Microcrystalline cellulose feeding and mixing all-in-one machine for collagen sausage casing production

Abstract

The present application relates to the technical field of stirring control system, specifically to a microcrystalline cellulose feeding and mixing all-in-one machine for collagen sausage casing production, which comprises a storage tank, a feeding port is installed on the top plate of the storage tank, the storage tank is rotatably installed on a mounting frame one, a partition is arranged inside the storage tank, a feeding control mechanism is rotatably connected to the surface of the partition, a driving motor is installed on the top plate of the storage tank, and a rotating shaft is drivingly connected to the power output end of the driving motor; the beneficial effects are as follows: the microcrystalline cellulose feeding and mixing all-in-one machine for collagen sausage casing production proposed in the present application temporarily stores materials with a fixed value through the feeding control mechanism, the material knocking mechanism knocks the periphery of the feeding control mechanism when the temporarily stored materials are fed, so as to avoid the insufficient feeding caused by the adhesion of the materials to the inner wall of the feeding control mechanism, and the inside of the storage tank is additionally provided with a material turning part to turn the materials at the bottom of the storage tank upwards, so as to avoid the bottom materials from being stacked for a long time to form a sheet shape.

Description

Technical Field

[0001] This invention relates to the field of stirring control system technology, specifically to an integrated machine for feeding and mixing microcrystalline cellulose for collagen casing production. Background Technology

[0002] Collagen casings are generally considered to be a type of casing made from thickened skin and other materials. They are helpful in the production of various foods. For example, the outer layer of grilled sausages, which is often eaten in daily life, has a relatively uniform diameter and is made from this type of casing. It is generally believed that it is made by filling animal small intestines with intestinal skin and inner mucosa, and then further processing it through different flavoring methods. This substance is also widely used in daily life.

[0003] In existing technologies, the collagen preparation process generally includes the following steps: Two or three layers of cowhide, cured with lime and caustic soda in a certain proportion, are washed, acidified, and washed again to form transparent, swollen block-shaped hides. These are then granulated, chopped, and defiberized into sheet-like collagen fibers of a certain thickness. These fibers are then kneaded and sheared into clumps of collagen fibers using a mixing machine. Finally, they are filtered and combed through a filter press to form round, strip-shaped fiber bundles. This completes the preparation process of the sausage casing collagen. During this process, microcrystalline cellulose (MCC) needs to be weighed, added to high-temperature water for dispersion and soaking for a period of time, and then cooled to room temperature for later use.

[0004] However, each time microcrystalline cellulose is processed, it is necessary to weigh it separately. After the microcrystalline cellulose is put into the soaking tank, some of it will adhere to the inner wall of the container, resulting in the amount of microcrystalline cellulose added not meeting the standard. In addition, when the container containing a large amount of microcrystalline cellulose is replenished, there is often some material left at the bottom of the container. When replenishing, the material at the bottom is often compacted into flakes and does not fall out of the feeding port. Summary of the Invention

[0005] The purpose of this invention is to provide an integrated machine for feeding and mixing microcrystalline cellulose for collagen casing production, so as to solve the problems mentioned in the background art.

[0006] To achieve the above object, the present invention provides the following technical solutions: A microcrystalline cellulose feeding and mixing integrated machine for the production of collagen casings, comprising a storage tank. A feeding port is installed on the top plate of the storage tank. The storage tank is rotationally installed on a first mounting frame. A partition is provided inside the storage tank. A feeding control mechanism is rotatably connected to the surface of the partition. A driving motor is installed on the top plate of the storage tank. The power output end of the driving motor is传动连接 with a rotating shaft. A material turning mechanism, a vibrating mechanism, and an extended stirring mechanism are provided on the shaft body of the rotating shaft. The material turning mechanism is inside the storage tank, the vibrating mechanism is below the storage tank, and the extended stirring mechanism is below the vibrating mechanism.

[0007] Preferably, the storage tank has a "convex" - shaped frame structure. A sealing cover is sleeved and screwed at the top of the feeding port. And there are two groups of driving motors, which are symmetrically distributed about the center of the guiding slide plate. An installation port is installed on the surface of the partition. A sealing bearing is installed inside the installation port, and the sealing bearing is sleeved on the shaft body of the feeding control mechanism.

[0008] Preferably, the first mounting frame includes a base plate, a clamping plate, side plates, a limiting shaft, and a rotating tube. The base plate has an "I" - shaped plate structure. Side plates are installed at both ends of the base plate. The clamping plates and the side plates correspond one by one. The clamping plates are fixed to the bottom surface of the side plates. The clamping plates have a "C" - shaped plate structure. Bolts are installed on the two parallel - distributed side plates of the clamping plate. The limiting shaft is fixed between the two side plates. The rotating tube is movably sleeved outside the limiting shaft. A flat surface is provided on the outer ring surface of the rotating tube. The storage tank is fixed on the flat surface. And an insertion - type limiting mechanism is provided between the storage tank and one side plate for limiting the placement position of the storage tank.

[0009] Preferably, the insertion - type limiting mechanism includes clamping grooves, clamping plates, through - holes, a second traction plate, through - openings, limiting columns, springs, and handles. There are two groups of clamping grooves, which are parallel. And both groups of clamping grooves are opened on the outer wall of the storage tank. The through - holes and the clamping grooves correspond one by one. The through - holes are opened on the surface of one side plate. The clamping plates are movably inserted into the through - holes, and the clamping plates pass through the through - holes and are inserted into the clamping grooves. The two groups of clamping plates are respectively fixed at both ends of the second traction plate. The through - openings are opened on the surface of the second traction plate. The limiting columns have a "T" - shaped column structure. The limiting columns penetrate through the through - openings and are fixed on the surface of one side plate. And the springs are sleeved on the column bodies of the limiting columns. The handles are fixed on the surface of the second traction plate.

[0010] It should be noted that in the original Chinese text, the phrase "传动连接" should be accurately translated according to the specific context. Here, a more appropriate term like "driven connection" or "transmission connection" can be used depending on the actual mechanical relationship. The above translation is for reference only.Preferably, the feeding control mechanism includes a rotating handle, a rotating ring, a material leakage port, a screwing handle, and a temporary storage hopper. The bottom end of the rotating handle is fixed to the inner ring of the sealing bearing. The top end of the rotating handle penetrates through the top plate of the storage tank and is connected to the screwing handle. The rotating ring is sleeved and fixed on the shaft body of the rotating handle. The rotating ring is located above the partition plate. A rubber ring is provided at the bottom edge of the rotating ring, and the rubber ring is clamped between the rotating ring and the partition plate. Multiple material leakage ports are provided on the surfaces of the rotating ring and the partition plate. By rotating the rotating handle, the material leakage ports on the surfaces of the rotating ring and the partition plate are misaligned. The temporary storage hopper is fixed to the bottom surface of the partition plate. The temporary storage hopper has a frustum-shaped frame structure. An extended force arm is provided on the surface of the screwing handle.

[0011] Preferably, the extended force arm includes a storage groove, an extension handle, a first sliding groove, and a first stopper. There are multiple groups of storage grooves. Each group of storage grooves has two. The two storage grooves are parallel and are opened on the side wall of the screwing handle. The extension handle has a "C" - shaped plate structure. The two parallel side plates of the extension handle are respectively slidably connected in the two storage grooves. A first sliding groove is opened on the side plate of the extension handle. A first stopper is slidably connected inside the first sliding groove. The first stopper is fixed to the side wall of the storage groove. The first sliding groove is centered on the side plate of the extension handle.

[0012] Preferably, the material turning mechanism includes a guiding slide plate, a spiral plate, a围护架 (it seems there is a misspelling here, assuming it should be something like a protective frame), and a traction column. The guiding slide plate has a triangular prism structure with its inclined surface facing upward. There are two groups of guiding slide plates, which are symmetrically distributed about the partition plate and are both fixed on the stepped surface of the storage tank. The rotating shaft penetrates through the guiding slide plate. The spiral plate is provided on the shaft body of the rotating shaft. The spiral plate is located between the top plate of the storage tank and the guiding slide plate. A protective frame is sleeved outside the rotating shaft. The spiral plate is located between the rotating shaft and the protective frame. And multiple traction columns are fixedly connected between the top surface of the protective frame and the top plate of the storage tank.

[0013] Preferably, the material vibrating mechanism includes a storage rack, a layered plate, steel balls, wing plates, limiting strips, a rotating handle, side grooves, a knocking frame, elastic rubber blocks, and retaining plates. The rotating handle is sleeved and fixed on the shaft body of the rotating shaft. There are multiple side grooves, and all the side grooves are opened on the arc side wall of the rotating handle. The knocking frame has a "C" - shaped plate structure. One end of the knocking frame is movably inserted into the side groove. The other end of the knocking frame facing the storage tank has an arc - shaped knocking bar. And an elastic rubber block is fixedly installed between the groove body of the knocking frame and the side groove. The retaining plates are fixed on the two parallel side walls of the side groove, and there are two groups of retaining plates, which are symmetrically distributed up and down about the knocking frame. The wing plates are fixed on the outer wall of the storage tank. The surface of the wing plate facing the rotating handle is a circular arc - shaped curved surface. There are multiple limiting strips, and the multiple limiting strips are arranged along the circular arc - shaped curved surface. The storage rack has an internally hollow triangular prism structure and is fixed between the inner wall of the storage tank and the outer wall of the temporary storage hopper. Multiple layered plates of different sizes are provided on the inner wall of the storage rack. Multiple steel balls are provided above the layered plates. And a control blocking mechanism is provided on the surface of the wing plate.

[0014] Preferably, the control and sealing mechanism includes a second mounting frame, an electric telescopic rod, a first traction plate, and a sealing plate. The second mounting frame is fixed to the surface of the wing plate, the electric telescopic rod is fixed inside the second mounting frame, the first traction plate is fixed to the piston rod of the electric telescopic rod, and the first traction plate is fixed to the side wall of the sealing plate. The sealing plate is inserted into the side plate of the storage box, and the sealing plate seals the bottom of the temporary storage hopper.

[0015] Preferably, the extended stirring mechanism includes a stirring plate, a sleeve plate, a second sliding groove, a second stop block, and a counterweight bar. Two sets of stirring plates are provided, both sets of stirring plates are symmetrical about the rotating axis, and the stirring plates are fixed to the surface of the rotating axis. Each set of stirring plates has multiple stirring plates, which are arranged along the long side of the rotating axis. The sleeve plate corresponds to the stirring plate one-to-one, and the sleeve plate is slidably sleeved on the outside of the stirring plate. The surface of the sleeve plate has a second sliding groove, and the second stop block is slidably connected inside the second sliding groove. The second stop block is fixed to the surface of the stirring plate, and multiple sleeve plates are fixed to the surface of the counterweight bar. Two sets of counterweight bars are provided, and the two sets of counterweight bars are symmetrically distributed about the sleeve plate.

[0016] Compared with the prior art, the beneficial effects of the present invention are:

[0017] The microcrystalline cellulose feeding and mixing machine for collagen casing production proposed in this invention temporarily stores materials set to a fixed value through a feeding control mechanism. When the temporarily stored materials are fed into the machine, a vibrating mechanism taps the outer periphery of the feeding control mechanism to prevent materials from adhering to the inner wall of the feeding control mechanism and causing insufficient feeding. In addition, a turning device is installed inside the storage box to turn the materials at the bottom of the storage box upwards, preventing the materials at the bottom from being piled up into flakes over a long period of time. An extended stirring mechanism is also added to mix the fed materials with the soaking liquid. The turning mechanism, the vibrating mechanism, and the extended stirring mechanism are all driven by the same drive shaft. Attached Figure Description

[0018] Figure 1 This is a schematic diagram of the structure of the present invention;

[0019] Figure 2 This is a schematic diagram of the traction plate installation structure of the present invention;

[0020] Figure 3 This is a half-sectional schematic diagram of the structure of the present invention;

[0021] Figure 4 This is a schematic diagram of the storage box structure of the present invention after being cut open;

[0022] Figure 5 for Figure 4 Enlarged schematic diagram of the structure at point A in the middle;

[0023] Figure 6 This is a schematic diagram of the rotating shaft structure of the present invention;

[0024] Figure 7This is a schematic diagram of the distribution structure of the wing plate and the rotating handle of the present invention;

[0025] Figure 8 This is a schematic diagram of the traction plate structure of the present invention;

[0026] Figure 9 This is a schematic diagram of the temporary storage bucket structure of the present invention;

[0027] Figure 10 This is a schematic diagram of the pad structure of the present invention;

[0028] Figure 11 This is a schematic diagram of the screw handle structure of the present invention.

[0029] In the diagram: 1. Pad; 2. Buckle; 3. Side plate; 4. Limiting shaft; 5. Rotary tube; 6. Storage box; 7. Slot; 8. Through-hole; 9. Traction plate II; 10. Through-hole; 11. Limiting post; 12. Spring; 13. Handle; 14. Partition; 15. Rotating handle; 16. Rotating ring; 17. Discharge port; 18. Tightening handle; 19. Storage slot; 20. Extension handle; 21. Slide 1; 22. Stop block 1; 23. Temporary storage hopper; 24. Storage rack; 25. Layered board; 26. Steel ball; 27. 28. Wing plate, 29. Limiting strip, 30. Mounting bracket II, 31. Electric telescopic rod, 32. Traction plate I, 33. Sealing plate, 34. Feeding port, 35. Cover, 36. Guide slide plate, 37. Drive motor, 38. Rotary shaft, 39. Spiral plate, 40. Enclosure frame, 41. Traction column, 42. Rotating handle, 43. Side groove, 44. Striking frame, 45. Elastic rubber block, 46. Baffle plate, 47. Mixing plate, 48. Sleeve II, 49. Stop block II, 50. Counterweight bar, 51. Detailed Implementation

[0030] To make the objectives, technical solutions, and advantages of the present invention clear and complete, the embodiments of the present invention will be further described in detail below with reference to the accompanying drawings. It should be understood that the specific embodiments described herein are only some, not all, embodiments of the present invention, and are merely illustrative of the embodiments of the present invention. They are not intended to limit the embodiments of the present invention. All other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0031] Example 1

[0032] Please see Figures 1 to 2This invention provides a technical solution: a microcrystalline cellulose feeding and mixing integrated machine for collagen casing production, comprising a storage tank 6, a feeding port 34 installed on the top plate of the storage tank 6, the storage tank 6 being rotatably mounted on a mounting frame, a partition 15 being provided inside the storage tank 6, a feeding control mechanism being rotatably connected to the surface of the partition 15, a drive motor 37 being installed on the top plate of the storage tank 6, a rotating shaft 38 being driven to the power output end of the drive motor 37, and a tilting mechanism, a vibrating mechanism, and an extended stirring mechanism being provided on the shaft of the rotating shaft 38, the tilting mechanism being located inside the storage tank 6, and the vibrating mechanism being... The mechanism is located below the storage tank 6, and the extended stirring mechanism is located below the vibrating mechanism. The material set to a fixed value is temporarily stored through the feeding control mechanism. When the temporarily stored material is fed down, the vibrating mechanism taps the outside of the feeding control mechanism to prevent the material from adhering to the inner wall of the feeding control mechanism and causing insufficient feeding. The storage tank 6 is equipped with a turning device to turn the material at the bottom of the storage tank 6 upward to prevent the material at the bottom from being piled up into flakes for a long time. The extended stirring mechanism is also installed to mix the fed material with the soaking liquid. The turning mechanism, the vibrating mechanism and the extended stirring mechanism are driven by the same drive shaft.

[0033] Example 2

[0034] See attached document Figure 8 and Figure 10 Based on Embodiment 1, in order to achieve the suspension and installation limitation of the storage box 6, the mounting frame 1 includes a pad 1, a buckle plate 2, a side plate 3, a limiting shaft 4, and a rotating tube 5. The pad 1 has an "I"-shaped plate structure, and side plates 3 are installed at both ends of the pad 1. The buckle plate 2 and the side plate 3 correspond one-to-one. The buckle plate 2 is fixed to the bottom surface of the side plate 3. The buckle plate 2 has a "U"-shaped plate structure. Bolts are installed on the two parallel side plates of the buckle plate 2. The limiting shaft 4 is fixed between the two side plates 3. The rotating tube 5 is movably sleeved on the outside of the limiting shaft 4, and the outer ring surface of the rotating tube 5 is provided with a flat surface. The storage box 6 is fixed on the flat surface, and an insertion limiting mechanism is provided between the storage box 6 and a side plate 3 to limit the placement position of the storage box 6. The insertion limiting mechanism includes The storage box 6 includes a slot 7, a plate 8, a through-hole 9, a second traction plate 10, a passage 11, a limiting post 12, a spring 13, and a handle 14. Two sets of slots 7 are provided, parallel to each other, and both sets are located on the outer wall of the storage box 6. The through-hole 9 corresponds to each slot 7, and is located on the surface of a side plate 3. The plate 8 is movably inserted into the through-hole 9 and passes through the through-hole 9 into the slot 7. The two sets of plates 8 are fixed to both ends of the second traction plate 10. The passage 11 is located on the surface of the second traction plate 10. The limiting post 12 has a "T"-shaped column structure, passing through the passage 11 and fixed to the surface of a side plate 3. The spring 13 is sleeved on the column of the limiting post 12. The handle 14 is fixed to the surface of the second traction plate 10.

[0035] Example 3

[0036] Refer to the attached Figure 2 , Figure 3 , Figure 9 and Figure 11 , on the basis of Embodiment 2, in order to achieve quantitative temporary storage and feeding of microcrystalline cellulose, the feeding control mechanism includes a rotating handle 16, a rotating ring 17, a material leakage port 18, a screwing handle 19 and a temporary storage hopper 24. The bottom end of the rotating handle 16 is fixed on the inner ring of the sealed bearing. The top end of the rotating handle 16 penetrates through the top plate of the storage tank 6 and then connects to the screwing handle 19. The rotating ring 17 is sleeved and fixed on the shaft body of the rotating handle 16. The rotating ring 17 is located above the partition plate 15. A rubber ring is arranged on the bottom surface edge of the rotating ring 17, and the rubber ring is clamped between the rotating ring 17 and the partition plate 15. A plurality of material leakage ports 18 are provided on the surfaces of both the rotating ring 17 and the partition plate 15. Rotating the rotating handle 16 causes the material leakage ports 18 on the surfaces of the rotating ring 17 and the partition plate 15 to be misaligned. The temporary storage hopper 24 is fixed on the bottom surface of the partition plate 15. The temporary storage hopper 24 has a frustum-shaped frame structure. An extended force arm is provided on the surface of the screwing handle 19; the extended force arm includes a storage groove 20, an extension handle 21, a first sliding groove 22 and a first stopper 23. There are multiple groups of storage grooves 20, and each group of storage grooves 20 has two. The two storage grooves 20 are parallel and are opened on the side wall of the screwing handle 19. The extension handle 21 has a "C"-shaped plate structure. The two parallel side plates of the extension handle 21 are respectively slidably connected in the two storage grooves 20. A first sliding groove 22 is opened on the side plate of the extension handle 21. A first stopper 23 is slidably connected inside the first sliding groove 22, and the first stopper 23 is fixed on the side wall of the storage groove 20. The first sliding groove 22 is centered on the side plate of the extension handle 21; the storage tank 6 has a "convex"-shaped frame structure. The top end of the feeding port 34 is sleeved and screwed with a cover 35. And there are two groups of driving motors 37, and the two groups of driving motors 37 are symmetrically distributed about the center of the guiding slide plate 36. And an installation port is installed on the surface of the partition plate 15, and a sealed bearing is installed inside the installation port, and the sealed bearing is sleeved on the shaft body of the feeding control mechanism.

[0037] Embodiment 4

[0038] On the basis of Embodiment 3, in order to achieve turning of the materials inside the storage tank 6, the turning mechanism includes a guiding slide plate 36, a spiral plate 39, an enclosing frame 40 and a traction column 41. The guiding slide plate 36 has a triangular prism structure, and the inclined surface of the guiding slide plate 36 faces upward. There are two groups of guiding slide plates 36, and the two groups of guiding slide plates 36 are symmetrically distributed about the partition plate 15. And the two groups of guiding slide plates 36 are both fixed on the stepped surface of the storage tank 6. The rotating shaft 38 penetrates through the guiding slide plate 36, and the spiral plate 39 is arranged on the shaft body of the rotating shaft 38. The spiral plate 39 is located between the top plate of the storage tank 6 and the guiding slide plate 36. A enclosing frame 40 is sleeved outside the rotating shaft 38. The spiral plate 39 is located between the rotating shaft 38 and the enclosing frame 40. And a plurality of traction columns 41 are fixedly connected between the top surface of the enclosing frame 40 and the top plate of the storage tank 6.

[0039] Example 5

[0040] Refer to the appendix Figure 7 , on the basis of Example 4, in order to avoid the microcrystalline cellulose temporarily stored inside the temporary storage hopper 24 from adhering to the inner wall of the temporary storage hopper 24 during feeding, the vibrating mechanism includes a storage rack 25, a layered plate 26, steel balls 27, wing plates 28, limit strips 29, a rotating handle 42, side grooves 43, a knocking rack 44, an elastic rubber block 45 and a retaining piece 46. The rotating handle 42 is sleeved and fixed on the shaft body of the rotating shaft 38. There are multiple side grooves 43, and multiple side grooves 43 are all opened on the arc side wall of the rotating handle 42. The knocking rack 44 is in a "匚"-shaped plate structure. One end of the knocking rack 44 is movably inserted into the side groove 43. The other end of the knocking rack 44 facing the storage tank 6 is provided with an arc-shaped knocking strip. An elastic rubber block 45 is fixedly installed between the groove body of the knocking rack 44 and the side groove 43. The retaining piece 46 is fixed on the two parallel side walls of the side groove 43, and there are two groups of retaining pieces 46, and the two groups of retaining pieces 46 are symmetrically distributed up and down with respect to the knocking rack 44. The wing plate 28 is fixed on the outer wall of the storage tank 6. The surface of the wing plate 28 facing the rotating handle 42 is an arc-shaped curved surface. There are multiple limit strips 29, and multiple limit strips 29 are arranged and distributed along the arc-shaped curved surface. The storage rack 25 is in a hollow triangular prism structure. The storage rack 25 is fixed between the inner wall of the storage tank 6 and the outer wall of the temporary storage hopper 24. The inner wall of the storage rack 25 is provided with multiple layered plates 26 of different sizes. Multiple steel balls 27 are arranged above the layered plate 26, and a control plugging mechanism is arranged on the surface of the wing plate 28; the control plugging mechanism includes a second mounting rack 30, an electric telescopic rod 31, a first traction plate 32 and a sealing plate 33. The second mounting rack 30 is fixed on the surface of the wing plate 28. The electric telescopic rod 31 is fixed inside the second mounting rack 30. The first traction plate 32 is fixed on the piston rod of the electric telescopic rod 31, and the first traction plate 32 is fixed on the side wall of the sealing plate 33. The sealing plate 33 is inserted into the side plate of the storage tank 6, and the sealing plate 33 plugs the bottom end of the temporary storage hopper 24.

[0041] Example 6

[0042] Based on Example 5, in order to achieve mixing of microcrystalline cellulose added to the soaking liquid, the extended stirring mechanism includes a stirring plate 47, a sleeve plate 48, a second chute 49, a second stop block 50, and a counterweight bar 51. Two sets of stirring plates 47 are provided, and both sets of stirring plates 47 are symmetrical about the rotating shaft 38. The stirring plates 47 are fixed to the surface of the rotating shaft 38. Each set of stirring plates 47 has multiple stirring plates, which are arranged along the long side of the rotating shaft 38. The sleeve plate 48 corresponds one-to-one with the stirring plate 47. The sleeve plate 48 is slidably sleeved on the outside of the stirring plate 47. The surface of the sleeve plate 48 has a second chute 49. The second stop block 50 is slidably connected inside the second chute 49. The second stop block 50 is fixed to the surface of the stirring plate 47. The multiple sleeve plates 48 are fixed to the surface of the counterweight bar 51. Two sets of counterweight bars 51 are provided, and the two sets of counterweight bars 51 are symmetrically distributed about the sleeve plate 48.

[0043] In actual use, the buckle plate 2 is fastened to the top of the soaking tank and secured with bolts. During use, the bottom end of the discharge port 18 extends into the soaking tank. After unscrewing the cap 35 from the top of the feeding port 34, a large amount of microcrystalline cellulose is added from the feeding port 34 into the storage tank 6. The cap 35 is then screwed back to seal the feeding port 34. When microcrystalline cellulose needs to be added to the soaking tank, the screwing handle 19 rotates the rotating handle 16. The rotating ring 17 follows the rotating handle 16 until the discharge port 18 on the surface of the partition plate 15 is aligned. The microcrystalline cellulose inside the storage tank 6 then falls from the two sets of discharge ports 18 into the space between the temporary storage hopper 24 and the cap 33 for temporary storage. To ensure precise alignment of the discharge ports 18 on the surfaces of the rotating ring 17 and the partition plate 15, markings are sprayed onto the surface of the screw handle 19 and the top surface of the storage bin 6. This means the markings on the surface of the screw handle 19 are rotated to align with specific open or closed markings on the surface of the storage bin 6, allowing for switching between alignment and misalignment of the rotating ring 17 and the partition plate 15. To conserve the effort required to screw the screw handle 19, the sliding groove 22 extends to form an extended lever arm after being blocked by the stop block 23. This makes rotating the screw handle 19 easier. After rotating the screw handle 19 back, the rotating ring 17 smooths the microcrystalline cellulose above the partition plate 15. At this point, the microcrystalline cellulose stored inside the temporary storage hopper 24 and the sealing plate 33... The required quantity to be added is specified, therefore a temporary storage hopper 24 needs to be pre-made. The piston rod of the electric telescopic rod 31 extends, pushing the traction plate 32 to slide the sealing plate 33 until the sealing plate 33 no longer obstructs the bottom opening of the temporary storage hopper 24. At this point, the microcrystalline cellulose inside the temporary storage hopper 24 falls into the soaking water tank. The drive motor 37 is started to drive the rotating shaft 38 to rotate. During this process, the spiral plate 39 continuously tumbles the material inside the storage bin 6 from bottom to top, preventing the material from piling up for a long time and forming flaky material. Simultaneously, when the handle 42 rotates, multiple sets of striking frames 44 pass through multiple spiral plates 39 in sequence, causing the striking frames 44 to flip over... When the spiral plate 39 is in motion, the striking frame 44 presses the elastic rubber block 45 into the side groove 43. After the striking frame 44 passes the spiral plate 39, the elastic rubber block 45 rebounds and pushes the striking frame 44 back to the striking shaft 38. The striking vibration causes the steel ball 27 inside the storage rack 25 to jump, thus continuing the vibration. The vibration shakes the powder off the inner wall of the temporary storage hopper 24, ensuring that sufficient microcrystalline cellulose is added. When the discharge port 18 rotates, it mixes the liquid in the soaking pool through the stirring plate 47. As the centrifugal force is generated by the rotation, the counterweight bar 51 is thrown outward. That is, the counterweight bar 51 pulls the sleeve plate 48 to slide along the stirring plate 47, thereby expanding the stirring range of the stirring plate 47.

[0044] Although embodiments of the invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A microcrystalline cellulose feeding and mixing integrated machine for collagen casing production, comprising a storage bin (6), wherein a feeding port (34) is installed on the top plate of the storage bin (6), characterized in that: The storage bin (6) is rotatably installed on the first mounting frame. A partition plate (15) is arranged inside the storage bin (6). A feeding control mechanism is rotatably connected to the surface of the partition plate (15). The feeding control mechanism includes a temporary storage hopper (24). The temporary storage hopper (24) is in the shape of a frustum-shaped frame structure. A driving motor (37) is installed on the top plate of the storage bin (6). The power output end of the driving motor (37) is传动连接 with a rotating shaft (38). A material turning mechanism, a material vibrating mechanism and an extended stirring mechanism are arranged on the shaft body of the rotating shaft (38). The material turning mechanism is inside the storage bin (6), the material vibrating mechanism is below the storage bin (6), and the extended stirring mechanism is below the material vibrating mechanism; The material vibrating mechanism includes a storage rack (25), a layered plate (26), steel balls (27), wing plates (28), limiting strips (29), a turning handle (42), side grooves (43), a knocking frame (44), an elastic rubber block (45) and a retaining piece (46). The turning handle (42) is sleeved and fixed on the shaft body of the rotating shaft (38). Multiple side grooves (43) are provided. The multiple side grooves (43) are all opened on the arc side wall of the turning handle (42). The knocking frame (44) is in the shape of a "匚”-shaped plate structure. One end of the knocking frame (44) is movably inserted into the side groove (43). The other end of the knocking frame (44) facing the storage bin (6) is provided with an arc-shaped knocking strip. An elastic rubber block (45) is fixedly installed between the groove body of the knocking frame (44) and the side groove (43). The retaining piece (46) is fixed on the two parallel side walls of the side groove (43). Two groups of retaining pieces (46) are provided. The two groups of retaining pieces (46) are symmetrically distributed up and down with respect to the knocking frame (44). The wing plate (28) is fixed on the outer wall of the storage bin (6). The surface of the wing plate (28) facing the turning handle (42) is an arc-shaped curved surface. Multiple limiting strips (29) are provided. The multiple limiting strips (29) are arranged and distributed along the arc-shaped curved surface. The storage rack (25) is in the shape of a hollow triangular prism structure. The storage rack (25) is fixed between the inner wall of the storage bin (6) and the outer wall of the temporary storage hopper (24). Multiple layered plates (26) of different sizes are arranged on the inner wall of the storage rack (25). Multiple steel balls (27) are arranged above the layered plate (26). A control blocking mechanism is arranged on the surface of the wing plate (28); The control blocking mechanism includes a second mounting frame (30), an electric telescopic rod (31), a first traction plate (32) and a sealing plate (33). The second mounting frame (30) is fixed on the surface of the wing plate (28). The electric telescopic rod (31) is fixed inside the second mounting frame (30). The first traction plate (32) is fixed on the piston rod of the electric telescopic rod (31). The first traction plate (32) is fixed on the side wall of the sealing plate (33). The sealing plate (33) is inserted into the side plate of the storage bin (6). The sealing plate (33) blocks the bottom end of the temporary storage hopper (24). It should be noted that there is an unclear expression "传动连接" in the original text. I translated it as "传动连接" for now. You may need to clarify its specific meaning for a more accurate translation.

2. The integrated microcrystalline cellulose feeding and mixing machine for collagen casing production according to claim 1, characterized in that: The material turning mechanism includes a material guiding slide plate (36), a spiral plate (39), a surrounding frame (40) and a traction column (41). The material guiding slide plate (36) has a triangular prism structure with its inclined surface facing upward. There are two sets of material guiding slide plates (36), which are symmetrically distributed about the partition plate (15), and both sets of material guiding slide plates (36) are fixed on the stepped surface of the storage bin (6). The rotating shaft (38) penetrates through the material guiding slide plate (36), and the spiral plate (39) is arranged on the shaft body of the rotating shaft (38). The spiral plate (39) is located between the top plate of the storage bin (6) and the material guiding slide plate (36). A surrounding frame (40) is sleeved outside the rotating shaft (38), the spiral plate (39) is between the rotating shaft (38) and the surrounding frame (40), and a plurality of traction columns (41) are fixedly connected between the top surface of the surrounding frame (40) and the top plate of the storage bin (6).

3. The integrated feeding and mixing machine for collagen casing production according to claim 2, characterized in that: The storage bin (6) has a "convex" - shaped frame structure. A cover (35) is sleeved and screwed at the top end of the feeding port (34). There are two sets of driving motors (37), which are symmetrically distributed about the center of the material guiding slide plate (36). An installation port is installed on the surface of the partition plate (15), and a sealing bearing is installed inside the installation port and sleeved on the shaft body of the feeding control mechanism.

4. The integrated microcrystalline cellulose feeding and mixing machine for collagen casing production according to claim 3, characterized in that: The first mounting frame includes a backing plate (1), a clamping plate (2), side plates (3), a limiting shaft (4) and a rotating pipe (5). The backing plate (1) has an "I" - shaped plate structure. Side plates (3) are installed at both ends of the backing plate (1). The clamping plates (2) correspond to the side plates (3) one by one, and the clamping plates (2) are fixed on the bottom surface of the side plates (3). The clamping plates (2) have a "C" - shaped plate structure, and bolts are installed on the two parallel side plates of the clamping plates (2). The limiting shaft (4) is fixed between the two side plates (3), the rotating pipe (5) is movably sleeved outside the limiting shaft (4), and a plane is provided on the outer ring surface of the rotating pipe (5). The storage bin (6) is fixed on the plane, and an insertion limiting mechanism is provided between the storage bin (6) and one side plate (3) for limiting the placement position of the storage bin (6).

5. The integrated microcrystalline cellulose feeding and mixing machine for collagen casing production according to claim 4, characterized in that: The insertion limiting mechanism includes clamping grooves (7), clamping plates (8), through holes (9), a second traction plate (10), through openings (11), limiting columns (12), springs (13) and handles (14). There are two sets of clamping grooves (7), and the two sets of clamping grooves (7) are parallel and both are opened on the outer wall of the storage bin (6). The through holes (9) correspond to the clamping grooves (7) one by one, and the through holes (9) are opened on the surface of one side plate (3). The clamping plates (8) are movably inserted into the through holes (9), and the clamping plates (8) pass through the through holes (9) and are inserted into the clamping grooves (7). The two clamping plates (8) are respectively fixed at both ends of the second traction plate (10). The through openings (11) are opened on the surface of the second traction plate (10). The limiting columns (12) have a "T" - shaped column structure, the limiting columns (12) penetrate through the through openings (11) and are fixed on the surface of one side plate (3), and the springs (13) are sleeved on the column bodies of the limiting columns (12). The handles (14) are fixed on the surface of the second traction plate (10).

6. The integrated microcrystalline cellulose feeding and mixing machine for collagen casing production according to claim 5, characterized in that: The feeding control mechanism includes a rotating handle (16), a rotating ring (17), a material leakage port (18), and a screwing handle (19). The bottom end of the rotating handle (16) is fixed on the inner ring of the sealing bearing. The top end of the rotating handle (16) passes through the top plate of the storage bin (6) and then connects to the screwing handle (19). The rotating ring (17) is sleeved and fixed on the shaft body of the rotating handle (16). The rotating ring (17) is located above the partition plate (15). A rubber ring is provided at the bottom edge of the rotating ring (17), and the rubber ring is clamped between the rotating ring (17) and the partition plate (15). Multiple material leakage ports (18) are provided on the surfaces of both the rotating ring (17) and the partition plate (15). Rotating the rotating handle (16) causes the material leakage ports (18) on the surfaces of the rotating ring (17) and the partition plate (15) to be misaligned. The temporary storage hopper (24) is fixed on the bottom surface of the partition plate (15), and an extended force arm is provided on the surface of the screwing handle (19).

7. The integrated feeding and mixing machine for collagen casing production according to claim 6, characterized in that: The extended force arm includes a storage groove (20), an extension handle (21), a first sliding groove (22), and a first stopper (23). Multiple groups of storage grooves (20) are provided. Each group of storage grooves (20) has two, and the two storage grooves (20) are parallel and are opened on the side wall of the screwing handle (19). The extension handle (21) has a "C"-shaped plate structure. The two parallel side plates of the extension handle (21) are respectively slidably connected in the two storage grooves (20). A first sliding groove (22) is opened on the side plate of the extension handle (21), and a first stopper (23) is slidably connected inside the first sliding groove (22). The first stopper (23) is fixed on the side wall of the storage groove (20), and the first sliding groove (22) is centered on the side plate of the extension handle (21).

8. The integrated microcrystalline cellulose feeding and mixing machine for collagen casing production according to claim 7, characterized in that: The extended stirring mechanism includes stirring plates (47), sleeve plates (48), a second sliding groove (49), a second stopper (50), and counterweight strips (51). Two groups of stirring plates (47) are provided. The two groups of stirring plates (47) are both symmetric about the rotating shaft (38), and the stirring plates (47) are fixed on the surface of the rotating shaft (38). Each group of stirring plates (47) has multiple ones, and the multiple stirring plates (47) are arranged and distributed along the long side of the rotating shaft (38). The sleeve plates (48) correspond to the stirring plates (47) one by one. The sleeve plates (48) are slidably sleeved on the outside of the stirring plates (47). A second sliding groove (49) is opened on the surface of the sleeve plates (48), and a second stopper (50) is slidably connected inside the second sliding groove (49). The second stopper (50) is fixed on the surface of the stirring plate (47), and multiple sleeve plates (48) are all fixed on the surface of the counterweight strips (51). Two groups of counterweight strips (51) are provided, and the two groups of counterweight strips (51) are symmetrically distributed about the sleeve plates (48).

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