Raw material mixing assembly, mixing method and application of raw material mixing assembly in textured protein production

Abstract

The invention belongs to the technical field of wiredrawing protein production equipment, and discloses a raw material mixing assembly, a mixing method and application of the raw material mixing assembly in wiredrawing protein production.The raw material mixing assembly comprises a working assembly, the working assembly is connected with a power assembly, the working assembly comprises a working box, a mixing cavity is formed in the working box, and the mixing cavity is communicated with the power assembly; a mixing cavity is formed in the working box, a stirring assembly is rotationally arranged in the mixing cavity, a feeding barrel and a supplementing barrel are connected to one end of the working box, and through mutual cooperation of the arranged stirring assembly and a power assembly, in the process of mixing raw materials in the mixing cavity, position distribution of a movable block on a rotating shaft can be controlled; the raw materials in the mixing cavity are fully stirred, and after the raw materials are uniformly mixed, the movable block is controlled to move on the rotating shaft to be in an abutting state to form a spiral shape, so that the raw materials in the mixing cavity are conveyed, and the mixing efficiency of the raw materials is improved.

Description

Technical Field

[0001] The invention belongs to the technical field of fibrous protein production equipment, and specifically relates to a raw material mixing component, a mixing method and application thereof in fibrous protein production. Background Art

[0002] In the production process of fibrous protein, raw material mixing is a key link that determines the quality of the final product. In the prior art, traditional mixing equipment mostly uses a fixed stirring structure, such as a spiral stirrer or a paddle stirrer, but it has problems such as low mixing efficiency and easy agglomeration of raw materials.

[0003] The patent with application number CN202010325340.7 discloses a raw material mixing device, a sterile raw material mixing system and a sterile raw material mixing method. The raw material mixing device includes a dynamic mixing device and a static mixing device. The dynamic mixing device includes a first shell, a driving motor and a stirring impeller. A first mixing chamber is formed inside the first shell. A first inlet and a first outlet connected to the first mixing chamber are provided on the first shell. The output shaft of the driving motor is connected to the stirring impeller. The static mixing device includes a second shell and a guide assembly. A second mixing chamber is formed inside the second shell. A second inlet and a second outlet connected to the second mixing chamber are provided on the second shell. The guide assembly is a spiral structure. The second inlet of the static mixing device is connected to the first outlet of the dynamic mixing device. The above scheme solves the technical problem of uneven mixing of solid raw materials and liquid raw materials due to the sedimentation of granular solid raw materials during transportation, and ensures the uniformity of the raw materials during mixing. However, during use, the agglomeration phenomenon in the raw material mixing process is not solved.

[0004] In the process of stirring and mixing the raw materials, due to the influence of temperature, humidity and particle size during the mixing process, it is easy for the raw materials to clump together, thereby affecting the mixing efficiency of the raw materials. In severe cases, the mixed raw materials may become unusable, affecting the normal production of drawing protein.

[0005] Therefore, in order to solve the above technical problems, the present invention proposes a raw material mixing component, a mixing method and its application in the production of drawn protein. Summary of the invention

[0006] The purpose of the present invention is to solve the above problems. The present invention provides a raw material mixing component, a mixing method and its application in the production of fibroblast protein, which has the advantages of sufficient stirring and reduced raw material agglomeration.

[0007] To achieve the above-mentioned purpose, the present invention provides the following technical solutions: a raw material mixing component, comprising a working component, the working component is connected to a power component, the working component comprises a working box, a mixing chamber is provided in the working box, a stirring component is rotatably provided in the mixing chamber, a feed cylinder and a replenishing cylinder are respectively connected to one end of the working box, and the feed cylinder and the replenishing cylinder are both connected to the mixing chamber, and a discharging component is connected to one end of the working box away from the feed cylinder; The stirring assembly includes two sleeves, the centers of the two sleeves are on the same straight line, and a rotating shaft is sleeved inside the sleeve. A plurality of movable blocks are slidably provided on the outer circumference of the rotating shaft, and the movable blocks pass through the sleeves. One end of the rotating shaft distributed along the length direction is connected to the power assembly.

[0008] Preferably, when the plurality of movable blocks on the rotating shaft are in a state of conflicting with each other, the movable blocks are distributed in a spiral shape on the outer circumference of the rotating shaft.

[0009] Preferably, a plurality of detection components are connected to the circumferential side of the sleeve, and the detection components include two clamping parts, both of which are clamped with the sleeve, and one end of the clamping part away from the sleeve is connected to a support plate, and one end of the support plate away from the clamping part is connected to a mixing rod, and one end of the mixing rod away from the support plate is connected to a connecting block.

[0010] Preferably, the mixing rod is made of a hard elastic material.

[0011] Preferably, the discharging assembly includes a feed pipe, one end of the feed pipe is connected to the mixing chamber, the end of the feed pipe away from the working assembly is connected to a material moving assembly, the feed pipe is connected to the middle part of the material moving assembly, one end of the material moving assembly distributed along the length direction is connected to a wind control assembly, the end of the material moving assembly away from the wind control assembly is connected to a blanking assembly, and one end of the blanking assembly is connected to a discharging portion.

[0012] Preferably, the material transfer assembly comprises a material transfer tube, a material transfer cavity is provided through the material transfer tube, the material transfer cavity is communicated with the feed tube, and a screening plate is movably provided in the material transfer cavity.

[0013] Preferably, the blanking assembly comprises a blanking tube, a blanking cavity is provided in the blanking tube, an elastic rod is connected in the blanking cavity, and two ends of the elastic rod distributed along the length direction are respectively connected to the inner wall of the blanking cavity and the screening plate.

[0014] Preferably, a rotating portion is connected to the elastic rod, and an extending end of the rotating portion is located in the discharge portion.

[0015] A mixing method using a raw material mixing assembly comprises the following steps: S1. The raw materials to be mixed are introduced into the mixing chamber through the feed cylinder and the replenishment cylinder, and the stirring component and the detection component are driven to rotate by the power component; S2. Control the movable blocks to be evenly distributed on the rotating shaft, so that when the rotating shaft rotates, the sleeve and the movable blocks are driven to rotate, thereby achieving mixing of the raw materials in the mixing chamber; S3. During the rotation of the stirring assembly, the agglomeration of the raw materials in the mixing chamber is determined by judging the bending degree of the mixing rod; S4. When the raw materials are agglomerated, the connecting block is driven by the mixing rod to move, so as to squeeze and crush the agglomerated raw materials; S5. After the stirring is completed, the movable blocks are controlled to collide with each other, and the feed pipe is connected with the mixing chamber, so that the mixed materials enter the material transfer chamber through the feed pipe; S6. The wind control component forces the material to pass through the screening plate and then pass through the blanking component and the discharging part in turn, finally completing the mixing and conveying of the raw materials.

[0016] The invention discloses an application of a raw material mixing component in the production of drawn protein.

[0017] Compared with the prior art, the present invention has the following beneficial effects: 1. Through the cooperation between the stirring assembly and the power assembly, during the mixing process of the raw materials in the mixing chamber, the position distribution of the movable block on the rotating shaft can be controlled to achieve sufficient stirring of the raw materials in the mixing chamber, and after the raw materials are evenly mixed, the movable block is controlled to move on the rotating shaft to a state of mutual conflict to form a spiral shape, so as to transport the raw materials in the mixing chamber and improve the mixing efficiency of the raw materials.

[0018] 2. Through the cooperation between the detection component and the screening plate, the mixing state of the raw materials during mixing is identified. When the mixing rod in the detection component is abnormally bent, it means that there is agglomeration of raw materials in the mixing chamber, so the mixing rod is controlled to swing to break the agglomerated raw materials in the mixing chamber. When the screening plate shakes abnormally, the screening plate is prompted to move in the material transfer chamber, which assists in breaking the agglomerated materials and reduces the probability of raw materials accumulating in front of the screening plate, thereby ensuring stable raw material transportation efficiency.

[0019] 3. According to the changes in the screen plate and the elastic rod, the mixing condition of the raw materials in the mixing chamber is identified, that is, according to the number of times the screen plate is compressed per unit time and the compression depth of the elastic rod, the mixing efficiency of the stirring component on the raw materials in the mixing chamber can be judged, and the working status of the temperature control component and the stirring component can be adjusted and repaired in time to ensure the stable mixing rate of the raw materials. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] Figure 1 It is a schematic diagram of the three-dimensional structure of the overall device of the present invention; Figure 2 It is a schematic cross-sectional structure diagram of the overall device of the present invention; Figure 3 It is a schematic diagram of the three-dimensional structure of the stirring assembly of the present invention; Figure 4 It is a schematic diagram of the cross-sectional structure of the stirring assembly of the present invention; Figure 5 It is a schematic diagram of the connection structure of the detection component of the present invention; Figure 6 It is a schematic diagram of the three-dimensional structure of the detection component of the present invention; Figure 7 It is a schematic diagram of the three-dimensional structure of the discharging assembly of the present invention; Figure 8 It is a schematic cross-sectional structure diagram of the discharging assembly of the present invention; Fig. 9 It is a schematic diagram of the connection structure of the rotating part in the discharging assembly of the present invention.

[0021] Description of the drawings: 1. Working assembly; 101. Working box; 102. Mixing chamber; 103. Inspection port; 2. Feed barrel; 3. Refill barrel; 4. Power assembly; 5. Temperature control assembly; 6. Discharge assembly; 601. Feed pipe; 602. Material transfer assembly; 6021. Material transfer pipe; 6022. Material transfer chamber; 6023. Screening plate; 603. Blanking assembly; 6031. Blanking pipe; 6032. Blanking chamber; 604. Discharge part; 605. Wind control assembly; 606. Elastic rod; 607. Rotating part; 7. Stirring assembly; 701. Rotating shaft; 702. Sleeve; 703. Movable block; 8. Detection assembly; 801. Clamping part; 802. Support plate; 803. Mixing rod; 804. Connecting block. DETAILED DESCRIPTION

[0022] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0023] Embodiment 1 like Figure 1-Figure 9As shown, a raw material mixing component comprises a working component 1 for stirring and mixing raw materials, one end of the working component 1 is connected to a power component 4 for driving, wherein the working component 1 comprises a working box 101, a mixing chamber 102 is provided in the working box 101, and an inspection port 103 connected to the mixing chamber 102 is provided on the working box 101, so that the staff can debug and repair the components inside the mixing chamber 102 through the inspection port 103, and at the same time, a temperature control component 5 is connected to the end of the working component 1 away from the power component 4, and the temperature control component 5 is connected to the mixing chamber 102 in the working component 1. During the operation of the mixing component, the temperature and humidity in the mixing chamber 102 are regulated by the temperature control component 5 to ensure that the raw materials can be fully mixed when mixed in the mixing chamber 102, and a stirring component 7 for mixing the raw materials is rotatably provided in the mixing chamber 102, and one end of the stirring component 7 is connected to the power component 4 The mixing chamber 102 is connected to the mixing chamber 102, and the mixing chamber 102 is used to mix the raw materials in the mixing chamber 102. The mixing chamber 102 is connected to the mixing chamber 102 by the mixing component 6, and the mixing component 6 is used to mix the raw materials in the mixing chamber 102. The mixing chamber 102 is connected to the mixing chamber 102 by the mixing component 6, and the mixing component 6 is used to mix the raw materials in the mixing chamber 102. The mixing chamber 102 is connected to the mixing chamber 102 by the mixing component 6, and the mixing chamber 102 is used to mix the raw materials in the mixing chamber 102. The mixing chamber 102 is connected to the mixing chamber 102 by the mixing component 6.

[0024] In order to ensure that the stirring component 7 can fully mix the raw materials in the mixing chamber 102 and discharge the raw materials in the mixing chamber 102 after mixing, the stirring component 7 includes two sleeves 702 for constraints, the centers of the two sleeves 702 are on the same straight line, and a rotating shaft 701 is sleeved in the sleeve 702. When in use, the rotating shaft 701 can rotate synchronously with the sleeve 702. A plurality of movable blocks 703 are slidably provided on the outer circumference of the rotating shaft 701, and the movable block 703 passes through the sleeve 702. A through groove is provided on the sleeve 702 for constraining the position and movement path of the movable block 703. One end of the rotating shaft 701 distributed along the length direction is connected to the power component 4, and the rotating shaft 701 is driven to rotate by the power component 4, thereby driving the sleeve 702 and the movable block 703 to rotate. It should be noted that in the present invention, the extended length of the movable block 703 can achieve stirring of the raw materials in the mixing chamber 102.

[0025] Furthermore, in order to ensure that the movable blocks 703 on the rotating shaft 701 can satisfy the stirring of the raw materials and also realize the transportation of the raw materials in the mixing chamber 102, when the multiple movable blocks 703 on the rotating shaft 701 are in conflict with each other, the movable blocks 703 are spirally arranged on the outer circumference of the rotating shaft 701, and then the rotating shaft 701 rotates to drive the movable blocks 703 to rotate, so as to realize the transportation of the raw materials in the mixing chamber 102. When the movable blocks 703 rotate on the rotating shaft 701 and do not conflict with each other, the movable blocks 703 are evenly distributed on the rotating shaft 701, and the rotation of the rotating shaft 701 can drive the movable blocks 703 to rotate, so as to realize the mixing of the raw materials in the mixing chamber 102.

[0026] It should be noted that in order to ensure that the movable block 703 can change its state on the rotating shaft 701, that is, to enable the movable block 703 to have sufficient space for movement, the axial length of the rotating shaft 701 is set to be greater than the axial length of the sleeve 702, and there are many ways to realize the movement of the movable block 703 on the rotating shaft 701. In the present invention, the movement method of the movable block 703 is preferably electromagnetic control to ensure that the movement path of the movable block 703 on the rotating shaft 701 is stable.

[0027] Furthermore, in order to ensure that the raw materials do not clump when mixed in the mixing chamber 102 and to improve the mixing efficiency of the raw materials, a plurality of detection components 8 for identifying the state of the raw materials are connected to the peripheral side of the sleeve 702, and the detection component 8 includes two clamping parts 801 for connection, and the two clamping parts 801 are clamped with the outer peripheral side of the sleeve 702 to ensure the stability of the detection component 8 when in use, and there is a gap between the two adjacent clamping parts 801, and the end of the clamping part 801 away from the sleeve 702 is connected with a support plate 802 for fixing, and the support plate 802 is away from the clamping part 801. One end of the connecting portion 801 is connected with a plurality of mixing rods 803, and the mixing rods 803 are all made of hard elastic material, wherein the hard elastic material includes rubber material and other materials that have elasticity and can also support the connecting block 804, wherein the mixing rod 803 is fixedly connected to one of the support plates 802, and the remaining mixing rods 803 are rotatably connected to another support plate 802, and one end of the mixing rod 803 away from the support plate 802 is connected with a connecting block 804 for increasing the contact area with the raw material. When in use, the sleeve 702 rotates to drive the detection component 8 to rotate, that is, to drive the support plate 802 to rotate. 02. The mixing rod 803 and the connecting block 804 rotate to cause the connecting block 804 and the mixing rod 803 to stir the raw materials. When the bending angle of the mixing rod 803 is stable and there is no abnormal bending, it means that the raw materials are in a normal stirring state and no agglomeration occurs. When the bending angle of one or more mixing rods 803 is abnormal, it means that the raw materials have agglomeration during the mixing process of the mixing chamber 102. At this time, one group of mixing rods 803 is controlled to reciprocate on the support plate 802, thereby forming a contrast with the motion state of the other group of mixing rods 803, and because of their The rotation of the middle group of mixing rods 803 can cause the distance between the two groups of mixing rods 803 to be in dynamic change all the time, so that block objects of different diameters can be moved between the two groups of mixing rods 803, and the block raw materials are squeezed and crushed to ensure uniform mixing of the raw materials. In addition, during the rotation of the sleeve 702, the mixing rod 803 in a swinging state and the movable block 703 are at different rotation speeds, so as to avoid the raw materials always being at the same rotation speed, so as to cause the swinging mixing rod 803 and the connecting block 804 to perform a second knock on the raw materials in the mixing chamber 102, thereby accelerating the mixing efficiency of the raw materials in the mixing chamber 102.

[0028] It should be noted that, sensors, electromagnetics and other components with dynamic recognition functions can be used for detection. Sensors, electromagnetics and other components can be set in the mixing rod 803, and can also be set at the connection between the support plate 802 and the mixing rod 803 to ensure that the working state of the mixing rod 803 can be identified and detected. Detecting the change in the bending angle of the mixing rod 803 is a prior art and will not be elaborated on here.

[0029] Furthermore, in order to ensure that the raw materials do not stick to each other during the transportation process and to improve the mixing efficiency of the raw materials, the discharge component 6 includes a feed pipe 601 for communication, and one end of the feed pipe 601 is connected to the mixing chamber 102. In the present invention, the communication position between the feed pipe 601 and the mixing chamber 102 is located in the middle of the mixing chamber 102, and the movable block 703 is formed into two spiral grooves with opposite spiral directions at both ends of the rotating shaft 701 in the axial direction. When the rotating shaft 701 rotates, the movable block 703 is driven to rotate, and because the spiral grooves formed by the movable block 703 are in opposite directions, the raw materials are prompted to move to a position close to the middle area of ​​the mixing chamber 102. If necessary, the rotating shaft 701 can be evenly divided into two parts of equal length in the axial direction, so that the rotating shaft 701 is rotated in sections, so that the movable block 703 can realize the transportation of the raw materials in the mixing chamber 102.

[0030] The end of the feed pipe 601 away from the working component 1 is connected with a material moving component 602 for conveying raw materials, the feed pipe 601 is connected to the middle part of the material moving component 602, one end of the material moving component 602 distributed along the length direction is connected with a wind control component 605 for conveying mixed raw materials, the end of the material moving component 602 away from the wind control component 605 is connected with a blanking component 603 for dropping raw materials, and one end of the blanking component 603 is connected with a discharge part 604, so as to ensure that after the raw materials are fully mixed by the mixing chamber 102, they will not be affected by the discharge rate of the discharge component 6 during the conveying process, causing the raw materials to re-agglomerate, thereby ensuring uniform mixing of the raw materials. When in use, the raw materials in the mixing chamber 102 enter the material moving component 602 after passing through the feed pipe 601, and then the wind control component 605 is used to realize the movement of the raw materials, so that the raw materials are prompted to enter the blanking component 603 and the discharge part 604 through the material moving component 602, so as to realize the conveying of the raw materials.

[0031] Furthermore, in order to ensure uniform movement of the raw materials and to ensure that the raw materials do not clump and affect the mixing results, the material transfer component 602 includes a material transfer tube 6021, and a material transfer chamber 6022 for material transportation is provided in the material transfer tube 6021. The material transfer chamber 6022 is connected to the feed tube 601, and the raw materials passing through the feed tube 601 fall into the material transfer chamber 6022, wherein a screening plate 6023 is movably provided in the material transfer chamber 6022, and the screening plate 6023 is located in the material transfer chamber 6022 away from the wind control component 605. On one side, when the wind control component 605 is used to move the raw materials in the material transfer chamber 6022, the raw materials are prompted to move to the side close to the screening plate 6023, so that the unagglomerated raw materials pass through the screening plate 6023 and enter the blanking component 603. When the raw materials agglomerate after passing through the feed pipe 601, they will be blocked by the screening plate 6023, inhibiting the passage of the raw materials. At this time, the wind control component 605 can be used to cause the agglomerated raw materials to collide with the screening plate 6023 for multiple times, break the agglomerated raw materials, and ensure the normal passage of the raw materials.

[0032] Furthermore, in order to improve the screening efficiency of the screening plate 6023 and ensure that the material can be transported normally, the blanking assembly 603 includes a blanking tube 6031 through which the raw material passes, and a blanking cavity 6032 is opened in the blanking tube 6031. The blanking cavity 6032 is connected to an elastic rod 606 that can move back and forth according to the stress condition of the screening plate 6023. The two ends of the elastic rod 606 distributed along the length direction are respectively connected to the inner wall of the blanking cavity 6032 and the screening plate 6023. When the material passes through the screening plate 6023 without obvious agglomeration, the pressure on the material when passing through the screening plate 6023 is relatively small, and the compression amplitude of the elastic rod 606 is small. When there are agglomerations in the material, the stress on the screening plate 6023 will increase, resulting in an increase in the compression amplitude of the elastic rod 606, thereby identifying the material transportation condition in the material transfer cavity 6022.

[0033] Furthermore, in order to ensure that the raw materials will not accumulate after falling into the blanking cavity 6032, a rotating part 607 is connected to the elastic rod 606. The rotating part 607 is located on the side of the discharge part 604 away from the blanking component 603, and the extended end of the rotating part 607 is located in the discharge part 604. The rotation of the rotating part 607 reduces the accumulation of raw materials in the discharge part 604, and reduces the probability of the raw materials agglomerating again. It should be noted that the implementation method of the rotating part 607 is the existing technology and will not be elaborated on here.

[0034] During operation, the materials to be mixed are transported to the working component 1 through the feed cylinder 2 and the replenishing cylinder 3, and the stirring component 7 is controlled to mix the raw materials in the working component 1. At the same time, the temperature control component 5 is prompted to adjust the situation in the working component 1 according to the mixing situation to ensure that the raw materials can be mixed evenly in the working component 1, and the discharging component 6 outputs the mixed raw materials from the working component 1 to achieve the mixing of the raw materials.

[0035] Specifically, the feed barrel 2 and the replenishing barrel 3 are used to transport and replenish the raw materials to be mixed, respectively, to ensure that the mixing ratio of the raw materials in the mixing chamber 102 meets the mixing requirements, and in the process of replenishing the feed barrel 2 and the replenishing barrel 3, the power component 4 controls the rotation of the rotating shaft 701, thereby driving the sleeve 702 and the movable block 703 to rotate in the mixing chamber 102. It should be noted that in the process of mixing the raw materials in the mixing chamber 102, the movable blocks 703 are evenly distributed on the outer periphery of the rotating shaft 701, and do not conflict with each other, and can contact and stir the raw materials in various areas of the mixing chamber 102. In the process of the rotation of the sleeve 702, the detection component 8 is driven to rotate and contact the raw materials. While assisting the mixing of the raw materials, it can also identify the mixing status of the raw materials in the mixing chamber 102 to ensure that there is no lumps in the mixing chamber 102. At the same time, in the process of stirring by the stirring component 7, the feed pipe 601 and the mixing chamber 102 are in a closed state.

[0036] During the process of mixing raw materials, when the bending angle of the mixing rod 803 does not change significantly during the rotation, it means that the raw materials in the mixing chamber 102 are in a normal mixing state and there is no agglomeration of the raw materials. The working state of the temperature control component 5 and the stirring component 7 is maintained unchanged to ensure sufficient mixing of the raw materials; when the bending angle of the mixing rod 803 during the rotation is small, it means that there are small agglomerates in the raw materials in the mixing chamber 102, which affects the mixing efficiency of the raw materials in the mixing chamber 102. At this time, the working state of the stirring component 7 is maintained unchanged, and the temperature and humidity in the mixing chamber 102 are regulated by the temperature control component 5 to reduce the probability of raw material agglomeration.

[0037] When the mixing rod 803 shows obvious and irregular bending during the rotation of the sleeve 702, it means that the raw materials in the mixing chamber 102 are obviously agglomerated, which affects the mixing efficiency of the raw materials in the mixing chamber 102. At this time, the rotation state of the stirring component 7 is maintained unchanged, and the mixing rod 803 on one of the support plates 802 in the detection component 8 is controlled to swing back and forth, so that the mixing rod 803 drives the connecting block 804 to move, thereby knocking the raw materials in the mixing chamber 102, and using the swing of one group of mixing rods 803 to change the mixing direction of the raw materials in the mixing chamber 102, further accelerating the mixing efficiency of the raw materials, and at the same time, during the swing of the mixing rod 803, the agglomerated raw materials will be stuck with the detection component 8, and then the agglomerated raw materials will be broken by the mutual extrusion caused by the swing of the mixing rod 803.

[0038] When the other group of mixing rods 803 does not have an obvious bending angle as the sleeve 702 rotates and the mixing time is met, it means that the raw materials in the mixing chamber 102 are completely mixed. The swing of the mixing rods 803 is stopped, and at the same time, the movable blocks 703 and the rotating shaft 701 are controlled to move relative to each other, causing the movable blocks 703 to conflict with each other to form a spiral shape that is convenient for conveying the raw materials, and the feed pipe 601 is controlled to be connected to the mixing chamber 102.

[0039] By rotating the movable block 703, the movable block 703 is used to transport the raw materials in the mixing chamber 102 to the feed pipe 601, and the mixed raw materials are introduced into the material transfer chamber 6022. At the same time, the wind control component 605 is controlled to work, and the raw materials in the material transfer chamber 6022 are moved to the side close to the blanking component 603, so that the raw materials pass through the screening plate 6023 and enter the blanking chamber 6032. When the raw materials pass through the screening plate 6023, the materials in the material transfer chamber 6022 are identified according to the movement of the screening plate 6023. When there is no agglomeration in the raw materials, the materials will not be blocked when passing through the screening plate 6023, that is, the elastic rod 606 will not be excessively reciprocated. Compression, when there is agglomeration in the raw materials, the screening plate 6023 will block the agglomerated raw materials, and at the same time, the wind control component 605 is controlled to work. Under the action of , the compression depth of the screening plate 6023 drives the elastic rod 606 to increase, and the screening plate 6023 drives the reciprocating movement in the material transfer chamber 6022, thereby increasing the screening efficiency of the raw materials. When necessary, the wind force of the wind control component 605 can be controlled according to the change of the telescopic length of the elastic rod 606, that is, when the telescopic change of the elastic rod 606 is shorter, the wind control component 605 maintains the normal wind force unchanged; when the telescopic length of the elastic rod 606 changes greatly, the wind force of the wind control component 605 is controlled to increase, thereby increasing the collision force between the raw material and the screening plate 6023, facilitating the agglomerated raw materials to be broken into the blanking chamber 6032, and the reciprocating movement of the screening plate 6023 in the material transfer chamber 6022 can effectively reduce the accumulation of raw materials in front of the screening plate 6023, thereby improving the conveying efficiency of the mixed materials.

[0040] At the same time, according to the changes in the screening plate 6023 and the elastic rod 606, the mixing condition of the raw materials in the mixing chamber 102 is identified, that is, according to the number of times the screening plate 6023 is compressed per unit time and the compression depth of the elastic rod 606, the mixing efficiency of the stirring component 7 on the raw materials in the mixing chamber 102 is judged, and the working status of the temperature control component 5 and the stirring component 7 are adjusted and maintained in time to ensure the stability of the mixing rate of the raw materials.

[0041] When the screening plate 6023 is subjected to pressure more times per unit time and the elastic depth of the elastic rod 606 is in a relatively large compression change, the movable block 703 is prompted to stir and mix the raw materials in the mixing chamber 102 while synchronously moving relative to the rotating shaft 701. That is, the movable blocks 703 move until they collide with each other and then are evenly distributed on the rotating shaft 701 to move back and forth, thereby preventing the raw materials in the mixing chamber 102 from always being in one place, affecting the mixing efficiency and increasing the probability of raw materials agglomerating in the mixing chamber 102.

[0042] When the raw materials enter the discharge section 604, in order to avoid the accumulation of the raw materials in the discharge section 604 and reduce the agglomeration of the materials due to the accumulation, the rotating section 607 is controlled to rotate to ensure that the raw materials are always in a moving state before passing through the discharge section 604 to avoid agglomeration of the raw materials.

[0043] Embodiment 2 The present invention also includes a mixing method using a raw material mixing assembly, comprising the following steps: S1. The raw materials to be mixed are introduced into the mixing chamber 102 through the feed cylinder 2 and the supplementary cylinder 3, and the stirring assembly 7 and the detection assembly 8 are driven to rotate by the power assembly 4; S2, controlling the movable blocks 703 to be evenly distributed on the rotating shaft 701, so that during the rotation of the rotating shaft 701, the sleeve 702 and the movable blocks 703 are driven to rotate, thereby achieving mixing of the raw materials in the mixing chamber 102; S3, during the rotation of the stirring assembly 7, the agglomeration of the raw materials in the mixing chamber 102 is determined by determining the bending degree of the mixing rod 803; S4. When the raw materials are agglomerated, the mixing rod 803 drives the connecting block 804 to move, thereby squeezing and crushing the agglomerated raw materials; S5, after the stirring is completed, the movable blocks 703 are controlled to collide with each other, and the feed pipe 601 is connected with the mixing chamber 102, so that the mixed materials pass through the feed pipe 601 and enter the material transfer chamber 6022; S6. The wind control component 605 forces the material to pass through the screening plate 6023 and then pass through the blanking component 603 and the discharging part 604 in sequence, thus finally completing the mixing and conveying of the raw materials.

[0044] The application of a raw material mixing component in the production of drawn protein ensures the mixing efficiency of the raw materials during the production of drawn protein and effectively improves the production efficiency of the drawn protein.

[0045] It should be noted that, in this article, the terms "comprises", "includes" or any other variations thereof are intended to cover non-exclusive inclusion, so that a process, method, article or apparatus that includes a series of elements includes not only those elements, but also other elements not explicitly listed, or also includes elements inherent to such process, method, article or apparatus.

[0046] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A raw material mixing assembly, comprising a working assembly (1), characterized in that: The working component (1) is connected to a power component (4), the working component (1) comprises a working box (101), a mixing chamber (102) is provided in the working box (101), a stirring component (7) is rotatably provided in the mixing chamber (102), a feed cylinder (2) and a replenishing cylinder (3) are respectively connected to one end of the working box (101), and the feed cylinder (2) and the replenishing cylinder (3) are both in communication with the mixing chamber (102), and a discharge component (6) is in communication with one end of the working box (101) away from the feed cylinder (2); The stirring assembly (7) comprises two sleeves (702), the centers of the two sleeves (702) are on the same straight line, a rotating shaft (701) is sleeved inside the sleeve (702), a plurality of movable blocks (703) are slidably provided on the outer circumference of the rotating shaft (701), and the movable blocks (703) pass through the sleeves (702), and one end of the rotating shaft (701) distributed along the length direction is connected to the power assembly (4).

2. The raw material mixing assembly according to claim 1, characterized in that: When the plurality of movable blocks (703) on the rotating shaft (701) are in a state of mutual interference, the movable blocks (703) are distributed in a spiral shape on the outer circumference of the rotating shaft (701).

3. The raw material mixing assembly according to claim 1, characterized in that: A plurality of detection components (8) are also connected to the peripheral side of the sleeve (702), and the detection components (8) comprise two clamping parts (801), both of which are clamped to the sleeve (702), one end of the clamping part (801) away from the sleeve (702) is connected to a support plate (802), one end of the support plate (802) away from the clamping part (801) is connected to a mixing rod (803), and one end of the mixing rod (803) away from the support plate (802) is connected to a connecting block (804).

4. The raw material mixing assembly according to claim 3, characterized in that: The mixing rod (803) is made of a hard elastic material.

5. The raw material mixing assembly according to claim 1, characterized in that: The material discharging assembly (6) comprises a feeding pipe (601), one end of the feeding pipe (601) is in communication with the mixing chamber (102), one end of the feeding pipe (601) away from the working assembly (1) is connected to a material moving assembly (602), the feeding pipe (601) is in communication with the middle part of the material moving assembly (602), one end of the material moving assembly (602) distributed along the length direction is connected to a wind control assembly (605), one end of the material moving assembly (602) away from the wind control assembly (605) is connected to a blanking assembly (603), and one end of the blanking assembly (603) is connected to a material discharging portion (604).

6. The raw material mixing assembly according to claim 5, characterized in that: The material transfer assembly (602) comprises a material transfer tube (6021), a material transfer cavity (6022) is provided through the material transfer tube (6021), the material transfer cavity (6022) is communicated with the feed tube (601), and a screening plate (6023) is movably provided in the material transfer cavity (6022).

7. The raw material mixing assembly according to claim 6, characterized in that: The material dropping assembly (603) comprises a material dropping tube (6031), a material dropping cavity (6032) is provided in the material dropping tube (6031), an elastic rod (606) is connected in the material dropping cavity (6032), and two ends of the elastic rod (606) distributed along the length direction are respectively connected to the inner wall of the material dropping cavity (6032) and the screening plate (6023).

8. The raw material mixing assembly according to claim 7, characterized in that: A rotating portion (607) is connected to the elastic rod (606), and an extending end of the rotating portion (607) is located in the discharge portion (604).

9. A mixing method using the raw material mixing assembly according to any one of claims 1 to 8, characterized in that: The following steps are involved: S1, introducing raw materials to be mixed into the mixing chamber (102) through the feeding cylinder (2) and the replenishing cylinder (3), and driving the stirring assembly (7) and the detection assembly (8) to rotate through the power assembly (4); S2, controlling the movable blocks (703) to be evenly distributed on the rotating shaft (701), so that during the rotation of the rotating shaft (701), the sleeve (702) and the movable blocks (703) are driven to rotate, thereby achieving mixing of the raw materials in the mixing chamber (102); S3, during the rotation of the stirring assembly (7), judging the degree of bending of the mixing rod (803) to determine the agglomeration of the raw materials in the mixing chamber (102); S4. When the raw materials are agglomerated, the mixing rod (803) drives the connecting block (804) to move, thereby squeezing and crushing the agglomerated raw materials; S5. After the stirring is completed, the movable blocks (703) are controlled to collide with each other, and the feed pipe (601) is connected with the mixing chamber (102), so that the mixed materials are forced to enter the material transfer chamber (6022) through the feed pipe (601); S6. The wind control component (605) forces the material to pass through the screening plate (6023) and then pass through the blanking component (603) and the discharging part (604) in sequence, thereby finally completing the mixing and conveying of the raw materials.

10. Use of the raw material mixing assembly according to any one of claims 1 to 8 in the production of fibrous protein.

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