Angle adjusting mechanism of intelligent angle cutting machine

Abstract

The utility model discloses an angle adjusting mechanism of an intelligent angle cutting machine, a knife rest adjusting plate and an adjusting disc are arranged in parallel and are fixedly connected, a mounting space is arranged between the knife rest adjusting plate and the adjusting disc, and an adjusting power device is connected with the adjusting disc through a gear and an arc-shaped rack transmission mechanism. The adjusting disc is rotationally installed on the rack through the guide limiting mechanism, and the adjusting power device drives the adjusting disc to rotate by a certain angle relative to the rack. And a knife rest assembly and a chopping board assembly are arranged in the mounting space. The adjusting disc drives the knife rest adjusting plate, the chopping board assembly and the knife rest assembly rotate by a certain angle along with the adjusting disc, then the cutting angle of a cutting blade in the knife rest assembly is changed, and the cutting angle of meat slices can be automatically adjusted under the control of a control system. The angle adjusting mechanism of the intelligent angle cutting machine can automatically adjust the cutting angle in time, so that meat slices cut from different parts of raw material individuals are consistent in uniformity, and the standardization of products and the utilization rate of the raw materials are improved.

Description

Technical Field

[0001] This utility model relates to meat cutting equipment for cutting meat raw materials, and more particularly to an angle adjustment mechanism for an intelligent oblique slicing machine. Background Technology

[0002] The main function of a slicing machine is to cut fresh, boneless, and thornless raw and cooked meats such as salmon, chicken breast, red meat, and bacon into slices, making them easier for people to cook and eat. Compared to manual cutting by chefs, it is more efficient and produces better uniformity. It is particularly suitable for use in supermarkets, food processing plants, canteens, and catering distribution centers.

[0003] Currently, most beveling machines on the market cannot adjust the cutting angle during the cutting process. Angle adjustment can only be made before cutting or after the entire piece of salmon has been cut. Taking salmon cutting as an example, existing beveling machines can only adjust the cutting angle after the entire piece of salmon has been cut, preventing timely adjustment during the cutting process. Because the tail of the salmon is narrower and thinner than the rest, cutting the entire piece at the same angle results in significant differences in uniformity between the slices from the tail and the rest of the salmon. The slices from the tail are particularly small, affecting product quality. Sometimes, to ensure the quality of the final product sold, these unevenly cut slices from the tail are removed, leading to material waste and low material utilization. Similarly, the same problem exists when cutting irregularly shaped meats. Furthermore, improper cutting angles reduce cutting efficiency and can even cause excessive blade wear or safety accidents.

[0004] The existing angle adjustment device on the beveling machine cannot meet the working requirements of the improved intelligent beveling machine. Therefore, it is necessary to design a new angle adjustment mechanism for the intelligent beveling machine to meet the working requirements. Utility Model Content

[0005] In view of the above-mentioned defects in the prior art, the technical problem to be solved by this utility model is to provide an angle adjustment mechanism for an intelligent oblique slicing machine, which can automatically adjust the cutting angle in a timely manner, so that the meat slices cut from different parts of the raw material are uniform, thereby improving product standardization and increasing product utilization.

[0006] To solve the above-mentioned technical problems, the present invention adopts the following technical solution:

[0007] The angle adjustment mechanism of the intelligent beveling machine includes a frame, an adjustment power unit, an adjustment disc, and a blade holder adjustment plate. The blade holder adjustment plate is arranged parallel to the adjustment disc and the two are fixedly connected. An installation space is provided between the blade holder adjustment plate and the adjustment disc.

[0008] The adjustment power device is connected to the adjustment disc via a gear and an arc rack transmission mechanism. The adjustment disc is rotatably mounted on the frame via a guide and limiting mechanism. The adjustment power device drives the adjustment disc to rotate relative to the frame at a certain angle.

[0009] Preferably, the gear and rack transmission mechanism includes an arc rack and a drive gear. The output end of the adjusting power device drives the drive gear. The arc rack is fixed to the edge of the adjusting disc. The drive gear meshes with the arc rack for transmission.

[0010] Preferably, the guide limiting mechanism includes an arc-shaped slot on the adjusting disc and a support roller fixedly mounted on the frame. The arc-shaped slot, the arc-shaped rack and the adjusting disc are concentric. The support roller is located in the arc-shaped slot and rolls with the arc-shaped slot.

[0011] Preferably, the adjustment power device is a motor, and the output shaft of the motor is fixedly connected to the drive gear.

[0012] Preferably, a knife holder assembly and an anvil assembly are provided in the installation space, and the adjusting disc, the anvil assembly, and the knife holder adjusting plate are fixedly connected by connecting rods.

[0013] Preferably, the knife holder adjustment plate has a knife holder movement slot, the knife holder assembly is slidably connected to the knife holder movement slot, the adjustment disc has an clearance elongated hole, two elongated cutting blades are movably connected to the knife holder assembly, and a blade drive mechanism passes through the clearance elongated hole and is connected to the cutting blades. The blade drive mechanism drives the two cutting blades to reciprocate and move relative to each other along the length of the blades, and cooperates with the cutting board assembly to cut food.

[0014] The blade drive mechanism is mounted on the adjustment disc via a linear guide rail. The tool holder drive mechanism drives the blade drive mechanism to reciprocate along the linear guide rail and drives the tool holder assembly to reciprocate along the tool holder movement slot.

[0015] Preferably, the tool post drive mechanism includes a tool post drive motor, an active rocker arm assembly, a first driven rocker arm assembly, and a second driven rocker arm assembly.

[0016] The tool holder drive motor is mounted on the adjustment disc via a support frame, the support frame is fixedly mounted on the adjustment disc, the blade drive mechanism is fixed on the mounting base, and the linear guide rail is provided between the mounting base and the adjustment disc;

[0017] The first and second driven rocker arm assemblies are fixedly connected by a connecting shaft, which is rotatable relative to the tool holder adjustment plate, the anvil assembly, the adjustment disc, and the support frame.

[0018] The tool post drive motor drives the mounting base to reciprocate along the linear guide rail via the active rocker arm assembly. At the same time, the moving mounting base drives the first and second driven rocker arm assemblies to swing, thereby causing the second driven rocker arm assembly to drive the tool post assembly to slide reciprocally along the tool post movement slot.

[0019] The beneficial effects of this utility model after adopting the above technical solution are:

[0020] This utility model relates to an intelligent beveling machine with an angle adjustment mechanism. The adjustment power unit is connected to an adjustment disc via a gear and arc-shaped rack transmission mechanism. The adjustment disc is rotatably mounted on the frame via a guide and limiting mechanism. The adjustment power unit drives the adjustment disc to rotate a certain angle relative to the frame. Simultaneously, the blade holder adjustment plate, cutting board assembly, and blade holder assembly rotate with the adjustment disc, thereby changing the cutting angle of the cutting blades in the blade holder assembly. Furthermore, the control system automatically adjusts the cutting angle of the meat slices. The use of a gear and arc-shaped rack transmission structure ensures precise and controllable angle adjustment.

[0021] The blade drive mechanism drives two cutting blades to reciprocate and move relative to each other along the length of the blades, and works in conjunction with the cutting board assembly to cut food. Therefore, it ensures faster and better cutting of raw materials such as fish and meat into slices or blocks of preset angles and thicknesses.

[0022] The blade drive mechanism is mounted on the adjustment disc via a linear guide rail. The tool holder drive mechanism drives the blade drive mechanism to reciprocate along the linear guide rail, and also drives the tool holder assembly to reciprocate along the tool holder movement slot. This ensures that the control system can control the angle adjustment mechanism to adjust the cutting angle in a timely manner according to the situation, and that the cutting motion of the cutting device is not delayed while adjusting the cutting angle. The action of adjusting the cutting angle and the cutting action of the blade can be performed simultaneously without interference, thus improving cutting efficiency. Furthermore, by intelligently adjusting the cutting angle and thickness, high cutting precision is achieved, improving the utilization rate of raw materials and greatly reducing material waste. Attached Figure Description

[0023] Figure 1 This is a schematic diagram of the angle adjustment mechanism of this utility model;

[0024] Figure 2 This is a schematic diagram of the angle adjustment mechanism and the cutting device;

[0025] Figure 3 yes Figure 2A schematic diagram of the mid-angle adjustment mechanism and cutting device from another perspective;

[0026] Figure 4 yes Figure 2 Cross-sectional view of the cutting device at point AA;

[0027] Figure 5 This is a schematic diagram of an intelligent beveling machine;

[0028] Figure 6 yes Figure 5 A schematic diagram of the intelligent beveling machine with part of the machine cover hidden;

[0029] In the diagram: 1. Frame; 2. Input belt; 3. Feeding needle belt; 31. First needle belt; 32. Second needle belt; 4. Output belt; 5. 3D vision scanning device; 6. Angle adjustment mechanism; 601. Adjustment power unit; 602. Adjustment disc; 6021. Clearance hole; 6022. Arc-shaped slot; 603. Tool holder adjustment plate; 6031. Tool holder movement slot; 604. Connecting rod; 605. Arc-shaped rack; 606. Drive gear; 607. Support roller; 71. Tool holder assembly; 710. Tool holder body; 714. Roller; 715. Roller guide. 72. Rail; 73. Cutting blade; 74. First cutting blade; 75. Second cutting blade; 76. Blade holder drive mechanism; 77. Blade holder drive motor; 78. Active rocker arm assembly; 79. First driven rocker arm assembly; 70. Second driven rocker arm assembly; 71. Connecting shaft; 72. Connecting shaft tube; 73. Blade drive mechanism; 74. Anvil assembly; 75. Anvil assembly; 76. Mounting base; 77. Support frame; 78. Linear guide rail; 79. Raw material unit; 80. Tilting and unloading device; 91. Paper tray section; 12. Machine cover; 13. Clearance interval. Detailed Implementation

[0030] The technical solution of this utility model will be described in detail below with reference to the accompanying drawings and specific embodiments to further understand the purpose, solution and effect of this utility model, but it is not intended to limit the scope of protection of the appended claims of this utility model.

[0031] In the description of this utility model, it should be noted that the terms "center", "upper", "lower", "left", "right", "vertical", "horizontal", "inner", "outer", "X-direction", "Y-direction", "Z-direction", "clockwise", "counterclockwise", "axial", "radial", "circumferential", etc., indicating the orientation or positional relationship are based on the orientation or positional relationship shown in the accompanying drawings, and are only for the convenience of describing this utility model and simplifying the description, and are not intended to indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation, and therefore should not be construed as a limitation of this utility model.

[0032] Furthermore, although terms such as first, second, third, etc., may be used in this document to describe multiple elements, components, regions, layers, and / or segments, these elements, components, regions, layers, and / or segments should not be limited by these terms. These terms may be used only to distinguish one element, component, region, layer, or segment from another. Unless the context clearly indicates otherwise, terms such as "first," "second," and other numerical terms used herein do not imply order or sequence. Therefore, the first element, component, region, layer, or segment discussed below may be referred to as the second element, component, region, layer, or segment without departing from the teachings of the exemplary embodiments.

[0033] Furthermore, unless otherwise explicitly specified and limited, the terms "installation," "connection," "linking," and "fixing," etc., should be interpreted broadly. For example, they can refer to a fixed connection, a detachable connection, or an integral part; they can refer to a mechanical connection or an electrical connection; they can refer to a direct connection or an indirect connection through an intermediate medium; they can refer to the internal communication of two components or the interaction between two components. Those skilled in the art can understand the specific meaning of the above terms in this utility model according to the specific circumstances.

[0034] like Figures 1 to 3 The angle adjustment mechanism of the intelligent beveling machine shown includes an adjustment power unit 601, an adjustment disc 602, and a blade holder adjustment plate 603. The blade holder adjustment plate 603 and the adjustment disc 602 are arranged parallel to each other and fixedly connected. An installation space is provided between the blade holder adjustment plate 603 and the adjustment disc 602.

[0035] The adjustment power unit 601 is connected to the adjustment disc 602 via a gear and an arc-shaped rack and pinion transmission mechanism. The adjustment disc 602 is rotatably mounted on the frame via a guide and limit mechanism. The adjustment power unit 601 drives the adjustment disc 602 to rotate relative to the frame 1 at a certain angle.

[0036] The installation space is equipped with a knife holder assembly 71 and a cutting board assembly 75, which are located between the knife holder adjustment plate 603 and the adjustment disc 602. The adjustment disc 602, the cutting board assembly 75 and the knife holder adjustment plate 603 are fixedly connected by a connecting rod 604. When the adjustment disc 602 rotates, the knife holder adjustment plate 603, the cutting board assembly 75 and the knife holder assembly 71 rotate through a certain angle with the adjustment disc 602.

[0037] The tool holder adjustment plate 603 has a tool holder movement slot 6031, and the tool holder assembly 71 is slidably connected to the tool holder movement slot 6031. The adjustment disc 602 has a clearance elongated hole 6021, and the output end of the blade drive mechanism 74 passes through the clearance elongated hole 6021 and is connected to the cutting blade 72.

[0038] The blade drive mechanism 74 is mounted on the adjustment disc 602 via a linear guide rail 78. The tool holder drive mechanism 73 drives the blade drive mechanism 74 to reciprocate along the linear guide rail 78 and drives the tool holder assembly 71 to reciprocate along the tool holder movement slot 6031.

[0039] The control system can control the angle adjustment mechanism to adjust the cutting angle in a timely manner according to the situation, and the cutting motion of the cutting device is not delayed while adjusting the cutting angle. The action of adjusting the cutting angle and the cutting motion of the cutting blade can be carried out simultaneously without interference, thus improving cutting efficiency. A suitable cutting angle can make the cutting blade and the cutting material form an optimal contact state, thereby improving cutting speed and cut quality.

[0040] The gear and rack transmission mechanism includes an arc-shaped rack 605 and a drive gear 606. The output end of the adjusting power device drives the drive gear 606. The arc-shaped rack 605 is fixed to the edge of the adjusting disc 602, and the drive gear 606 meshes with the arc-shaped rack 605 for transmission. Preferably, the adjusting power device 601 is a motor, and the motor output shaft is fixedly connected to the drive gear 606.

[0041] The guide and limiting mechanism includes an arc-shaped slot 6022 formed on the adjusting disc 602 and a support roller 607 fixedly mounted on the frame 1. The arc-shaped slot 6022 and the arc-shaped rack 605 are concentric with the adjusting disc 602. The support roller 607 is located within the arc-shaped slot 6022 and rolls in cooperation with it. The angle at which the adjusting power unit 601 drives the adjusting disc 602 to rotate relative to the frame 1 depends on the central angle corresponding to the arc-shaped slot 6022.

[0042] like Figure 1 As shown, in order to ensure the stability of the adjustment disc 602, it is preferable to fix three support rollers 607 on the wall plate of the frame 1. Correspondingly, three arc-shaped slots 6022 with the same structure are provided on the adjustment disc 602.

[0043] like Figure 2 Zhihe Figure 3 As shown, it is preferable to align the clearance elongated hole 6021 with the tool holder movement slot hole 6031. Of course, if the output end of the blade drive mechanism 74 and the connection point of the cutting blade 72 are larger, the size of the clearance elongated hole 6021 can be increased.

[0044] In some embodiments, the tool post drive mechanism 73 includes a tool post drive motor 730, an active rocker arm assembly 731, a first driven rocker arm assembly 732, and a second driven rocker arm assembly 733. All three rocker arm assemblies include a first rocker arm rod and a second rocker arm rod. One end of the first rocker arm rod and one end of the second rocker arm rod are hinged together by a pin. The other ends of the first rocker arm rod and the other ends of the second rocker arm rod are used to connect other components to be connected.

[0045] The tool post drive motor 730 is preferably a servo motor.

[0046] The tool holder drive motor 730 is mounted on the adjustment disc 602 via a support frame 77. The support frame 77 is fixedly mounted on the adjustment disc 602. The blade drive mechanism 74 is fixed on the mounting base 76. A linear guide rail 78 is provided between the mounting base 76 and the adjustment disc 602.

[0047] like Figures 1 to 4 As shown, the first driven rocker arm assembly 732 and the second driven rocker arm assembly 733 are fixedly connected by a connecting shaft 734. A connecting shaft tube 735 sequentially connects the tool holder adjusting plate 603, the anvil assembly 75, the adjusting disc 602, and the support frame 77. The connecting shaft 734 is rotatably mounted within the connecting shaft tube 735. Therefore, the connecting shaft 734 rotates relative to the tool holder adjusting plate 603, the anvil assembly 75, the adjusting disc 602, and the support frame 77.

[0048] The tool post drive motor 730 drives the mounting base 76 to reciprocate along the linear guide rail 78 via the active rocker arm assembly 731. At the same time, the moving mounting base 76 drives the first driven rocker arm assembly 732 and the second driven rocker arm assembly 733 to swing. Thus, the second driven rocker arm assembly 733 drives the tool post assembly 71 to reciprocate along the tool post movement slot 6031.

[0049] like Figure 2 and Figure 3 As shown, the cutting device includes a blade holder assembly 71, two elongated cutting blades 72, a blade holder drive mechanism 73, a blade drive mechanism 74, and an anvil assembly 75 fixed to the frame 1. The two cutting blades 72 are mounted on the blade holder assembly 71. The blade drive mechanism 74 drives the two cutting blades 72 to reciprocate and move relative to each other along the length of the blades. Figure 6 In this process, the two cutting blades 72 reciprocate along the X-axis, and the two cutting blades 72 move in opposite directions. The cutting edge of the cutting blade 72 is provided with serrations, the blade surfaces of the two cutting blades 72 are in contact with each other and the blades face the same direction, and the two cutting blades 72 cooperate with the cutting board assembly 75 to cut food.

[0050] The cutting board assembly 75 includes a cutting board 751 and three parallel reinforcing ribs 752 fixedly connected to the cutting board 751. The cutting board 751 is parallel to the blade. The three parallel reinforcing ribs 752 are fixedly connected by a connecting rod 604 and a connecting shaft tube 735. The structure of the connecting rod 604 can be the same as that of the connecting shaft tube 735, both being hollow tubes.

[0051] The clearance P between the first needle belt 31 and the second needle belt 32 is mainly used to avoid the components at the bottom of the aforementioned tool holder assembly 71, and to prevent interference with the needle belt during cutting.

[0052] This invention relates to an intelligent oblique slicing machine that uses two reciprocating cutting blades to cut irregularly shaped raw meat into slices of preset thickness and angle. It is suitable for cutting raw and cooked products such as salmon, chicken breast, red meat, and bacon.

[0053] The two cutting blades 72 are the first cutting blade 72a and the second cutting blade 72b, respectively. A roller 714 is installed on the left end of the tool holder body 710. A roller guide rail 715 is fixed on the tool holder movement slot 6031 on the tool holder adjustment plate 603. The roller 714 rolls along the roller guide rail 715. The second driven rocker arm assembly 733 of the tool holder drive mechanism 73 is hinged to the roller 714.

[0054] like Figure 5 and Figure 6 As shown, when the angle adjustment mechanism of this utility model is applied to an intelligent beveling machine, the intelligent beveling machine includes a frame 1. The frame 1 is equipped with a flipping and unloading device 8, a 3D vision scanning device 5, a control system, and an angle adjustment mechanism 6 for adjusting the cutting angle. The flipping and unloading device 8, the 3D vision scanning device 5, the angle adjustment mechanism 6, the belt conveyor, and the cutting device are electrically connected to the control system. The flipping and unloading device 8 is located above the upstream end of the belt conveyor, and upstream of the 3D vision scanning device 5. The 3D vision scanning device 5 is located above the upstream end of the belt conveyor. When the intelligent beveling machine is working, the belt conveyor transports the raw material units from upstream to downstream. Figure 5 and Figure 6 As shown, the transport is from the left end to the right end. The structure and principle of the control system are well known to those skilled in the art and will not be described in detail here.

[0055] The conveyor belt includes an input belt 2, a needle conveyor belt 3, and an output belt 4 arranged sequentially along the Y-axis. The input belt 2 and the needle conveyor belt 3 are driven by a first motor, and the output belt 4 is driven by a second motor. The needle conveyor belt 3 includes two rolls of needle-dividing belt arranged side by side. The two rolls of needle-dividing belt are a first needle-dividing belt 31 and a second needle-dividing belt 32, respectively. There is a clearance interval P between the first needle-dividing belt 31 and the second needle-dividing belt 32 to avoid the tool holder assembly.

[0056] The conveyor belt 3 has numerous long needles on its surface. When the raw material S enters the conveyor belt 3 from the input belt 2, these needles insert into the raw material S, forming a relatively firm connection between the raw material S and the conveyor belt, preventing slippage and ensuring cutting accuracy and stability. The conveyor belt 3 has a precise conveying distance; different single conveying distances result in different cutting thicknesses. Therefore, the cutting thickness of this intelligent beveling machine is adjustable.

[0057] Of course, depending on the design requirements, the input belt 2 can also be set as two belts arranged side by side, and the output belt 4 can also be set as two belts arranged side by side, where side by side means side by side in the X direction.

[0058] When the input belt 2, the conveyor belt 3, and the output belt 4 are all composed of two rolls of belt side by side, the intelligent oblique cutting machine is a dual-channel intelligent oblique cutting machine. It can simultaneously place products of similar size on the two channels and cut them at the same time, maintaining high-quality and high-efficiency production and processing.

[0059] During operation, the raw material individual S is first placed on the flipping and unloading device 8. The raw material individual S falls from the flipping and unloading device 8 onto the belt conveyor and is conveyed downstream. The 3D vision scanning device 5 is used to scan the raw material individual S conveyed by the belt conveyor to determine the parameters of the raw material individual S. These parameters include the size, weight and / or outline shape of the raw material individual S. The parameters of the raw material individual S are then transmitted to the control system. The control system has multiple preset cutting schemes. The control system can select and execute one of the cutting schemes. According to the selected cutting scheme, the angle adjustment mechanism 6 is controlled to adjust the angle of the cutting device, and then the cutting device is controlled to perform cutting.

[0060] like Figure 6 As shown, a cardboard tray 9 is provided downstream (on the right) of the output belt 4. The cardboard tray 9 is used to place cardboard boxes. The cut food falls onto the cardboard boxes, and the cut products are output while maintaining their intact shape.

[0061] The angle adjustment mechanism of this intelligent beveling machine allows the cutting angle of the beveling machine to vary from 15° to 90°. It is not only suitable for beveling but also for straight cutting. The products cut from the raw materials can be slices, blocks, or strips.

[0062] The intelligent beveling machine's control system has three preset cutting schemes, as follows:

[0063] Cutting Option 1: Sectional Cutting

[0064] By scanning the raw material individual S with a 3D laser, the control system scans the parameters of the raw material individual S and divides the raw material individual S into several set areas, so that each area has a different cutting angle and cutting speed.

[0065] Taking salmon cutting as an example, the salmon can be divided into two cutting areas: the front middle section and the tail section. During cutting, the cutting angle of the blade in the first section can gradually decrease from 75° (the cutting angle refers to the angle between the blade and the horizontal plane) to 60°, while the cutting angle in the second section can gradually decrease from 30° to 15°. By changing the blade's tilt angle (i.e., changing the cutting angle), the narrower and thinner tail section can be cut into larger slices, reducing the difference in shape between the tail and front middle sections. This results in more uniform slices, higher raw material utilization, and less waste. Of course, the salmon can also be divided into more cutting areas as needed to ensure consistent uniformity in the slices from different parts of the salmon, improving product standardization.

[0066] Cutting Option 2: Segmented Cutting

[0067] By scanning the raw material individual S with a 3D laser, the control system scans the parameters of the raw material individual S and then cuts the raw material individual S into segments with equal weight and equal angle.

[0068] Cutting Option 3: Group Cutting

[0069] By scanning the outline of the raw material with 3D laser, the control system scans the parameters of the individual raw material S, cuts the product into equal angles and thicknesses, and groups them into equal weight groups to ensure that the weight of each group is consistent.

[0070] Of course, in addition to the above-mentioned cutting schemes, the intelligent cutting machine of this utility model can also preset new cutting schemes according to customer needs to meet the special needs of customers.

[0071] This utility model relates to an intelligent beveling machine with an angle adjustment mechanism. The adjustment power unit is connected to an adjustment disc via a gear and arc-shaped rack transmission mechanism. The adjustment disc is rotatably mounted on the frame via a guide and limiting mechanism. The adjustment power unit drives the adjustment disc to rotate a certain angle relative to the frame. The adjustment disc, along with the blade holder adjustment plate, cutting board assembly, and blade holder assembly, rotates through a certain angle, thereby changing the cutting angle of the cutting blade in the blade holder assembly. Furthermore, the control system automatically adjusts the cutting angle of the meat slices. The control system can control the angle adjustment mechanism to adjust the cutting angle in a timely manner according to the situation, and the cutting motion of the cutting device is not delayed during the angle adjustment. The action of adjusting the cutting angle and the cutting motion of the cutting blade can be performed simultaneously without interference, improving cutting efficiency. A suitable cutting angle allows the cutting blade to form an optimal contact state with the material being cut, thereby improving cutting speed and cut quality.

[0072] Furthermore, because the angle adjustment mechanism uses a gear and arc rack transmission structure, the adjustment angle can be precisely controlled.

[0073] In summary, the angle adjustment mechanism of this intelligent oblique slicing machine can automatically adjust the cutting angle in a timely manner, ensuring that the meat slices cut from different parts of the raw material are uniform in size, thereby improving product standardization and utilization.

[0074] This utility model is not limited to the above embodiments. All improvements made based on the concept, principle, structure and method of this utility model are within the protection scope of this utility model.

Claims

1. The angle adjusting mechanism of an intelligent beveling machine is characterized in that: it comprises a rack, an adjusting power device, an adjusting disc and a tool rest adjusting plate, the tool rest adjusting plate is arranged in parallel with the adjusting disc and the two are fixedly connected, an installation space is arranged between the tool rest adjusting plate and the adjusting disc, the adjusting power device is connected with the adjusting disc through a gear and an arc-shaped rack transmission mechanism, the adjusting disc is rotatably installed on the rack through a guide limiting mechanism, the adjusting power device drives the adjusting disc to rotate by a certain angle relative to the rack.

2. The angle adjustment mechanism of the intelligent beveling machine according to claim 1, characterized in that: the gear and arc-shaped rack transmission mechanism comprises an arc-shaped rack and a driving gear, the output end of the adjusting power device drives the driving gear, the arc-shaped rack is fixed on the edge of the adjusting disc, and the driving gear is in meshing transmission with the arc-shaped rack.

3. The angle adjustment mechanism of the intelligent beveling machine according to claim 2, characterized in that: the guide limiting mechanism comprises an arc-shaped slot hole opened on the adjusting disc and a supporting roller fixedly installed on the rack, the arc-shaped slot hole, the arc-shaped rack and the adjusting disc have the same center, and the supporting roller is located in the arc-shaped slot hole and is in rolling cooperation with the arc-shaped slot hole.

4. The angle adjustment mechanism of the intelligent beveling machine according to claim 3, characterized in that: the adjusting power device is an electric motor, and the output shaft of the electric motor is fixedly connected with the driving gear.

5. The angle adjustment mechanism of the intelligent beveling machine according to claim 4, characterized in that: the installation space is provided with a tool rest assembly and an anvil plate assembly, and the adjusting disc, the anvil plate assembly and the tool rest adjusting plate are fixedly connected through a connecting rod.

6. The angle adjustment mechanism of the intelligent beveling machine according to claim 5, characterized in that: an arc-shaped slot hole is opened on the tool rest adjusting plate, the tool rest assembly is in sliding connection with the arc-shaped slot hole, an avoiding long hole is opened on the adjusting disc, two long strip-shaped cutting blades are movably connected to the tool rest assembly, a blade driving mechanism is connected with the cutting blades through the avoiding long hole, the blade driving mechanism drives the two cutting blades to reciprocate and relatively move along the length direction of the cutting blades, and the cutting blades are matched with the anvil plate assembly to cut food, the blade driving mechanism is installed on the adjusting disc through a linear guide rail, the tool rest driving mechanism drives the blade driving mechanism to reciprocate along the linear guide rail, and drives the tool rest assembly to reciprocate along the arc-shaped slot hole.

7. The angle adjustment mechanism of the intelligent beveling machine according to claim 6, characterized in that: the tool rest driving mechanism comprises a tool rest driving motor, a driving rocker arm assembly, a first driven rocker arm assembly and a second driven rocker arm assembly, the tool rest driving motor is installed on the adjusting disc through a supporting frame, the supporting frame is fixedly installed on the adjusting disc, the blade driving mechanism is fixed on a mounting seat, and the linear guide rail is arranged between the mounting seat and the adjusting disc; the first driven rocker arm assembly and the second driven rocker arm assembly are fixedly connected through a connecting shaft, the connecting shaft can rotate relative to the tool rest adjusting plate, the anvil plate assembly, the adjusting disc and the supporting frame, the tool rest driving motor drives the mounting seat to reciprocate along the linear guide rail through the driving rocker arm assembly, at the same time, the moving mounting seat drives the first driven rocker arm assembly and the second driven rocker arm assembly to swing, so that the second driven rocker arm assembly drives the tool rest assembly to reciprocate along the arc-shaped slot hole.

Images