to claim 2, characterized in that, The transmission belt is a speed reduction transmission, and the transmission speed ratio of the transmission gear is 1:

1.

7. The discharge structure of the brick strip metal mesh stamping and forming equipment according to claim 6, characterized in that, Both the lower roller and the upper roller are rotatably connected to the fixed plate, and both ends of the lower roller and the upper roller pass through the fixed plate. The transmission belt and the transmission gear are arranged on opposite sides of the lower roller.

8. The discharge structure of the brick strip metal mesh stamping and forming equipment according to claim 7, characterized in that, The driving component is disposed between the two fixed plates, and the driving shaft of the driving component passes through one of the fixed plates and is connected to the lower roller body via the transmission belt.

9. The discharge structure of the brick strip metal mesh stamping and forming equipment according to claim 8, characterized in that, The discharge structure of the brick strip metal mesh stamping and forming equipment also includes a partition plate, and the discharge roller group and the driving component are located on both sides of the partition plate.

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