An automated tryer

Abstract

The utility model relates to building material manufacturing technical field, specifically disclose a kind of automatic test moulding machine, include: turnover hopper mechanism, stirring mechanism, transfer mechanism, moulding mechanism and ejection mechanism. The utility model is through from concrete raw material delivery, stirring, moulding, concrete moulding, mould transfer to the whole-process automation of ejection. Traditional test block making relies on a large number of manual operation, such as manual stirring concrete, manual handling and filling mould etc., not only time-consuming and laborious, but also inefficient. And the automatic test moulding machine each mechanism automatic operation, without frequent intervention of artificial, greatly shorten the production cycle of single test block, can produce more test block in same time, significantly improve production efficiency.

Description

Technical Field

[0001] This utility model relates to the field of building materials manufacturing technology, specifically to an automated molding machine. Background Technology

[0002] In construction engineering, concrete quality testing is crucial, and the preparation of concrete test blocks is a vital step in this process. Traditional methods of concrete test block preparation typically rely on manual labor, which suffers from low efficiency, high labor intensity, and inconsistent test block quality. For example, manual mixing of concrete makes it difficult to ensure uniformity, and manual molding and demolding are cumbersome and prone to errors. With the development of the construction industry, the demands for efficiency and quality in concrete test block preparation are increasing, thus requiring a highly automated, easy-to-operate, and quality-assured automated testing machine. Utility Model Content

[0003] In order to overcome the problems existing in the prior art, the purpose of this utility model is to provide an automated molding machine.

[0004] The technical solution adopted by this utility model to solve its technical problem is: an automated mold testing machine, characterized in that it includes: Tilting hopper mechanism, stirring mechanism, transfer mechanism, mold feeding mechanism, and mold ejection mechanism; The tilting hopper mechanism includes a hopper body and a tilting assembly. The hopper body is mounted on the tilting assembly, and the mixing mechanism is mounted on one side of the tilting hopper mechanism. The tilting assembly drives the hopper body to tilt, thereby allowing concrete in the hopper body to be poured in from above the mixing mechanism. The transfer mechanism is installed below the mixing mechanism. The transfer mechanism has an inlet end and an outlet end. The mold feeding mechanism is installed on one side of the inlet end, and the mold discharging mechanism is installed on one side of the outlet end. The mold feeding mechanism feeds the mold into the inlet end of the transfer mechanism. The mixing mechanism pours the mixed concrete into the mold. The transfer mechanism transfers the mold containing the concrete from the inlet end to the outlet end. The outlet end feeds the mold containing the concrete into the mold discharging mechanism. The mold discharging mechanism sends the mold containing the concrete out. The mold feeding mechanism has a blocking component at one end facing the transfer mechanism. The blocking component includes a lifting platform. When there is still a mold in the inlet end, the lifting platform will rise to block and limit the mold in the mold feeding mechanism. Main working principle: This automated molding machine mainly consists of a tilting hopper mechanism, a mixing mechanism, a transfer mechanism, a mold feeding mechanism, and a mold discharging mechanism. These mechanisms work together. At the start of operation, the operator pours the raw materials needed to prepare concrete, such as cement, sand, and water, into the hopper body of the tilting hopper mechanism in a specific ratio. The hopper body has sufficient capacity to hold the amount of raw materials needed to make multiple concrete test blocks at once. When concrete mixing is required, the tilting component starts working. The tilting component drives the hopper body to tilt. Since the mixing mechanism is installed on one side of the tilting hopper mechanism, after the hopper body tilts, the concrete inside is poured into the mixing mechanism from above under gravity. This process achieves automatic feeding of concrete raw materials, reduces manual operation, and improves the accuracy and efficiency of feeding.

[0005] After receiving the concrete raw materials poured from the hopper, the mixing mechanism begins to mix the concrete. An internal mixing device, driven by a motor, rotates at high speed to thoroughly mix the concrete raw materials. After a certain period of mixing, the concrete reaches a homogeneous state, and the mixing process is complete. At this point, the mixing mechanism is ready to discharge the mixed concrete into the mold.

[0006] The formwork feeding mechanism is responsible for feeding the molds containing concrete into the inlet of the transfer mechanism. The formwork feeding mechanism typically uses a conveyor belt or other conveying device to smoothly transport the molds to a position near the inlet of the transfer mechanism.

[0007] A blocking component, including a lifting platform, is provided at the end of the mold feeding mechanism facing the transfer mechanism. When there is already a mold in the inlet of the transfer mechanism, the lifting platform rises. The rising platform blocks and limits subsequent molds in the mold feeding mechanism, preventing multiple molds from entering the inlet simultaneously, avoiding mold blockage or collisions, and ensuring that molds can enter the transfer mechanism in an orderly manner. When there is no mold in the inlet, the lifting platform lowers, and the mold feeding mechanism pushes the mold into the inlet of the transfer mechanism. The pushing action can be achieved by pushing a cylinder, push rod, or other device to accurately deliver the mold onto the tray or other supporting device of the transfer mechanism. The mixing mechanism pours the mixed concrete into the mold located at the inlet of the transfer mechanism. Since the discharge port of the mixing mechanism is opposite to the inlet of the transfer mechanism, the concrete can fall accurately into the mold, realizing automatic concrete loading.

[0008] The transfer mechanism moves the concrete-filled mold from the inlet to the outlet. The transfer mechanism typically employs a lateral movement device to move the mold horizontally. Throughout the transfer process, the mold remains on the load-bearing device of the transfer mechanism, ensuring its stability and safety.

[0009] When the mold filled with concrete reaches the outlet of the transfer mechanism, the outlet sends the mold into the demolding mechanism. This process can be achieved by a pushing device that pushes the mold from the carrier of the transfer mechanism into the demolding mechanism. The demolding mechanism then sends the mold filled with concrete out. The demolding mechanism typically uses a conveyor belt or other conveying device to smoothly transport the mold out of the automated molding machine, completing the entire concrete specimen production process. Operators can then perform subsequent curing, testing, and other operations on the delivered mold.

[0010] Through the work in the above stages, the automated molding machine realizes the automated production of concrete test blocks, improves production efficiency, reduces labor intensity, and ensures the quality stability of concrete test blocks.

[0011] Preferably, the lifting platform includes a lifting cylinder and a stop block. The lifting cylinder is installed at one end of the mold feeding mechanism facing the transfer mechanism, and the driving end of the lifting cylinder is perpendicular to the horizontal plane. The stop block is installed at the driving end of the lifting cylinder.

[0012] Preferably, the mold feeding mechanism includes a mold feeding conveyor belt, a push block, and a push cylinder. The die-feeding conveyor belt is opposite to the inlet end, and the pushing cylinder is disposed on both sides of the die-feeding conveyor belt. The driving end of the pushing cylinder faces the inlet end, and the push block is disposed on the driving end of the pushing cylinder.

[0013] Preferably, the mold feeding mechanism further includes a rotary motor and a deflector block. The rotary motor is mounted on the push block, and the deflector block is mounted on the drive end of the rotary motor and extends to the periphery of the push block. When the rotary motor rotates, it can drive the deflector block to turn towards the mold, thereby enabling the mold to be pushed or restricted from moving forward.

[0014] Preferably, the finishing assembly further includes a finishing cylinder, a connecting plate, and a plurality of finishing panels; The cylinder body of the trimming cylinder is connected to the upper part of the outlet end, and the drive end of the trimming cylinder faces the mold. The drive end of the trimming cylinder is connected to one side of the connecting plate, and the plurality of trimming panels are connected to the other side of the connecting plate.

[0015] Preferably, the trimming panel is provided with four panels, which form a rectangle, and the rectangle formed by the four trimming panels corresponds to the inner wall of the mold.

[0016] Preferably, every four of the repair panels constitute a repair group, and multiple repair groups are provided, with the multiple repair groups connected to each other through the connecting plate.

[0017] Preferably, the flipping assembly includes a flipping frame, a flipping cylinder, and a rotating shaft. The two ends of the rotating shaft are connected to the two sides of the flipping frame, and the hopper body is rotatably connected to the rotating shaft. The drive end of the flipping cylinder is connected to the bottom surface of the hopper body, and the cylinder body of the flipping cylinder is connected to the flipping frame.

[0018] Preferably, the transfer mechanism includes a transfer frame, a lateral movement component, and a longitudinal movement component. The lateral movement component is installed inside the transfer frame, and its two ends are located at the inlet end and the outlet end, respectively. The lateral movement assembly includes a tray, rollers, guide rails, and a lateral cylinder. The rollers are mounted on both sides of the tray, and the guide rails are mounted on both sides of the transfer frame, with both ends of the guide rails extending to the inlet and outlet ends. The rollers on both sides are mounted in the guide rails on both sides. The lateral cylinder is parallel to the guide rails, and the drive end of the lateral cylinder is connected to the tray. The cylinder body of the lateral cylinder is connected to the transfer frame.

[0019] Preferably, the transfer mechanism further includes a longitudinal movement component, which is installed at the outlet end and connected to the transfer frame; The longitudinal moving assembly includes a push plate and a longitudinal cylinder. The longitudinal cylinder is connected to the transfer frame, and the drive end of the longitudinal cylinder faces one side of the demolding mechanism. The push plate is installed on the drive end of the longitudinal cylinder.

[0020] Preferably, the stirring mechanism includes a housing, a stirring motor, a stirring shaft, and a stirring rod; The housing is installed on one side of the tilting hopper mechanism, and a discharge port is provided on the top of the housing and a discharge port is provided on the bottom of the housing. The discharge port is opposite to the inlet end. The stirring shaft passes through the housing and is rotatably connected to the housing. One end of the stirring shaft extends outside the housing and is connected to the drive end of the stirring motor. Multiple sets of stirring rods are installed alternately on the stirring shaft, and each set of stirring rods has a stirring block at its end.

[0021] Preferably, the ejection mechanism includes an ejection conveyor belt, which is opposite to the exit end.

[0022] Compared with the prior art, the beneficial effects of this utility model are: This automated molding machine automates the entire process from concrete raw material input, mixing, mold feeding, concrete placement, mold transfer, and demolding. Traditional test block production relies heavily on manual labor, such as manual concrete mixing, manual handling, and mold filling, which is not only time-consuming and labor-intensive but also inefficient. In contrast, this automated molding machine operates automatically without frequent manual intervention, significantly shortening the production cycle of a single test block and enabling the production of more test blocks in the same amount of time, thus significantly improving production efficiency. Attached Figure Description

[0023] To more clearly illustrate the technical solutions of the embodiments of this utility model, the drawings used in the description of the embodiments will be briefly introduced below. Obviously, the drawings described below are some embodiments of this utility model. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0024] Figure 1 This is a schematic diagram of the automated molding machine. Figure 1 ; Figure 2 This is a top view of the automated molding machine. Figure 3 A top-down view of the automated molding machine. Figure 2 ; Figure 4 for Figure 3 A partial schematic diagram of part A is shown below; Figure 5 This is a schematic diagram of the internal structure of the automated molding machine; Figure 6 for Figure 5 A partial schematic diagram of part B is shown below; Figure 7 for Figure 5 A partial schematic diagram of part C is shown below; Figure 8 for Figure 5 A partial schematic diagram of part D is shown below; 1. Tilting hopper mechanism; 10. Hopper body; 11. Tilting assembly; 110. Tilting frame; 111. Tilting cylinder; 112. Rotating shaft; 2. Stirring mechanism; 20. Shell; 21. Stirring motor; 22. Stirring shaft; 23. Stirring rod; 3. Transfer mechanism; 30. Inlet end; 31. Outlet end; 32. Transfer frame; 33. Lateral movement assembly; 330. Tray; 331. Roller; 332. Guide rail; 333. Lateral cylinder; 34. Longitudinal movement assembly; 340. Push plate; 341. Longitudinal cylinder; 4. Mold feeding mechanism; 40. Mold feeding conveyor belt; 41. Push block; 42. Pushing cylinder; 43. Blocking assembly; 430. Lifting platform; 4300. Lifting cylinder; 4301. Stop block; 44. Rotary motor; 45. Pulley block; 5. Mold ejection mechanism; 50. Mold ejection conveyor belt. Detailed Implementation

[0025] To better understand the above-mentioned objectives, features, and advantages of this utility model, the present utility model will be described in detail below with reference to the accompanying drawings and specific embodiments. It should be noted that, unless otherwise specified, the embodiments and features described in this application can be combined with each other. Many specific details are set forth in the following description to provide a thorough understanding of this utility model; the described embodiments are merely some, not all, of the embodiments of this utility model. All other embodiments obtained by those skilled in the art based on the embodiments of this utility model without inventive effort are within the scope of protection of this utility model.

[0026] Unless otherwise defined, all technical and scientific terms used herein have the same meaning as commonly understood by one of ordinary skill in the art to which this invention pertains. The terminology used in this specification is for the purpose of describing particular embodiments only and is not intended to be limiting of the invention.

[0027] Example 1 This embodiment discloses an automated molding machine, such as... Figures 1-8As shown, the system includes a tilting hopper mechanism 1, a mixing mechanism 2, a transfer mechanism 3, a mold feeding mechanism 4, and a mold discharging mechanism. These mechanisms work together. At the start of operation, the operator pours the raw materials needed to prepare concrete, such as cement, sand, and water, into the hopper body 10 of the tilting hopper mechanism 1 in a specific ratio. The hopper body 10 has sufficient capacity to hold the amount of raw materials needed to make multiple concrete test blocks at once. When concrete mixing is required, the tilting assembly 11 begins operation. The tilting assembly 11 drives the hopper body 10 to tilt. Since the mixing mechanism 2 is installed on one side of the tilting hopper mechanism 1, after the hopper body 10 tilts, the concrete inside is poured into the mixing mechanism 2 from above under gravity. This process achieves automatic feeding of concrete raw materials, reduces manual operation, and improves the accuracy and efficiency of feeding.

[0028] After receiving the concrete raw materials poured into the hopper body 10, the mixing mechanism 2 begins to mix the concrete. The mixing mechanism 2 is equipped with an internal mixing device, which is driven by a motor to rotate at high speed, ensuring thorough mixing of the concrete raw materials. After a certain period of mixing, the concrete reaches a homogeneous state, and the mixing process is complete. At this point, the mixing mechanism 2 is in the discharge-ready state, ready to pour the mixed concrete into the mold.

[0029] The mold feeding mechanism 4 is responsible for feeding the mold containing the concrete into the inlet end 30 of the transfer mechanism 3. The mold feeding mechanism 4 typically uses a conveyor belt or other conveying device to smoothly transport the mold to a position close to the inlet end 30 of the transfer mechanism 3.

[0030] A blocking component 43, including a lifting platform 430, is provided at one end of the mold feeding mechanism 4 facing the transfer mechanism 3. When there is already a mold in the inlet end 30 of the transfer mechanism 3, the lifting platform 430 will rise. The rising lifting platform 430 blocks and limits the subsequent molds in the mold feeding mechanism 4, preventing multiple molds from entering the inlet end 30 at the same time, avoiding mold blockage or collision, and ensuring that the molds can enter the transfer mechanism 3 in an orderly manner. When there is no mold in the inlet end 30, the lifting platform 430 lowers, and the mold feeding mechanism 4 pushes the mold into the inlet end 30 of the transfer mechanism 3. The pushing action can be achieved by pushing the cylinder 42, push rod, or other devices to accurately deliver the mold into the tray 330 or other supporting device of the transfer mechanism 3. The mixing mechanism 2 pours the mixed concrete into the mold located at the inlet end 30 of the transfer mechanism 3. Since the discharge port of the mixing mechanism 2 is opposite to the inlet end 30 of the transfer mechanism 3, the concrete can fall accurately into the mold, realizing automatic concrete loading.

[0031] The transfer mechanism 3 transfers the concrete-filled mold from the inlet end 30 to the outlet end 31. The transfer mechanism 3 typically employs a lateral movement device to move the mold horizontally. During the transfer process, the mold remains on the support device of the transfer mechanism 3 to ensure its stability and safety.

[0032] When the mold containing concrete reaches the outlet 31 of the transfer mechanism 3, the outlet 31 sends the mold into the demolding mechanism. This process can be achieved by a pushing device that pushes the mold from the carrying device of the transfer mechanism 3 into the demolding mechanism. The demolding mechanism then sends the mold containing concrete out. The demolding mechanism typically uses a conveyor belt or other conveying device to smoothly transport the mold out of the automated molding machine, completing the entire concrete test block production process. Operators can then perform subsequent curing, testing, and other operations on the delivered mold.

[0033] Through the work in the above stages, the automated molding machine realizes the automated production of concrete test blocks, improves production efficiency, reduces labor intensity, and ensures the quality stability of concrete test blocks.

[0034] In some optional embodiments, the lifting cylinder 4300 is activated when there is still a mold in the inlet end 30 of the transfer mechanism 3. The lifting cylinder 4300 is installed at the end of the mold feeding mechanism 4 facing the transfer mechanism 3, and its drive end is perpendicular to the horizontal plane. The drive end of the lifting cylinder 4300 extends upward, causing the stop block 4301 installed at the drive end to rise. The raised stop block 4301 blocks the mold in the mold feeding mechanism 4, preventing subsequent molds from entering the inlet end 30. When there is no mold in the inlet end 30, the drive end of the lifting cylinder 4300 retracts downward, causing the stop block 4301 to descend, releasing the obstruction of the mold in the mold feeding mechanism 4, allowing the mold to smoothly enter the inlet end 30.

[0035] In some optional embodiments, the mold feeding conveyor belt 40 is opposite to the inlet end 30 of the transfer mechanism 3. The mold is placed on the mold feeding conveyor belt 40. The mold feeding conveyor belt 40 is started, conveying the mold towards the inlet end 30. When the mold reaches the appropriate position, and the lifting platform 430 is lowered, the push cylinder 42 is activated. The push cylinder 42 is located on both sides of the mold feeding conveyor belt 40, with its drive end facing the inlet end 30. The push block 41 is located at the drive end of the push cylinder 42. The drive end of the push cylinder 42 extends, driving the push block 41 to move forward. The push block 41 pushes the mold into the inlet end 30 of the transfer mechanism 3.

[0036] In some optional embodiments, when the mold is normally pushed into the inlet 30 of the transfer mechanism 3, the rotary motor 44 is not working, and the deflector is in a position that does not affect the mold's forward movement. The push cylinder 42 is activated, the push block 41 pushes the mold forward, and the deflector moves with the push block 41 without interfering with the mold, thus achieving normal mold pushing. When it is necessary to restrict the mold's forward movement, such as when there is already a mold in the inlet 30, the rotary motor 44 is activated. The rotary motor 44 is mounted on the push block 41, and the deflector is mounted on the drive end of the rotary motor 44 and extends to the periphery of the push block 41. The rotary motor 44 drives the deflector to rotate, causing the deflector to turn towards the mold, thereby blocking the mold's forward movement and restricting the mold. When it is necessary to push the mold again, the rotary motor 44 rotates in the opposite direction, causing the deflector to return to a position that does not affect the mold's forward movement, and the push cylinder 42 can continue to push the mold. However, this design has a similar function to the blocking component 43, and the two can cooperate to achieve further diversion and restriction of the mold.

[0037] In some optional embodiments, when the tilting assembly 11 is in operation, both ends of the rotating shaft 112 are connected to the sides of the tilting frame 110, and the hopper body 10 is rotatably connected to the rotating shaft 112. The cylinder body of the tilting cylinder 111 is connected to the tilting frame 110, and the drive end is connected to the bottom surface of the hopper body 10. When it is necessary to feed material to the mixing mechanism 2, the tilting cylinder 111 is activated, the drive end retracts or extends, driving the hopper body 10 to tilt around the rotating shaft 112, so that the concrete in the hopper body 10 is poured into the mixing mechanism 2 from above.

[0038] In some optional embodiments, when the lateral movement assembly 33 is in operation, rollers 331 are mounted on both sides of the pallet 330, and guide rails 332 are mounted on both sides of the transfer frame 32, extending to the inlet end 30 and the outlet end 31. The rollers 331 are mounted in the guide rails 332. The lateral cylinder 333 is parallel to the guide rails 332, with the cylinder body connected to the transfer frame 32 and the drive end connected to the pallet 330. When the mold enters the inlet end 30, the lateral cylinder 333 is activated, and the drive end extends or retracts, causing the pallet 330 to move on the guide rails 332 via the rollers 331, smoothly transferring the concrete-filled mold from the inlet end 30 to the outlet end 31.

[0039] In some alternative embodiments, the longitudinal moving assembly 34 is mounted on the outlet end 31 and connected to the transfer frame 32. When the mold containing concrete arrives at the outlet end 31, the longitudinal cylinder 341 is activated, and its driving end extends toward the mold ejection mechanism, driving the push plate 340 to move. The push plate 340 pushes the mold from the outlet end 31 into the mold ejection mechanism, realizing the transfer of the mold between the transfer mechanism 3 and the mold ejection mechanism.

[0040] In some optional embodiments, when the mixing mechanism 2 is working, the housing 20 is installed on one side of the tilting hopper mechanism 1, with a discharge port at the top and a discharge port at the bottom, opposite to the inlet end 30 of the transfer mechanism 3. The mixing shaft 22 passes through the housing 20 and is rotatably connected to the housing 20, with one end extending outside the housing 20 and connected to the drive end of the mixing motor 21. Multiple sets of mixing rods 23 are staggered on the mixing shaft 22, and each set of mixing rods 23 has a mixing block at its end. After the concrete enters the housing 20 from the discharge port, the mixing motor 21 starts, driving the mixing shaft 22 to rotate. The mixing rods 23 and the mixing block rotate accordingly, thoroughly mixing the concrete. After mixing is complete, the concrete flows out from the discharge port.

[0041] In some optional embodiments, when the mold feeding mechanism 4 is working, the mold feeding conveyor belt 40 is opposite to the inlet end 30 of the transfer mechanism 3. The push cylinder 42 is set on both sides of the mold feeding conveyor belt 40, with the drive end facing the inlet end 30 and equipped with a push block 41. When the operator places the mold on the mold feeding conveyor belt 40, and the mold moves with the conveyor belt to a position close to the inlet end 30, the push cylinder 42 is activated, the drive end extends, and drives the push block 41 to push the mold into the inlet end 30 of the transfer mechanism 3.

[0042] In some alternative embodiments, when the demolding mechanism is in operation, the demolding conveyor belt is opposite to the outlet end 31 of the transfer mechanism 3. After the mold containing concrete is pushed into the demolding mechanism by the longitudinal moving component 34 of the transfer mechanism 3, the mold falls onto the demolding conveyor belt, the demolding conveyor belt starts, and sends the mold out. Workers can collect the mold at the output end of the demolding conveyor belt.

[0043] The above description is merely a preferred embodiment of the present utility model and is not intended to limit the present utility model in any way. Therefore, any modifications, equivalent changes, and alterations made to the above embodiments based on the technical essence of the present utility model without departing from the technical solution of the present utility model shall still fall within the scope of the technical solution of the present utility model.

Claims

1. An automated molding machine, characterized in that, include: Tilting hopper mechanism, stirring mechanism, transfer mechanism, mold feeding mechanism, and mold ejection mechanism; The tilting hopper mechanism includes a hopper body and a tilting assembly. The hopper body is mounted on the tilting assembly, and the mixing mechanism is mounted on one side of the tilting hopper mechanism. The tilting assembly drives the hopper body to tilt, thereby allowing concrete in the hopper body to be poured in from above the mixing mechanism. The transfer mechanism is installed below the mixing mechanism. The transfer mechanism has an inlet end and an outlet end. The mold feeding mechanism is installed on one side of the inlet end, and the mold discharging mechanism is installed on one side of the outlet end. The mold feeding mechanism feeds the mold into the inlet end of the transfer mechanism. The mixing mechanism pours the mixed concrete into the mold. The transfer mechanism transfers the mold containing the concrete from the inlet end to the outlet end. The outlet end feeds the mold containing the concrete into the mold discharging mechanism. The mold discharging mechanism sends the mold containing the concrete out. The mold feeding mechanism is provided with a blocking component at one end facing the transfer mechanism. The blocking component includes a lifting platform. When there is still a mold in the inlet end, the lifting platform will rise to block and limit the mold in the mold feeding mechanism.

2. The automated molding machine according to claim 1, characterized in that, The lifting platform includes a lifting cylinder and a stop block. The lifting cylinder is installed at one end of the mold feeding mechanism facing the transfer mechanism, and the driving end of the lifting cylinder is perpendicular to the horizontal plane. The stop block is installed at the driving end of the lifting cylinder.

3. The automated molding machine according to claim 1, characterized in that, The mold feeding mechanism includes a mold feeding conveyor belt, a pusher block, and a pusher cylinder. The die-feeding conveyor belt is opposite to the inlet end, and the pushing cylinder is disposed on both sides of the die-feeding conveyor belt. The driving end of the pushing cylinder faces the inlet end, and the push block is disposed on the driving end of the pushing cylinder.

4. The automated molding machine according to claim 3, characterized in that, The mold feeding mechanism also includes a rotary motor and a lever. The rotary motor is mounted on the push block, and the lever is mounted on the drive end of the rotary motor and extends to the periphery of the push block. When the rotary motor rotates, it can drive the lever to turn towards the mold, thereby enabling the mold to be pushed or restricted from moving forward.

5. The automated molding machine according to claim 1, characterized in that, The flipping assembly includes a flipping frame, a flipping cylinder, and a rotating shaft. The two ends of the rotating shaft are connected to the two sides of the flipping frame, and the hopper body is rotatably connected to the rotating shaft. The drive end of the flipping cylinder is connected to the bottom surface of the hopper body, and the cylinder body of the flipping cylinder is connected to the flipping frame.

6. The automated molding machine according to claim 1, characterized in that, The transfer mechanism includes a transfer frame, a lateral movement component, and a longitudinal movement component. The lateral movement component is installed inside the transfer frame, and its two ends are located at the inlet end and the outlet end, respectively. The lateral movement assembly includes a tray, rollers, guide rails, and a lateral cylinder. The rollers are mounted on both sides of the tray, and the guide rails are mounted on both sides of the transfer frame, with both ends of the guide rails extending to the inlet and outlet ends. The rollers on both sides are mounted in the guide rails on both sides. The lateral cylinder is parallel to the guide rails, and the drive end of the lateral cylinder is connected to the tray. The cylinder body of the lateral cylinder is connected to the transfer frame.

7. The automated molding machine according to claim 6, characterized in that, The transfer mechanism further includes a longitudinal movement component, which is installed at the outlet end and connected to the transfer frame; The longitudinal moving assembly includes a push plate and a longitudinal cylinder. The longitudinal cylinder is connected to the transfer frame, and the drive end of the longitudinal cylinder faces one side of the demolding mechanism. The push plate is installed on the drive end of the longitudinal cylinder.

8. The automated molding machine according to claim 1, characterized in that, The stirring mechanism includes a housing, a stirring motor, a stirring shaft, and a stirring rod; The housing is installed on one side of the tilting hopper mechanism, and a discharge port is provided on the top of the housing and a discharge port is provided on the bottom of the housing. The discharge port is opposite to the inlet end. The stirring shaft passes through the housing and is rotatably connected to the housing. One end of the stirring shaft extends outside the housing and is connected to the drive end of the stirring motor. Multiple sets of stirring rods are installed alternately on the stirring shaft, and each set of stirring rods has a stirring block at its end.

9. The automated molding machine according to claim 1, characterized in that, The ejection mechanism includes an ejection conveyor belt, which is opposite to the exit end.

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