Aloe vera magnetic pressure type shredding and squeezing juice extraction equipment
Patent Information
- Application Number
- CN202611345612.3
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2026-09-01
- Publication Date
- 2026-10-16
AI Technical Summary
[0003]现有芦荟榨汁设备多以破碎机构和压榨机构两段式构型为主，破碎机构将芦荟打碎，破碎后的物料落入压榨桶体，通过挤压辊式压榨挤压出汁，但是在压榨过程中压辊多为被动转动，存在压辊磨损大、受力不均、压力波动等问题，尤其对芦荟这类韧皮包裹凝胶的非均质物料，固定压力难以兼顾先撕碎破壁、后渐增压榨的工艺需求，同时芦荟凝胶粘性大，破碎后果肉易直接透过金属滤网造成堵塞，需频繁清理；同时现有设备缺乏对渣料的连续排出机制，间歇式卸渣打断生产连续性
本申请中，PLC控制传动组件和切割组件运转，并传动至多个压榨组件，带动中间轴、转接轴和切割绞龙同步转动；将清洗整理后的芦荟叶倾倒入切割组件初步处理，将芦荟叶切断、撕碎，破除韧皮包裹并使叶肉凝胶破壁，形成碎块与游离汁液混合的芦荟物料；芦荟物料进入滞留组件存储，芦荟物料输送至排液套筒进一步处理，期间芦荟物料通过切割绞龙带动在排液套筒内输送，同时切割齿对芦荟物料进一步切割处理，避免芦荟丝大量产生，同时通过切割绞龙刮动排液套筒内壁，避免输送孔堵塞，期间产生的芦荟物料汁液通过输送孔排出至排液组件，其余芦荟物料在切割绞龙持续输送下向排液套筒设置封堵盖板的一端汇聚，封堵盖板在闭合组件带动下通过磁吸方式调节，确自适应物料压力恒定，汇聚在封堵盖板处的物料受到渐进增大的挤压压力，汁液通过输送孔继续排出。
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Figure CN122914573A_ABST
Abstract
Description
Technical Field
[0001] This application relates to the field of plant crushing and pressing technology, specifically to an aloe vera magnetic crushing, pressing, and juicing device. Background Technology
[0002] Aloe vera is a perennial succulent herb of the Liliaceae family. Its leaves are thick and juicy with spiny teeth along the edges. Its leaf mesogel is rich in polysaccharides, amino acids, and anthraquinone compounds, and is widely used in cosmetics, health foods, and traditional Chinese medicine. The conventional process for industrially extracting aloe vera juice or aloe vera gel is as follows: harvesting fresh leaves, washing and sorting, peeling, crushing and pulping, centrifuging, filtering, and blending. Among these, crushing, pressing, and filtering are the core steps that determine the juice yield and product quality.
[0003] Existing aloe vera juicing equipment is mostly a two-stage structure consisting of a crushing mechanism and a pressing mechanism. The crushing mechanism breaks down the aloe vera, and the crushed material falls into the pressing barrel, where it is squeezed out to extract the juice by the extrusion rollers. However, during the pressing process, the rollers are mostly passively rotating, which leads to problems such as large roller wear, uneven force, and pressure fluctuations. Especially for heterogeneous materials like aloe vera, which have phloem encased in gel, it is difficult to maintain a fixed pressure while simultaneously meeting the process requirements of first tearing and breaking down the cell walls and then gradually increasing the pressing pressure. At the same time, the aloe vera gel is highly viscous, and the pulp can easily pass directly through the metal filter after crushing, causing blockage and requiring frequent cleaning. In addition, existing equipment lacks a continuous discharge mechanism for the residue, and intermittent unloading disrupts the continuity of production.
[0004] Therefore, it is necessary to provide an aloe vera magnetic shredding, pressing, and juicing device to solve the problems mentioned in the background art. Summary of the Invention
[0005] To achieve the above objectives, this application provides the following technical solution: an aloe vera magnetic pressing shredding, pressing, and juicing device, comprising a supporting partition, a bracket, a retention component, a transmission component, a cutting component, a drainage component, a closing component, and a pressing component. The retention component and the drainage component are respectively disposed on both sides of the supporting partition. The lower end of the retention component is supported by the bracket. The cutting component is disposed on the upper end of the retention component. Multiple pressing components are arranged. Both the transmission component and the pressing component penetrate the drainage component, the supporting partition, and the retention component. The power input end of the pressing component and the output end of the transmission component extend from one side of the retention component and are connected. The material input end of the pressing component extends from one side of the drainage component. A closure assembly is connected, which passes through the drainage assembly and connects to the support partition. The pressing assembly includes a drainage sleeve, an intermediate shaft, a transfer shaft, a cutting auger, and a sealing cover. The drainage sleeve passes through the drainage assembly and the support partition. One end of the drainage sleeve extends out of the drainage assembly, and the other end is fitted against the side of the retention assembly. The intermediate shaft is coaxially arranged inside the drainage sleeve. The cutting auger is fixedly arranged on the intermediate shaft. A sealing cover that is adjustable by magnetic attraction is provided at one end of the intermediate shaft near the drainage assembly. The other end of the intermediate shaft is connected to the transmission assembly. Multiple conveying holes are evenly distributed on the drainage sleeve, corresponding to the drainage assembly. Multiple cutting teeth are provided on the edge of the cutting auger.
[0006] Furthermore, as a preferred embodiment, the pressing component is inclined upward along the direction from the retention component to the drainage component.
[0007] Furthermore, as a preferred embodiment, the retention component includes a retention chamber, a through-hole partition, and a guide partition. The upper end of the retention chamber has an inlet corresponding to the position of the cutting component. Multiple conveying through-holes are opened on both sides of the retention chamber corresponding to the pressing component. A driving through-hole is opened on the side of the retention chamber that is attached to the support partition. The driving through-hole is set to the transmission component. The conveying through-hole is located above the driving through-hole. The through-hole partition is set at the position of the conveying through-hole. The through-hole partition and the inlet are connected by the guide partition. The through-hole partition and the guide partition divide the retention chamber into an upper receiving chamber and a lower assembly chamber. The driving through-hole is located in the lower assembly chamber. In addition, the side wall of the through-hole partition has a notch facing the inlet to connect to the receiving chamber.
[0008] Furthermore, as a preferred embodiment, the transmission assembly includes a transmission motor, adapter wheels, and a transmission belt. The transmission motor is mounted at one drive through hole, and multiple adapter wheels are arranged. The adapter wheels are set corresponding to the first conveying through hole and the first drive through hole, and the adapter wheels are rotatably mounted on the outer side of the retention assembly. The adapter wheel corresponding to one drive through hole is connected to the output end of the transmission motor, and the adapter wheel corresponding to one conveying through hole is connected to the pressing assembly. The multiple adapter wheels are connected to each other through a transmission belt.
[0009] Furthermore, as a preferred embodiment, a rack is arranged on the side of the transmission belt and the surface of the corresponding adapter wheel, or friction rubber is arranged on both the side of the transmission belt and the surface of the corresponding adapter wheel.
[0010] Furthermore, as a preferred embodiment, the drainage assembly includes a drainage chamber, a guide ring plate, a sealing plate, and a sleeve. The drainage chamber is fitted to the supporting partition and has a drainage port at its lower end. The drainage chamber has multiple conveying through holes corresponding to the pressing assembly and a driving through hole corresponding to the transmission assembly. The sleeve is positioned corresponding to the driving through hole and its two ends are fitted to the two sides of the drainage chamber. The guide ring plate is positioned corresponding to the closing assembly and is fitted above the sleeve. Its two ends are fitted to the two sides of the drainage chamber. The drainage chamber has an assembly opening corresponding to the guide ring plate and the driving through hole, and a sealing plate is positioned at the assembly opening corresponding to the driving through hole.
[0011] Furthermore, as a preferred embodiment, the closing assembly includes a support cover plate, a guide pillar, a magnetic support pillar, and a transition boss. One end of the guide pillar and the magnetic support pillar passes through the drainage assembly and connects to the support partition plate. The other end of the guide pillar and the magnetic support pillar is fixedly connected to the support cover plate. The guide pillar is slidably connected to the support partition plate through a sleeve, and the magnetic support pillar is slidably connected to the support partition plate through a magnetic sleeve. The transition boss is disposed on the support cover plate and is used to connect to the pressing assembly.
[0012] Furthermore, as a preferred embodiment, the pressing assembly further includes an input auger, an extension shaft, and a limiting end plate. One end of the discharge sleeve is provided with an inclined sealing port, and the other end is provided with an expansion inlet. The cutting auger is fitted against the inner wall of the discharge sleeve and is fixedly connected to the intermediate shaft. The end of the intermediate shaft near the inclined sealing port is sleeved with the extension shaft, and the end near the expansion inlet is fixedly connected with the adapter shaft. The adapter shaft is connected to the transmission assembly. The extension shaft is connected to the limiting end plate. The input auger is set on the intermediate shaft and is set corresponding to the expansion inlet. A sealing cover is sleeved on the extension shaft and is set in conjunction with the inclined sealing port. The sealing cover and the limiting end plate are located on both sides of the supporting cover.
[0013] Compared with the prior art, this application provides an aloe vera magnetic pressing and shredding juice extraction device, which has the following beneficial effects: In this application, the PLC controls the operation of the transmission and cutting components, which in turn transmit power to multiple pressing components, causing the intermediate shaft, adapter shaft, and cutting auger to rotate synchronously. The cleaned and prepared aloe vera leaves are poured into the cutting component for initial processing, where the leaves are cut and shredded, the phloem is broken, and the pulp gel is broken down, forming aloe vera material mixed with fragments and free juice. The aloe vera material is then stored in the retention component and transported to the drainage sleeve for further processing. During this process, the aloe vera material is conveyed within the drainage sleeve by the cutting auger, while simultaneously being cut... The teeth further cut the aloe vera material to avoid the generation of excessive aloe vera fibers. At the same time, the cutting auger scrapes the inner wall of the drainage sleeve to prevent blockage of the conveying hole. The aloe vera juice produced during this process is discharged to the drainage component through the conveying hole. The remaining aloe vera material is continuously conveyed by the cutting auger and converges towards the end of the drainage sleeve where the sealing cover is set. The sealing cover is adjusted by magnetic attraction under the action of the closing component to ensure constant material pressure. The material gathered at the sealing cover is subjected to gradually increasing squeezing pressure, and the juice continues to be discharged through the conveying hole. Attached Figure Description
[0014] Other features, objects, and advantages of this application will become more apparent from the following detailed description of non-limiting embodiments with reference to the accompanying drawings: Figure 1 A schematic diagram of the overall structure of an aloe vera magnetic pressure shredding, pressing, and juicing device; Figure 2 A schematic diagram of the internal structure of the retention component in a magnetic pressure shredding, pressing, and juicing device for aloe vera; Figure 3 A schematic diagram of the cross-sectional structure of the retention component of an aloe vera magnetic shredding, pressing, and juicing device; Figure 4 A schematic diagram of the transmission structure of an aloe vera magnetic pressure shredding, pressing, and juicing device; Figure 5 A schematic diagram of the liquid discharge component of a magnetic pressure shredding, pressing, and juicing device for aloe vera; Figure 6 A schematic diagram of the pressing component structure of an aloe vera magnetic pressing and shredding juice extraction device; In the diagram: 1. Support partition; 2. Bracket; 3. Retention assembly; 31. Retention chamber; 32. Conveying through-hole one; 33. Through-hole partition; 34. Guide partition; 35. Drive through-hole one; 36. Inlet; 4. Transmission assembly; 41. Transmission motor; 42. Adapter wheel; 43. Transmission belt; 5. Cutting assembly; 6. Drainage assembly; 61. Drainage chamber; 62. Conveying through-hole two; 63. Guide ring plate; 64. Drainage port; 65. Drive through-hole two; 66. Loading 67. Connecting port; 68. Sealing plate; 79. Socket sleeve; 80. Closing assembly; 71. Support cover plate; 72. Guide pillar; 73. Magnetic pillar; 74. Adapter boss; 80. Pressing assembly; 81. Drainage sleeve; 811. Conveying hole; 812. Expansion inlet; 82. Intermediate shaft; 83. Adapter shaft; 84. Cutting auger; 841. Cutting teeth; 85. Input auger; 86. Extension shaft; 87. Sealing cover plate; 88. Limiting end plate; 89. Inclined sealing port. Detailed Implementation
[0015] Please see Figures 1-6 In this embodiment, an aloe vera magnetic shredding, pressing, and juicing device includes a supporting partition 1, a bracket 2, a retention component 3, a transmission component 4, a cutting component 5, a drainage component 6, a closing component 7, and a pressing component 8. The retention component 3 and the drainage component 6 are respectively disposed on both sides of the supporting partition 1. The lower end of the retention component 3 is supported by the bracket 2. The cutting component 5 is disposed on the upper end of the retention component 3. Multiple pressing components 8 are arranged. The transmission component 4 and the pressing component 8 are both disposed through the drainage component 6, the supporting partition 1, and the retention component 3. The power input end of the pressing component 8 and the output end of the transmission component 4 extend from one side of the retention component 3 and are connected. The material input end of the pressing component 8 extends from one side of the drainage component 6 and connects to the closing component 7. The closing component 7 passes through the drainage component. 6 is connected to the support partition 1; the pressing assembly 8 includes a drain sleeve 81, an intermediate shaft 82, a transfer shaft 83, a cutting auger 84, and a sealing cover plate 87. The drain sleeve 81 passes through the drain assembly 6 and the support partition 1. One end of the drain sleeve 81 extends out of the drain assembly 6, and the other end is set against the side of the retention assembly 3. The intermediate shaft 82 is coaxially arranged inside the drain sleeve 81. The cutting auger 84 is fixedly set on the intermediate shaft 82. The end of the intermediate shaft 82 near the drain assembly 6 is provided with a sealing cover plate 87 that is adjusted by magnetic attraction. The other end of the intermediate shaft 82 is connected to the transmission assembly 4. Multiple conveying holes 811 are evenly distributed on the drain sleeve 81. The conveying holes 811 are set corresponding to the drain assembly 6, and multiple cutting teeth 841 are opened on the edge of the cutting auger 84.
[0016] It should be explained that after the equipment is started, the PLC controls the operation of the transmission assembly 4 and the cutting assembly 5, which in turn transmits power to multiple pressing assemblies 8, causing the intermediate shaft 82, the adapter shaft 83, and the cutting auger 84 to rotate synchronously. The cleaned and prepared aloe vera leaves are poured into the cutting assembly 5 for initial processing, where the aloe vera leaves are cut and torn, the phloem is broken, and the cell walls of the leaf pulp gel are broken, forming aloe vera material mixed with fragments and free juice. The aloe vera material enters the retention assembly 3 for storage, and is then conveyed to the drainage sleeve 81 for further processing. During this process, the aloe vera material is conveyed in the drainage sleeve 81 by the cutting auger 84, while the cutting teeth... 841 further cuts the aloe vera material to avoid the generation of a large amount of aloe vera fibers. At the same time, the cutting auger 84 scrapes the inner wall of the drainage sleeve 81 to prevent the conveying hole 811 from being blocked. The aloe vera juice generated during this process is discharged to the drainage component 6 through the conveying hole 811. The remaining aloe vera material is continuously conveyed by the cutting auger 84 and converges to one end of the drainage sleeve 81 where the sealing cover plate 87 is set. The sealing cover plate 87 is adjusted by magnetic attraction under the action of the closing component 7 to ensure that the material pressure is constant. The material gathered at the sealing cover plate 87 is subjected to gradually increasing squeezing pressure, and the juice continues to be discharged through the conveying hole 811.
[0017] It should be explained that the cutting component 5, the retention component 3, and the drainage component 6 are arranged continuously, resulting in a short process chain and automatic material transfer. This avoids the oxidation of the juice and the destruction of heat-sensitive anthraquinone components, and the centralized cleaning points facilitate subsequent cleaning.
[0018] In a preferred embodiment, the pressing component 8 is inclined upward along the direction from the retention component 3 to the drainage component 6.
[0019] In a preferred embodiment, the retention component 3 includes a retention chamber 31, a through-hole partition 33, and a guide partition 34. The upper end of the retention chamber 31 is provided with an inlet 36 corresponding to the position of the cutting component 5. Multiple conveying through holes 32 are provided on both sides of the retention chamber 31 corresponding to the pressing component 8. A driving through hole 35 is provided on the side of the retention chamber 31 that is attached to the support partition 1. The driving through hole 35 is provided corresponding to the transmission component 4. The conveying through hole 32 is located above the driving through hole 35. The through-hole partition 33 is provided at the position of the conveying through hole 32. The through-hole partition 33 and the inlet 36 are connected by the guide partition 34. The through-hole partition 33 and the guide partition 34 divide the retention chamber 31 into an upper receiving chamber and a lower assembly chamber. The driving through hole 35 is located in the lower assembly chamber. In addition, the side wall of the through-hole partition 33 has a notch facing the inlet 36 to connect to the receiving chamber.
[0020] In a preferred embodiment, the transmission assembly 4 includes a transmission motor 41, a transfer wheel 42, and a transmission belt 43. The transmission motor 41 is mounted at the drive through hole 35. Multiple transfer wheels 42 are arranged, with each transfer wheel 42 corresponding to the conveying through hole 32 and the drive through hole 35. The transfer wheels 42 are rotatably mounted on the outer side of the retention assembly 3. The transfer wheel 42 corresponding to the drive through hole 35 is connected to the output end of the transmission motor 41, and the transfer wheel 42 corresponding to the conveying through hole 32 is connected to the pressing assembly 8. The multiple transfer wheels 42 are connected to each other by the transmission belt 43.
[0021] In a preferred embodiment, a rack is arranged on the side of the transmission belt 43 and the surface of the corresponding adapter wheel 42, or friction rubber is arranged on both the side of the transmission belt 43 and the surface of the corresponding adapter wheel 42.
[0022] It should be explained that the transmission force is evenly distributed and delivered to the transfer wheel 42 through the transmission belt 43, which drives the pressing component 8 to operate synchronously. The transmission belt 43 is arranged in both the front and back, providing more arrangement options for the transmission belt 43 and ensuring transmission stability.
[0023] In a preferred embodiment, the drainage assembly 6 includes a drainage chamber 61, a guide ring plate 63, a sealing plate 67, and a sleeve 68. The drainage chamber 61 is fitted to the supporting partition 1, and a drainage port 64 is provided at the lower end of the drainage chamber 61. The drainage chamber 61 has multiple conveying through holes 62 corresponding to the pressing assembly 8, and a driving through hole 65 corresponding to the transmission assembly 4. The sleeve 68 is positioned corresponding to the driving through hole 65, and both ends of the sleeve 68 are fitted to the two sides of the drainage chamber 61. The guide ring plate 63 is positioned corresponding to the closing assembly 7, and is fitted above the sleeve 68. Both ends of the guide ring plate 63 are fitted to the two sides of the drainage chamber 61. The drainage chamber 61 has an assembly port 66 corresponding to the guide ring plate 63 and the driving through hole 65. The assembly port 66 is fitted with a sealing plate 67 corresponding to the driving through hole 65.
[0024] It should be explained that the filtered juice is guided by the guide ring plate 63 to converge towards the drain port 64, which also facilitates subsequent cleaning. In addition, the guide ring plate 63 provides an operation window for the closure assembly 7 and the transmission assembly 4 to be assembled onto the support partition plate 1.
[0025] In a preferred embodiment, the closing assembly 7 includes a support cover plate 71, a guide pillar 72, a magnetic pillar 73, and a transition boss 74. One end of the guide pillar 72 and the magnetic pillar 73 passes through the drainage assembly 6 and is connected to the support partition plate 1. The other end of the guide pillar 72 and the magnetic pillar 73 is fixedly connected to the support cover plate 71. The guide pillar 72 is slidably connected to the support partition plate 1 through a sleeve. The magnetic pillar 73 is slidably connected to the support partition plate 1 through a magnetic sleeve. The transition boss 74 is disposed on the support cover plate 71 and is used to connect the pressing assembly 8.
[0026] In a preferred embodiment, the pressing assembly 8 further includes an input auger 85, an extension shaft 86, and a limiting end plate 88. One end of the drainage sleeve 81 is provided with an inclined sealing port 89, and the other end is provided with an expansion inlet 812. The cutting auger 84 is disposed against the inner wall of the drainage sleeve 81 and is fixedly connected to the intermediate shaft 82. The end of the intermediate shaft 82 near the inclined sealing port 89 is sleeved with the extension shaft 86, and the end near the expansion inlet 812 is fixedly connected with the adapter shaft 83. The adapter shaft 83 is connected to the transmission assembly 4. The extension shaft 86 is connected to the limiting end plate 88. The input auger 85 is disposed on the intermediate shaft 82 and is disposed corresponding to the expansion inlet 812. A sealing cover plate 87 is sleeved on the extension shaft 86 and is disposed in conjunction with the inclined sealing port 89. The sealing cover plate 87 and the limiting end plate 88 are respectively located on both sides of the supporting cover plate 71.
[0027] It should be explained that the magnetic support column 73 controls the synchronous sliding of the support cover plate 71 and its connected limiting end plate 88 and extension shaft 86. During this period, the sealing cover plate 87 is controlled to fit against the inclined sealing port 89 for sealing. In addition, the input auger 85 and the expansion inlet 812 are set to correspond to the retention component 3, which drives the aloe vera material to be transported to the drainage sleeve 81.
[0028] In practice, the PLC controls the operation of the transmission assembly 4 and the cutting assembly 5, which in turn transmits power to multiple pressing assemblies 8, causing the intermediate shaft 82, the adapter shaft 83, and the cutting auger 84 to rotate synchronously. The cleaned and prepared aloe vera leaves are poured into the cutting assembly 5 for initial processing, where the leaves are cut and shredded, the phloem is broken, and the pulp gel is broken down, forming aloe vera material mixed with fragments and free juice. The aloe vera material is then stored in the retention assembly 3 and transported to the drainage sleeve 81 for further processing. During this process, the aloe vera material is conveyed within the drainage sleeve 81 by the cutting auger 84, while the cutting teeth 841 simultaneously... The aloe vera material is further cut to avoid the generation of a large amount of aloe vera fibers. At the same time, the inner wall of the drainage sleeve 81 is scraped by the cutting auger 84 to prevent the conveying hole 811 from being blocked. The aloe vera juice generated during this process is discharged to the drainage component 6 through the conveying hole 811. The remaining aloe vera material is continuously conveyed by the cutting auger 84 and converges to one end of the drainage sleeve 81 where the sealing cover plate 87 is set. The sealing cover plate 87 is adjusted by magnetic attraction under the action of the closing component 7 to ensure that the material pressure is constant. The material gathered at the sealing cover plate 87 is subjected to gradually increasing squeezing pressure, and the juice continues to be discharged through the conveying hole 811.
[0029] The above description is merely a preferred embodiment of this application, but the scope of protection of this application is not limited thereto. Any equivalent substitutions or modifications made by those skilled in the art within the scope of the technology disclosed in this application, based on the technical solution and application concept of this application, should be included within the scope of protection of this application.
Claims
1. A magnetic pressure type aloe vera shredding, pressing, and juicing device, characterized in that: The assembly includes a support partition (1), a bracket (2), a retention component (3), a transmission component (4), a cutting component (5), a drainage component (6), a closing component (7), and a pressing component (8). The retention component (3) and the drainage component (6) are respectively located on both sides of the support partition (1). The lower end of the retention component (3) is supported by the bracket (2). The cutting component (5) is located on the upper end of the retention component (3). Multiple pressing components (8) are arranged. The transmission component (4) and the pressing component (8) are both installed through the drainage component (6), the support partition (1), and the retention component (3). The power input end of the pressing component (8) and the output end of the transmission component (4) extend from one side of the retention component (3) and are connected. The material input end of the pressing component (8) extends from one side of the drainage component (6) and connects to the closing component (7). The closing component (7) passes through the drainage component (6) and connects to the support partition (1). The pressing assembly (8) includes a drain sleeve (81), an intermediate shaft (82), a transfer shaft (83), a cutting auger (84), and a sealing cover (87). The drain sleeve (81) passes through the drain assembly (6) and the support partition (1). One end of the drain sleeve (81) extends out from the drain assembly (6), and the other end is attached to the side of the retention assembly (3). The intermediate shaft (82) is coaxially arranged inside the drain sleeve (81). The cutting auger (84) is fixedly arranged on the intermediate shaft (82). The end of the intermediate shaft (82) near the drain assembly (6) is provided with a sealing cover (87) that is adjusted by magnetic attraction. The other end of the intermediate shaft (82) is connected to the transmission assembly (4). Multiple conveying holes (811) are evenly distributed on the drain sleeve (81). The conveying holes (811) are arranged corresponding to the drain assembly (6), and multiple cutting teeth (841) are provided on the edge of the cutting auger (84).
2. The aloe vera magnetic pressing and shredding juice extraction device according to claim 1, characterized in that: The pressing component (8) is inclined upward along the direction from the retention component (3) to the drainage component (6).
3. The aloe vera magnetic pressure shredding, pressing, and juicing device according to claim 1, characterized in that: The retention component (3) includes a retention chamber (31), a through-hole partition (33), and a guide partition (34). The upper end of the retention chamber (31) is provided with an inlet (36) corresponding to the position of the cutting component (5). Multiple conveying through holes (32) are provided on both sides of the retention chamber (31) corresponding to the pressing component (8). A drive through hole (35) is provided on the side of the retention chamber (31) that is in contact with the support partition (1). The drive through hole (35) is provided corresponding to the transmission component (4). Located above the drive through hole (35), the through hole partition (33) is correspondingly set at the position of the conveying through hole (32). The through hole partition (33) and the feed inlet (36) are connected by the guide partition (34). The through hole partition (33) and the guide partition (34) divide the retention chamber (31) into two parts: the upper receiving chamber and the lower assembly chamber. The drive through hole (35) is located in the lower assembly chamber. In addition, the side wall of the through hole partition (33) has a notch facing the feed inlet (36) to connect to the receiving chamber.
4. The aloe vera magnetic pressure shredding, pressing, and juicing device according to claim 1, characterized in that: The transmission assembly (4) includes a transmission motor (41), a transfer wheel (42), and a transmission belt (43). The transmission motor (41) is located at the drive through hole (35). Multiple transfer wheels (42) are arranged. The transfer wheels (42) are set corresponding to the conveying through hole (32) and the drive through hole (35). The transfer wheels (42) are rotatably set on the outer side of the retention assembly (3). The transfer wheel (42) at the drive through hole (35) is connected to the output end of the transmission motor (41). The transfer wheel (42) at the conveying through hole (32) is connected to the pressing assembly (8). Multiple transfer wheels (42) are connected to each other through the transmission belt (43).
5. The aloe vera magnetic pressure shredding, pressing, and juicing device according to claim 4, characterized in that: A rack is arranged on the side of the transmission belt (43) and the surface of the corresponding adapter wheel (42), or friction rubber is arranged on the side of the transmission belt (43) and the surface of the corresponding adapter wheel (42).
6. The aloe vera magnetic pressure shredding, pressing, and juicing device according to claim 1, characterized in that: The drainage assembly (6) includes a drainage chamber (61), a guide ring plate (63), a sealing plate (67), and a sleeve (68). The drainage chamber (61) is fitted to the supporting partition (1). A drainage port (64) is provided at the lower end of the drainage chamber (61). Multiple conveying through holes (62) are provided in the drainage chamber (61) corresponding to the pressing assembly (8). A driving through hole (65) is provided in the drainage chamber (61) corresponding to the transmission assembly (4). The sleeve (68) is provided with a drive through hole (65) corresponding to the driving through hole (65). The sleeve (68) is positioned so that its two ends are attached to the two sides of the drain chamber (61). The guide ring plate (63) is positioned corresponding to the closing component (7). The guide ring plate (63) is positioned above the sleeve (68), and its two ends are attached to the two sides of the drain chamber (61). The drain chamber (61) is provided with an assembly port (66) corresponding to the guide ring plate (63) and the second drive through hole (65). The assembly port (66) is provided with a sealing plate (67) corresponding to the second drive through hole (65).
7. The aloe vera magnetic pressure shredding, pressing, and juicing device according to claim 1, characterized in that: The closing assembly (7) includes a support cover plate (71), a guide pillar (72), a magnetic support pillar (73), and a transition boss (74). One end of the guide pillar (72) and the magnetic support pillar (73) passes through the drainage assembly (6) and is connected to the support partition plate (1). The other end of the guide pillar (72) and the magnetic support pillar (73) is fixedly connected to the support cover plate (71). The guide pillar (72) is slidably connected to the support partition plate (1) through a sleeve. The magnetic support pillar (73) is slidably connected to the support partition plate (1) through a magnetic sleeve. The transition boss (74) is set on the support cover plate (71) and is used to connect the pressing assembly (8).
8. The aloe vera magnetic pressure shredding, pressing, and juicing device according to claim 1, characterized in that: The pressing assembly (8) further includes an input auger (85), an extension shaft (86), and a limiting end plate (88). One end of the drain sleeve (81) is provided with an inclined sealing port (89), and the other end is provided with an expansion inlet (812). The cutting auger (84) is set against the inner wall of the drain sleeve (81). The cutting auger (84) is fixedly connected to the intermediate shaft (82). The end of the intermediate shaft (82) near the inclined sealing port (89) is sleeved with the extension shaft (86), and the end near the expansion inlet (812) is fixedly connected. A fixed connecting shaft (83) is connected to the transmission assembly (4). An extension shaft (86) is connected to a limiting end plate (88). An input auger (85) is set on the intermediate shaft (82), and the input auger (85) is set to the expansion inlet (812). A sealing cover plate (87) is sleeved on the extension shaft (86). The sealing cover plate (87) is set to cooperate with the inclined sealing port (89). The sealing cover plate (87) and the limiting end plate (88) belong to the two sides of the support cover plate (71).