A coffee machine tray, a processing device of the coffee machine tray and a processing technology thereof

Abstract

This application relates to a coffee machine tray, processing equipment for the coffee machine tray, and its processing technology, belonging to the technical field of coffee machine accessories. The coffee machine tray includes a base body and a snap-fit ​​block fixed to its outer wall. The processing equipment includes a worktable with several forming components arranged in a ring on the worktable. The forming components contact the base body and are used to bend and shape the base body. A flipping component is provided on the worktable, connected to the forming components, and is used to drive the forming components to rotate the base body, thereby separating the forming components from the base body. A laser marking mechanism is connected to the forming components via a shrinking component. The shrinking component drives the laser marking mechanism to align with the inner wall of the base body. The laser marking mechanism is used to print labels on the base body. This application facilitates the cleaning of the coffee machine tray.

Description

Technical Field

[0001] This application relates to the field of coffee machine accessories, and in particular to a coffee machine tray, coffee machine tray processing equipment and processing technology. Background Technology

[0002] A coffee machine is a machine that automates the entire coffee brewing process, including grinding, tamping, filling, brewing, and removing grounds. A coffee machine includes components such as a tray, water tank, steam wand, and portafilter. The tray is designed in different shapes depending on the coffee machine's dimensions and is used to hold cups or as a draining tray.

[0003] Because consumers use cups of different sizes, and the distance between the coffee machine tray and the coffee spout is usually quite large, when the cup is short, coffee splashes when it flows into the cup, making the coffee machine tray that catches the cup very easy to get dirty. The coffee machine tray is attached to the coffee machine, and the coffee machine is quite large, making the coffee machine tray very difficult to clean, so this needs to be improved. Summary of the Invention

[0004] To address the problem of difficult-to-clean coffee machine trays, this application provides a coffee machine tray, a processing device for the coffee machine tray, and a processing technology for the same.

[0005] This application provides a coffee machine tray, and the processing equipment and process for the coffee machine tray adopt the following technical solution:

[0006] A coffee machine tray, comprising:

[0007] The chassis body has a label on its inner wall;

[0008] A snap-fit ​​block is provided on the chassis body, and the snap-fit ​​block is used to install the chassis body on the coffee machine.

[0009] By adopting the above technical solution, during installation, the base body is hooked onto the coffee machine using snap-fit ​​blocks. During use, the cup is placed on the base body, and downward pressure is applied to the base body, increasing the stability of the snap-fit ​​blocks hooking onto the coffee machine. When there are many coffee stains on the coffee machine tray that require cleaning, simply apply manual force to lift the coffee machine tray, causing the snap-fit ​​blocks to separate from the coffee machine, thus removing the coffee machine tray for cleaning.

[0010] Secondly, this application provides a processing device for a coffee machine tray, comprising:

[0011] Workbench;

[0012] Several molding components are disposed on the worktable, and the molding components are arranged in a ring. The molding components are in contact with the chassis body and are used to bend and shape the chassis body.

[0013] A flipping component is provided on the worktable. The flipping component is connected to the forming component and is used to drive the forming component to rotate the chassis body.

[0014] A laser marking mechanism is mounted on the forming component via a shrinking assembly. The shrinking assembly is used to drive the laser marking mechanism to align with the inner wall of the chassis body. The laser marking mechanism is used to print labels on the chassis body.

[0015] By adopting the above technical solution, during use, the chassis body is placed on the molding component, and then the molding component squeezes the chassis body to form its shape. Next, the flipping component is activated, causing the molding component and the chassis body to rotate. This separates the molding component from the chassis body, exposing the inner wall of the chassis body. Then, the shrinking component is activated, causing the laser marking mechanism to move and align with the inner wall of the chassis body. At this point, the laser marking mechanism is activated to print a label on the inner wall of the chassis body.

[0016] Optionally, the molding component includes:

[0017] A mounting frame is provided on the workbench. The mounting frame is connected to a flipping assembly, which is used to drive the mounting frame to flip to a horizontal or vertical position.

[0018] The lower mold is mounted on the mounting frame, and the chassis body is inverted and placed on the lower mold.

[0019] The upper mold is slidably connected to the mounting frame, which is equipped with a cylinder. The output end of the cylinder is connected to the upper mold and is used to drive the upper mold to move closer to or further away from the lower mold. The lower mold can abut against the chassis body.

[0020] By adopting the above technical solution, initially, the upper mold and the lower mold are distributed vertically. Several chassis bodies are placed on the corresponding lower molds. Then, several cylinders are activated simultaneously to drive the upper mold to slide on the mounting frame, so that the upper mold moves closer to the lower mold until the upper mold abuts against the chassis body and applies a downward squeezing force to the chassis body, thereby deforming the chassis body until the chassis body completely fits the upper mold and the lower mold, realizing the forming of several chassis bodies. Multiple chassis bodies are produced at one time, which is convenient to operate and improves work efficiency.

[0021] Optionally, the flipping component includes:

[0022] The crown tooth is rotatably connected inside the worktable;

[0023] A plurality of rotating gears are rotatably connected to the workbench. The rotating gears mesh with crown teeth. Each of the rotating gears corresponds to a mounting bracket. A rotating bevel gear is coaxially fixed on the rotating gear.

[0024] Several transmission bevel gears are rotatably connected to the workbench. Each of the transmission bevel gears corresponds to a mounting frame and is fixed to the mounting frame. The transmission bevel gears mesh with the rotating bevel gears.

[0025] By adopting the above technical solution, after the chassis body is formed, the drive crown tooth rotates, causing several rotating gears to rotate synchronously, driving the rotating bevel gear to rotate, thereby driving the transmission bevel gear to rotate, realizing the synchronous rotation of several mounting brackets, so that the mounting brackets change from a vertical state to a horizontal rotation. At this time, there is no obstruction in the direction of the upper mold and the lower mold moving away from each other, which makes it easy to move the lower mold away from the chassis body, so that the lower mold separates from the chassis body, thereby exposing the inner wall of the chassis body, so that the laser marking mechanism can mark the chassis body.

[0026] Optionally, the worktable is provided with a drive assembly for driving the crown tooth to rotate, the drive assembly including:

[0027] The drive gear is coaxially fixed to the inner wall of the crown tooth;

[0028] An incomplete gear is rotatably connected within the worktable and located within the drive gear, and the incomplete gear can mesh with the drive gear.

[0029] By adopting the above technical solution, the incomplete gear is driven to rotate. When the teeth on the incomplete gear rotate to mesh with the drive gear, they drive the drive gear to rotate, thereby driving the crown teeth to rotate. When the crown teeth drive the rotating bevel gear and the transmission bevel gear to make the mounting frame horizontal, the teeth of the incomplete gear rotate to disengage from the drive gear, thereby stopping the drive gear from rotating. That is, the crown teeth are fixed, and the mounting frame is kept horizontal.

[0030] Optionally, the lower mold is slidably connected to the mounting bracket, and the lower mold is movable along the moving direction of the upper mold. The shrinkage assembly includes:

[0031] A movable rack is fixed on the lower mold, and the movable rack is arranged along the moving direction of the lower mold;

[0032] A linkage gear is rotatably connected to the mounting bracket, and the linkage gear meshes with a movable rack;

[0033] A linkage rack is slidably connected to the mounting bracket. The linkage gear is perpendicular to the moving rack, and the linkage rack meshes with the linkage gear. The linkage rack is fixed to the laser marking mechanism.

[0034] By adopting the above technical solution, when the mounting frame is in a horizontal state, the lower mold is moved away from the upper mold, causing the moving rack on the mounting frame to also move away from the upper mold, thereby driving the linkage gear to rotate and causing the linkage rack to move closer to the chassis body. During this process, the lower mold is pulled out of the chassis body, creating a gap between the lower mold and the chassis, while the inner wall of the chassis body is exposed. The laser marking mechanism is inserted between the lower mold and the chassis body under the drive of the linkage rack, so that the laser marking mechanism is aligned with the inner wall of the lower mold to mark.

[0035] Optionally, the worktable is provided with a moving component for driving the lower mold to move, the moving component including:

[0036] A movable gear is rotatably connected within the worktable. The movable gear is coaxial with the crown tooth and located within the drive gear. The movable gear can mesh with an incomplete gear.

[0037] The movable disc is coaxially fixed on the movable gear;

[0038] A number of connecting ropes are provided, each corresponding to a lower mold. One end of each connecting rope is hinged to a movable disc, and the other end is hinged to the side wall of the lower mold.

[0039] By adopting the above technical solution, after the chassis body is formed, the incomplete gear rotates, driving the drive gear to rotate, causing the mounting frame to reach a horizontal state. At this time, the incomplete gear also rotates until it separates from the drive gear. Then, the incomplete gear meshes with the moving gear and drives the moving gear to rotate, thereby causing the moving disc to rotate. This causes the end of the connecting rope connected to the connecting disc to gradually move away from the chassis body, thus causing the connecting rope to pull the lower mold towards the central axis of the moving disc, i.e., separating it from the chassis body. During this process, several lower molds move synchronously by the same distance, causing several linked racks to drive the laser marking mechanism to simultaneously move to the same position on the corresponding chassis body. This enables marking at the same position on all chassis bodies on the worktable, increasing the accuracy of chassis body processing, improving coordination, and facilitating operation.

[0040] Optionally, the mounting bracket is provided with a guide groove along the moving direction of the upper mold, and a guide block is fixed on the side wall of the lower mold. The guide block is inserted into the guide groove and can move in the guide groove.

[0041] By adopting the above technical solution, when the moving disc rotates, the connecting rope applies an oblique force to the lower mold, while the inner wall of the guide groove abuts against the guide block, which restricts the guide block and allows the lower mold to move only along the length of the guide groove. This increases the stability of the lower mold's movement and prevents the lower mold from applying an oblique squeezing force to the chassis body during movement.

[0042] Optionally, a limiting hole is provided at the edge of the upper mold near the lower mold, and a limiting block is inserted into the limiting hole. The limiting block is interference-fitted with the limiting hole, and the limiting block is connected to the inner wall of the limiting hole through a limiting spring. The limiting block can abut against the edge of the chassis body.

[0043] By adopting the above technical solution, when the upper mold, driven by the cylinder, presses against the chassis body, the edge of the upper mold abuts against the lower mold, causing the limiting block to retract into the limiting hole under force. When the lower mold, driven by the connecting rope, separates from the chassis body, the limiting block loses its restraint, the limiting spring returns to its original deformation, and thus pushes the limiting block out of the limiting hole. Due to the interference fit between the limiting block and the limiting hole, the limiting block exposed in the limiting hole returns to its original deformation and expands, abutting against the edge of the chassis body, restricting the chassis body from moving away from the upper mold. This confines the chassis body within the upper mold, thus fixing its position so that the subsequent laser marking mechanism can accurately mark the appropriate position on the chassis body.

[0044] Thirdly, the processing technology for a coffee machine tray provided in this application includes the following steps:

[0045] S1. Initially, the mounting frame is in a vertical position. The chassis body is placed on the lower mold. Then, the cylinder is activated to drive the upper mold to move down until it presses down on the chassis body, so that the chassis body is extruded and formed.

[0046] S2. After the chassis body is formed, the incomplete drive gear rotates. When the incomplete gear meshes with the drive gear, it drives the crown gear to rotate, thereby causing several rotating gears to rotate synchronously, which in turn drives the rotating bevel gear to rotate, causing the transmission bevel gear to drive the mounting frame to flip until the mounting frame is placed horizontally on the worktable.

[0047] S3. When the incomplete gear rotates to the point where it separates from the drive gear and meshes with the moving gear, the drive gear rotates the moving disc, causing the connecting rope to pull the mold towards the central axis of the moving disc. At the same time, the moving rack moves, driving the linkage gear to rotate, which in turn causes the linkage rack to move the laser marking mechanism towards the chassis body until the output end of the laser marking mechanism is aligned with the inner wall of the chassis body. At this point, the laser marking mechanism is activated to print the label on the chassis body.

[0048] S4. Finally, the chassis body is peeled off from the upper mold to complete the manufacturing and processing of the chassis body.

[0049] In summary, this application includes at least one of the following beneficial effects:

[0050] 1. During installation, the base is hooked onto the coffee machine using snap-fit ​​blocks. In use, the cup is placed on the base, and downward pressure is applied to increase the stability of the snap-fit ​​blocks. When there is a lot of coffee residue on the coffee machine tray and it needs cleaning, simply lift the tray manually to separate the snap-fit ​​blocks from the coffee machine, allowing the tray to be removed for cleaning.

[0051] 2. In use, place the chassis body on the molding component, then use the molding component to press the chassis body to form its shape. Next, activate the flipping component to rotate the molding component and chassis body, separating them and exposing the inner wall of the chassis body. Then, activate the shrinking component to move the laser marking mechanism to align with the inner wall of the chassis body. At this point, activate the laser marking mechanism to print a label on the inner wall of the chassis body. Attached Figure Description

[0052] Figure 1 This is a schematic diagram of the structure of the coffee machine tray according to an embodiment of this application;

[0053] Figure 2 This is a schematic diagram of the structure of the coffee machine tray processing equipment according to an embodiment of this application;

[0054] Figure 3 This is a schematic diagram of the internal structure of the workbench;

[0055] Figure 4 for Figure 2 Enlarged view of point A in the middle;

[0056] Figure 5 This is a structural diagram of the upper mold and the chassis body.

[0057] In the diagram: 10. Chassis body; 11. Snap-fit ​​block; 20. Workbench; 30. Forming component; 31. Mounting bracket; 311. Guide groove; 32. Lower mold; 321. Guide block; 33. Upper mold; 331. Cylinder; 332. Limiting hole; 40. Tilting component; 41. Crown tooth; 42. Rotating gear; 421. Rotating bevel gear; 43. Transmission bevel gear; 50. Drive component; 51. Drive gear; 52. Incomplete gear; 60. Shrinking component; 61. Moving rack; 62. Linkage gear; 63. Linkage rack; 70. Laser marking mechanism; 80. Moving component; 81. Moving gear; 82. Moving disc; 83. Connecting rope; 90. Limiting block; 110. Limiting spring. Detailed Implementation

[0058] The following is in conjunction with the appendix Figure 1-5 This application will be described in further detail.

[0059] This application discloses a coffee machine tray. (Refer to...) Figure 1 The coffee machine tray includes a base body 10 and snap-fit ​​blocks 11. The base body 10 is a flat plate with labels on its side walls. The edges of the plate are bent perpendicular to the plate, so that the labels are located within the raised edges. Two snap-fit ​​blocks 11 are welded to the edges of the base body 10. The coffee machine has two opposing vertical slots, and the snap-fit ​​blocks 11 are inserted into the corresponding vertical slots, allowing the base body 10 to be hooked onto the coffee machine, thus achieving the installation of the base body 10 on the coffee machine.

[0060] In use, the cup is placed on the base body 10, and downward pressure is applied to the base body 10 to increase the stability of the latching block 11 hooking onto the coffee machine. When there are many coffee stains on the coffee machine tray that need to be cleaned, simply apply force to lift the coffee machine tray to separate the latching block 11 from the coffee machine, thus removing the coffee machine tray from the coffee machine for cleaning.

[0061] This application also discloses a processing device for coffee machine trays, used to manufacture coffee machine trays. (See also...) Figure 2 and Figure 3 A coffee machine tray processing device includes a workbench 20, on which a plurality of forming components 30 are provided. The plurality of forming components 30 are arranged in a ring at intervals. The base body 10 is placed on the forming components 30, and the forming components 30 are used to press the base body 10 into shape.

[0062] Reference Figure 2 and Figure 3 After the chassis body 10 is formed, the inner wall of the chassis body 10 needs to be marked, that is, it needs to be able to remove the forming component 30. In order to facilitate the movement of the forming component 30, a flipping component 40 is provided on the worktable 20. The flipping component 40 is connected to the forming component 30 and is used to drive the forming component 30 to flip the chassis body 10, so that there is no obstruction in the direction of separation between the forming component 30 and the chassis body 10.

[0063] Reference Figure 2 and Figure 4A laser marking mechanism 70 is connected to the forming component 30 via a shrinking component 60. In this embodiment, the laser marking mechanism 70 can be a fiber laser marking machine. When the forming component 30 moves away from the chassis body 10, the laser marking mechanism 70 gradually approaches the chassis body 10 and aligns with the inner wall of the chassis body 10 under the drive of the shrinking component 60. At this time, the laser marking mechanism 70 prints a label on the inner wall of the chassis body 10.

[0064] Reference Figure 2 and Figure 3 The molding component 30 includes a mounting frame 31, a lower mold 32, and an upper mold 33. Initially, the mounting frame 31 is vertically erected on the worktable 20, the lower mold 32 is placed on the worktable 20 and connected to the mounting frame 31, and the upper mold 33 is located directly above the lower mold 32. A cylinder 331 is bolted to the mounting frame 31. The output end of the cylinder 331 is vertically downward and fixed to the upper mold 33. The cylinder 331 is used to drive the upper mold 33 to move in the vertical direction toward or away from the lower mold 32.

[0065] In use, several chassis bodies 10 are placed on corresponding lower molds 32. Then, several cylinders 331 are activated simultaneously to drive the upper mold 33 to slide on the mounting frame 31, so that the upper mold 33 moves closer to the lower mold 32 until the upper mold 33 abuts against the chassis body 10 and applies downward extrusion force to the chassis body 10, thereby deforming the chassis body 10 until the chassis body 10 completely fits the upper mold 33 and the lower mold 32, thus forming several chassis bodies 10. Multiple chassis bodies 10 are produced at one time, which is convenient to operate and improves work efficiency.

[0066] Reference Figure 2 and Figure 3 The flipping assembly 40 includes a crown tooth 41 and several rotating gears 42. The worktable 20 is hollow inside. The crown tooth 41 is located inside the worktable 20 and can rotate on the worktable 20 about its central axis. Several rotating gears 42 are arranged at intervals along the circumference of the crown tooth 41, and each rotating gear 42 corresponds to a mounting frame 31. The rotating gears 42 are rotatably connected to the worktable 20 and mesh with the crown tooth 41. A rotating bevel gear 421 is coaxially fixed to the rotating gear 42. A transmission bevel gear 43 is fixed at the bottom of the mounting frame 31, and the rotating bevel gear 421 meshes with the transmission bevel gear 43.

[0067] When the upper mold 33 and the lower mold 32 cooperate to form the chassis body 10, the chassis body 10 is inverted on the lower mold 32. At this time, the drive crown tooth 41 rotates, causing several rotating gears 42 to rotate synchronously, driving the rotating bevel gear 421 to rotate, thereby driving the transmission bevel gear 43 to rotate, realizing the synchronous rotation of several mounting brackets 31, so that the mounting brackets 31 change from a vertical state to a horizontal rotation. At this time, there is no obstruction in the direction of the upper mold 33 and the lower mold 32 moving away from each other, so that the lower mold 32 can be moved away from the chassis body 10, so that the lower mold 32 is separated from the chassis body 10, thereby exposing the inner wall of the chassis body 10 so that the laser marking mechanism 70 can mark the chassis body 10.

[0068] Reference Figure 2 and Figure 3 In order to drive the crown tooth 41 to rotate, a drive assembly 50 is provided on the worktable 20. The drive assembly 50 includes a drive gear 51 and an incomplete gear 52. The drive gear 51 is coaxially fixed inside the crown tooth 41. The incomplete gear 52 and the drive gear 51 are in the same plane. The incomplete gear 52 is rotatably connected to the worktable 20. A servo motor is installed in the worktable 20 by bolts. The output end of the servo motor is coaxially fixed with the incomplete gear 52 and is used to drive the incomplete gear 52 to rotate. The teeth of the incomplete gear 52 can mesh with the drive gear 51.

[0069] The servo motor drives the incomplete gear 52 to rotate. When the teeth on the incomplete gear 52 rotate to mesh with the drive gear 51, they drive the drive gear 51 to rotate, thereby driving the crown tooth 41 to rotate. When the crown tooth 41 drives the rotating bevel gear 421 and the transmission bevel gear 43 to make the mounting bracket 31 horizontal, the teeth of the incomplete gear 52 rotate to disengage from the drive gear 51, thereby stopping the drive gear 51 from rotating. That is, the crown tooth 41 is fixed, so that the mounting bracket 31 remains horizontal.

[0070] Reference Figure 2 and Figure 4The shrinking assembly 60 includes a movable rack 61, a linkage gear 62, and a linkage rack 63. The movable rack 61 is fixed to the lower mold 32. A guide block 321 is fixed to the side wall of the lower mold 32. A guide groove 311 is formed on the side wall of the mounting frame 31 along the moving direction of the upper mold 33. The guide block 321 is inserted into the guide groove 311 and can move within the guide groove 311. The linkage gear 62 is rotatably connected to the mounting frame 31. The movable rack 61 meshes with the linkage gear 62. When the lower mold 32 moves, it drives the movable rack 61 to move, which in turn drives the linkage gear 62 to rotate about its central axis. The linkage rack 63 passes through the mounting frame 31 and is perpendicular to the movable rack 61. The linkage rack 63 can slide along its length on the mounting frame 31. The end of the linkage rack 63 closest to the chassis body 10 is fixed to the laser marking mechanism 70.

[0071] When the mounting bracket 31 is in a horizontal position, the lower mold 32 is moved away from the upper mold 33, causing the moving rack 61 on the mounting bracket 31 to also move away from the upper mold 33. This drives the linkage gear 62 to rotate, causing the linkage rack 63 to move closer to the chassis body 10. During this process, the lower mold 32 is pulled out of the chassis body 10, creating a gap between the lower mold 32 and the chassis. At the same time, the inner wall of the chassis body 10 is exposed. The laser marking mechanism 70 is inserted between the lower mold 32 and the chassis body 10 under the drive of the linkage rack 63, so that the laser marking mechanism 70 marks the inner wall of the lower mold 32.

[0072] Reference Figure 2 and Figure 3 To enable the simultaneous movement of several lower molds 32, a moving assembly 80 is provided on the worktable 20. The moving assembly 80 includes a moving gear 81, a moving disk 82, and several connecting ropes 83. The moving rack 61 is located inside the worktable 20 and is coaxial with the crown tooth 41. The moving gear 81 is rotatably connected to the worktable 20 and is also in the same plane as the incomplete gear 52. The incomplete gear 52 can mesh with the moving gear 81 after being separated from the drive gear 51. The moving disk 82 is coaxially fixed to the moving gear 81 and is located on the worktable 20. One end of the connecting rope 83 is hinged to the moving disk 82. Several connecting ropes 83 correspond one-to-one with the lower molds 32. The end of the connecting rope 83 away from the moving disk 82 is hinged to the side wall of the lower mold 32.

[0073] After the chassis body 10 is formed, the incomplete gear 52 rotates, driving the drive gear 51 to rotate, causing the mounting bracket 31 to rotate to a horizontal position. This causes the connecting rope 83 to bend. At this time, the incomplete gear 52 also rotates to separate from the drive gear 51. Then, the incomplete gear 52 meshes with the moving gear 81 and drives the moving gear 81 to rotate, thereby causing the moving disk 82 to rotate. This causes the end of the connecting rope 83 connected to the connecting disk to gradually move away from the chassis body 10, thus causing the connecting rope 83 to pull the lower mold 32 towards the central axis of the moving disk 82, i.e., to separate from the chassis body 10. During this process, several lower molds 32 move synchronously by the same distance, causing several linkage racks 63 to drive the laser marking mechanism 70 to move simultaneously to the same position on the corresponding chassis body 10. This enables marking at the same position on all chassis bodies 10 on the worktable 20, increasing the accuracy of processing the chassis body 10 and improving coordination.

[0074] Reference Figure 2 and Figure 5 When the lower mold 32 separates from the chassis, to prevent the chassis body 10 from moving out of the upper mold 33 without restriction, a limiting hole 332 is provided at the edge of the upper mold 33 near the lower mold 32. A rubber limiting block 90 is inserted into the limiting hole 332. The limiting block 90 can be fully retracted into the limiting hole 332 under pressure. A limiting spring 110 is fixed on the limiting block 90. ​​The end of the limiting spring 110 away from the limiting block 90 is fixed to the inner wall of the limiting hole 332. The limiting block 90 can abut against the edge of the chassis body 10.

[0075] When the upper mold 33 is driven by the cylinder 331 to press the chassis body 10, the edge of the upper mold 33 abuts against the lower mold 32, causing the limiting block 90 to retract into the limiting hole 332. When the lower mold 32 is driven by the connecting rope 83 to separate from the chassis body 10, the limiting block 90 loses its restraint, and the limiting spring 110 returns to its original shape, thereby pushing the limiting block 90 out of the limiting hole 332. Because the limiting block 90 and the limiting hole 332 are interference-fitted, the limiting block 90 exposed in the limiting hole 332 returns to its original shape and expands, abutting against the edge of the chassis body 10, thus slightly restricting the chassis body 10 from moving away from the upper mold 33. This keeps the chassis body 10 confined within the upper mold 33, fixing its position so that the subsequent laser marking mechanism 70 can accurately mark the appropriate position of the chassis body 10.

[0076] The implementation principle of the coffee machine tray processing equipment according to this application embodiment is as follows: In use, the base body 10 is placed on the forming component 30, and then the forming component 30 is used to squeeze the base body 10 to form the base body 10. Then, the flipping component 40 is activated, which drives the forming component 30 and the base body 10 to rotate. This separates the forming component 30 from the base body 10, exposing the inner wall of the base body 10. Then, the shrinking component 60 is activated, which moves the laser marking mechanism 70 to align with the inner wall of the base body 10. At this time, the laser marking mechanism 70 is activated to print a label on the inner wall of the base body 10.

[0077] This application also discloses a processing technology for a coffee machine tray, including the following steps:

[0078] S1. Initially, the mounting bracket 31 is in a vertical position. The chassis body 10 is placed on the lower mold 32. Then, the cylinder 331 is started to drive the upper mold 33 to move down until it presses down on the chassis body 10, so that the chassis body 10 is extruded and formed.

[0079] S2. After the chassis body 10 is formed, the incomplete gear 52 is driven to rotate. When the incomplete gear 52 meshes with the drive gear 51, it drives the crown gear 41 to rotate, thereby causing several rotating gears 42 to rotate synchronously, which in turn drives the rotating bevel gear 421 to rotate, causing the transmission bevel gear 43 to drive the mounting frame 31 to flip until the mounting frame 31 is placed horizontally on the worktable 20.

[0080] S3. When the incomplete gear 52 rotates until it separates from the drive gear 51 and meshes with the moving gear 81, the moving gear 81 drives the moving disk 82 to rotate, causing the connecting rope 83 to pull the lower mold 32 to move towards the central axis of the moving disk 82. At the same time, the moving rack 61 moves, driving the linkage gear 62 to rotate, thereby causing the linkage rack 63 to drive the laser marking mechanism 70 to move towards the chassis body 10 until the output end of the laser marking mechanism 70 is aligned with the inner wall of the chassis body 10. At this time, the laser marking mechanism 70 is started to print the label on the chassis body 10.

[0081] S4. Finally, the chassis body 10 is peeled off from the upper mold 33 to complete the manufacturing and processing of the chassis body 10.

[0082] The above are all preferred embodiments of this application, and are not intended to limit the scope of protection of this application. Therefore, all equivalent changes made in accordance with the structure, shape and principle of this application should be covered within the scope of protection of this application.

Claims

1. A processing device for a coffee machine tray, the coffee machine tray comprising a base body (10), an inner wall of the base body (10) being provided with a label; a clamping block (11) provided on the base body (10), the clamping block (11) being used to mount the base body (10) on a coffee machine; characterized in that, include: Workbench (20); A plurality of forming components (30) are disposed on the worktable (20). The plurality of forming components (30) are arranged in a ring. The forming components (30) are in contact with the chassis body (10) and are used to bend the chassis body (10) into shape. A flipping component (40) is provided on the worktable (20). The flipping component (40) is connected to the forming component (30) and is used to drive the forming component (30) to rotate the chassis body (10). A laser marking mechanism (70) is mounted on the forming component (30) via a shrinking component (60). The shrinking component (60) is used to drive the laser marking mechanism (70) to align with the inner wall of the chassis body (10). The laser marking mechanism (70) is used to print labels on the chassis body (10). The molding component (30) includes a mounting bracket (31), a lower mold (32), and an upper mold (33); The worktable (20) is provided with a drive assembly (50) for driving the crown tooth (41) to rotate, the drive assembly (50) including: The drive gear (51) is coaxially fixed on the inner wall of the crown tooth (41); An incomplete gear (52) is rotatably connected to the worktable (20) and located within the drive gear (51). The incomplete gear (52) can mesh with the drive gear (51). The lower mold (32) is slidably connected to the mounting bracket (31), and the lower mold (32) is movable along the moving direction of the upper mold (33). The shrinking assembly (60) includes: A movable rack (61) is fixed on the lower mold (32), and the movable rack (61) is arranged along the moving direction of the lower mold (32); A linkage gear (62) is rotatably connected to a mounting bracket (31), and the linkage gear (62) meshes with a movable rack (61); A linkage rack (63) is slidably connected to the mounting bracket (31), the linkage gear (62) is perpendicular to the moving rack (61), the linkage rack (63) meshes with the linkage gear (62), and the linkage rack (63) is fixed to the laser marking mechanism (70). The worktable (20) is provided with a moving component (80) for driving the lower mold (32) to move, the moving component (80) including: A movable gear (81) is rotatably connected inside the worktable (20). The movable gear (81) is coaxial with the crown tooth (41) and located inside the drive gear (51). The movable gear (81) can mesh with the incomplete gear (52). The movable disk (82) is coaxially fixed on the movable gear (81); A number of connecting ropes (83) are provided, each corresponding to a lower mold (32). One end of each connecting rope (83) is hinged to a movable disc (82), and the other end is hinged to the side wall of the lower mold (32).

2. The processing equipment for a coffee machine tray according to claim 1, characterized in that, Mounting bracket (31) is provided on the workbench (20). The mounting bracket (31) is connected to the flipping assembly (40). The flipping assembly (40) is used to drive the mounting bracket (31) to flip to a horizontal or vertical state. The lower mold (32) is mounted on the mounting frame (31), and the chassis body (10) is upside down on the lower mold (32); The upper mold (33) is slidably connected to the mounting frame (31). The mounting frame (31) is equipped with a cylinder (331). The output end of the cylinder (331) is connected to the upper mold (33) and is used to drive the upper mold (33) to move closer to or further away from the lower mold (32). The lower mold (32) can abut against the chassis body (10).

3. The coffee machine tray processing apparatus according to claim 2, characterized in that, The flipping component (40) includes: Crown tooth (41) is rotatably connected to the worktable (20); A plurality of rotating gears (42) are rotatably connected to the workbench (20). The rotating gears (42) mesh with crown teeth (41). The plurality of rotating gears (42) correspond one-to-one with the mounting bracket (31). A rotating bevel gear (421) is coaxially fixed on the rotating gears (42). A plurality of transmission bevel gears (43) are rotatably connected to the worktable (20). Each of the plurality of transmission bevel gears (43) corresponds to a mounting bracket (31) and is fixed to the mounting bracket (31). The transmission bevel gears (43) mesh with the rotating bevel gears (421).

4. The processing equipment for a coffee machine tray according to claim 2, characterized in that, The mounting bracket (31) has a guide groove (311) along the moving direction of the upper mold (33), and a guide block (321) is fixed on the side wall of the lower mold (32). The guide block (321) is inserted into the guide groove (311) and can move in the guide groove (311).

5. The processing equipment for a coffee machine tray according to claim 2, characterized in that, The upper mold (33) has a limiting hole (332) at the edge near the lower mold (32). A limiting block (90) is inserted into the limiting hole (332). The limiting block (90) is interference-fitted with the limiting hole (332). The limiting block (90) is connected to the inner wall of the limiting hole (332) through a limiting spring (110). The limiting block (90) can abut against the edge of the chassis body (10).

6. A processing method for a coffee machine tray, using the processing equipment for a coffee machine tray as described in claim 3, characterized in that, Includes the following steps: S1. Initially, the mounting bracket (31) is in a vertical position. The chassis body (10) is placed on the lower mold (32). Then, the cylinder (331) is started to drive the upper mold (33) to move down until it is pressed down on the chassis body (10), so that the chassis body (10) is extruded and formed. S2. After the chassis body (10) is formed, the incomplete drive gear (52) rotates. When the incomplete drive gear (52) meshes with the drive gear (51), it drives the crown gear (41) to rotate, thereby causing several rotating gears (42) to rotate synchronously, which in turn drives the rotating bevel gear (421) to rotate, causing the transmission bevel gear (43) to drive the mounting frame (31) to flip until the mounting frame (31) is placed on the worktable (20) in a horizontal state. S3. When the incomplete gear (52) rotates to the point where it separates from the drive gear (51) and meshes with the moving gear (81), the moving gear (81) drives the moving disk (82) to rotate, causing the connecting rope (83) to pull the lower mold (32) to move towards the central axis of the moving disk (82). At the same time, the moving rack (61) moves, driving the linkage gear (62) to rotate, thereby causing the linkage rack (63) to drive the laser marking mechanism (70) to move towards the chassis body (10) until the output end of the laser marking mechanism (70) is aligned with the inner wall of the chassis body (10). At this time, the laser marking mechanism (70) is started to print the label on the chassis body (10). S4. Finally, the chassis body (10) is peeled off from the upper mold (33) to realize the manufacturing and processing of the chassis body (10).

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