Multi-functional dicing machine

Abstract

The utility model discloses a multifunctional dicing machine, including frame, first feeding mechanism, material pressing mechanism, crosscut mechanism, second feeding mechanism, longitudinal cutting mechanism, first drive mechanism, second drive mechanism, first feeding mechanism, material pressing mechanism, crosscut mechanism, second feeding mechanism, longitudinal cutting mechanism, first drive mechanism, second drive mechanism all install on the frame, first feeding mechanism is used for conveying material, material pressing mechanism is used for compacting the material on first feeding mechanism, crosscut mechanism is used for carrying out horizontal cutting to the material of first feeding mechanism sending, second feeding mechanism is used for conveying the material after cutting through crosscut mechanism, longitudinal cutting mechanism is used for carrying out longitudinal cutting to the material of second feeding mechanism sending, first drive mechanism is used for providing power for first feeding mechanism, material pressing mechanism. The utility model discloses high processing efficiency, is helpful to discharge material scrap, avoids sticking knife.

Description

Technical Field

[0001] This utility model relates to the field of material dicing technology, and in particular to a multi-functional dicing machine. Background Technology

[0002] In Guizhou, many snacks include crispy pork cracklings, requiring the production of large quantities annually to meet market demand. Crispy pork cracklings are made by dicing fresh or slightly frozen meat products. While manual processing is manageable for small quantities, the workload increases significantly with larger orders. Common processing equipment typically only performs unidirectional cutting, meaning it can only cut strips, requiring reloading and recutting to achieve dicing. This is cumbersome and labor-intensive. To better address this issue, we propose a multi-functional dicing machine. Summary of the Invention

[0003] The purpose of this invention is to address the shortcomings of existing technologies by proposing a multi-functional dicing machine.

[0004] To achieve the above objectives, the present invention adopts the following technical solution: A multi-functional dicing machine includes a frame, a first feeding mechanism, a pressing mechanism, a cross-cutting mechanism, a second feeding mechanism, a longitudinal cutting mechanism, a first drive mechanism, and a second drive mechanism. The first feeding mechanism, pressing mechanism, cross-cutting mechanism, second feeding mechanism, longitudinal cutting mechanism, first drive mechanism, and second drive mechanism are all mounted on the frame. The first feeding mechanism is used to convey materials, the pressing mechanism is used to press the materials on the first feeding mechanism, the cross-cutting mechanism is used to cut the materials conveyed by the first feeding mechanism laterally, the second feeding mechanism is used to convey the materials cut by the cross-cutting mechanism, and the longitudinal cutting mechanism is used to cut the materials conveyed by the second feeding mechanism longitudinally. The first drive mechanism provides power to the first feeding mechanism and the pressing mechanism, and the second drive mechanism provides power to the cross-cutting mechanism, the second feeding mechanism, and the longitudinal cutting mechanism.

[0005] Preferably, the first feeding mechanism includes a first rotating shaft, a seventh rotating shaft, and a first conveyor belt. The first rotating shaft and the seventh rotating shaft are both rotatably mounted on the frame, and the first rotating shaft and the seventh rotating shaft are connected by the first conveyor belt.

[0006] Preferably, the pressing mechanism includes a third rotating shaft, a ninth rotating shaft, a third conveyor belt, a bracket, an adjusting screw, a limiting plate, a support block, a spring, an adjusting screw, a fixing plate, and positioning holes. The third and ninth rotating shafts are rotatably mounted on the bracket and are connected by the third conveyor belt. The third rotating shaft is rotatably mounted on the frame. The bracket is threaded with an adjusting screw. The support block and the fixing plate are fixed on the frame. The bottom end of the adjusting screw abuts against the top of the support block. Two limiting plates are fixed on the bracket and are located on both sides of the support block. One end of the spring is rotatably connected to the bracket through a fixing plate, and the other end of the spring is rotatably fitted with an adjusting screw through the fixing plate. The fixing plate has equidistantly arranged positioning holes, and the adjusting screw is threaded into the positioning holes.

[0007] The first drive mechanism includes a first servo motor, a second drive pulley, a first gear, a fourth rotating shaft, a first drive pulley, a second gear, a first transmission belt, a first driven pulley, a second transmission belt, and a second driven pulley. The first servo motor is mounted on a frame, and the output shaft of the first servo motor is fixedly sleeved with the second drive pulley and the first gear. The fourth rotating shaft is rotatably mounted on the frame, and the first drive pulley and the second gear are fixedly sleeved on the fourth rotating shaft. The first gear and the second gear mesh and drive each other. The first driven pulley is fixedly sleeved on the first rotating shaft, and the first driven pulley and the first drive pulley are connected by a first transmission belt. The second driven pulley is fixedly sleeved on a third rotating shaft, and the second driven pulley and the second drive pulley are connected by a second transmission belt. A first belt tensioner and a second belt tensioner are mounted on the frame. The first belt tensioner is used to adjust the tension of the first transmission belt, and the second belt tensioner is used to adjust the tension of the second transmission belt.

[0008] Preferably, the cross-cutting mechanism includes a sixth rotating shaft, a turntable, a connecting rod, a slider, a slide rail, a cutter, and a cutter holder. The sixth rotating shaft is rotatably mounted on the frame. The slide rail and the cutter holder are fixed on the frame. A turntable is fixedly sleeved on the sixth rotating shaft. The turntable is hinged to a slider via a connecting rod. The slider is slidably mounted on the slide rail. A cutter is fixed on the slider. The cutter cooperates with the cutter holder to cut the material. The bottom of the cutter is a beveled edge. The back of the cutter is provided with a groove whose depth gradually increases from top to bottom. The cutter holder is located between the first feeding mechanism and the second feeding mechanism. The conveying surface of the first feeding mechanism is flush with the conveying surface of the second feeding mechanism.

[0009] Preferably, the second feeding mechanism includes a second rotating shaft, an eighth rotating shaft, and a second conveyor belt. The second rotating shaft and the eighth rotating shaft are both rotatably mounted on the frame, and the second rotating shaft and the eighth rotating shaft are connected by the second conveyor belt.

[0010] Preferably, the longitudinal cutting mechanism includes a fifth rotating shaft, a first cutting blade, an eleventh rotating shaft, and a second cutting blade. The fifth and eleventh rotating shafts are rotatably mounted on the frame. A plurality of equidistant first cutting blades are fixedly sleeved on the fifth rotating shaft, and a plurality of equidistant second cutting blades are fixedly sleeved on the eleventh rotating shaft.

[0011] Preferably, the second drive mechanism includes a second servo motor, a first sprocket, a first chain, a second sprocket, a tenth shaft, a fourth sprocket, a third sprocket, a second chain, a chain tensioner, a fifth sprocket, a third gear, a fourth gear, a fifth gear, and a sixth gear. The second servo motor is mounted on a frame. The output shaft of the second servo motor is fixedly sleeved with the first sprocket. The second sprocket is fixedly sleeved on the sixth shaft. The tenth shaft is rotatably mounted on the frame. The fourth and third sprockets are fixedly sleeved on the tenth shaft. The first, second, and third sprockets are connected by a first chain drive. The fifth sprocket and the third gear are fixedly sleeved on an eighth shaft. The fourth and fifth gears are fixedly sleeved on a fifth shaft. The sixth gear is fixedly sleeved on an eleventh shaft. The fourth and fifth sprockets are connected by a second chain drive. A chain tensioner for adjusting the tension of the second chain is mounted on the frame. The third and fourth gears mesh with each other, and the fifth and sixth gears mesh with each other.

[0012] Compared with the prior art, the beneficial effects of this utility model are: 1. In this utility model, the material to be diced is conveyed to the cross-cutting mechanism through the first feeding mechanism. When the first feeding mechanism feeds the material to the cross-cutting mechanism, the pressing mechanism presses down on the material to ensure that the material can pass through the cross-cutting mechanism stably without being deflected during cutting. The cross-cutting mechanism cuts the material into strips laterally. After cutting, the material is transferred to the second feeding mechanism and conveyed to the longitudinal cutting mechanism. The longitudinal cutting mechanism cuts the strips of material longitudinally. In this way, the material is diced by both horizontal and vertical cutting. The operation is automated and the processing efficiency is very high.

[0013] 2. In this utility model, the conveying surface of the first feeding mechanism is flush with the conveying surface of the second feeding mechanism, which facilitates the transfer of materials and ensures that the materials are transferred in a plane without any height difference. This helps to keep the materials in place and makes subsequent longitudinal cutting more uniform. The sixth rotating shaft drives the turntable to rotate, and the turntable drives the slider to slide back and forth on the slide rail through the connecting rod. At the same time, the cutter moves back and forth in the vertical direction. The cutter and the cutter holder work together to cut the materials. The grooves on the back of the cutter, which gradually increase in depth from top to bottom, help to discharge material chips and prevent them from sticking to the blade. Attached Figure Description

[0014] Figure 1 This is a schematic diagram of the present invention; Figure 2 for Figure 1 A schematic diagram of the first partial structure; Figure 3 for Figure 1 A schematic diagram of the second local structure; Figure 4 This is a schematic diagram of the pressing mechanism of this utility model; Figure 5 This is a schematic diagram of the structure of the cutter of this utility model; Figure 6 This is a schematic diagram of the arrangement of the first and second cutting blades of this utility model; Figure 7 This is a schematic diagram of the external structure of this utility model. Detailed Implementation

[0015] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments of the present utility model. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments.

[0016] Reference Figure 1 A multi-functional dicing machine includes a frame, a first feeding mechanism 1, a pressing mechanism 2, a transverse cutting mechanism 3, a second feeding mechanism 4, a longitudinal cutting mechanism 5, a first drive mechanism 6, and a second drive mechanism 7. The first feeding mechanism 1, pressing mechanism 2, transverse cutting mechanism 3, second feeding mechanism 4, longitudinal cutting mechanism 5, first drive mechanism 6, and second drive mechanism 7 are all mounted on the frame. The material to be diced is conveyed to the transverse cutting mechanism 3 via the first feeding mechanism 1. While the first feeding mechanism 1 feeds the material to the transverse cutting mechanism 3, the pressing mechanism 2 presses down on the material, ensuring that the material can pass stably through the transverse cutting mechanism 3 without being deflected during cutting. The transverse cutting mechanism 3 cuts the material into transverse strips. After cutting, the strips are transferred to the second feeding mechanism 4 and then driven by the second... The feeding mechanism 4 conveys the material to the longitudinal cutting mechanism 5, which performs longitudinal cutting on the strip-shaped material. This combination of horizontal and vertical cutting achieves the dicing operation, automating the process and resulting in very high processing efficiency. The first feeding mechanism 1 is used to convey the material, the pressing mechanism 2 is used to press the material on the first feeding mechanism 1, the transverse cutting mechanism 3 is used to perform transverse cutting on the material fed by the first feeding mechanism 1, the second feeding mechanism 4 is used to convey the material after being cut by the transverse cutting mechanism 3, and the longitudinal cutting mechanism 5 is used to perform longitudinal cutting on the material fed by the second feeding mechanism 4. The first driving mechanism 6 is used to provide power to the first feeding mechanism 1 and the pressing mechanism 2, and the second driving mechanism 7 is used to provide power to the transverse cutting mechanism 3, the second feeding mechanism 4, and the longitudinal cutting mechanism 5.

[0017] Reference Figure 2 — Figure 7 The first feeding mechanism 1 includes a first rotating shaft 11, a seventh rotating shaft 12, and a first conveyor belt 13. The first rotating shaft 11 and the seventh rotating shaft 12 are rotatably mounted on the frame, and the first rotating shaft 11 and the seventh rotating shaft 12 are connected by the first conveyor belt 13.

[0018] Reference Figure 2 , Figure 4 The pressing mechanism 2 includes a third rotating shaft 201, a ninth rotating shaft 202, a third conveyor belt 203, a bracket 204, an adjusting screw 205, a limit plate 206, a support block 207, a spring 208, an adjusting screw 209, a fixing plate 210, and a positioning hole 211. The third rotating shaft 201 and the ninth rotating shaft 202 are rotatably mounted on the bracket 204, and are connected by the third conveyor belt 203. The third rotating shaft 201 is rotatably mounted on the frame. The adjusting screw 205 is threaded onto the bracket 204. The support block 207 and the fixing plate 210 are fixed to the frame. The bottom end of the adjusting screw 205 abuts against the top of the support block 207. The bracket 204 is fixed with... Two limiting plates 206 are fixed on both sides of the support block 207. One end of the spring 208 is rotatably connected to the bracket 204 through a fixing plate, and the other end of the spring 208 is rotatably sleeved with an adjusting screw 209 through the fixing plate. The fixing plate 210 has equidistantly arranged positioning holes 211. The adjusting screw 209 is threaded into the positioning hole 211. The tilt angle of the bracket 204 can be adjusted by adjusting the thread transmission between the adjusting screw 205 and the bracket 204. The material can be pressed by the third conveyor belt 203 through the tension of the spring 208. The clamping force can be adjusted by adjusting the position of the adjusting screw 209 on the fixing plate 210. The operation is very simple.

[0019] The first drive mechanism 6 includes a first servo motor 601, a second drive pulley 602, a first gear 603, a fourth rotating shaft 604, a first drive pulley 605, a second gear 606, a first transmission belt 608, a first driven pulley 609, a second transmission belt 610, and a second driven pulley 612. The first servo motor 601 is mounted on a frame, and the output shaft of the first servo motor 601 is fixedly sleeved with the second drive pulley 602 and the first gear 603. The fourth rotating shaft 604 is rotatably mounted on the frame, and the first drive pulley 605 and the second gear 606 are fixedly sleeved on the fourth rotating shaft 604. The first gear 603 and the second gear 606 mesh and transmit power. The first driven pulley 609 is fixedly sleeved on the first rotating shaft 11, and the first driven pulley 609 and the first drive pulley 605 are connected by the first transmission belt 608. A driven pulley 609 drives the first rotating shaft 11 to rotate synchronously. A second driven pulley 612 is fixedly sleeved on the third rotating shaft 201. The second driven pulley 612 and the second driving pulley 602 are connected by a second transmission belt 610. The second driven pulley 612 drives the third rotating shaft 201 to rotate synchronously. A first belt tensioner 607 and a second belt tensioner 611 are installed on the frame. The first belt tensioner 607 is used to adjust the tension of the first transmission belt 608, and the second belt tensioner 611 is used to adjust the tension of the second transmission belt 610. The output shaft of the first servo motor 601 drives the second driving pulley 602 and the first gear 603 to rotate. The first gear 603 drives the second gear 606 to rotate. The second gear 606 drives the fourth rotating shaft 604 to rotate synchronously. The fourth rotating shaft 604 drives the first driving pulley 605 to rotate.

[0020] The cross-cutting mechanism 3 includes a sixth rotating shaft 31, a turntable 32, a connecting rod 33, a slider 34, a slide rail 35, a cutter 36, and a knife holder 37. The sixth rotating shaft 31 is rotatably mounted on the frame, and the slide rail 35 and the knife holder 37 are fixed on the frame. The turntable 32 is fixedly sleeved on the sixth rotating shaft 31. The turntable 32 is hinged to the slider 34 via the connecting rod 33. The slider 34 is slidably mounted on the slide rail 35, and the cutter 36 is fixed on the slider 34. The cutter 36 cooperates with the knife holder 37 to cut the material. The bottom of the cutter 36 is a beveled edge to avoid simultaneous stress on the blade. At the same time, the force on the cutter 36 is from a single point to a straight line, which facilitates cutting the material. The back of the cutter 36 is provided with a gradually increasing depth from top to bottom. The groove 38 and the knife holder 37 are located between the first feeding mechanism 1 and the second feeding mechanism 4. The conveying surface of the first feeding mechanism 1 is flush with the conveying surface of the second feeding mechanism 4, which facilitates the transfer of materials and ensures that the materials are transferred in a plane without any height difference. This helps to keep the materials in place and makes subsequent longitudinal cutting more uniform. The sixth rotating shaft 31 drives the turntable 32 to rotate. The turntable 32 drives the slider 34 to slide back and forth on the slide rail 35 through the connecting rod 33. At the same time, the cutter 36 reciprocates in the vertical direction. The cutter 36 and the knife holder 37 work together to cut the materials. The groove 38 on the back of the cutter 36, which gradually increases in depth from top to bottom, helps to discharge material chips and prevents them from sticking to the blade.

[0021] The second feeding mechanism 4 includes a second rotating shaft 41, an eighth rotating shaft 42, and a second conveyor belt 43. The second rotating shaft 41 and the eighth rotating shaft 42 are rotatably mounted on the frame, and the second rotating shaft 41 and the eighth rotating shaft 42 are connected by the second conveyor belt 43.

[0022] The longitudinal cutting mechanism 5 includes a fifth rotating shaft 51, a first cutting blade 52, an eleventh rotating shaft 53, and a second cutting blade 54. The fifth rotating shaft 51 and the eleventh rotating shaft 53 are rotatably mounted on the frame. Several first cutting blades 52 are fixedly sleeved on the fifth rotating shaft 51, and several second cutting blades 54 are fixedly sleeved on the eleventh rotating shaft 53. The fifth rotating shaft 51 drives the first cutting blades 52 to rotate, and the eleventh rotating shaft 53 drives the second cutting blades 54 to rotate. The outer edges of the first cutting blades 52 and the outer edges of the second cutting blades 54 are respectively attached to each other. The material can be longitudinally cut by the first cutting blades 52 and the second cutting blades 54.

[0023] The second drive mechanism 7 includes a second servo motor 701, a first sprocket 702, a first chain 703, a second sprocket 704, a tenth rotating shaft 705, a fourth sprocket 706, a third sprocket 707, a second chain 708, a chain tensioner 709, a fifth sprocket 710, a third gear 711, a fourth gear 712, a fifth gear 713, and a sixth gear 714. The second servo motor 701 is mounted on a frame, and the output shaft of the second servo motor 701 is fixedly sleeved with the first chain. The first sprocket 702 and the second sprocket 704 are fixedly sleeved on the sixth rotating shaft 31. The tenth rotating shaft 705 is rotatably mounted on the frame. The tenth rotating shaft 705 is fixedly sleeved with the fourth sprocket 706 and the third sprocket 707. The first sprocket 702, the second sprocket 704, and the third sprocket 707 are connected by a first chain 703. The second sprocket 704 drives the sixth rotating shaft 31 to rotate, the third sprocket 707 drives the tenth rotating shaft 705 to rotate, and the tenth rotating shaft 705 drives the fourth sprocket 706. Rotation occurs when the fifth sprocket 710 and the third gear 711 are fixedly sleeved on the eighth rotating shaft 42, the fourth gear 712 and the fifth gear 713 are fixedly sleeved on the fifth rotating shaft 51, and the sixth gear 714 is fixedly sleeved on the eleventh rotating shaft 53. The fourth sprocket 706 and the fifth sprocket 710 are connected by a second chain 708. The fifth sprocket 710 drives the eighth rotating shaft 42 to rotate, and the eighth rotating shaft 42 drives the third gear 711 to rotate. The third gear 711 rotates through the fourth gear 712. The meshing between gears 12 drives the fifth shaft 51 to rotate, the fifth shaft 51 drives the fifth gear 713 to rotate, and the fifth gear 713 drives the eleventh shaft 53 to rotate through the meshing between it and the sixth gear 714. A chain tensioner 709 for adjusting the tension of the second chain 708 is installed on the frame. The third gear 711 and the fourth gear 712 mesh and drive each other, and the fifth gear 713 and the sixth gear 714 mesh and drive each other. The second servo motor 701 drives the first sprocket 702 to rotate.

[0024] Working principle: In operation, the material to be diced is conveyed to the cross-cutting mechanism 3 via the first feeding mechanism 1. While the first feeding mechanism 1 is feeding the material to the cross-cutting mechanism 3, the pressing mechanism 2 presses down on the material to ensure that the material can pass through the cross-cutting mechanism 3 stably without being deflected during cutting. The cross-cutting mechanism 3 cuts the material into strips laterally. After cutting, the material is transferred to the second feeding mechanism 4 and conveyed to the longitudinal cutting mechanism 5. The longitudinal cutting mechanism 5 cuts the strips of material longitudinally. This combination of horizontal and vertical cutting achieves the dicing operation of the material, automating the process and resulting in very high processing efficiency. The first drive mechanism 6 provides power to the first feeding mechanism 1 and the pressing mechanism 2, while the second drive mechanism 7 provides power to the cross-cutting mechanism 3, the second feeding mechanism 4, and the longitudinal cutting mechanism 5.

[0025] The specific actions are as follows: The operating principle of the pressing mechanism 2 is as follows: by adjusting the threaded transmission between the screw 205 and the bracket 204, the tilt angle of the bracket 204 can be adjusted. The tension of the spring 208 can achieve the pressing of the material by the third conveyor belt 203. By adjusting the position of the adjusting screw 209 on the fixed plate 210, the pressing force can be adjusted. The operation is very simple.

[0026] The operating principle of the first drive mechanism 6 is as follows: the output shaft of the first servo motor 601 drives the second drive pulley 602 and the first gear 603 to rotate; the first gear 603 drives the second gear 606 to rotate; the second gear 606 drives the fourth rotating shaft 604 to rotate synchronously; the fourth rotating shaft 604 drives the first drive pulley 605 to rotate; the first driven pulley 609 and the first drive pulley 605 are connected by a first transmission belt 608; the first driven pulley 609 drives the first rotating shaft 11 to rotate synchronously; the first rotating shaft 11 and the seventh rotating shaft 12 are connected by a first conveyor belt 13; the second driven pulley 612 and the second drive pulley 602 are connected by a second transmission belt 610; the second driven pulley 612 drives the third rotating shaft 201 to rotate synchronously; the third rotating shaft 201 and the ninth rotating shaft 202 are connected by a third conveyor belt 203.

[0027] The operating principle of the cross-cutting mechanism 3 is as follows: the sixth rotating shaft 31 drives the turntable 32 to rotate, and the turntable 32 drives the slider 34 to slide back and forth on the slide rail 35 through the connecting rod 33. At the same time, the cutter 36 reciprocates in the vertical direction. The cutter 36 cooperates with the cutter holder 37 to cut the material. The groove 38 on the back of the cutter 36, which gradually increases in depth from top to bottom, can help to discharge material chips and prevent them from sticking to the blade. The bottom of the cutter 36 is a beveled edge to avoid the blade being stressed at the same time. At the same time, the force on the cutter 36 is from a point to a straight line, which makes it easier to cut the material. The conveying surface of the first feeding mechanism 1 is flush with the conveying surface of the second feeding mechanism 4, which facilitates the transfer of materials and ensures that the materials are transferred in a plane without height differences. This helps to keep the materials in place and makes subsequent longitudinal cutting more uniform.

[0028] The operating principle of the longitudinal cutting mechanism 5 is as follows: the fifth rotating shaft 51 drives the first cutting blade 52 to rotate, and the eleventh rotating shaft 53 drives the second cutting blade 54 to rotate. The outer edges of the first cutting blade 52 and the outer edges of the second cutting blade 54 are respectively attached. The material can be longitudinally cut by the first cutting blade 52 and the second cutting blade 54, that is, the horizontal strips cut by the transverse cutting mechanism 3 are longitudinally cut into T-shapes.

[0029] The second rotating shaft 41 and the eighth rotating shaft 42 are connected by a second conveyor belt 43. The second servo motor 701 drives the first sprocket 702 to rotate. The first sprocket 702, the second sprocket 704, and the third sprocket 707 are connected by a first chain 703. The second sprocket 704 drives the sixth rotating shaft 31 to rotate. The third sprocket 707 drives the tenth rotating shaft 705 to rotate. The tenth rotating shaft 705 drives the fourth sprocket 706 to rotate. The fourth sprocket 706 and the fifth sprocket 710 are connected by a second chain 708. The fifth sprocket 710 drives the eighth rotating shaft 42 to rotate. The eighth rotating shaft 42 drives the third gear 711 to rotate. The third gear 711 drives the fifth rotating shaft 51 to rotate through meshing with the fourth gear 712. The fifth rotating shaft 51 drives the fifth gear 713 to rotate. The fifth gear 713 drives the eleventh rotating shaft 53 to rotate through meshing with the sixth gear 714.

[0030] The above description is only a preferred embodiment of the present utility model, but the protection scope of the present utility model is not limited thereto. Any equivalent substitutions or changes made by those skilled in the art within the technical scope disclosed in the present utility model, based on the technical solution and the inventive concept of the present utility model, should be included within the protection scope of the present utility model.

Claims

1. A multi-functional dicing machine, comprising a frame, a first feeding mechanism (1), a pressing mechanism (2), a cross-cutting mechanism (3), a second feeding mechanism (4), a longitudinal cutting mechanism (5), a first driving mechanism (6), and a second driving mechanism (7), characterized in that, The first feeding mechanism (1), the pressing mechanism (2), the cross-cutting mechanism (3), the second feeding mechanism (4), the longitudinal cutting mechanism (5), the first driving mechanism (6), and the second driving mechanism (7) are all mounted on the frame. The first feeding mechanism (1) is used to convey materials. The pressing mechanism (2) is used to press the materials on the first feeding mechanism (1). The cross-cutting mechanism (3) is used to cut the materials sent out by the first feeding mechanism (1) laterally. The second feeding mechanism (4) is used to convey the materials after being cut by the cross-cutting mechanism (3). The longitudinal cutting mechanism (5) is used to cut the materials sent out by the second feeding mechanism (4) longitudinally. The first driving mechanism (6) is used to provide power to the first feeding mechanism (1) and the pressing mechanism (2). The second driving mechanism (7) is used to provide power to the cross-cutting mechanism (3), the second feeding mechanism (4), and the longitudinal cutting mechanism (5).

2. The multi-functional dicing machine according to claim 1, characterized in that, The first feeding mechanism (1) includes a first rotating shaft (11), a seventh rotating shaft (12), and a first conveyor belt (13). The first rotating shaft (11) and the seventh rotating shaft (12) are rotatably mounted on the frame, and the first rotating shaft (11) and the seventh rotating shaft (12) are connected by the first conveyor belt (13).

3. The multi-functional dicing machine according to claim 1, characterized in that, The pressing mechanism (2) includes a third rotating shaft (201), a ninth rotating shaft (202), a third conveyor belt (203), a bracket (204), an adjusting screw (205), a limiting plate (206), a support block (207), a spring (208), an adjusting screw (209), a fixing plate (210), and a positioning hole (211). The third rotating shaft (201) and the ninth rotating shaft (202) are both rotatably mounted on the bracket (204). The third rotating shaft (201) and the ninth rotating shaft (202) are connected by the third conveyor belt (203). The third rotating shaft (201) is rotatably mounted on the frame. The adjusting screw is threaded onto the bracket (204). (205), the support block (207) and the fixing plate (210) are fixed on the frame. The bottom end of the adjusting screw (205) abuts against the top of the support block (207). Two limiting plates (206) are fixed on the bracket (204). The two limiting plates (206) are located on both sides of the support block (207). One end of the spring (208) is rotatably connected to the bracket (204) through the fixing plate. The other end of the spring (208) is rotatably sleeved with the adjusting screw (209) through the fixing plate. The fixing plate (210) has equidistantly arranged positioning holes (211). The adjusting screw (209) is threaded into the positioning hole (211).

4. A multi-functional dicing machine according to claim 1, characterized in that, The first drive mechanism (6) includes a first servo motor (601), a second drive pulley (602), a first gear (603), a fourth rotating shaft (604), a first drive pulley (605), a second gear (606), a first transmission belt (608), a first driven pulley (609), a second transmission belt (610), and a second driven pulley (612). The first servo motor (601) is mounted on a frame, and the output shaft of the first servo motor (601) is fixedly sleeved with the second drive pulley (602) and the first gear (603). The fourth rotating shaft (604) is rotatably mounted on the frame, and the first drive pulley (605) and the second gear (606) are fixedly sleeved on the fourth rotating shaft (604). The first gear (603) The first driven pulley (609) is fixedly sleeved on the first rotating shaft (11). The first driven pulley (609) and the first driving pulley (605) are connected by a first transmission belt (608). The second driven pulley (612) is fixedly sleeved on the third rotating shaft (201). The second driven pulley (612) and the second driving pulley (602) are connected by a second transmission belt (610). The frame is equipped with a first belt tensioner (607) and a second belt tensioner (611). The first belt tensioner (607) is used to adjust the tension of the first transmission belt (608), and the second belt tensioner (611) is used to adjust the tension of the second transmission belt (610).

5. A multi-functional dicing machine according to claim 1, characterized in that, The cross-cutting mechanism (3) includes a sixth rotating shaft (31), a turntable (32), a connecting rod (33), a slider (34), a slide rail (35), a cutter (36), and a knife holder (37). The sixth rotating shaft (31) is rotatably mounted on the frame. The slide rail (35) and the knife holder (37) are fixed on the frame. The turntable (32) is fixedly sleeved on the sixth rotating shaft (31). The turntable (32) is hinged to the slider (34) through the connecting rod (33). The slider (34) is slidably mounted on the slide rail (35). The cutter (36) is fixed on the slider (34). The cutter (36) cooperates with the knife holder (37) to cut the material.

6. A multi-functional dicing machine according to claim 5, characterized in that, The bottom of the cutter (36) is a beveled edge, and the back of the cutter (36) is provided with a groove (38) that gradually increases in depth from top to bottom.

7. A multi-functional dicing machine according to claim 5 or 6, characterized in that, The tool holder (37) is located between the first feeding mechanism (1) and the second feeding mechanism (4), and the conveying surface of the first feeding mechanism (1) is flush with the conveying surface of the second feeding mechanism (4).

8. A multi-functional dicing machine according to claim 1, characterized in that, The second feeding mechanism (4) includes a second rotating shaft (41), an eighth rotating shaft (42), and a second conveyor belt (43). The second rotating shaft (41) and the eighth rotating shaft (42) are both rotatably mounted on the frame, and the second rotating shaft (41) and the eighth rotating shaft (42) are connected by the second conveyor belt (43).

9. A multi-functional dicing machine according to claim 1, characterized in that, The longitudinal cutting mechanism (5) includes a fifth rotating shaft (51), a first cutting blade (52), an eleventh rotating shaft (53), and a second cutting blade (54). The fifth rotating shaft (51) and the eleventh rotating shaft (53) are rotatably mounted on the frame. Several first cutting blades (52) are fixedly sleeved on the fifth rotating shaft (51) and several second cutting blades (54) are fixedly sleeved on the eleventh rotating shaft (53). The outer edges of the first cutting blades (52) and the outer edges of the second cutting blades (54) are respectively attached.

10. A multi-functional dicing machine according to claim 1, characterized in that, The second drive mechanism (7) includes a second servo motor (701), a first sprocket (702), a first chain (703), a second sprocket (704), a tenth shaft (705), a fourth sprocket (706), a third sprocket (707), a second chain (708), a chain tensioner (709), a fifth sprocket (710), a third gear (711), a fourth gear (712), a fifth gear (713), and a sixth gear (714). The second servo motor (701) is mounted on the frame. The output shaft of the second servo motor (701) is fixedly sleeved with the first sprocket (702). The second sprocket (704) is fixedly sleeved on the sixth shaft (31). The tenth shaft (705) is rotatably mounted on the frame. The tenth shaft (705) is fixedly sleeved with the fourth sprocket (706), the third sprocket (707), the fourth sprocket (708), the fifth sprocket (709), the sixth gear (710), the fifth gear (711), the sixth gear (714), the seventh gear (715), the tether (706), the sprocket (707), the tether (708), the chain tensioner (709), the fifth sprocket (710), the sixth gear (711), the seventh gear (712), the tether (713), and the tether (714). The first sprocket (702), the second sprocket (704), and the third sprocket (707) are connected by a first chain (703). The fifth sprocket (710) and the third gear (711) are fixedly sleeved on the eighth rotating shaft (42). The fourth gear (712) and the fifth gear (713) are fixedly sleeved on the fifth rotating shaft (51). The sixth gear (714) is fixedly sleeved on the eleventh rotating shaft (53). The fourth sprocket (706) and the fifth sprocket (710) are connected by a second chain (708). A chain tensioner (709) for adjusting the tension of the second chain (708) is installed on the frame. The third gear (711) and the fourth gear (712) mesh and drive each other. The fifth gear (713) and the sixth gear (714) mesh and drive each other.

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