Embedded type transverse grooving indentation mechanism
By designing an embedded horizontal slotting and creasing mechanism on the carton machine, the problem of the slotting knife and creasing knife not being synchronized is solved, realizing the synchronous operation of slotting and creasing, simplifying the equipment structure and improving efficiency.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- QINGDAO NAIPU INTELLIGENT PACKAGING TECHNOLOGY CO LTD
- Filing Date
- 2025-03-07
- Publication Date
- 2026-05-05
AI Technical Summary
The grooving and creasing knives of existing carton machines cannot work in sync, resulting in complex equipment structure and low processing efficiency.
An inlaid horizontal grooving and indentation mechanism was designed. By inlaying an indentation knife on the grooving knife, grooving and indentation can be carried out simultaneously. The spacing between the knife holders of the grooving knife can be adjusted to adapt to grooving and indentation work at different positions.
The equipment structure has been simplified, the efficiency of grooving and indentation and the space utilization have been improved, and grooving and indentation have been carried out simultaneously.
Smart Images
Figure CN224197394U_ABST
Abstract
Description
Technical Field
[0001] This utility model relates to the field of carton making technology, and in particular to an inlaid horizontal slotting and creasing mechanism. Background Technology
[0002] Cardboard boxes are the most widely used packaging products, typically used as wrapping materials for goods or as protective outer layers for items. During production, cardboard boxes are formed by bending cardboard. To ensure a completely sealed box, several slots are cut at the top and bottom of the cardboard to facilitate folding and sealing. The structure for slotting the cardboard is called a slotting assembly, which usually consists of an upper cutter shaft and rollers. The upper cutter shaft has slotting blades, and the cardboard is slotted by the rolling of the upper cutter shaft. Simultaneously, corresponding creases need to be applied at the slotted positions, which requires corresponding slotting and crease blades. Currently, a drawback of existing slotting mechanisms on the market is that the slotting blades cannot cooperate with the crease blades used for transverse creases, preventing simultaneous crease and slotting. This not only complicates the structure of the cardboard box machine but also affects processing efficiency. Utility Model Content
[0003] The purpose of this utility model is to design an inlaid horizontal slotting indentation mechanism to overcome the shortcomings of the above-mentioned technology.
[0004] This utility model designs an inlaid horizontal grooving and indentation mechanism, including a mounting body. The mounting body is provided with a first tool holder, and the first tool holder is provided with a grooving tool. The grooving tool extends along the horizontal length direction of the mounting body. The grooving tool includes two rows of parallel blade segments. Each row of blade segments extends along the length direction of the mounting body. An installation groove is provided between the two rows of blade segments. The mounting body is also provided with an indentation tool. The indentation tool is located in the installation groove and is parallel to one of the blade segments. One pair of ends or two pairs of ends of the two rows of blade segments are integrally connected to form a closed end. The height of the closed end is increased to form a raised part.
[0005] Preferably, the grooving tool includes a closed end and a cutting edge, wherein the closed end is detachable from the cutting edge.
[0006] Further optimization involves adjusting the height of the closed end relative to the cutting edge segment.
[0007] Preferably, the closed end includes two rows of blade segments and a connecting segment connecting the blade segments. When the two rows of blade segments are parallel to each other and the connecting segment is in the shape of an outwardly convex arc, the closed end is a U-shaped end; or, when the two rows of blade segments are parallel to each other and the connecting segment is inclined relative to the blade segments, the closed end is an inclined end; or, one row of blade segments is parallel to the indentation tool, and the other row of blade segments is relatively inclined, with the connecting segment and the inclined blade segments on the same straight line, the closed end is a triangular end.
[0008] The three shapes of the closed ends can be freely combined in pairs to serve as the closed ends of the grooving cutter 3.
[0009] Further optimization involves a U-shaped closed end with a through hole that communicates with the mounting groove and allows the indentation tool to pass through.
[0010] Preferably, the guide rail extends along the length of the mounting body, and the first tool holder is provided with a slider that slides with the guide rail, so that the first tool holder is slidably connected to the mounting body; the first tool holder is driven by a transmission mechanism to slide back and forth along the length of the mounting body.
[0011] In a further optimization, the mounting body is provided with coaxial conveying rollers on opposite sides. The mounting body rotates or translates relative to the conveying rollers. The mounting body drives the grooving knife and the indenting knife, so that the grooving knife and the indenting knife perform grooving and indenting work by rotating; or perform grooving and indenting work by pressing down.
[0012] Further optimization involves the mounting body being a crossbeam structure, with the first tool holder and the indentation tool mounted on the crossbeam structure. A driving mechanism is provided on the crossbeam structure to drive the crossbeam structure to translate relative to the conveyor roller, thereby achieving translational movement of the mounting body.
[0013] Further optimization involves slidably connecting the indentation tool to the mounting body. The mounting body has lead screw pairs at both ends, each including a lead screw and a nut. The lead screw is vertically positioned relative to the mounting body, and the nut is slidably connected to it. The nut connects to the indentation tool, causing it to move up and down along the lead screw. A worm gear is fixed to the lead screw, and a worm is connected to the worm. A synchronizing rod is provided between the two worms at both ends of the mounting body. One worm is connected to a driving component, which drives the worm to rotate. The worm then drives the synchronizing rod, causing both worms to rotate synchronously. The worm drives the worm wheel to rotate, which in turn drives the lead screw to rotate. The lead screw causes the nut to move up and down, and the nut causes the indentation tool to move horizontally, thus achieving the horizontal movement of the indentation tool.
[0014] Further optimization involves the mounting body being a rotatable roller structure. The first cutter holder has a through hole in the center, allowing it to be fitted onto the roller structure. The grooving cutter and the indentation cutter extend along the axial direction of the roller structure. The rotation of the roller structure drives the first cutter holder to rotate, and the first cutter holder drives the grooving cutter and the indentation cutter to rotate synchronously, thereby realizing the rotation of the mounting body.
[0015] In a further optimization, when the mounting body is a beam structure, the transmission mechanism includes a first rack structure in the same direction as the length of the mounting body. A first gear structure is meshed on the first rack structure. The first gear structure is connected to a first base. A first driving device is provided on the first base to drive the first gear structure to rotate. The first base is also connected to a slider and a first tool holder, so that the first base drives the first tool holder to slide back and forth along the length of the mounting body, thereby causing the first tool holder to drive the grooving tool to slide back and forth along the length of the mounting body.
[0016] Further optimization involves the following transmission mechanism when the mounting body is a roller structure: a fixed beam is positioned above the mounting body, a second rack structure is mounted on the fixed beam in the same direction as the length of the mounting body, a second gear structure is meshed on the second rack structure, the second gear structure is connected to a second base, a second driving device is mounted on the second base to drive the second gear structure to rotate, a downwardly retractable positioning pin is mounted on the bottom of the second base, and a positioning hole is mounted on the first tool holder. When the positioning pin is inserted into the positioning hole, the second base and the first tool holder are fixedly connected, thereby causing the second base to drive the first tool holder to slide back and forth along the length of the mounting body, which in turn causes the first tool holder to drive the grooving tool to slide back and forth along the length of the mounting body.
[0017] Further optimization involves having at least two first tool holders arranged side-by-side on the same mounting body. Each first tool holder is equipped with a grooving tool, and the indentation tool is correspondingly arranged with the grooving tool. Each first tool holder is also equipped with a corresponding transmission mechanism to enable the first tool holders to slide individually or synchronously.
[0018] The technical advantage of this invention is that the grooving knife includes two rows of parallel blade segments, and the creasing knife is located between the two rows of blade segments and parallel to one of the blade segments. This allows the creasing knife to be embedded in the grooving knife, creating an embedded grooving and creasing mechanism that simultaneously and sequentially grooves and creasing the cardboard. The blade holders of the grooving knives can be individually and their relative spacing can be adjusted, thus enabling lateral position adjustment among multiple sets of grooving knives to simultaneously perform grooving and creasing work at different positions on the same cardboard. Therefore, it not only has a simple and compact structure, improving space utilization, but also increases grooving and creasing efficiency. Attached Figure Description
[0019] Figure 1 This is the overall structural diagram when the mounting body is a beam structure;
[0020] Figure 2 This is another perspective view of the overall structure when the installation body is a beam structure;
[0021] Figure 3 This is an overall structural diagram when the mounting body is a roller structure;
[0022] Figure 4 yes Figure 3 Enlarged view of point A in the middle;
[0023] Figure 5 This is another perspective view of the overall structure when the mounting body is a roller structure;
[0024] Figure 6 This is a structural diagram when the mounting body is a roller structure;
[0025] Figure 7 This is a schematic diagram showing three different shapes of the closed end.
[0026] In the diagram: 1. Mounting body; 2. First tool holder; 3. Grooving tool; 4. Cutting edge section; 5. Mounting groove; 6. Indentation tool; 7. Closed end; 8. Through hole; 9. Heightened part; 10. Guide rail; 11. Slider; 12. Conveyor roller; 13. Lead screw pair structure; 14. Drive component; 15. Synchronizing rod; 16. First rack structure; 17. First gear structure; 18. First base; 19. First drive device; 20. Fixed beam; 21. Second rack structure; 22. Second gear structure; 23. Second base; 24. Second drive device; 25. Positioning pin; 26. Positioning hole; 27. Connecting section; 28. Base. Detailed Implementation
[0027] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. All other embodiments obtained by those skilled in the art based on the embodiments of the present utility model are within the protection scope of the present utility model.
[0028] This utility model includes a mounting body 1, on which a first tool holder 2 is provided, and on which a grooving tool 3 is provided. The grooving tool 3 extends along the transverse length direction of the mounting body 1. The grooving tool 3 includes a base 28 and two rows of parallel blade segments 4. The bottom of the blade segments 4 is connected to the base 28, and the base 28 is mounted on the first tool holder 2. The top of the blade segments 4 forms a serrated blade. Each row of blade segments 4 extends along the length direction of the mounting body 1. The grooving tool 3 has a mounting groove 5 between the two rows of blade segments 4. The mounting body 1 also has an indentation tool 6, which is located in the mounting groove 5 and is parallel to one or both blade segments 4. That is, the indentation tool 6 and the grooving tool 3 are arranged in the same direction.
[0029] When the grooving knife 3 and the creasing knife 6 perform grooving and creasing operations simultaneously, if the height of the creasing knife 6 blade is less than the height of the grooving knife 3 blade segment 4, the cardboard is grooved first. As the mounting body 1 continues to move toward the cardboard, the creasing knife 6 then creasing the cardboard. This achieves the processing sequence of grooving first and then creasing. Of course, the height of the creasing knife 6 blade can be greater than or equal to the height of the grooving knife 3 blade segment 4, thereby adjusting the processing sequence of grooving and creasing to adapt to different working conditions.
[0030] Furthermore, one pair of ends of the two rows of blade segments 4 are integrally connected to form a closed end 7, or both pairs of ends are integrally connected to form a closed end 7. A through hole 8 is provided on the closed end 7, and the through hole 8 communicates with the mounting groove 5. When the length of the creasing knife 6 is greater than the length of the grooving knife 3, the creasing knife 6 needs to pass through the through hole 8 when it is located between the two rows of blade segments 4 of the grooving knife 3, so that the grooving knife 3 and the creasing knife 6 are pressed down on the cardboard together.
[0031] Furthermore, the height of the closed end 7 is increased to form a raised part 9. The two sides of the raised part 9 are connected to the corresponding blade section 4 by an inclined straight line to transition, so that when the grooving knife 3 is pressed down on the cardboard, the raised part 9 will not interfere with grooving, thus strengthening the strength of both ends of the grooving knife. In addition, when a through hole 8 is provided on the closed end 7, the raised part 9 is located above the through hole 8, which strengthens the section where the through hole 8 is located, so that the grooving knife 3 will not deform when it is pressed down on the cardboard or the conveyor roller 12.
[0032] Furthermore, the closed end 7 includes two rows of blade segments 4 and a connecting segment 27 connecting the two blade segments 4. The shape of the closed end 7 can be three different. Figure 7 These are top-view schematic diagrams of three shapes of the closed end 7. In diagram a, the two rows of cutting edge segments 7 are parallel to each other, and the connecting section is an outwardly convex arc, which is a U-shaped end. Diagram b shows an inclined closed end 7, in which the two rows of cutting edge segments 4 are parallel to each other and form a length difference in the length direction. The two rows of cutting edge segments 4 are connected by a connecting section 27, which is inclined, thus forming an inclined end. In diagram c, one of the two cutting edge segments 4 is parallel to the indentation tool 6, while the other cutting edge segment 4 is relatively inclined, thus forming a long triangular closed end 7. Of course, the above three shapes of closed ends 7 can be freely combined in pairs as the closed ends 7 of the grooving tool 3 to achieve flexible grooving.
[0033] A guide rail 10 extends along the length of the mounting body 1 on the mounting body 1. A slider 11 is provided on the first tool holder 2, which is slidably engaged with the guide rail 10, so that the first tool holder 2 is slidably connected to the mounting body 1. The first tool holder 2 is driven by a transmission mechanism to slide back and forth along the length of the mounting body 1, so that the position of the first tool holder 2 relative to the mounting body 1 can be adjusted. In this embodiment, there are at least two first tool holders 2, which are arranged side by side on the same mounting body 1. Each first tool holder 2 is provided with a grooving knife 3, which is correspondingly arranged with an indentation knife 6. Each first tool holder 2 is provided with a corresponding transmission mechanism to realize the individual or synchronous sliding of the first tool holder 2, thereby realizing the adjustment of the distance between the two sets of grooving knives 3.
[0034] It should be noted that when there are multiple grooving cutters 3, there can be one indentation cutter 6. A horizontal line passes through the through hole 8 on each grooving cutter 3, and the position of each grooving cutter 3 is adjusted along the indentation cutter 6.
[0035] Below the mounting body 1 is a conveyor roller 12, usually a rubber roller, used to convey cardboard. The mounting body 1 rotates or translates relative to the conveyor roller 12. The mounting body 1 drives the slotting knife 3 and the creasing knife 6, so that the slotting knife 3 and the creasing knife 6 achieve slotting and creasing through two motion modes:
[0036] The first method involves grooving and creasing via rotation. When the mounting body 1 is a rotatable roller structure, the first knife holder 2 is fitted onto the outer wall of the roller structure. The grooving knife 3 and creasing knife 6 on the first knife holder 2 extend along the length of the roller structure. Multiple first knife holders 2 can be arranged equidistantly around the outer perimeter of the roller structure, each equipped with a corresponding grooving knife 3 and creasing knife 6. When the roller structure rotates under the drive of the driving device, it causes the first knife holder 2 to rotate as well. The grooving knife 3 and creasing knife 6 on the first knife holder 2 also rotate relative to the conveyor roller 12. During rotation, the grooving knife 3 and creasing knife 6 press down on the cardboard on the conveyor roller 12, thereby sequentially grooving and creasing the cardboard.
[0037] The second method involves downward pressure for grooving and creasing. When the mounting body 1 is typically a beam structure, the first knife holder 2 is directly fixed to the mounting body 1 via a slider 11. When there are multiple first knife holders 2, they are arranged in a straight line along the length of the beam structure and positioned on it. Each first knife holder 2 is equipped with a corresponding grooving knife 3. A driving mechanism is provided on the beam structure, which drives the beam structure to translate, meaning the mounting body 1 can translate, thereby causing the grooving knife 3 and creasing knife 6 to move up and down. Thus, the grooving knife 3 and creasing knife 6, along with the mounting body 1, press vertically downwards onto the cardboard on the conveyor roller 12, thereby sequentially grooving and creasing the cardboard.
[0038] Furthermore, a groove is provided on the crossbeam structure, and the crease knife 6 is inserted into the groove. The crease knife 6 can slide up and down along the groove. A drive component 14 is provided on the crossbeam structure, and a screw pair structure 13 is provided at both ends of the crossbeam structure. The screw pair structure 13 includes a screw and a nut. The screw is set vertically relative to the mounting body 1. The nut is slidably connected to the screw and is connected to the top of the crease knife 6 to drive the crease knife 6 to slide up and down along the crossbeam structure. A worm gear is fixed on the screw, and the worm gear is connected to a worm. A synchronizing rod 15 is provided between the two worms at both ends of the mounting body 1. One of the worms is connected to the drive component 14. The drive component 14 is usually a motor. The drive component 14 drives the worm to rotate. The worm drives the synchronizing rod 15 to drive the two worms to rotate synchronously. The worm drives the worm wheel to rotate. The worm wheel drives the screw to rotate. The screw drives the nut to move up and down. The nut drives the crease knife 6 to move horizontally, so that the height position of the crease knife 6 can be adjusted independently relative to the crossbeam structure, that is, the extension amount of the crease knife 6 blade, to adapt to cardboard of different thicknesses.
[0039] Furthermore, when the mounting body 1 is a rotatable roller structure, the first cutter holder 2 has a through hole in the center, so that the first cutter holder 2 is sleeved on the roller structure. The grooving cutter 3 and the indentation cutter 6 extend along the axial direction of the roller structure. The rotation of the roller structure drives the first cutter holder 2 to rotate, which in turn drives the grooving cutter 3 and the indentation cutter 6 to rotate synchronously, thereby realizing the rotation action of the mounting body 1.
[0040] The first tool holder 2 reciprocates under the drive of the transmission mechanism. When the mounting body 1 is a crossbeam structure, the transmission mechanism includes a first rack structure 16 in the same direction as the length of the mounting body 1. A first gear structure 17 is meshed on the first rack structure 16. The first gear structure 17 is connected to a first base 18. A first driving device 19 that drives the first gear structure 17 to rotate is provided on the first base 18. The first base 18 is also connected to the slider 11 and the first tool holder 2, so that the first base 18 drives the first tool holder 2 to reciprocate along the length of the mounting body 1, thereby causing the first tool holder 2 to drive the grooving tool 3 to reciprocate along the length of the mounting body 1.
[0041] When the mounting body 1 is a roller structure, the transmission mechanism includes a fixed beam 20 located above the mounting body 1. The fixed beam 20 is provided with a second rack structure 21 in the same direction as the length of the mounting body 1. A second gear structure 22 is meshed on the second rack structure 21. The second gear structure 22 is connected to a second base 23. The second base 23 is provided with a second driving device 24 that drives the second gear structure 22 to rotate. The bottom of the second base 23 is provided with a downwardly retractable positioning pin 25. Usually, the positioning pin 25 is connected to a telescopic mechanism. The telescopic end of the telescopic mechanism is connected to the positioning pin 25. The first cutter holder 2 is provided with a positioning hole 26. When the positioning pin 25 is inserted into the positioning hole 26, the second base 23 and the first cutter holder 2 are fixedly connected. This causes the second base 23 to drive the first cutter holder 2 to slide back and forth along the length of the mounting body 1, which in turn causes the first cutter holder 2 to drive the grooving cutter 3 to slide back and forth along the length of the mounting body 1.
[0042] The aforementioned transmission mechanism is a gear and rack structure, but it can also be a lead screw pair structure 13, a synchronous conveyor belt structure, a worm gear structure, or a chain drive structure, etc. Since these are conventional technologies, they will not be described in detail here.
[0043] In another embodiment, the grooving cutter 3 includes a closed end 7 and a cutting edge 4, and the closed end 7 is detachable relative to the cutting edge 4, that is, the closed end 7 is detachably connected to the end of the cutting edge 4. The detachable connection can be achieved by fastener fixing, that is, one side of the closed end 7 is offset from one end of the cutting edge 4 and fixedly connected by fasteners.
[0044] Alternatively, the closed end 7 can be detachably connected to the base 28 of the grooving cutter 3. The detachable connection can also be achieved by fastener fixing, that is, the closed end 7 is close to the end of the cutting edge section 4, and the bottom of the closed end 7 is fixedly connected to the base 28 by fasteners such as rivets.
[0045] In addition to fastener fixing, the above-mentioned detachable connection methods can also use other detachable connection methods, such as snap-fit, sliding snap, and concave-convex fit, which will not be elaborated here.
[0046] Furthermore, the height of the closed end 7 relative to the cutting edge section 4 can be adjusted, meaning that when the closed end 7 is detachable, the cutting edge of the closed end 7 can be higher or lower than the cutting edge of the cutting edge section 4.
[0047] This utility model is not limited to the above-described preferred embodiments. Anyone can derive other forms of products under the guidance of this utility model. However, regardless of any changes made in their shape or structure, any technical solution that is the same as or similar to this application falls within the protection scope of this utility model.
Claims
1. An inlaid horizontal slotting and indentation mechanism, characterized in that, The device includes a mounting body (1), on which a first tool holder (2) is provided. The first tool holder (2) is provided with a grooving tool (3). The grooving tool (3) extends along the transverse length direction of the mounting body (1). The grooving tool (3) includes two rows of parallel cutting edge segments (4). Each row of cutting edge segments (4) extends along the length direction of the mounting body (1). A mounting groove (5) is provided between the two rows of cutting edge segments (4). The mounting body (1) is also provided with an indentation tool (6). The indentation tool (6) is located in the mounting groove (5) and is parallel to one of the cutting edge segments (4). One pair of ends or two pairs of ends of the two rows of cutting edge segments (4) are integrally connected to form a closed end (7). The height of the closed end (7) is increased to form a raised part (9).
2. The inlaid transverse slotting indentation mechanism according to claim 1, characterized in that, The grooving cutter (3) includes a closed end (7) and a cutting edge section (4), wherein the closed end (7) is detachable relative to the cutting edge section (4).
3. The inlaid transverse slotting indentation mechanism according to claim 2, characterized in that, The height of the closed end (7) is adjusted relative to the cutting edge section (4).
4. The inlaid transverse slotting indentation mechanism according to claim 1 or 2, characterized in that, The closed end (7) includes two rows of blade segments (4) and a connecting segment (27) connecting the blade segments (4). When the two rows of blade segments (4) are parallel to each other and the connecting section (27) is in the shape of an outwardly convex arc, that is, the closed end (7) is a U-shaped end; or, when the two rows of blade segments (4) are parallel to each other and the connecting section (27) is inclined relative to the blade segments (4), that is, the closed end (7) is an inclined end; or one row of blade segments (4) is parallel to the indentation tool (6), and the other row of blade segments (4) is relatively inclined, and the connecting section (27) and the inclined blade segments (4) are on the same straight line, that is, the closed end (7) is a triangular end. The three shapes of the closed ends (7) can be freely combined in pairs to serve as the closed ends (7) of the grooving cutter (3).
5. The inlaid transverse slotting indentation mechanism according to claim 4, characterized in that, The closed end (7) has a through hole (8) that communicates with the mounting groove (5) and allows the indentation tool (6) to pass through.
6. The inlaid transverse slotting indentation mechanism according to claim 4, characterized in that, The guide rail (10) extends on the mounting body (1) along the length direction of the mounting body (1), and the first tool holder (2) is provided with a slider (11) that forms a sliding fit with the guide rail (10), so that the first tool holder (2) is slidably connected to the mounting body (1); the first tool holder (2) is driven by a transmission mechanism to slide back and forth along the length direction of the mounting body (1).
7. The inlaid transverse slotting indentation mechanism according to claim 6, characterized in that, The mounting body (1) has coaxial conveying rollers (12) on opposite sides. The mounting body (1) rotates or translates relative to the conveying rollers (12). The mounting body (1) drives the grooving knife (3) and the indenting knife (6) so that the grooving knife (3) and the indenting knife (6) perform grooving and indenting work by rotating; or perform grooving and indenting work by pressing down.
8. The inlaid transverse slotting indentation mechanism according to claim 7, characterized in that, The mounting body (1) is a crossbeam structure. The first tool holder (2) is set on the crossbeam structure, and the indentation tool (6) is set on the crossbeam structure. The crossbeam structure is provided with a driving mechanism to drive the crossbeam structure to translate relative to the conveying roller (12), thereby realizing the translational operation of the mounting body (1).
9. The inlaid transverse slotting indentation mechanism according to claim 8, characterized in that, The indentation tool (6) is slidably connected to the mounting body (1). The mounting body (1) has a lead screw pair structure (13) at both ends. The lead screw pair structure (13) includes a lead screw and a nut. The lead screw is vertically arranged relative to the mounting body (1). The nut is slidably connected to the lead screw. The nut is connected to the indentation tool (6) to drive the indentation tool (6) to move along the mounting body (1). A worm wheel is fixed on the lead screw. The worm wheel is connected to a worm. A synchronizing rod (15) is provided between the two worms at both ends of the mounting body (1). One of the worms is connected to a driving member (14). The driving member (14) drives the worm to rotate. The worm drives the synchronizing rod (15) to drive the two worms to rotate synchronously. The worm drives the worm wheel to rotate. The worm wheel drives the lead screw to rotate. The lead screw drives the nut to move. The nut drives the indentation tool (6) to translate.
10. The inlaid transverse slotting indentation mechanism according to claim 7, characterized in that, The mounting body (1) is a rotatable roller structure. The first cutter holder (2) has a through hole in the center, so that the first cutter holder (2) is sleeved on the roller structure. The grooving cutter (3) and the indentation cutter (6) extend along the axial direction of the roller structure. The rotation of the roller structure drives the first cutter holder (2) to rotate. The first cutter holder (2) drives the grooving cutter (3) and the indentation cutter (6) to rotate synchronously, thereby realizing the rotation action of the mounting body (1).
11. The inlaid transverse slotting indentation mechanism according to claim 8, characterized in that, When the mounting body (1) is a beam structure, the transmission mechanism includes a first rack structure (16) in the same direction as the length of the mounting body (1). A first gear structure (17) is meshed on the first rack structure (16). The first gear structure (17) is connected to a first base (18). A first driving device (19) for driving the first gear structure (17) to rotate is provided on the first base (18). The first base (18) is also connected to a slider (11) and a first tool holder (2), so that the first base (18) drives the first tool holder (2) to slide back and forth along the length of the mounting body (1), thereby causing the first tool holder (2) to drive the grooving tool (3) to slide back and forth along the length of the mounting body (1).
12. The inlaid transverse slotting indentation mechanism according to claim 10, characterized in that, When the mounting body (1) is a roller structure, the transmission mechanism includes a fixed beam (20) located above the mounting body (1). The fixed beam (20) is provided with a second rack structure (21) in the same direction as the length of the mounting body (1). A second gear structure (22) is meshed on the second rack structure (21). The second gear structure (22) is connected to a second base (23). The second base (23) is provided with a second driving device (24) that drives the second gear structure (22) to rotate. The bottom of the second base (23) is provided with a downwardly retractable positioning pin (25). The first tool holder (2) is provided with a positioning hole (26). When the positioning pin (25) is inserted into the positioning hole (26), the second base (23) and the first tool holder (2) are fixedly connected. This causes the second base (23) to drive the first tool holder (2) to slide back and forth along the length of the mounting body (1), thereby causing the first tool holder (2) to drive the grooving tool (3) to slide back and forth along the length of the mounting body (1).
13. The inlaid transverse slotting indentation mechanism according to claim 1, characterized in that, There are at least two first tool holders (2), which are arranged side by side on the same mounting body (1). Each first tool holder (2) is provided with a grooving tool (3). The indentation tool (6) is provided in correspondence with the grooving tool (3). Each first tool holder (2) is also provided with a corresponding transmission mechanism to realize the sliding of the first tool holder (2) individually or synchronously.