Dough kneading and conveying device of gluten machine

Abstract

The utility model discloses a dough kneading and conveying device of a gluten machine, which is characterized in that the dough kneading and conveying device comprises a rack, a bottom plate, a partition plate, a stirring and conveying mechanism and a discharging mechanism, the bottom plate, the partition plate, the stirring and conveying mechanism and the discharging mechanism are mounted on the rack, the partition plate is spirally and fixedly mounted on the top surface of the bottom plate, and the bottom plate and the partition plate form a spiral stirring and conveying channel; an inlet of the spiral stirring and conveying channel is arranged close to the middle of the bottom plate, and an outlet of the spiral stirring and conveying channel is arranged close to the edge of the bottom plate; the stirring and conveying mechanism is arranged right above the bottom plate, a first cut-off plate is further vertically and movably arranged above the bottom plate, and the first cut-off plate is vertically and movably arranged at an outlet of the spiral stirring and conveying channel; a discharging claw is arranged at the bottom of the front end of the discharging mechanism, and the discharging claw is transversely and movably arranged on the left side of the first cut-off plate. According to the utility model, the mouth feel of the gluten is improved, and the subsequent normal rolling of the gluten is also ensured.

Description

Technical Field

[0001] The utility model relates to the field of gluten production and processing, in particular to a dough kneading and conveying device of a gluten machine. Background Art

[0002] Gluten is a food that we are all familiar with. Since gluten is a colloidal mixed protein unique to wheat flour, composed of gliadin and glutenin, gluten has a high nutritional value and is a high-protein, low-fat, low-sugar, low-calorie food. It also contains various trace elements such as calcium, iron, phosphorus, and potassium. It is a traditional delicacy and is therefore loved by the public. After gluten is produced, it generally needs to be rolled into gluten rolls (the more common roasted gluten on the market), but it is currently mainly rolled manually, which not only requires a large workload but also has low efficiency and cannot meet market demand. Moreover, when rolling manually, the uniformity of the gluten rolls depends entirely on the worker's experience and feel, which will result in the gluten rolls being of different sizes and not being firm enough, making it impossible to guarantee the edible taste of the gluten rolls. There will also be hygiene and safety issues.

[0003] Among them, in order to solve this problem in the prior art, screw extrusion is generally used to extrude the gluten and then cut it off, and then the gluten is directly rolled through a gluten rolling mechanism. Among them, for example, application number: 202410162908.6, patent name: A gluten rolling mechanism of a gluten machine, which is used to roll the cut gluten. However, the direct extrusion method for making gluten has the following shortcomings: after the gluten is extruded, it is directly cut off and rolled immediately after cutting. The gluten lacks the kneading action, and the rolled gluten is not very compact, resulting in a poor taste of the gluten. Therefore, how to improve the taste of gluten and make the gluten more compact is a direction that those skilled in the art need to work hard on. Summary of the Invention

[0004] The utility model aims to provide a dough kneading and conveying device for a gluten machine. By using the structure, the taste of the gluten can be effectively improved, and the subsequent rolled gluten can be made tighter.

[0005] To achieve the above-mentioned purpose, the technical solution adopted by the present invention is: a dough kneading and conveying device for a gluten machine, comprising a frame, a bottom plate mounted on the frame, a partition, a stirring and conveying mechanism, and a discharging mechanism, wherein the partition is fixedly mounted on the top surface of the bottom plate in a spiral shape, and the bottom plate and the partition constitute a spiral stirring and conveying channel, wherein the inlet of the spiral stirring and conveying channel is arranged near the middle of the bottom plate, and the outlet of the spiral stirring and conveying channel is arranged near the edge of the bottom plate;

[0006] The stirring and conveying mechanism is arranged directly above the bottom plate, and includes a bracket and a stirring assembly mounted on the bracket. The stirring assembly is arranged in a spiral shape and is arranged directly opposite the spiral stirring and conveying channel. A plurality of stirring components are provided at the bottom of the stirring assembly.

[0007] A first cutting plate is vertically movable above the bottom plate, and the first cutting plate is movable up and down and is arranged at the outlet of the spiral stirring and conveying channel;

[0008] A discharging claw is provided at the bottom of the front end of the discharging mechanism, and the discharging claw is arranged to move laterally on the left side of the first cutting plate, and the discharging claw can move up and down to be close to or away from the bottom plate;

[0009] A driving component is also provided, and the driving component is configured to drive the stirring and conveying mechanism to reciprocate and move up and down.

[0010] In the above technical solution, the plurality of stirring members are arranged at intervals, and the stirring members include at least two stirring protrusions arranged at intervals along the extension direction of the stirring assembly, and the stirring protrusions include at least one first stirring protrusion and at least one second stirring protrusion, and the first stirring protrusion and the second stirring protrusion are arranged in a staggered manner;

[0011] The top of the stirring protrusion is connected to the bottom surface of the stirring assembly, the first stirring protrusion is arranged to be inclined inward from top to bottom, and the second stirring protrusion is arranged to be inclined outward from top to bottom;

[0012] And / or, each of the first stirring protrusions is arranged between two adjacent second stirring protrusions.

[0013] In the above technical solution, the bracket includes a rotating shaft, a connecting plate and a plurality of connecting plates installed on the connecting plate. The connecting plate is coaxially installed on the top of the rotating shaft. A clearance hole is provided in the middle of the bottom plate. The top of the rotating shaft passes through the clearance hole and is arranged directly above the bottom plate; the stirring assembly is installed on multiple connecting plates, and the driving component is configured to drive the rotating shaft to rotate back and forth and move up and down.

[0014] In the above technical solution, there are at least three connecting plates, and the stirring assembly includes multiple curved plates, which constitute a spirally arranged stirring assembly. The curved plates are arranged on the outside of the connecting disk, and at least one curved plate is provided between adjacent connecting plates. The ends of the curved plates are connected to the adjacent connecting plates, and at least one stirring component is provided at the bottom of each curved plate.

[0015] And / or, at least two arc-shaped plates are arranged between adjacent connecting plates, and the plurality of arc-shaped plates are arranged at intervals from the inside to the outside.

[0016] In the above technical solution, the connecting plate is a U-shaped channel steel with an open top, and a U-shaped groove is provided on the top of the connecting plate. The two ends of the U-shaped groove are respectively connected to the inner end and the outer end of the connecting plate. The inner end of the connecting plate is connected to the connecting plate, and both sides of the outer end of the connecting plate are respectively provided with at least one strip-shaped through groove parallel to the extension direction of the connecting plate, and the ends of the arc-shaped plate are connected to the strip-shaped through groove via a connecting piece;

[0017] And / or, the connecting member includes a mounting plate and a vertical plate, the mounting plate is arranged on a side of the connecting plate, the mounting plate is connected to the strip-shaped through groove via bolts, and the mounting plate contacts the side wall of the connecting plate;

[0018] The bottom of the vertical plate is connected to the end side wall of the arc-shaped plate, and the top of the vertical plate is connected to the mounting plate via connecting bolts;

[0019] The mounting plate is provided with a connecting groove perpendicular to the strip groove, and the upper part of the vertical plate is provided with a vertical groove facing the connecting groove. The connecting bolt passes through the connecting groove and the vertical groove to connect the mounting plate and the vertical plate.

[0020] In the above technical solution, the partition includes a first partition and a second partition, the first partition and the second partition are both fixedly mounted on the bottom plate in a spiral shape, and the first partition is arranged on the inner side of the second partition;

[0021] The bottom plate and the first partition plate form a first spiral stirring and conveying channel, and the bottom plate and the second partition plate form a second spiral stirring and conveying channel. The outlet of the first spiral stirring and conveying channel is arranged on the opposite side of the inlet of the second spiral stirring and conveying channel.

[0022] An annular channel is also formed between the inner end of the second baffle and the outer end of the first baffle, and the annular channel includes an arc-shaped reflux channel and an arc-shaped connecting channel that are interconnected. The arc-shaped reflux channel is arranged opposite to the arc-shaped connecting channel. The arc-shaped connecting channel is arranged between the outlet of the first spiral stirring and conveying channel and the inlet of the second spiral stirring and conveying channel. The arc-shaped reflux channel is arranged beside the inlet of the second spiral stirring and conveying channel to the outlet of the first spiral conveying channel.

[0023] In the above technical solution, a reflux partition plate is also provided, which is vertically movable and arranged above the bottom plate. The reflux partition plate is obliquely arranged. The middle part of the reflux partition plate is arranged at the inner end of the second partition plate at the inlet of the second spiral stirring and conveying channel. The first end of the reflux partition plate is arranged in the inlet of the second spiral stirring and conveying channel. The first end of the reflux partition plate is arranged in the annular channel, and the second end of the reflux partition plate is arranged between the first partition plate and the second partition plate.

[0024] In the above technical solution, a first connecting plate is further provided on the frame above the bracket, one end of the first connecting plate is rotatably connected to the frame, and the top of the first cutting plate is connected to the other end of the first connecting plate; a first driving component is further provided, the first driving component drives the first connecting plate to rotate around the frame, so that the first cutting plate moves up and down;

[0025] The first cutting plate is connected to the first connecting plate via a first connecting member, the first connecting member comprising a first mounting plate, a first sleeve, and a first screw, the first mounting plate being connected to the first connecting plate via bolts, the first mounting plate being provided with two first strip grooves parallel to the first connecting plate, the two bolts respectively passing through one of the first strip grooves to connect to the first connecting plate;

[0026] The first sleeve is mounted on a side wall of the first mounting plate, the first cutting plate is connected to the bottom of the first screw, and the top of the first screw passes through the first sleeve and is arranged directly above the first sleeve;

[0027] A first upper nut and a first lower nut are screwed onto the first screw rod. The bottom surface of the first upper nut abuts against the top surface of the sleeve, and the top surface of the first lower nut abuts against the bottom surface of the sleeve.

[0028] In the above technical solution, the outlet of the spiral stirring and conveying channel is arranged forward, and an extension plate extending forward is further provided on the partition plate on the right side of the outlet of the spiral stirring and conveying channel, and the first cutting plate is provided at the outlet of the spiral stirring and conveying channel and the end of the extension plate;

[0029] A blocking plate is further provided on the bottom plate at the front side of the outlet of the spiral stirring and conveying channel, and a vertical frame is provided on the bottom plate. The front end of the blocking plate is rotatably connected to the vertical frame, and the rear end of the blocking plate is provided at the right end of the extension plate;

[0030] The front end of the blocking plate is provided with a connecting protrusion extending forward, and a first tension spring is also hung on the connecting protrusion. The right end of the first tension spring is connected to the vertical frame. The first tension spring pulls the blocking plate to rotate counterclockwise around the vertical frame, so that the left side of the rear end of the blocking plate abuts against the right end surface of the extension plate;

[0031] And / or, when the first cutting plate moves downward, the bottom of the first cutting plate abuts against the top surface of the bottom plate, and the right end surface of the first cutting plate abuts against the left side surface of the blocking plate.

[0032] In the above technical solution, the discharging mechanism includes a discharging claw, a connecting component and a discharging driving component, the rear end of the connecting component is laterally slidably arranged on the frame, the discharging claw is arranged on the left side of the first cutting plate, and the top of the discharging claw is connected to the front end of the connecting component;

[0033] The discharging driving component is configured to drive the front end of the connecting component to move up and down and to drive the connecting component to move laterally.

[0034] In the above technical solution, the top of the discharge claw is connected to the connecting component via a discharge connecting plate;

[0035] The connecting member includes a longitudinal plate and a vertical extension plate, the rear end of the longitudinal plate is connected to the frame in a transverse sliding manner, and the rear end of the longitudinal plate is connected to the frame in a rotational manner, and the top of the vertical extension plate is connected to the front end of the longitudinal plate;

[0036] A blocking guide rod is provided on the frame at the front end of the discharging connecting plate;

[0037] The middle part of the discharging connecting plate is rotatably connected to the vertical extension plate, and a second tension spring is hung on the longitudinal plate. The front end of the second tension spring is hung and connected to the top of the discharging connecting plate. The second tension spring pulls the top of the discharging connecting plate to rotate backward and makes the lower front side of the discharging connecting plate rest against the blocking guide rod.

[0038] In the above technical solution, the discharging drive component includes a horizontal discharging drive component and a vertical discharging drive component, and the horizontal discharging drive component is configured to drive the connecting component to move horizontally along the frame, so that the discharging claw is positioned close to or away from the first cutting plate;

[0039] The vertical discharging driving component is configured to drive the front end of the connecting component to move up and down, so that the bottom of the discharging claw is arranged close to or away from the top surface of the bottom plate.

[0040] In the above technical solution, the rear end of the connecting component is provided with a limiting component extending backward, the rear end of the limiting component is rotatably installed with a guide wheel, and the frame is provided with a limiting guide plate. When the front end of the connecting component rotates downward, the top outer surface of the guide wheel abuts against the bottom surface of the limiting guide plate.

[0041] Due to the application of the above technical solution, the utility model has the following advantages compared with the prior art:

[0042] 1. The utility model is provided with a spirally arranged partition and a spirally arranged stirring and conveying mechanism. The stirring and conveying mechanism can rotate back and forth and move up and down. The spiral stirring and conveying channel on the partition is used to accommodate the gluten. The up and down movement and reciprocating rotation of the stirring and conveying mechanism can drive the gluten to move in the spiral stirring and conveying channel. In this process, the stirring component at the bottom of the stirring and conveying mechanism kneads the gluten and conveys it at the same time. In this way, the gluten can be repeatedly kneaded, thereby improving the taste of the gluten.

[0043] 2. The stirring assembly in the utility model adopts a plurality of staggered stirring convex teeth. When the stirring convex teeth are pressed on the gluten, they can contact the gluten as much as possible and knead the gluten, thereby improving the kneading effect, making the gluten taste better and making the gluten more compact when it is subsequently rolled;

[0044] 3. The stirring assembly of the present invention is composed of multiple curved plates, which facilitates the processing of the stirring assembly. At the same time, the curved plates are installed on the bracket, which also facilitates the maintenance and replacement of the stirring assembly.

[0045] 4. In the present invention, the curved plate and the connecting plate are connected. The connecting plate adopts a U-shaped structure with a U-shaped groove on the top. The open structure is convenient for installation and commissioning of the curved plate and is also easy to clean, reducing the problem of sanitary dead corners.

[0046] 5. The present invention also provides an arc-shaped reflux channel, which can reflow part of the gluten after kneading through the arc-shaped reflux channel and mix with the gluten at the front end to knead the dough, thereby improving the kneading effect of the gluten, improving the taste of the gluten, and not affecting the normal transportation of the gluten;

[0047] 6. The utility model is provided with a water leakage hole, which can collect the water overflowing during the gluten kneading process, which is more environmentally friendly;

[0048] 7. In the present invention, the discharging claw is installed on the connecting component, and the rear end of the connecting component is not only connected to the frame in a transverse sliding manner, but also in a rotational manner. The discharging driving component is used to drive the connecting component to move transversely and rotate, thereby driving the discharging claw to move transversely and up and down, so that the discharging claw clamps the gluten and drives it to move, thereby realizing stable feeding of the gluten, and the shape of the gluten after being cut basically remains in its original shape, thereby effectively ensuring that the gluten is subsequently stably rolled and ensuring the effect of rolling the gluten;

[0049] 8. In the present invention, the discharging claw is rotatably connected to the connecting member. The second tension spring is provided to apply a pulling force to the discharging claw to advance the rotation, so that the discharging claw can stably move along the extension direction of the blocking guide rod when it moves laterally. In this way, the shape of the blocking guide rod can be adjusted according to actual conditions during the process of the gluten being driven by the discharging claw to move laterally, so that the gluten can also achieve longitudinal displacement during the lateral movement, thereby stably entering the subsequent gluten rolling station;

[0050] 9. The front and rear positions of the blocking guide rod and the front and rear positions of the discharging claw relative to the transverse guide rod are adjustable in the present invention, so that the device can be adjusted according to the size of the gluten, the discharging position, the dropping position, etc., thereby increasing the scope of application;

[0051] 10. The discharge claws of the present invention adopt a wavy or W-shaped structure, which can minimize the contact area of ​​the discharge claws on the gluten and prevent excessive deformation of the gluten that affects the subsequent gluten rolling effect. At the same time, multiple V-shaped openings are provided at the bottom, which can increase the contact force between the discharge claws and the gluten, ensuring that the discharge claws can stably drive the gluten to move during movement, preventing the discharge claws and the gluten from separating during the process of driving the gluten, and ensuring the stability of gluten feeding.

[0052] 11. In the present invention, the right end of the first connecting plate is rotatably connected to the frame, and the left end of the first connecting plate is driven to rotate downward by the first driving component, thereby driving the first cutting plate to move downward. The cutting plate tension spring pulls the left end of the first connecting plate upward to achieve the upward movement of the first cutting plate. In this manner, the space above the first cutting plate is not occupied, the arrangement of other mechanisms is not affected, and the stability of gluten cutting can be ensured.

[0053] 12. In the present invention, the first cutting plate is connected to the first sleeve through the first screw, and the first screw is limited on the first sleeve through the first upper and lower nuts. In this way, the inclination angle and the up and down movement distance of the first cutting plate can be conveniently adjusted, thereby conveniently cutting gluten of different shapes, facilitating the subsequent gluten rolling action, and ensuring the quality of the subsequent gluten rolling. BRIEF DESCRIPTION OF THE DRAWINGS

[0054] Figure 1This is a schematic diagram of the three-dimensional structure of the first embodiment of the present utility model;

[0055] Figure 2 This is a schematic diagram of the structure of the first embodiment of the present invention (some mechanisms and frames are not shown);

[0056] Figure 3 This is a schematic diagram of the three-dimensional structure of the first embodiment of the present invention (some mechanisms and frames are not shown);

[0057] Figure 4 This is a schematic structural diagram of the connection between the stirring and conveying mechanism and the spiral stirring and conveying channel in the first embodiment of the present invention;

[0058] Figure 5 This is a structural diagram of the stirring and conveying mechanism and the bottom plate in the separated state in the first embodiment of the present invention;

[0059] Figure 6 This is a top view of the connection between the partition and the bottom plate in Example 1 of the present invention (the dotted line and arrow are the gluten conveying direction);

[0060] Figure 7 This is a schematic diagram of the three-dimensional structure of the connection between the partition plate and the bottom plate in the first embodiment of the present utility model;

[0061] Figure 8 This is a schematic diagram of the three-dimensional structure of the stirring and conveying mechanism in the first embodiment of the present utility model;

[0062] Figure 9 yes Figure 8 A partial enlarged view of the connection between the stirring component and the partition;

[0063] Figure 10 yes Figure 8 A partial enlarged view of the connection between the middle partition plate and the connecting plate;

[0064] Figure 11 This is a schematic diagram of the three-dimensional structure of the partition plate and the bottom plate connected in the first embodiment of the present invention (the first cutting plate, the second cutting plate, the extension plate and the blocking plate are arranged above the bottom plate);

[0065] Figure 12 yes Figure 11 Top view in ;

[0066] Figure 13 This is a schematic structural diagram of the discharge mechanism in Example 1 of the present utility model (the lateral discharge drive component and the power component are not shown, and the blocking plate is also not shown);

[0067] Figure 14 yes Figure 13 Schematic diagram of the three-dimensional structure;

[0068] Figure 15 yes Figure 14 A partial enlarged view of the installation location of the middle discharge claw;

[0069] Figure 16 yes Figure 13 A schematic diagram of the three-dimensional structure from another perspective;

[0070] Figure 17 This is a structural diagram of the connection between the horizontal discharging drive component and the longitudinal plate in the discharging mechanism of the utility model;

[0071] Figure 18 yes Figure 17 A schematic cross-sectional view of the connection between the middle output shaft connecting rod and the longitudinal plate;

[0072] Figure 19 This is a schematic structural diagram of the connection between the first cutting plate, the second cutting plate and the second connecting plate in the first embodiment of the present invention;

[0073] Figure 20 yes Figure 19 A schematic diagram of a three-dimensional structure from one perspective;

[0074] Figure 21 yes Figure 19 A schematic diagram of the three-dimensional structure from another perspective;

[0075] Figure 22 It is a structural schematic diagram of the connection between the first cutting plate, the second cutting plate and the conveying and stirring mechanism in the first embodiment of the present invention.

[0076] Including: 1, frame; 11, stand; 12, bottom plate; 121, clearance hole; 122, frame; 123, leakage hole;

[0077] 2. Stirring and conveying mechanism; 21. Partition; 211. First partition; 2111. First spiral stirring and conveying channel; 2112. Outlet of first spiral stirring and conveying channel; 2113. Inlet of first spiral stirring and conveying channel; 212. Second partition; 2121. Second spiral stirring and conveying channel; 2122. Inlet of second spiral stirring and conveying channel; 213. Arc-shaped reflux channel; 214. Arc-shaped connecting channel; 215. Reflux partition; 22. Spiral stirring and conveying channel; 23. Inlet of spiral stirring and conveying channel 24. Outlet of the spiral stirring and conveying channel; 25. Stirring assembly; 251. Arc plate; 252. Connector; 2521. Mounting plate; 2522. Vertical plate; 2523. Connecting groove; 2524. Vertical groove; 26. Stirring member; 261. First stirring protrusion; 262. Second stirring protrusion; 27. Bracket; 271. Rotating shaft; 272. Connecting plate; 273. Connecting plate; 274. U-shaped groove; 275. Strip groove; 28. Extension plate; 29. ​​Blocking plate; 291. Connecting protrusion; 292. First tension spring;

[0078] 31. First cutting plate; 32. First connecting plate; 33. Cutting plate tension spring; 341. First sleeve; 342. First screw; 343. First upper nut; 344. First lower nut; 345. First mounting plate; 346. First strip groove; 347. Tension spring mounting plate; 35. Connecting plate limiting plate; 351. Connecting plate limiting groove; 361. Pull rod; 362. Pull rod connecting plate; 363. Transmission plate; 364. Adjustment frame; 365. Pull rod limiting nut; 3631. Right transmission plate; 3632. Left transmission plate; 37. Second cutting plate; 371. Second mounting plate; 372. Second screw; 373. Second upper nut; 374. Second lower nut; 375. Second cutting plate tension spring;

[0079] 5. Discharging mechanism; 51. Discharging claw; 510. V-shaped mouth; 52. Connecting component; 521. Longitudinal plate; 5210. First longitudinal plate; 5211. Second longitudinal plate; 5212. Second through hole; 5213. First longitudinal strip groove; 5214. Second bolt; 5215. Arc groove; 5216. Cylinder; 5217. Output shaft connecting rod; 5218. Annular limiting protrusion; 522. Vertical extension plate; 53. Discharging connecting plate; 54. Blocking guide rod; 541. Cross bar; 542. Oblique rod; 543. Adjusting plate; 544. Adjusting bolt; 545. Longitudinal adjusting groove; 55. Second tension spring; 56. Transverse guide rod; 571. Rotating connecting shaft; 572. Top plate; 573. Top plate connecting plate; 58. Limiting component; 581. Guide wheel; 582. Limiting guide plate. DETAILED DESCRIPTION

[0080] The present invention will be further described below with reference to the accompanying drawings and embodiments:

[0081] Example 1: See Figures 1 to 22 As shown, a dough kneading and conveying device for a gluten machine includes a frame 1, a bottom plate 12 mounted on the frame, a partition 21, a stirring and conveying mechanism 2, and a discharging mechanism 5. The partition 24 is fixedly mounted on the top surface of the bottom plate 12 in a spiral shape. The bottom plate 12 and the partition 21 form a spiral stirring and conveying channel 22. The inlet 23 of the spiral stirring and conveying channel is arranged near the middle of the bottom plate 12, and the outlet 24 of the spiral stirring and conveying channel is arranged near the edge of the bottom plate 12.

[0082] The stirring and conveying mechanism 2 is arranged directly above the bottom plate 12. The stirring and conveying mechanism 2 includes a bracket 27 and a stirring assembly 25 mounted on the bracket 27. The stirring assembly 25 is arranged in a spiral shape and is directly opposite to the spiral stirring and conveying channel 22. A plurality of stirring components 26 are provided at the bottom of the stirring assembly 25.

[0083] A first cutting plate 31 is vertically movable above the bottom plate 12 , and the first cutting plate 31 is vertically movable and disposed at the outlet 24 of the spiral stirring and conveying channel;

[0084] The front end bottom of the discharging mechanism 5 is provided with a discharging claw 51, which is laterally movable and arranged on the left side of the first cutting plate 31, and the discharging claw 51 can be moved up and down to be close to or away from the bottom plate 12;

[0085] A driving component is also provided, and the driving component is configured to drive the stirring and conveying mechanism 2 to rotate back and forth and move up and down.

[0086] In this embodiment, during actual use, the gluten balls fall into the inlet of the spiral stirring and conveying channel one by one from above. At the same time, in this process, the bracket drives the stirring component to move downward, so that the stirring component at the bottom of the stirring component is inserted on the gluten ball, realizing a downward pressing and kneading action on the gluten ball. Then the bracket drives the stirring component to rotate an angle, and drives the gluten ball to move a certain distance toward the outlet of the spiral stirring and conveying channel through the stirring component. Then the bracket drives the stirring component to move upward to separate from the gluten ball, and then moves in the opposite direction to reset, and then moves downward, rotates, moves upward, and rotates back to its original position, and so on. The gluten ball is transported from the inlet of the spiral stirring and conveying channel toward the outlet until it exits the spiral stirring and conveying channel. The gluten dough is delivered from the outlet of the spiral stirring and conveying channel. During the stirring and kneading process, the stirring and conveying mechanism intermittently conveys the gluten dough fed into the inlet of the spiral stirring and conveying channel toward the outlet. When the stirring assembly moves downward so that the stirring component presses on the gluten dough, the stirring component can be used to press the gluten dough to achieve the kneading action of the gluten dough. When the stirring component is in the spiral stirring and conveying channel and rotates, it will drive the gluten dough to move along the spiral stirring and conveying channel and squeeze the gluten dough at the same time, achieving the kneading and intermittent conveying of the gluten dough. The repeated pressing, kneading and conveying of the gluten dough by the stirring component can further improve the taste of the gluten and make the gluten more compact during the subsequent gluten rolling process. After the gluten is delivered from the outlet of the spiral stirring and conveying channel, the first cutting plate moves downward to cut the gluten dough. After cutting, the discharge claw moves downward to press the cut gluten dough, and then moves laterally away from the partition to send it into the subsequent gluten rolling mechanism, and the subsequent gluten rolling mechanism rolls the gluten dough. At the same time, the discharging claw returns to its original position, waiting for the next gluten dough to be fed, and the cycle continues.

[0087] See also Figure 4 、 5 As shown in Figures 8 and 9, the plurality of stirring members 26 are arranged at intervals, and the stirring members include at least two stirring protrusions arranged at intervals along the extension direction of the stirring component, and the stirring protrusions include at least one first stirring protrusion 261 and at least one second stirring protrusion 262, and the first stirring protrusion 261 and the second stirring protrusion 262 are arranged at staggered intervals.

[0088] The top of the stirring protrusion is connected to the bottom surface of the stirring assembly 25. The first stirring protrusion 261 is arranged to be tilted inward from top to bottom, and the second stirring protrusion 262 is arranged to be tilted outward from top to bottom.

[0089] Each of the first stirring protrusions 261 is disposed between two adjacent second stirring protrusions 262 .

[0090] In this embodiment, the stirring members are arranged in a staggered, spaced-apart, figure-eight-shaped structure. When the stirring assembly drives the stirring members downward, the staggered figure-eight-shaped stirring members press on the gluten dough. During the downward pressure, the first stirring protrusion and the second stirring protrusion first contact the top surface of the gluten dough. Then, during the downward movement, the first stirring protrusion and the second stirring protrusion spread the gluten dough toward both sides, achieving a kneading action. After moving a certain position, the stirring members move upward. During the upward movement and separation from the gluten, the gluten will flip a certain angle so that the other side of the gluten dough faces the stirring members. After the stirring assembly is reset, it continues to move downward and continues to knead the gluten dough. The kneading effect is good. When the stirring protrusions fork the gluten dough and drive it to move, the bottom of the gluten dough will also contact the bottom plate, thereby performing a kneading action during the movement, thereby effectively improving the mouthfeel of the gluten and making the gluten more firm.

[0091] See also Figure 4 、 5 As shown in Figures 8 and 9, the bracket 27 includes a rotating shaft 271, a connecting disk 272 and a plurality of connecting plates 273 installed on the connecting disk 272. The connecting disk 272 is coaxially installed on the top of the rotating shaft 271. A clearance hole 121 is provided in the middle of the bottom plate 12. The top of the rotating shaft 271 passes through the clearance hole 121 and is arranged directly above the bottom plate 12. The stirring assembly 25 is installed on the plurality of connecting plates 273. The driving component is configured to drive the rotating shaft to rotate back and forth and move up and down, and each time it rotates a certain angle, which is generally between 5° and 15°. After rotating the predetermined angle, the rotating shaft moves up, rotates in the opposite direction to reset, and waits for the next downward movement and rotation, and repeats this cycle.

[0092] In one embodiment, the drive component is disposed below the base plate and comprises a combination of a cylinder and a motor. The cylinder drives the shaft up and down, while the motor drives the shaft back and forth. Alternatively, the cylinder drives the shaft back and forth, while the motor drives the shaft up and down via a cam. Alternatively, the drive component may comprise another structure that can achieve both up and down movement and back and forth rotation of the shaft.

[0093] When the rotating shaft moves up and down, it will synchronously drive the connecting disk, connecting plate and stirring assembly to move up and down. When the rotating shaft rotates back and forth, it will also synchronously drive the connecting disk, connecting plate and stirring assembly to rotate back and forth.

[0094] See also Figure 4 、 5As shown in Figure 8, there are at least three connecting plates 273, and the stirring assembly 25 includes multiple curved plates 251. The multiple curved plates 251 constitute a spirally arranged stirring assembly 25. The curved plates 251 are arranged on the outside of the connecting disk 272. At least one curved plate 251 is provided between adjacent connecting plates 273. The ends of the curved plates 251 are connected to the adjacent connecting plates 273, and at least one stirring member 26 is provided at the bottom of each curved plate 251.

[0095] At least two arc-shaped plates 251 are disposed between adjacent connecting plates 273 , and the plurality of arc-shaped plates 251 are spaced apart from the inside to the outside.

[0096] In this embodiment, a plurality of arc-shaped plates are arranged between adjacent connecting plates, and the plurality of arc-shaped plates are spaced apart from the inside to the outside. In this way, all the arc-shaped plates form a spiral structure, which faces the spiral stirring and conveying channel. This ensures that each time the arc-shaped plate moves downward, the stirring component at the bottom of the plate can be inserted into the gluten dough to knead the gluten dough. When the plate rotates, it can drive the gluten dough to move along the spiral stirring and conveying channel toward the outlet.

[0097] See also Figure 8 、 10 As shown, the connecting plate 273 is a U-shaped structure with an open top, and a U-shaped groove 274 is provided on the top of the connecting plate 273. The two ends of the U-shaped groove 274 are respectively connected to the inner end and the outer end of the connecting plate 273. The inner end of the connecting plate 273 is connected to the connecting disk 272, and both sides of the outer end of the connecting plate 273 are respectively provided with at least one strip-shaped through groove 275 parallel to the extension direction of the connecting plate 273. The end of the arc plate 251 is connected to the strip-shaped through groove 275 via a connecting member 252.

[0098] In this embodiment, the connecting plate is an open structure with an opening at the top, which is convenient for cleaning and reduces sanitary dead corners. At the same time, it is also convenient for installing and debugging the arc plate, adjusting the position of the arc plate, and preventing the stirring component and the partition from colliding when the arc plate moves down.

[0099] See also Figure 8 、 10 As shown, the connecting member 252 includes a mounting plate 2521 and a vertical plate 2522. The mounting plate 2521 is disposed on the side of the connecting plate 273. The mounting plate 2521 is connected to the strip-shaped through groove 275 via bolts, and the mounting plate 2521 contacts the side wall of the connecting plate 273.

[0100] The bottom of the vertical plate 2522 is connected to the end side wall of the arc-shaped plate 251, and the top of the vertical plate 2522 is connected to the mounting plate 2521 via connecting bolts;

[0101] The mounting plate 2521 is provided with a connecting groove 2523 perpendicular to the side wall of the connecting plate 273, and the upper part of the vertical plate 2522 is provided with a vertical groove 2524 facing the connecting groove 2523. The connecting bolt passes through the connecting groove 2523 and the vertical groove 2524 to connect the mounting plate 2521 and the vertical plate 2522.

[0102] In this embodiment, the provision of the strip-shaped through-slot facilitates adjustment of the position between the connector and the connecting plate, thereby adjusting the distance between the curved plate and the outer end of the connecting plate or the inclination angle between the two sides, so that the curved plate can be positioned directly opposite the spiral stirring and conveying channel, preventing the stirring assembly from colliding with the partition when moving downward, causing it to press on the gluten dough. The provision of the connecting through-slot and the vertical through-slot can adjust the height of the curved plate relative to the connecting plate and the distance between the end of the curved plate and the side of the connecting plate, facilitating adjustment of the position of the curved plate relative to the connecting plate.

[0103] See also Figure 6 、 7 As shown, the partition 21 includes a first partition 211 and a second partition 212. The first partition 211 and the second partition 212 are both fixedly mounted on the bottom plate 12 in a spiral shape. The first partition 211 is arranged on the inner side of the second partition 212.

[0104] The bottom plate 12 and the first partition plate 211 form a first spiral stirring and conveying channel 2111, and the bottom plate 12 and the second partition plate 212 form a second spiral stirring and conveying channel 2121. The outlet 2112 of the first spiral stirring and conveying channel is arranged on the opposite side of the inlet 2122 of the second spiral stirring and conveying channel.

[0105] An annular channel is also formed between the inner end of the second partition 212 and the outer end of the first partition 211, and the annular channel includes an arc-shaped reflux channel 213 and an arc-shaped connecting channel 214 that are interconnected. The arc-shaped reflux channel 213 and the arc-shaped connecting channel 214 are arranged relative to each other. The arc-shaped connecting channel 214 is arranged between the outlet 2112 of the first spiral stirring and conveying channel and the inlet 2122 of the second spiral stirring and conveying channel. The arc-shaped reflux channel 213 is arranged beside the inlet 2122 of the second spiral stirring and conveying channel to the outlet 2112 of the first spiral conveying channel.

[0106] In this embodiment, the gluten ball will fall into the inlet 2113 of the first spiral stirring and conveying channel. After the gluten ball is sent out from the outlet of the spiral stirring and conveying channel, it will enter the arc-shaped connecting channel. The stirring component will also face the annular channel. Therefore, the stirring component will move the gluten ball from the arc-shaped connecting channel toward the inlet of the second spiral stirring and conveying channel and the arc-shaped reflux channel. Part of the gluten ball will enter the second spiral stirring and conveying channel, and finally from the second spiral stirring and conveying channel, the other part will flow back to the outlet of the first spiral stirring and conveying channel through the reflux channel, and be mixed with the gluten ball sent out from the outlet of the first spiral stirring and conveying channel, and the kneading and conveying action will be performed again. In this way, the kneading time of the gluten is longer, the kneading effect is better, the gluten is tighter, and the taste of the gluten is improved.

[0107] In order to ensure the normal transportation of gluten dough in the arc connecting channel and the reflux channel, arc plates will be set facing the arc connecting channel and the reflux channel respectively to ensure that the gluten can be kneaded and transported in the corresponding channels.

[0108] See also Figure 6 、 7 As shown, a reflux partition plate is also provided, which is vertically movable and arranged above the bottom plate, and the reflux partition plate is obliquely arranged. The middle part of the reflux partition plate is arranged at the inner end of the second partition plate at the inlet of the second spiral stirring and conveying channel, the first end of the reflux partition plate is arranged in the inlet of the second spiral stirring and conveying channel, the first end of the reflux partition plate is arranged in the annular channel, and the second end of the reflux partition plate is arranged between the first partition plate and the second partition plate.

[0109] A reflux partition plate 215 is also provided, which is vertically movable and arranged above the bottom plate 12. The reflux partition plate 215 is obliquely arranged, and the middle part of the reflux partition plate 215 is arranged at the inner end of the second partition at the inlet 2122 of the second spiral stirring and conveying channel. The first end of the reflux partition plate 215 is arranged in the inlet 2122 of the second spiral stirring and conveying channel, and the second end of the reflux partition plate 215 is arranged in the annular channel, and the second end of the reflux partition plate 215 is arranged between the first partition plate 211 and the second partition plate 212.

[0110] In this embodiment, in order to ensure that part of the gluten dough enters the second spiral stirring and conveying channel and is sent out, and part of the gluten dough is then carried into the arc-shaped reflux channel, a reflux partition plate is provided. When the reflux partition plate moves downward, the gluten is cut, so that part of it enters the second spiral stirring and conveying channel and part of it enters the arc-shaped reflux channel.

[0111] The outer edge of the bottom plate 12 is provided with a frame 122, and the middle of the bottom plate 12 is provided with at least one leakage hole 123, the bottom of the leakage hole 123 is connected to the bottom surface of the bottom plate 12. A notch is provided on the frame facing the outlet of the spiral stirring and conveying channel to facilitate the delivery of gluten.

[0112] In order to ensure the effect of gluten kneading, some water will be added to ensure the kneading effect. Therefore, there will be water on the bottom plate. Therefore, the setting of the frame limits the water on the bottom plate, and the setting of the drainage holes allows the excess water to leak out from the drainage holes and be collected, making the processing environment cleaner, tidier and more environmentally friendly.

[0113] See also Figure 11 、 12 As shown, the outlet 23 of the spiral stirring and conveying channel is arranged forward, and a forward extending extension plate 28 is further provided on the partition plate 21 on the right side of the outlet 24 of the spiral stirring and conveying channel. The first cutting plate 31 is provided at the end of the outlet 24 of the spiral stirring and conveying channel and the extension plate 28;

[0114] A blocking plate 29 is further provided on the bottom plate in front of the outlet 24 of the spiral stirring and conveying channel. A stand 11 is provided on the bottom plate 12. The front end of the blocking plate 29 is rotatably connected to the stand 11, and the rear end of the blocking plate 29 is provided at the right end of the extension plate 28.

[0115] The front end of the blocking plate 29 is provided with a connecting protrusion 291 extending forward, and a first tension spring 292 is also hung on the connecting protrusion 291. The right end of the first tension spring 292 is connected to the stand 11. The first tension spring 292 pulls the blocking plate 29 to rotate counterclockwise around the stand 11, so that the left side of the rear end of the blocking plate 29 abuts against the right end surface of the extension plate 28.

[0116] When the first cutting plate moves downward, the bottom of the first cutting plate abuts against the top surface of the bottom plate, and the right end surface of the first cutting plate abuts against the left side surface of the blocking plate.

[0117] The front end of the first cutting plate is located above the blocking plate, and a bevel is provided below the front end of the first cutting plate. Therefore, when the first cutting plate moves downward, the bevel first contacts the left side of the blocking plate and pushes the blocking plate to rotate, causing the rear end of the blocking plate to rotate to the right and disengage from the extension plate. The extension plate is used to extend the outlet of the spiral stirring and conveying channel so that the outlet size does not increase due to the spiral arrangement of the partition plate, so that the outlet size of the spiral stirring and conveying channel is a set size. The setting of the blocking plate and the first tension spring can ensure that when the first cutting plate moves downward, the gluten dough in contact with the left side of the blocking plate can be cut by the first cutting plate, and when the first cutting plate moves upward and disengages from the blocking plate, the first tension spring pulls the rear end of the blocking plate to rotate to the left, thereby limiting the forward conveying trajectory of the gluten dough.

[0118] See also Figure 11 、 12 , 19 to 22, the frame 1 above the bracket 27 is further provided with a first connecting plate 32, one end of the first connecting plate 32 is rotatably connected to the frame 1, and the top of the first cutting plate 31 is connected to the other end of the first connecting plate 32; a first driving component is further provided, the first driving component drives the first connecting plate to rotate around the frame, so that the first cutting plate moves up and down;

[0119] The first cutting plate 31 is connected to the first connecting plate 32 via a first connecting member. The first connecting member includes a first sleeve 341 and a first screw 342. The side of the first sleeve 341 is connected to the first connecting plate 32, and the top of the first cutting plate 31 is connected to the bottom of the first screw 342. The top of the first screw 342 passes through the first sleeve 341 and is located directly above the first sleeve 341.

[0120] A first upper nut 343 and a first lower nut 344 are screwed onto the first screw rod 342 . The bottom surface of the first upper nut 343 abuts against the top surface of the first sleeve, and the top surface of the first lower nut 344 abuts against the bottom surface of the first sleeve.

[0121] In this embodiment, the first connecting plate is located above the bracket and does not affect the up and down movement of the bracket. In this embodiment, in order not to affect the normal movement of the subsequent discharging claw, a first connecting plate is provided to drive the first cutting plate to move up and down, and a first driving cylinder component is provided below the bottom plate. If the driving component has a motor, the first driving component can share the motor with the driving component to reduce costs. After the gluten is delivered from the outlet of the spiral stirring and conveying channel, the first driving component pulls the left end of the first connecting plate to move downward, that is, pulls the right end of the first connecting plate to rotate counterclockwise around the frame, so that when the left end of the first connecting plate moves downward, the first cutting plate is synchronously driven to move downward. The first cutting plate is located at the outlet of the spiral stirring channel. The first cutting plate moves downward and rests on the bottom plate to cut the gluten dough. Then the first driving component drives the left end of the first connecting plate to move upward, and synchronously drives the first cutting plate to move upward, realizing the self-reset of the first cutting plate.

[0122] Among them, in this embodiment, the first driving component includes a cutting plate tension spring 33 and a cutting plate driving component. The cutting plate tension spring applies a pulling force to the left end of the first connecting plate 32 to rotate upward, and the cutting plate driving component applies a driving force to the left end of the first connecting plate to move downward. Therefore, in this embodiment, the first driving component can adopt a cam mechanism, which uses the rotation of the cam mechanism to apply a downward pulling force to the first connecting plate, thereby realizing the downward movement of the left end of the first connecting plate. The cam mechanism can use the same motor (which can be the motor in the driving component) to drive the other mechanisms of the gluten machine, thereby reducing the power mechanism, saving energy consumption, and reducing costs. Of course, a cylinder can also be used to pull the first connecting plate downward without occupying the space above.

[0123] Among them, in order to ensure that the first cutting plate can cut out the shape that is most suitable for the rolling of the gluten rolling mechanism, the first cutting plate is connected by a first screw and a first sleeve. The first screw can rotate and move axially in the first sleeve, and then the first upper nut and the first lower nut are used to limit the first screw on the first sleeve, so as to facilitate the adjustment of the angle and distance of the first cutting plate relative to the outlet of the spiral stirring and conveying channel, so as to facilitate the adjustment of the cutting effect and shape of the gluten and ensure the subsequent quality of the rolled gluten. Among them, when it is necessary to adjust the angle and downward distance of the first cutting plate, the first upper nut and the second upper nut are loosened so that the first screw can rotate and move axially relative to the first sleeve. After the adjustment is completed, the first upper nut and the first lower nut are tightened so that they are respectively against the two ends of the first sleeve, so that the first screw can be limited so that the first screw will not rotate and move relative to the first sleeve. In this way, when the left end of the first connecting plate moves up and down, the first cutting plate moves up and down stably to cut the gluten dough.

[0124] See also Figures 19-21As shown, the first connecting member further includes a first mounting plate 345 , the first sleeve 341 is connected to the first connecting plate 32 via the first mounting plate 345 , and the first sleeve 341 is mounted on the side wall of the first mounting plate 345 .

[0125] In order to facilitate the installation of the first sleeve and the first connecting plate, the first sleeve is connected through the first mounting plate and the first connecting plate.

[0126] See also Figures 19-21 As shown, the first mounting plate 345 is connected to the first connecting plate 32 via two bolts;

[0127] The first mounting plate 345 is provided with two first strip-shaped grooves 346 parallel to the first connecting plate 32 , and the two bolts pass through one of the first strip-shaped grooves 346 and are connected to the first connecting plate 32 .

[0128] In this embodiment, in order to ensure that the side of the first cutting plate can still fit against the side of the outlet of the spiral stirring and conveying channel when the angle of the first cutting plate is adjusted, the first strip groove is provided to adjust the position of the first cutting plate so that the first cutting plate can contact the side wall of the spiral stirring and conveying channel, thereby ensuring that the first cutting plate can stably cut the gluten and prevent adhesion. When the position of the first cutting plate relative to the first connecting plate needs to be adjusted, the bolts are loosened to move the first mounting plate along the first strip groove, thereby adjusting the position between the first mounting plate and the first connecting plate. After the adjustment is completed, the bolts are tightened to complete the adjustment.

[0129] See also Figures 19-21 As shown, a downwardly extending tension spring hanging plate 347 is provided at the bottom of the first connecting plate 32, and the tension spring hanging plate 347 is arranged on the right side of the first cutting plate 31. There are two cutting plate tension springs 33, and the two cutting plate tension springs 33 are respectively arranged on both sides of the first connecting plate 32. The top of the cutting plate tension spring is connected to the frame hanging, and the bottom of the cutting plate tension spring is connected to the bottom of the tension spring hanging plate.

[0130] In this embodiment, in order to ensure the pulling force of the cutting plate tension spring on the first connecting plate, generally, the hanging position of the top of the cutting plate tension spring needs to be as far away from the hanging position of the first connecting plate as possible. Therefore, if the bottom of the cutting plate tension spring is directly hung on the first connecting plate, the hanging position of the top of the cutting plate tension spring needs to be relatively high, so that the height above the bottom plate will be relatively high, and the cost will be higher. Therefore, a downward tension spring hanging plate is provided at the bottom of the first connecting plate, and the top of the tension spring hanging plate is connected to the middle of the bottom surface of the first connecting plate. In this way, the distance between the top and the bottom of the cutting plate tension spring is relatively far, which can fully ensure that the cutting plate tension spring is in a stretched state, and can reduce the space occupied above, reduce the height occupancy of the equipment (other mechanisms normally need to be set under the bottom plate, which will not occupy too much space above), reduce costs, and use two cutting plate tension springs to make the first connecting plate more evenly subjected to the upward tension.

[0131] See also Figures 19-21 As shown, the frame 1 is further provided with a connecting plate limiting plate 35 , the bottom of the connecting plate limiting plate 35 is provided with a connecting plate limiting groove 351 , and the middle part of the first connecting plate 32 is movably set in the connecting plate limiting groove 351 .

[0132] In this embodiment, the right end of the first connecting plate is rotatably connected to the frame, and the first cutting plate is arranged at the left end of the first connecting plate. When the first cutting plate moves down to cut the gluten, the first connecting plate will also be affected by the feedback force of the first cutting plate. When used for a long time, the first connecting plate is prone to deformation and other problems, or there is a certain gap at the rotation connection between the first connecting plate and the frame, resulting in a slight offset in the downward position of the first cutting plate during the rotation, thereby making the cutting inaccurate. Therefore, by providing a connecting plate limiting plate and providing a connecting plate limiting groove on the chain plate limiting plate, the connecting plate can stably rotate according to the predetermined position when rotating around the frame.

[0133] See also Figures 19-21 As shown, the cutting plate driving member includes a pull rod 361, a pull rod connecting plate 362, a cutting plate power component and a transmission plate 363 (the cutting plate power component is not shown). The top of the pull rod connecting plate 362 is rotatably connected to the first connecting plate 32, and the right end of the transmission plate 32 is rotatably connected to the frame 1. The top of the pull rod 361 is connected to the bottom of the pull rod connecting plate 362, and the bottom of the pull rod 361 is rotatably connected to the left end of the transmission plate 32. The cutting plate power component is configured to drive the left end of the transmission plate 32 to move downward.

[0134] In this embodiment, the cutting plate power component and the transmission plate are located below the base plate, and the pull rod passes through the base plate and connects to the pull rod connecting plate. The cutting plate power component can be a combination of a motor and a cam. The motor drives the cam to rotate, and the bottom outer surface of the cam abuts the top surface of the transmission plate. When the cam rotates, the cam's major axis abuts the transmission plate, pushing the left end of the transmission plate downward. As the left end of the transmission plate moves downward, the pull rod moves downward, thereby driving the left end of the first connecting plate downward through the pull rod connecting plate, achieving counterclockwise rotation of the first connecting plate. When the minor axis of the cam rotates to the transmission plate, the presence of the cutting plate tension spring pulls the left end of the first connecting plate upward, causing the pull rod to move upward. In this way, the top surface of the transmission plate always contacts the bottom outer surface of the cam. In this method, a single motor drives the cam, which can also drive other mechanisms, thereby reducing the number of power components (motor or cylinder) and reducing costs. Of course, the cutting plate power component can also use other mechanisms as long as they can drive the left end of the transmission plate downward.

[0135] See also Figures 19-21 As shown, the pull rod 361 is also connected to the pull rod connecting plate 362 through an adjusting frame 364 with a hollow structure. The top of the adjusting frame 364 is connected to the bottom of the pull rod connecting plate 362. The bottom of the adjusting frame 364 is provided with a pull rod connecting hole. The top of the pull rod 361 passes through the pull rod connecting hole and is inserted into the adjusting frame 364; two pull rod limiting nuts 365 are screwed above the pull rod 361, one of the pull rod limiting nut 365 rests on the adjusting frame 364 above the pull rod connecting hole, and the top surface of the other pull rod limiting nut 365 rests on the bottom surface of the adjusting frame 364.

[0136] In this embodiment, the vertical distance between the first cutting plate and the first connecting plate can be adjusted. To ensure that the first cutting plate can stably cut the gluten after the position of the first cutting plate is adjusted, or to conveniently adjust the vertical movement distance of the first connecting plate, a hollow adjustment frame is provided, and a pull rod is directly inserted into the pull rod connection hole. Pull rod limit nuts are provided at both ends to connect and fix the pull rod and the adjustment frame. At the same time, after loosening the pull rod limit nut, the relative distance between the top of the pull rod and the first connecting plate can be adjusted. After the adjustment is completed, the two pull rod limit nuts can be tightened again. In this way, the position of the pull rod relative to the first connecting plate and the rotation angle of the first connecting plate can be adjusted.

[0137] At the same time, in order to ensure that the first connecting plate can rotate normally when the pull rod and the pull rod connecting plate move downward, the pull rod connecting plate is rotatably connected to the first connecting plate, thereby ensuring that the first connecting plate can rotate normally relative to the frame and preventing the first connecting plate from getting stuck. At the same time, the adjustment frame can also be rotatably connected to the pull rod connecting plate to further ensure the smooth rotation of the first connecting plate when the pull rod moves up and down.

[0138] See also Figures 19-21 As shown, the transmission plate 363 includes a right transmission plate 3631 and a left transmission plate 3632. The right end of the right transmission plate 3631 is rotatably connected to the frame 1, and the two ends of the left transmission plate 3632 are respectively rotatably connected to the left end of the right transmission plate 3631 and the bottom of the pull rod 361. The cutting plate power component is configured to drive the left end of the right transmission plate 3631 to move downward.

[0139] Among them, since the connection between the right end of the transmission plate and the frame will not have left and right displacement, in order to reduce the rotation amplitude of the pull rod and prevent the pull rod and the base plate from colliding, the size of the opening on the base plate is reduced (a hole needs to be opened on the base plate to make room for the pull rod). Therefore, the transmission plate adopts a left transmission plate and a right transmission plate, and the two are rotatably connected. In this way, when the right transmission plate receives the driving force of the cut-off power component, it can drive the pull rod to move downward through the left transmission plate, reducing the tilt amplitude of the pull rod during the downward movement, preventing it from contacting the base plate and getting stuck, and ensuring the smooth movement of the pull rod.

[0140] See also Figure 11 、 12 , 19 to 21, a second cutting plate 37 is further provided, and the second cutting plate 37 is connected to the first connecting plate 32 via a second connecting member, and the second cutting plate 37 is arranged between the first cutting plate 31 and the cutting plate driving member; wherein, in this embodiment, the second cutting plate is arranged between the first cutting plate and the pull rod.

[0141] The second connecting member includes a second mounting plate 371 and a second screw 372. The top of the second mounting plate 371 is connected to the first connecting plate 32. The top of the second cutting plate 37 is connected to the bottom of the second screw 372. The top of the second screw 372 is connected to the second mounting plate 371.

[0142] A second through hole is formed on the second mounting plate 371, and the top of the second screw rod 372 passes through the second through hole and is disposed above the second through hole;

[0143] A second upper nut 373 and a second lower nut 374 are threaded onto the second screw rod 372. The second upper nut 373 rests on the second mounting plate 371 above the second through hole, and the second lower nut 374 rests on the second mounting plate 371 below the second through hole. The second upper nut 373 and the second lower nut 374 connect the top of the second screw rod 372 to the second mounting plate 371.

[0144] In this embodiment, in order to improve the kneading effect of gluten, an arc-shaped reflux channel 213 is provided in the middle of the spiral stirring and conveying channel, so that part of the gluten flows back to the inlet of the spiral stirring and conveying channel and is mixed with new gluten. In order to ensure that part of the gluten can enter the arc-shaped reflux channel and part of the gluten is normally conveyed toward the outlet of the spiral stirring and conveying channel, a second cutting plate is provided and the gluten at the arc-shaped reflux channel is cut by the second cutting plate, so that part of the gluten enters the arc-shaped reflux channel to reflux and mix with new gluten, and part of the gluten is conveyed normally, thereby improving the kneading effect of the gluten and improving the taste of the gluten.

[0145] The second through hole and the second upper nut and the second lower nut are arranged so that the height and the inclination angle of the second cutting plate can be adjusted by loosening the second upper and lower nuts (after the adjustment is completed, the second upper and lower nuts can be locked), and the amount of gluten entering the arc-shaped reflux channel can be adjusted to improve the kneading effect and taste of the gluten as much as possible.

[0146] See also Figures 19-21 The top of the second mounting plate 371 is rotatably connected to the first connecting plate 32, and is further provided with a second cutting plate tension spring 375. One end of the second cutting plate tension spring 375 is connected to the second mounting plate 371, and the other end of the second cutting plate tension spring 375 is connected to the frame 1 or the cutting plate driving member. The second cutting plate tension spring 375 pulls the second cutting plate 37 to move left or right.

[0147] In this embodiment, the downward movement of the first cutting plate is set or adjusted. In order to ensure that the position of the second cutting plate is stable during its downward movement and that it can always cut the gluten, the second mounting plate is rotatably connected to the first connecting plate. In order to ensure that the second cutting plate can effectively cut the gluten, a second cutting plate tension spring is provided. The second cutting plate tension spring pulls the second cutting plate to rotate toward one side, so that the second cutting plate will partially contact the side wall of the spiral stirring and conveying channel, thereby ensuring the cutting effect. Of course, the second mounting plate can also be fixedly connected to the first connecting plate. In this way, when the first connecting plate rotates, the downward cutting position of the second cutting plate is relatively fixed, and the inclination angle of the second cutting plate is inconvenient to adjust.

[0148] In this embodiment, the left end of the second cutting plate tension spring 375 is connected to the second mounting plate 371, which is in turn connected to the adjustment frame 364. The second cutting plate tension spring pulls the bottom of the second cutting plate to the right, causing the middle portion of the second cutting plate to rest against the side wall of the spiral stirring and conveying channel. Part of the second cutting plate is removed from the spiral stirring and conveying channel, while the remaining portion is located in the arc-shaped reflux channel. This allows some gluten to enter the spiral stirring and conveying channel normally and be transported toward the outlet, while the remaining portion enters the arc-shaped reflux channel and is transported toward the inlet of the spiral stirring and conveying channel to mix with new gluten, ensuring stable cutting of the gluten within the spiral stirring and conveying channel.

[0149] See also Figures 1 to 3 , 13 to 18, the discharging mechanism includes a discharging claw 51, a connecting component 52 and a discharging drive component. The rear end of the connecting component 52 is laterally slidably arranged on the frame 1, and the discharging claw 51 is arranged on the left side of the first cutting plate 31. The top of the discharging claw 51 is connected to the front end of the connecting component 52, and the connecting component 52 is rotatably connected to the frame 1;

[0150] The discharging drive component is configured to drive the front end of the connecting component 52 to move up and down and to drive the connecting component 52 to move laterally;

[0151] The top of the discharge claw 51 is connected to the front end of the connecting member 52 via the discharge connecting plate 53;

[0152] A blocking guide rod 54 is provided on the frame at the front end of the discharge connecting plate 53;

[0153] The middle part of the discharge connecting plate 53 is rotatably connected to the front end of the connecting component 52. A second tension spring 55 is also hung on the connecting component 52. The front end of the second tension spring 55 is hung and connected to the top of the discharge connecting plate 53. The second tension spring 55 pulls the top of the discharge connecting plate 53 to rotate backward and makes the lower front side of the discharge connecting plate 53 rest against the blocking guide rod 54.

[0154] In the present invention, the discharging claw is arranged to move laterally between the first cutting plate and the entrance of the gluten rolling mechanism. When in use, the gluten is cut by the first cutting plate, and the cut gluten is on the bottom plate on the left side of the first cutting plate. At this time, the discharging claw is directly above the cut gluten, and then the discharging driving component drives the front end of the connecting component to move downward. At this time, the discharging claw moves downward, so that the bottom of the discharging claw is against the gluten, and the discharging claw presses the gluten on the bottom plate. Then the discharging driving component drives the connecting component to move to the left, driving the gluten to move to the left, so that it moves to the entrance of the gluten rolling mechanism. The discharging driving component then drives the front end of the connecting component to move upward, driving the discharging claw to move upward to separate from the gluten, and then drives it to move to the right back to the upper left side of the first cutting plate, waiting for the next gluten to be delivered, and so on.

[0155] The presence of the second tension spring applies a backward pulling force to the top of the discharging connecting plate, thereby causing the bottom of the discharging connecting plate and the discharging claw to rotate forward, causing the discharging connecting plate to rest against the blocking guide rod. This allows the discharging connecting plate to always be in contact with the blocking guide rod during the left-right movement of the grabbing claw (in this embodiment, the grabbing claw moves to the left and drives the gluten to move to the left as an example). In this embodiment, the blocking guide rod 54 includes a crossbar 541 and an inclined rod 542. The right end of the inclined rod 542 is connected to the left end of the crossbar 541. The inclined rod 542 is tilted forward from right to left, and the crossbar is arranged parallel to the lateral movement direction of the connecting component. In this way, when the grabbing claw moves laterally, it moves to the left and also moves forward at the same time, thereby driving the gluten to move toward the left front. When the grabbing claw moves to the right, it returns to its original position.

[0156] See also Figures 13-18 As shown, the frame 1 is provided with a transverse guide rod 56, and the rear end of the connecting member 52 is connected to the transverse guide rod 56 in a rotatable and transversely sliding manner;

[0157] The discharging claw 51 is arranged below the front side of the transverse guide rod 56 .

[0158] The discharging drive component includes a horizontal discharging drive component and a vertical discharging drive component, and the horizontal discharging drive component is configured to drive the connecting component to move horizontally along the frame, so that the discharging claw is positioned close to or away from the first cutting plate;

[0159] The vertical discharging driving component is configured to drive the front end of the connecting component to move up and down, so that the bottom of the discharging claw is arranged close to or away from the top surface of the bottom plate.

[0160] In this embodiment, the horizontal discharging drive component is connected to the rear end of the connecting component on the rear side of the horizontal guide rod, and is used to drive the connecting component to slide horizontally along the horizontal guide rod. The vertical discharging drive component is arranged between the horizontal guide rod and the grabbing claw, and is used to drive the front end of the connecting component to rise and fall.

[0161] See also Figure 13 、 14 As shown, the connecting member 52 includes a longitudinal plate 521 and a vertical extension plate 522. The rear end of the longitudinal plate 521 is connected to the frame 1 in a transverse sliding manner, and the longitudinal plate 521 is rotatably connected to the frame 1. The top of the vertical extension plate 522 is connected to the front end of the longitudinal plate 521.

[0162] The middle portion of the discharge connecting plate 53 is rotatably connected to the lower side wall of the vertical extension plate 522 , and the rear end of the second tension spring 55 is hooked and connected to the longitudinal plate 521 .

[0163] Among them, the rear end of the longitudinal plate is slidably connected to the transverse guide rod, and the longitudinal plate and the transverse guide rod are rotatably connected, and the vertical extension plate is used to connect with the discharge connection plate.

[0164] In one embodiment, the transverse driving component is a cylinder, which is arranged on the rear side of the transverse guide rod, with the left end of the cylinder rotatably connected to the frame, and the output shaft of the cylinder rotatably connected to the rear end of the longitudinal plate.

[0165] Alternatively, an arc groove 5215 is provided at the rear end of the longitudinal plate, the arc groove is provided coaxially with the transverse guide rod, the left end of the cylinder 5216 is directly fixedly connected to the frame, the cylinder is provided flatly with the transverse guide rod, an output shaft connecting rod is provided on the output shaft of the cylinder, the output shaft connecting rod 5217 is inserted into the arc groove, annular limiting protrusions are provided at both ends of the output shaft connecting rod, and two annular limiting protrusions 5218 are provided on the left and right sides of the longitudinal plate respectively, so that when the cylinder output shaft extends and retracts, the longitudinal plate can be driven to move along the transverse guide rod through the corresponding annular limiting protrusions. When the longitudinal plate needs to rotate around the transverse guide rod, since the output shaft connecting rod is in the arc groove, when the longitudinal plate rotates, the arc groove rotates around the output shaft connecting rod, which will not affect the rotation of the longitudinal plate and can also enable the normal transverse movement of the longitudinal plate, such as Figure 17 、 18 More preferably, a bearing can be mounted on the output shaft connecting rod between the two ring-limiting protrusions, with the outer surface of the bearing contacting the arcuate groove, thereby making the rotation of the longitudinal plate smoother and more stable. Of course, other structures are also possible, which can drive the longitudinal plate to move along the transverse guide rod while still allowing the longitudinal plate to rotate around the transverse guide rod to a certain angle.

[0166] See also Figure 13 、 14As shown in Figure 16, the vertical discharging driving component adopts a rotating coupling 571, a top plate 572, a top plate connecting plate 573 and a power component (the power component is not shown in the figure), the rotating coupling 571 is arranged parallel to the front side and below the transverse guide rod 56, the rotating coupling 571 is rotatably connected to the frame 1, and the power component drives the rotating coupling 571 to rotate back and forth (the power component can be a motor, which drives the rotating coupling to rotate through the motor; or a cylinder can be used, which is connected to the rotating coupling through a rod, one end of the rod is connected to the rotating coupling, and the other end is connected to the cylinder output shaft, so that the cylinder output shaft extends and retracts, and drives the rotating coupling to rotate back and forth through the rod), the top plate 572 is arranged parallel to the front side of the rotating coupling 573, the top plate is connected to the rotating coupling 571 through the top plate connecting plate 573, the top plate 572 is between the transverse guide rod 56 and the vertical extension plate 522, and the top plate 572 is below the longitudinal plate 521. Under normal circumstances, due to the weight of the grabbing claw, longitudinal plate, grabbing connecting plate and vertical extension plate, the front end of the longitudinal plate will rotate downward, so that the grabbing claw is close to the bottom plate or rests on the bottom plate (rests on the gluten, at this time the top plate rotates downward away from the longitudinal plate). In this way, when the horizontal driving component drives the longitudinal plate to move to the left, the gluten can be transported to the left through the grabbing claw. When the gluten is conveyed, the power component drives the rotating coupling to rotate, driving the top plate to move upward, thereby pushing the longitudinal plate to rotate around the transverse guide rod, and causing the front end of the longitudinal plate to move upward, so that the grabbing claw moves upward and separates from the gluten, and then the transverse driving component drives the longitudinal plate and the grabbing claw to move to the right and reset, and move to the top of the next gluten at the outlet of the conveying and cutting mechanism (when the longitudinal plate moves to the right, it rests on the top surface of the top plate, and the top plate limits the front end of the longitudinal plate to move downward, so that when the grabbing claw moves to the right, the grabbing claw is always away from the bottom plate, and will not contact the bottom plate or the gluten at the outlet of the conveying and cutting mechanism at the right end). When the gluten needs to be fed to the left, the power component drives the rotating coupling to rotate in the opposite direction, driving the top plate to move downward and separate from the longitudinal plate, and through the dead weight of the longitudinal plate, the grabbing claw and the grabbing connecting plate, the front end of the longitudinal plate rotates downward, so that the bottom of the grabbing claw is directly pressed on the gluten, and then the transverse driving component repeats the above steps to drive the gluten to move to the left.

[0167] See also Figure 13 、 14 As shown, the rear end of the connecting component 52 is provided with a limiting component 58 extending backward, and the limiting component 58 is arranged on the rear side of the transverse guide rod 56. A guide wheel 581 is rotatably installed at the rear end of the limiting component 58, and a limiting guide plate 582 is provided on the frame 1. When the front end of the connecting component 52 rotates downward, the top outer surface of the guide wheel 581 abuts against the bottom surface of the limiting guide plate 582.

[0168] In this embodiment, by providing a guide wheel and a limiting guide plate, when the grabbing claw moves downward, the limiting component and the guide wheel move upward, and the guide wheel abuts the bottom surface of the limiting guide plate, which can limit the downward pressure distance of the grabbing claw, thereby limiting the force of the grabbing claw on the gluten. When the grabbing claw presses on the gluten, the grabbing claw applies an appropriate amount of pressure, the pressure is not excessive, but the gluten can be driven to the left for transportation. Moreover, depending on whether the bottom plate is tilted, the corresponding limiting guide plate can also be configured to adapt to the bottom plate, so that the grabbing claw always abuts on the gluten, ensuring the stability of the gluten's movement.

[0169] The distance between the front end of the connecting component and the transverse guide rod is greater than the distance between the rear end of the limiting component and the transverse guide rod, that is, the length from the connecting component to the transverse guide rod is greater than the length from the rear end of the limiting component to the transverse guide rod.

[0170] In this way, when the longitudinal plate is not subjected to the upward thrust of the vertical discharge drive component, the front end of the longitudinal plate will move downward, pressing on the gluten and limiting the gluten, so that when the grabbing claw moves to the left, it can drive the gluten to move.

[0171] See also Figures 1 to 3 As shown in Figures 14 and 15, the blocking guide rod 54 extends from right to left, and the blocking guide rod 54 is installed on the stand 11.

[0172] The blocking guide rod 54 is connected to the stand 11 via an adjustment plate 543;

[0173] The right end of the blocking guide rod 54 is installed on the rear end surface of the adjustment plate 543. Two adjustment bolts 544 are arranged at intervals on the vertical frame 11. The adjustment plate 543 is provided with a longitudinal adjustment slot 545 facing the adjustment bolt 544. The adjustment bolt 544 passes through the longitudinal adjustment slot 545 and is connected to the vertical frame 11. The adjustment bolt 544 limits the adjustment plate 543 to the vertical frame 11.

[0174] In this embodiment, the blocking guide rod is connected to the stand via an adjustment plate, which has a longitudinal adjustment slot formed in the adjustment plate. This allows the fore-aft position of the blocking guide rod to be adjusted. If the gluten size varies and the middle of the gluten is positioned slightly further back, the adjustment plate can be moved backward, thereby moving the blocking guide rod backward a certain distance. Since the blocking guide rod restricts the longitudinal position of the gripping claw, the gripping claw will also move backward when the blocking guide rod moves backward, thereby adapting to gluten of different sizes. Similarly, if the middle of the gluten is positioned slightly forward (the position of the middle of the gluten varies due to different gluten lengths), the adjustment plate can be moved forward, causing the blocking guide rod to move forward a certain distance, thereby adjusting the longitudinal position of the gripping claw.

[0175] In this embodiment, the rear end of the crossbar is connected to the adjustment plate, and the right end of the diagonal rod is connected to the left end of the crossbar. The diagonal rod is arranged to tilt forward from right to left. In this way, when the grabbing claw moves the gluten to the left, it also moves the gluten forward. Of course, the shape of the blocking guide rod can also be other, and the choice can be based on actual conditions.

[0176] See also Figure 13 、 14 As shown, the longitudinal plate 521 includes a first longitudinal plate 5210 and a second longitudinal plate 5211. The rear end of the second longitudinal plate 5211 is slidably connected to the frame 1, and the second longitudinal plate 5211 is rotatably connected to the frame 1. The rear end of the first longitudinal plate 5210 is connected to the second longitudinal plate 5211, and the top of the vertical extension plate 522 is connected to the front end of the first longitudinal plate 5210.

[0177] The second longitudinal plate 5211 is provided with a plurality of second through holes 5212 spaced apart from each other from front to back. The first longitudinal plate 5210 is provided with a first longitudinal strip through slot 5213. The first longitudinal strip through slot 5213 is arranged parallel to the extension direction of the first longitudinal plate 5210 and is arranged near the rear end of the first longitudinal plate 5210.

[0178] Second bolts 5214 are inserted into at least two of the second through holes 5212 . The second bolts 5214 pass through the first longitudinal strip-shaped through slots 5213 to connect the first longitudinal plate 5210 and the second longitudinal plate 5211 .

[0179] Furthermore, due to the presence of the second tension spring, it pulls the bottom of the discharging connecting plate to rotate forward, so that the discharging connecting plate is always in contact with the blocking guide rod. Since the blocking guide rod adjusts its front and rear positions through the adjusting plate, after the front and rear positions of the blocking guide rod are adjusted, if the front end position of the longitudinal plate is not adjusted, the inclination angle of the discharging connecting plate will be relatively large, which will cause the inclination angle of the discharging connecting plate to be too large. In this way, the contact depths between the front and rear ends of the bottom of the discharging connecting plate and the gluten are different, resulting in different gripping forces of the discharging claws on the gluten. The gripping force on the front side may be large and the gripping force on the rear side may be small, or the gripping force on the rear side may be large and the gripping force on the front side may be small. In this way, when the discharging claw drives the gluten to move to the left, the gluten on the side with small gripping force may be separated from the gripping claw, resulting in positional offset of the gluten after transportation, and incorrect position when the gluten is subsequently rolled, resulting in poor gluten rolling effect. Therefore, the longitudinal plate is composed of a first longitudinal plate and a second longitudinal plate, and the first longitudinal plate can adjust the distance between it and the transverse guide rod through the first longitudinal strip groove, that is, adjust the relative distance between the grabbing claw and the blocking guide rod, thereby ensuring the stability and quality of the grabbing claw in grabbing the gluten and ensuring the movement stability of the gluten.

[0180] See also Figure 14、 15 As shown, the discharging claw 51 is a wave-shaped or W-shaped structure.

[0181] The discharge claw does not adopt a flat structure, so that the discharge claw presses on the gluten as much as possible, so that the force on the gluten is more even when the gripping claw drives the gluten to move, preventing the gluten from detaching from the bottom of the gripping claw.

[0182] See also Figure 14 、 15 As shown, the bottom of the discharge claw 51 is provided with a plurality of V-shaped openings 510 at intervals. The arrangement of the V-shaped openings allows a V-shaped tip to be formed between adjacent V-shaped openings, which can be inserted into the gluten, ensuring that when the discharge claw moves, there is no relative slippage between the discharge claw and the gluten, which would cause the gluten to fall out of the discharge claw.

[0183] In the present invention, a stirring and conveying mechanism is used to knead and convey the gluten dough in a spiral stirring and conveying channel to improve the taste of the gluten. In this process, the second cutting plate is used to separate the gluten, so that part of the gluten flows back and is mixed with new gluten to be kneaded here. The gluten sent out from the outlet of the spiral stirring and conveying channel is cut into corresponding shapes by the first cutting plate, and the cut gluten is stably sent to the subsequent gluten rolling mechanism through the discharging mechanism for rolling the gluten. In this way, the gluten can be made firmer and the taste of the gluten can be improved without taking up more space for kneading.

[0184] In the description of this utility model, it should be understood that the terms "upper," "lower," "top," "bottom," "inner," "outer," etc., indicating orientations or positional relationships, are based on the orientations or positional relationships shown in the accompanying drawings and are intended solely to facilitate the description of this utility model and simplify the description. They do not indicate or imply that the devices or components referred to must have a specific orientation, be constructed, or operate in a specific orientation. Therefore, they should not be construed as limitations on this utility model. In the description of this utility model, "plurality" means two or more, unless otherwise expressly and specifically defined.

[0185] In this utility model, unless otherwise clearly specified or limited, the terms "installed", "connected", "connected", "fixed" and the like should be understood in a broad sense. For example, they can be fixedly connected, detachably connected, or integrated; they can be mechanically connected or electrically connected; they can be directly connected or indirectly connected through an intermediate medium. For example, the two can form a mechanical abutment or abutment connection through abutment or contact. The two can also be directly hung or hung through an intermediate medium. It can also be the internal connection of two elements or the interaction relationship between two elements. For ordinary technicians in this field, the specific meanings of the above terms in this utility model can be understood according to specific circumstances.

Claims

1. A dough kneading and conveying device for a gluten machine, characterized in that: The machine comprises a frame, a bottom plate mounted on the frame, a partition, a stirring and conveying mechanism, and a discharging mechanism. The partition is fixedly mounted on the top surface of the bottom plate in a spiral shape. The bottom plate and the partition form a spiral stirring and conveying channel. The inlet of the spiral stirring and conveying channel is arranged near the middle of the bottom plate, and the outlet of the spiral stirring and conveying channel is arranged near the edge of the bottom plate. The stirring and conveying mechanism is arranged directly above the bottom plate, and includes a bracket and a stirring assembly mounted on the bracket. The stirring assembly is arranged in a spiral shape and is arranged directly opposite the spiral stirring and conveying channel. A plurality of stirring components are provided at the bottom of the stirring assembly. A first cutting plate is vertically movable above the bottom plate, and the first cutting plate is movable up and down and is arranged at the outlet of the spiral stirring and conveying channel; A discharging claw is provided at the bottom of the front end of the discharging mechanism, and the discharging claw is arranged to move laterally on the left side of the first cutting plate, and the discharging claw can move up and down to be close to or away from the bottom plate; A driving component is also provided, and the driving component is configured to drive the stirring and conveying mechanism to reciprocate and move up and down.

2. The dough kneading and conveying device of the gluten machine according to claim 1, characterized in that: The plurality of stirring members are arranged at intervals, each of the stirring members includes at least two stirring protrusions arranged at intervals along the extension direction of the stirring assembly, the stirring protrusions include at least one first stirring protrusion and at least one second stirring protrusion, and the first stirring protrusion and the second stirring protrusion are arranged at intervals in a staggered manner; The top of the stirring protrusion is connected to the bottom surface of the stirring assembly, the first stirring protrusion is arranged to be inclined inward from top to bottom, and the second stirring protrusion is arranged to be inclined outward from top to bottom; And / or, each of the first stirring protrusions is arranged between two adjacent second stirring protrusions.

3. The dough kneading and conveying device for a gluten machine according to claim 1, characterized in that: The bracket includes a rotating shaft, a connecting plate, and a plurality of connecting plates mounted on the connecting plate. The connecting plate is coaxially mounted on the top of the rotating shaft. A clearance hole is provided in the middle of the bottom plate. The top of the rotating shaft passes through the clearance hole and is arranged directly above the bottom plate. The stirring assembly is mounted on a plurality of the connecting plates, and the driving component is configured to drive the rotating shaft to rotate back and forth and move up and down.

4. The dough kneading and conveying device for a gluten machine according to claim 3, characterized in that: There are at least three connecting plates, and the stirring assembly includes multiple curved plates, which form a spirally arranged stirring assembly. The curved plates are arranged on the outside of the connecting disk, and at least one curved plate is arranged between adjacent connecting plates. The ends of the curved plates are connected to the adjacent connecting plates, and at least one stirring component is provided at the bottom of each curved plate. And / or, at least two arc-shaped plates are arranged between adjacent connecting plates, and the plurality of arc-shaped plates are arranged at intervals from the inside to the outside.

5. The dough kneading and conveying device for a gluten machine according to claim 4, characterized in that: The connecting plate is a U-shaped channel steel with an open top, and a U-shaped groove is provided on the top of the connecting plate. The two ends of the U-shaped groove are respectively connected to the inner end and the outer end of the connecting plate. The inner end of the connecting plate is connected to the connecting plate. Both sides of the outer end of the connecting plate are respectively provided with at least one strip-shaped through groove parallel to the extension direction of the connecting plate. The ends of the arc-shaped plates are connected to the strip-shaped through grooves via connecting pieces. And / or, the connecting member includes a mounting plate and a vertical plate, the mounting plate is arranged on a side of the connecting plate, the mounting plate is connected to the strip-shaped through groove via bolts, and the mounting plate contacts the side wall of the connecting plate; The bottom of the vertical plate is connected to the end side wall of the arc-shaped plate, and the top of the vertical plate is connected to the mounting plate via connecting bolts; The mounting plate is provided with a connecting groove perpendicular to the strip groove, and the upper part of the vertical plate is provided with a vertical groove facing the connecting groove. The connecting bolt passes through the connecting groove and the vertical groove to connect the mounting plate and the vertical plate.

6. The dough kneading and conveying device for a gluten machine according to claim 1, characterized in that: The partition includes a first partition and a second partition, the first partition and the second partition are both fixedly mounted on the bottom plate in a spiral shape, and the first partition is arranged on the inner side of the second partition; The bottom plate and the first partition plate form a first spiral stirring and conveying channel, and the bottom plate and the second partition plate form a second spiral stirring and conveying channel. The outlet of the first spiral stirring and conveying channel is arranged on the opposite side of the inlet of the second spiral stirring and conveying channel. An annular channel is also formed between the inner end of the second partition and the outer end of the first partition, and the annular channel includes an arc-shaped reflux channel and an arc-shaped connecting channel that are interconnected. The arc-shaped reflux channel is arranged opposite to the arc-shaped connecting channel. The arc-shaped connecting channel is arranged between the outlet of the first spiral stirring and conveying channel and the inlet of the second spiral stirring and conveying channel. The arc-shaped reflux channel is arranged beside the inlet of the second spiral stirring and conveying channel to the outlet of the first spiral stirring and conveying channel.

7. The dough kneading and conveying device for a gluten machine according to claim 6, characterized in that: A reflux partition plate is also provided, which is vertically movable and arranged above the bottom plate. The reflux partition plate is obliquely arranged. The middle part of the reflux partition plate is arranged at the inner end of the second partition plate at the inlet of the second spiral stirring and conveying channel. The first end of the reflux partition plate is arranged in the inlet of the second spiral stirring and conveying channel. The first end of the reflux partition plate is arranged in the annular channel, and the second end of the reflux partition plate is arranged between the first partition plate and the second partition plate.

8. The dough kneading and conveying device for a gluten machine according to claim 1, characterized in that: A first connecting plate is further provided on the frame above the bracket, one end of the first connecting plate is rotatably connected to the frame, and the top of the first cutting plate is connected to the other end of the first connecting plate; a first driving component is further provided, the first driving component drives the first connecting plate to rotate around the frame, so that the first cutting plate moves up and down; The first cutting plate is connected to the first connecting plate via a first connecting member, the first connecting member comprising a first mounting plate, a first sleeve, and a first screw, the first mounting plate being connected to the first connecting plate via bolts, the first mounting plate being provided with two first strip grooves parallel to the first connecting plate, the two bolts respectively passing through one of the first strip grooves to connect to the first connecting plate; The first sleeve is mounted on a side wall of the first mounting plate, the first cutting plate is connected to the bottom of the first screw, and the top of the first screw passes through the first sleeve and is arranged directly above the first sleeve; A first upper nut and a first lower nut are screwed onto the first screw rod. The bottom surface of the first upper nut abuts against the top surface of the sleeve, and the top surface of the first lower nut abuts against the bottom surface of the sleeve.

9. The dough kneading and conveying device for a gluten machine according to claim 8, characterized in that: The outlet of the spiral stirring and conveying channel is arranged forward, and an extension plate extending forward is further provided on the partition plate on the right side of the outlet of the spiral stirring and conveying channel, and the first cutting plate is provided at the outlet of the spiral stirring and conveying channel and the end of the extension plate; A blocking plate is further provided on the bottom plate at the front side of the outlet of the spiral stirring and conveying channel, and a vertical frame is provided on the bottom plate. The front end of the blocking plate is rotatably connected to the vertical frame, and the rear end of the blocking plate is provided at the right end of the extension plate; The front end of the blocking plate is provided with a connecting protrusion extending forward, and a first tension spring is also hung on the connecting protrusion. The right end of the first tension spring is connected to the vertical frame. The first tension spring pulls the blocking plate to rotate counterclockwise around the vertical frame, so that the left side of the rear end of the blocking plate abuts against the right end surface of the extension plate; And / or, when the first cutting plate moves downward, the bottom of the first cutting plate abuts against the top surface of the bottom plate, and the right end surface of the first cutting plate abuts against the left side surface of the blocking plate.

10. The dough kneading and conveying device for a gluten machine according to claim 1, characterized in that: The discharging mechanism includes a discharging claw, a connecting component and a discharging driving component, wherein the rear end of the connecting component is laterally slidably arranged on the frame, the discharging claw is arranged on the left side of the first cutting plate, and the top of the discharging claw is connected to the front end of the connecting component; The discharging driving component is configured to drive the front end of the connecting component to move up and down and to drive the connecting component to move laterally.

11. The dough kneading and conveying device for a gluten machine according to claim 10, characterized in that: The top of the discharge claw is connected to the connecting component via a discharge connecting plate; The connecting member includes a longitudinal plate and a vertical extension plate, the rear end of the longitudinal plate is connected to the frame in a transverse sliding manner, and the rear end of the longitudinal plate is connected to the frame in a rotational manner, and the top of the vertical extension plate is connected to the front end of the longitudinal plate; A blocking guide rod is provided on the frame at the front end of the discharging connecting plate; The middle part of the discharging connecting plate is rotatably connected to the vertical extension plate, and a second tension spring is hung on the longitudinal plate. The front end of the second tension spring is hung and connected to the top of the discharging connecting plate. The second tension spring pulls the top of the discharging connecting plate to rotate backward and makes the lower front side of the discharging connecting plate rest against the blocking guide rod.

12. The dough kneading and conveying device for a gluten machine according to claim 10, characterized in that: The discharging drive component includes a horizontal discharging drive component and a vertical discharging drive component, and the horizontal discharging drive component is configured to drive the connecting component to move horizontally along the frame, so that the discharging claw is positioned close to or away from the first cutting plate; The vertical discharging driving component is configured to drive the front end of the connecting component to move up and down, so that the bottom of the discharging claw is arranged close to or away from the top surface of the bottom plate.

13. The dough kneading and conveying device for a gluten machine according to claim 10, characterized in that: The rear end of the connecting component is provided with a limiting component extending backward, and the rear end of the limiting component is rotatably mounted with a guide wheel. The frame is provided with a limiting guide plate. When the front end of the connecting component rotates downward, the top outer surface of the guide wheel abuts against the bottom surface of the limiting guide plate.

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