Tendon, capsule dressing and seed settling device

Abstract

The invention belongs to the technical field of food processing, and discloses a grain, capsule dressing and seed settling removing device which comprises a stock solution slow flow pool assembly, a plurality of sets of grain removing supporting arm assemblies are arranged at the top of the stock solution slow flow pool assembly, and cross grain removing arm assemblies in cross transposition movement are arranged on the grain removing supporting arm assemblies. According to the grapefruit seed removing device, the grapefruit mixed liquid is subjected to seed removing through the cross collateral removing arm assembly, the grain settling tank is arranged at the rear end of the slow flow pool, when grains in the grapefruit mixed liquid flow through the grain settling tank, the remaining grains are heavy, and the grains settle in the grain settling tank and are separated, so that the seed removing effect is achieved, and the grapefruit seed removing device is suitable for large-scale popularization and application. When the tendons and the capsule dressing on the first dredging net rod arm need to be cleaned, the first dredging net rod arm is lifted up, the dredging bin assembly transversely moves to the position below the first dredging net rod arm, then the tendons and the capsule dressing wound on the first dredging net rod arm are cleaned through the U-shaped water spraying pipe, and the cleaned tendons and the capsule dressing are discharged from the position of the discharging hopper in a concentrated mode.

Description

Technical Field

[0001] This invention belongs to the field of food processing technology, and specifically relates to a device for removing tendons, outer skin, and sinking seeds. Background Technology

[0002] In the canning process of citrus fruits (such as oranges and grapefruits), removing the white pith, fibrous tissue, and seeds from the surface of the fruit is a crucial step that affects the taste and quality of the product. Traditional processes typically employ an acid-alkali soaking method, which involves first soaking the fruit in an acidic solution to break down the pectin, and then neutralizing the residual acid with an alkaline solution to promote dehydration, thereby softening and removing the pith.

[0003] Various mechanized devices are already available in the prior art to assist in completing the above process. For example, Chinese patent CN109259264A discloses a "skin removal device in orange canning equipment," which uses a horizontally sliding shell and a vertically movable separating sliding component to achieve alternating soaking and separation discharge of acid and alkali solutions. Its advantage is that the power source (such as a cylinder) is isolated from the acid and alkali solutions, avoiding corrosion problems. However, this device lacks flow control of the fruit particles during processing, which may lead to uneven skin removal and affect the processing effect.

[0004] Another Chinese patent, CN112056576A, proposes a "device for removing the outer skin in the processing of canned oranges." This device uses a rotatable soaking tank and a hollow rotating shaft to create relative motion between the fruit pieces and the acid / alkaline solution, thereby improving the dissolution efficiency of the outer skin. While this device improves processing uniformity to some extent, its complex structure and lack of an effective solution for separating the fibrous tissue from the seeds make it particularly effective when processing fruits with large fibrous tissue and many seeds, such as grapefruit and pomelo.

[0005] Furthermore, in actual production, the pulp often contains residual veins and small seeds. Existing equipment mostly relies on manual sorting or simple filtration, which is inefficient, labor-intensive, and prone to damaging the fruit. Especially in continuous production processes, cleaning the intercepting components often requires machine shutdown, severely impacting production efficiency.

[0006] Therefore, there is an urgent need to develop a new type of impurity removal device that can efficiently intercept and automatically clean the fibrous tissue and outer membrane, and has the function of seed sedimentation, while taking into account both fruit protection and production continuity, so as to meet the comprehensive requirements of modern food processing for automation, high efficiency and high quality. Summary of the Invention

[0007] To address the problems mentioned in the background section, this invention provides a device for removing veins, outer shells, and sinking seeds, featuring continuous production capabilities.

[0008] To achieve the above objectives, the present invention provides the following technical solution: a device for removing veins, shells, and sedimentation, comprising a raw liquid slow-flow tank assembly, wherein multiple sets of vein-removing support arm assemblies are provided on the top of the raw liquid slow-flow tank assembly, and a cross vein-removing arm assembly with cross-type shifting motion is provided on the support arm assembly. The cross vein-removing arm assembly includes a first toothed arm and a second toothed arm that mesh with both sides of a shifting gear. A second vein-removing net arm is fixedly provided at the bottom of the first toothed arm, and a first vein-removing net arm is fixedly provided at the bottom of the second toothed arm. Through the meshing of the first toothed arm and the second toothed arm on both sides of the shifting gear, the second vein-removing net arm and the first vein-removing net arm form an arm structure in the slow-flow tank in which the removal of veins and the cleaning of veins do not interfere with each other.

[0009] In a preferred embodiment of a device for removing veins, husks, and settling seeds, the original liquid slow-flow tank assembly includes an inclined slow-flow tank, with a seed settling trough at the bottom of one end of the slow-flow tank. The slow-flow tank promotes the separation of seeds by gravity settling through its inclined structure.

[0010] In a preferred embodiment of a device for removing tendons, pods, and seeds, an electromagnetic toothed arm assembly is further included, which is disposed on top of the tendon removal support arm assembly. The electromagnetic toothed arm assembly includes a toothed main toothed arm and a powerful magnet. The cross tendon removal arm assembly is driven to perform a cross-type repositioning motion by the magnetic force of the electromagnet and the powerful magnet.

[0011] In a preferred embodiment of a device for removing veins, pods, and seeds, a collection chamber assembly is further provided on both sides of the vein removal support arm assembly. The collection chamber assembly includes a collection square chamber and a U-shaped water spray pipe. The collection square chamber is moved laterally at the bottom of the cross vein removal arm assembly by the extension and retraction of a hydraulic cylinder, thereby achieving a wrapping cleaning of the intercepted veins.

[0012] In a preferred embodiment of a device for removing tendons, husks, and sediment, the gathering bin assembly sprays high-pressure water into the gathering bin through a U-shaped water spray pipe, and the cleaned tendons and husks are discharged from the discharge hopper.

[0013] In a preferred embodiment of a device for removing tendons, pods, and seeds, the electromagnetic toothed arm assembly achieves rapid repositioning of the cross-tendering arm assembly through the meshing transmission between the toothed main toothed arm and the drive gear.

[0014] In a preferred embodiment of a device for removing veins, pods, and seeds, when the bottom of the second or first de-veining net arm abuts against the slow-flow pool, the veins and pods in the fruit juice within the slow-flow pool are wrapped and intercepted.

[0015] A method for removing veins, outer membranes, and sinking seeds, characterized by comprising the following steps: Slow-flow separation stage: The grapefruit mixture is introduced into an inclined slow-flow pool, and the seeds are separated by sedimentation in a seed settling tank; Cross-interception phase: The cross-intercepting arm assembly wraps around and intercepts the fibrous strands and capsules in the mixture; Automatic cleaning phase: The intercepted tendons and membranes are rinsed, cleaned, and discharged through the collection chamber component.

[0016] In a preferred embodiment of a device for removing veins, husks, and settling seeds, the inclination angle of the slow-flow pool promotes automatic seed separation by gravity.

[0017] In a preferred embodiment of a device for removing veins, pods, and sinking seeds, the first toothed arm and the second toothed arm slide up and down through the cooperation of a T-shaped sliding block and a T-shaped sliding groove.

[0018] Compared with the prior art, the beneficial effects of the present invention are: 1. The original liquid slow-flow tank assembly of the present invention is provided with multiple sets of de-linking support arm assemblies at the top. The de-linking support arm assembly is provided with cross de-linking arm assemblies with cross-type displacement movement. The cross de-linking arm assemblies remove the fibrous tissue and calyx in the grapefruit mixture. The slow-flow tank of the present invention is provided with a seed settling tank at the rear end. When the seeds in the grapefruit mixture flow through the seed settling tank, the remaining seeds are heavier and settle and separate in the seed settling tank, thereby achieving the effect of seed removal. When it is necessary to clean the fibrous tissue and calyx on the first de-linking net arm, the first de-linking net arm is lifted so that the collection bin assembly moves laterally below the first de-linking net arm. Then, the fibrous tissue and calyx wrapped on the first de-linking net arm are cleaned by the U-shaped water spray pipe. The cleaned fibrous tissue and calyx are discharged from the discharge hopper.

[0019] 2. This invention utilizes the meshing of the first and second toothed arms on both sides of the shifting gear to create a staggered interception arm structure where the second and first desiccant arms are positioned directly below the square base arm. When the first desiccant arm is in a downward-applying interception state, the second desiccant arm is in an upward-cleaning state. Similarly, when the second desiccant arm is in a downward-applying interception state, the first desiccant arm is in an upward-cleaning state. This allows one first desiccant arm to be in interception mode while the other second desiccant arm is in cleaning mode, enabling simultaneous and non-interfering interception and removal of tendons and fascia, as well as subsequent cleaning.

[0020] 3. The top of the desanding support arm assembly of the present invention is provided with an electromagnetic gear moving arm assembly. The electromagnetic gear moving arm assembly drives the cross desanding arm assembly to perform cross-type displacement movement on the desanding support arm assembly. The present invention achieves rapid triggering of the cross desanding arm assembly's misalignment action through the electromagnetic gear moving arm assembly, while avoiding hard damage caused by the cross desanding arm assembly and the original liquid slow flow tank assembly during use. Attached Figure Description

[0021] Figure 1This is a perspective view of the present invention; Figure 2 This is a perspective view of the raw liquid slow-flow tank component of the present invention; Figure 3 This is a perspective view of some components of the present invention; Figure 4 This is a perspective view of the network-removing support arm assembly of the present invention; Figure 5 This is a perspective view of the cross-linking arm assembly of the present invention; Figure 6 This is a perspective view of the electromagnetic geared boom assembly of the present invention; Figure 7 This is a perspective view of the network storage assembly of the present invention.

[0022] In the diagram: 100, Raw liquid slow-flow tank assembly; 101, Slow-flow tank; 102, Support leg; 103, Support base; 104, Grain settling tank; 105, Sealed pull plate; 200, De-linking support arm assembly; 201, Support horizontal arm; 202, Hydraulic cylinder; 203, Support vertical arm; 204, Z-shaped arm; 205, Electromagnet; 206, Drive gear; 207, Guide slide rod; 208, Square seat arm; 209, T-shaped slide groove; 210, Shift gear; 211, Drive auxiliary shaft. 300. Cross-shaped desiccant arm assembly; 301. First toothed arm; 302. T-shaped sliding block; 303. Second toothed arm; 304. First desiccant arm; 305. Second desiccant arm; 400. Electromagnetic toothed arm assembly; 401. Toothed main toothed arm; 402. Powerful magnet; 403. Return spring; 404. Guide end hole; 405. Contact end plate; 500. Desiccant collection bin assembly; 501. Desiccant collection bin; 502. U-shaped water spray pipe; 503. Water inlet pipe; 504. Discharge hopper. Detailed Implementation

[0023] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on 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.

[0024] Please see Figures 1-7As shown, the present invention provides a device for removing fibrous tissue, exfoliating cells, and settling seeds, including a raw liquid slow-flow tank assembly 100. Multiple sets of de-fibrous support arm assemblies 200 are arranged on the top of the raw liquid slow-flow tank assembly 100. Cross de-fibrous arm assemblies 300 with cross-positioning motion are arranged on the de-fibrous support arm assemblies 200. Through the cross-positioning of the cross de-fibrous arm assemblies 300 on the de-fibrous support arm assemblies 200, an arm structure is formed on the cross de-fibrous arm assemblies 300 where de-fibrous tissue removal and cleaning do not interfere with each other. An electromagnetic geared arm assembly 400 is arranged on the top of the de-fibrous support arm assemblies 200, driving the cross de-fibrous arm assemblies 300 to perform cross-positioning motion on the de-fibrous support arm assemblies 200. A collection chamber assembly 500 is arranged on both sides of the de-fibrous support arm assemblies 200, which performs a wrapping cleaning and centralized collection of the fibrous tissue intercepted on the cross de-fibrous arm assemblies 300.

[0025] A method for removing veins, outer membranes, and sinking seeds, characterized by comprising the following steps: Slow-flow separation stage: The grapefruit mixture is introduced into the inclined slow-flow pool 101, and the seed settling tank 104 is used to achieve seed settling and separation. Specifically, when the grapefruit mixture flows through the slow-flow pool 101, the seeds settle and are separated in the seed settling tank 104 because the seeds are heavier.

[0026] Cross-interception stage: The cross-intercepting arm assembly 300 intercepts the tendons and calyxes in the mixture by wrapping them around. Specifically, when the tendons and calyxes in the grapefruit mixture pass through the second or first intercepting arm 305, the longer tendons and calyxes will wrap around the thin metal rods on the second or first intercepting arm 305 or the first intercepting arm 304, thereby removing the tendons and calyxes. At the same time, the electromagnetic gear arm assembly 400 drives the second or first intercepting arm 305 or the first intercepting arm 304 on the cross-intercepting arm assembly 300 to switch arms, so that when one is in the interception use, the other is in the cleaning state, ensuring that the cross-intercepting arm assembly 300 continuously intercepts the tendons and calyxes.

[0027] Automatic cleaning phase: The intercepted tendons and linings are rinsed, cleaned, and discharged by the collection bin assembly 500. Specifically, the collection bin assembly 500 is driven by the de-linking support arm assembly 200 to move below the second de-linking net arm 305 or the first de-linking net arm 304. The collection bin assembly 500 rinses and cleans the tendons and linings wrapped on the cross de-linking arm assembly 300. The cleaned tendons and linings are discharged from one side of the collection bin assembly 500.

[0028] In a preferred embodiment, please refer to Figure 2The raw liquid slow flow tank assembly 100 includes a slow flow tank 101. A seed settling trough 104 is provided at the bottom of one end of the slow flow tank 101. A sealed pull plate 105 is provided at the bottom of the seed settling trough 104. A support leg 102 is fixedly provided at the bottom of the slow flow tank 101. A support base 103 is fixedly provided at the bottom of the support leg 102. The slow flow tank 101 is inclined and positioned above the support base 103.

[0029] In a preferred embodiment, please refer to Figure 4 The de-corrosion support arm assembly 200 includes a support horizontal arm 201, a support vertical arm 203 fixedly mounted on the top of the support horizontal arm 201, a Z-shaped arm 204 fixedly mounted on the support vertical arm 203, two hydraulic cylinders 202 mounted at the bottom of the Z-shaped arm 204, and a square seat arm 208 mounted on the top of the Z-shaped arm 204. A drive auxiliary shaft 211 is rotatably mounted in the middle of the square seat arm 208. A shift gear 210 is fixedly mounted at one end of the drive auxiliary shaft 211, and a drive gear 206 is fixedly mounted at the other end of the drive auxiliary shaft 211. T-shaped grooves 209 are provided at both ends of the inner wall of the square seat arm 208. A guide slide rod 207 is fixedly mounted at one end of the outer wall of the square seat arm 208, and an electromagnet 205 is fixedly mounted at the other end of the outer wall of the square seat arm 208.

[0030] In this embodiment, the support arm 201 is fixed to the top of the slow-flow pool 101.

[0031] In a preferred embodiment, please refer to Figure 5 The cross-shaped de-snagging arm assembly 300 includes a first toothed arm 301 and a second toothed arm 303. A second de-snagging rod arm 305 is fixedly disposed at the bottom of the first toothed arm 301, and a first de-snagging rod arm 304 is fixedly disposed at the bottom of the second toothed arm 303. T-shaped sliding blocks 302 are fixedly disposed at the rear ends of both the first toothed arm 301 and the second toothed arm 303.

[0032] In this embodiment, the cross-linking arm assembly 300 is disposed inside the square seat arm 208.

[0033] In this embodiment, the first toothed arm 301 slides up and down at one end inside the square seat arm 208 via the T-shaped sliding block 302.

[0034] In this embodiment, the second toothed arm 303 slides up and down at the other end inside the square seat arm 208 via the T-shaped sliding block 302.

[0035] In this embodiment, the first tooth arm 301 and the second tooth arm 303 are disposed on both sides of the shift gear 210.

[0036] In this embodiment, one side of the shift gear 210 meshes with the first tooth arm 301, and the other side of the shift gear 210 meshes with the second tooth arm 303.

[0037] In this embodiment, the meshing of the first toothed arm 301 and the second toothed arm 303 on both sides of the shift gear 210 causes the second de-scraping arm 305 and the first de-scraping arm 304 to form a de-scraping interception arm structure with a staggered action directly below the square seat arm 208.

[0038] In a preferred embodiment, please refer to Figure 6 The electromagnetic geared arm assembly 400 includes a geared main geared arm 401. A powerful magnet 402 is fixedly installed at one end of the geared main geared arm 401, and an abutting end plate 405 is fixedly installed at the other end of the geared main geared arm 401. Guide end holes 404 are opened at both ends of the abutting end plate 405, and a return spring 403 is fixedly installed inside the abutting end plate 405.

[0039] In this embodiment, the electromagnetic geared boom assembly 400 is disposed around the square seat arm 208.

[0040] In this embodiment, the abutting end plate 405 slides on the guide slide rod 207 through the guide end hole 404.

[0041] In this embodiment, the two ends of the return spring 403 are fixed to the contact end plate 405 and one end of the square seat arm 208, respectively.

[0042] In this embodiment, the powerful magnet 402 and the electromagnet 205 are positioned opposite each other.

[0043] In this embodiment, the toothed main gear arm 401 is located on top of the drive gear 206.

[0044] In this embodiment, the toothed main tooth arm 401 meshes with the drive gear 206.

[0045] In a preferred embodiment, please refer to Figure 7 The collection bin assembly 500 includes a collection bin 501, a U-shaped water spray pipe 502 is provided on the outside of the collection bin 501, a water inlet pipe 503 is provided at one end of the collection bin 501, and a discharge hopper 504 is provided at the other end of the collection bin 501. The water inlet pipe 503 and the U-shaped water spray pipe 502 are connected.

[0046] In this embodiment, the water inlet pipe 503 is connected to an external high-pressure water delivery device via a pipeline.

[0047] In this embodiment, water entering from the inlet pipe 503 is sprayed at high pressure into the collection container 501 through the U-shaped spray pipe 502.

[0048] In this embodiment, one side of the collection container 501 is fixedly connected to the end rod of the hydraulic cylinder 202.

[0049] In this embodiment, the extension of two hydraulic cylinders 202 drives two sets of netting bin assemblies 500 to move laterally under the second netting removal rod arm 305 and the first netting removal rod arm 304, respectively.

[0050] The working principle of this invention is as follows: Currently, in the processing of grapefruit pulp canned goods, due to the coarse fibrous tissue and hard pericarp of grapefruit, ordinary acid and alkali treatment is often insufficient to remove them completely, and there are also many seeds. In actual production and processing, manual selection was previously used, which yielded poor results. To solve the above problems, the original liquid slow-flow tank assembly 100 of this invention is equipped with multiple sets of de-fibrous support arm assemblies 200 at its top. The de-fibrous support arm assembly 200 is equipped with a cross de-fibrous arm assembly 300 with a cross-shaped displacement movement. The cross de-fibrous arm assembly 300 removes the fibrous tissue and pericarp from the grapefruit mixture. Specifically, the cross de-fibrous arm assembly 300 includes a first toothed arm 301 and a second toothed arm 303. The first toothed arm 301... A second desiccant arm 305 is fixedly installed at the bottom, and a first desiccant arm 304 is fixedly installed at the bottom of the second toothed arm 303. T-shaped sliding blocks 302 are fixedly installed at the rear ends of both the first toothed arm 301 and the second toothed arm 303. In actual use, the first desiccant arm 304 abuts against the bottom of the slow-flow tank 101. At this time, when the fibrous tissue and lining in the pomelo mixture pass through the first desiccant arm 304, the longer fibrous tissue and lining will wrap around the thin metal rod on the first desiccant arm 304, thereby achieving the purpose of removing the fibrous tissue and lining. Simultaneously, a seed settling tank 104 is provided at the rear end of the slow-flow tank 101. When the seeds in the pomelo mixture flow through the seed settling tank 104, the remaining seeds... The grains settle and separate in the grain settling tank 104, thus achieving the effect of deseeding. This method achieves the removal of fibrous tissue, outer skin, and grain settling. Simultaneously, the deseeding support arm assembly 200 of this invention is equipped with a fibrous tissue collection chamber assembly 500 on both sides. The fibrous tissue collection chamber assembly 500 includes a fibrous tissue collection square chamber 501, with a U-shaped water spray pipe 502 on the outside of the fibrous tissue collection square chamber 501. One end of the fibrous tissue collection square chamber 501 is equipped with a water inlet pipe 503, and the other end is equipped with a discharge hopper 504. The water inlet pipe 503 and the U-shaped water spray pipe 502 are connected, and the water inlet pipe 503 is connected to an external high-pressure water delivery device through a pipe. The water entering through the water inlet pipe 503 is pressurized by the U-shaped water spray pipe 502. The spray is applied inside the collection bin 501. The extension of two hydraulic cylinders 202 drives two sets of collection bin components 500 to move laterally under the second de-spinning rod arm 305 and the first de-spinning rod arm 304, respectively. The hydraulic cylinders 202 drive the collection bin components 500 to move under the first de-spinning rod arm 304. When it is necessary to clean the fibrous material and lining on the first de-spinning rod arm 304, the first de-spinning rod arm 304 is lifted, so that the collection bin components 500 move laterally under the first de-spinning rod arm 304. Then, the U-shaped water spray pipe 502 cleans the fibrous material and lining wrapped around the first de-spinning rod arm 304. The cleaned fibrous material and lining are discharged from the discharge hopper 504.

[0051] Based on the above, in order to solve the problem of mutual interference between interception, removal and cleaning when using the traditional first de-scraping arm 304, the present invention provides a cross de-scraping arm assembly 300, which includes a first toothed arm 301 and a second toothed arm 303. A second de-scraping arm 305 is fixedly mounted at the bottom of the first toothed arm 301, and a first de-scraping arm 304 is fixedly mounted at the bottom of the second toothed arm 303. Specifically, the cross de-scraping arm assembly 300 is disposed inside the square base arm 208, and the first toothed arm 301 slides in a T-shape. Block 302 slides up and down at one end inside the square seat arm 208, and the second toothed arm 303 slides up and down at the other end inside the square seat arm 208 via the T-shaped sliding block 302. At this time, the first toothed arm 301 and the second toothed arm 303 are set on both sides of the shift gear 210. One side of the shift gear 210 meshes with the first toothed arm 301, and the other side of the shift gear 210 meshes with the second toothed arm 303. This invention makes an innovative improvement to the cross-type de-rotating arm assembly 300. The cross-type de-rotating arm assembly 300 of this invention is provided with The structure comprises a second de-scraping arm 305 and a first de-scraping arm 304. In actual use, the meshing of the first toothed arm 301 and the second toothed arm 303 on both sides of the shift gear 210 causes the second de-scraping arm 305 and the first de-scraping arm 304 to form a de-scraping interception arm structure with a staggered action directly below the square seat arm 208. With this structure, when the first de-scraping arm 304 is in a downward blocking interception state, the second de-scraping arm 305 is in an upward cleaning state. Similarly, when the second de-netizing arm 305 is in a downward-contacting interception state, the first de-netizing arm 304 is in an upward-cleaning state. In this way, when one first de-netizing arm 304 is in the interception state, the other second de-netizing arm 305 is in the cleaning state. Through this structure, the interception and removal of tendons and linings and the subsequent cleaning of the first and second de-netizing arms 304 can be carried out simultaneously without interference.

[0052] Based on the above, in order to solve the problem of rapid triggering of the misalignment action of the cross-type de-linking arm assembly 300, and to solve the problem of hard damage when the bottoms of the first de-linking rod arm 304 and the second de-linking rod arm 305 come into contact with the slow flow pool 101, the de-linking support arm assembly 200 of the present invention is provided with an electromagnetic gear moving arm assembly 400 at the top. The electromagnetic gear moving arm assembly 400 drives the cross-type de-linking arm assembly 300 to perform a cross-type repositioning movement on the de-linking support arm assembly 200. Specifically, the electromagnetic gear moving arm assembly 400 is set on the periphery of the square seat arm 208. At this time, the abutment end plate 405 slides on the guide slide rod 207 through the guide end hole 404, and the return spring 403 at this time... Both ends are fixed to the contact end plate 405 and one end of the square seat arm 208, respectively. The strong magnet 402 and the electromagnet 205 are set opposite each other. At this time, the geared main gear arm 401 is located on top of the drive gear 206 and meshes with the drive gear 206. In actual use, the push of the contact end plate 405 by the return spring 403 causes the contact end plate 405 to drive the geared main gear arm 401 away from the square seat arm 208. At this time, the geared main gear arm 401 drives the drive auxiliary shaft 211 to rotate counterclockwise through meshing with the drive gear 206. At this time, the drive auxiliary shaft 211 drives the shift gear 210 to rotate counterclockwise. At this time, due to the shift gear 210 on one side The first de-coring rod arm 305 engages with the first toothed arm 301, and the other side of the shifting gear 210 engages with the second toothed arm 303. At this time, the second de-coring rod arm 305 moves downward and abuts against the bottom of the slow-flow pool 101. Meanwhile, the first de-coring rod arm 304 moves upward and lifts. Simultaneously, the contact between the second de-coring rod arm 305 and the slow-flow pool 101 is achieved through the elastic force of the return spring 403. Through the elastic action of the return spring 403, the contact between the second de-coring rod arm 305 and the slow-flow pool 101 is a flexible contact, not a rigid contact. This ensures the safety of the contact between the second de-coring rod arm 305 and the slow-flow pool 101. Furthermore, when the second de-coring rod arm 305 needs to be de-cored... When the meshing arm 305 and the first de-meshing arm 304 are misaligned, the electromagnet 205 is energized. The magnetic force generated by the electromagnet 205 drives the toothed main arm 401 to move in the opposite direction through the strong magnet 402, that is, the above-mentioned action is reversed. At this time, the shift gear 210 rotates in the opposite direction. The first de-meshing arm 304 moves downward and abuts against the bottom of the slow flow tank 101. At this time, the second de-meshing arm 305 moves upward and lifts up. That is, the electromagnetic toothed arm assembly 400 realizes the rapid triggering of the misalignment action of the cross de-meshing arm assembly 300, while avoiding the hard damage caused by the cross de-meshing arm assembly 300 and the original liquid slow flow tank assembly 100 during use. Although embodiments of the present invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and variations 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 device for removing veins, capsules, and sedimentation seeds, comprising a raw liquid slow-flow tank assembly (100), characterized in that: The top of the original liquid slow flow tank assembly (100) is provided with multiple sets of de-sanding support arm assemblies (200). The de-sanding support arm assembly (200) is provided with a cross de-sanding arm assembly (300) with cross-type shifting motion. The cross de-sanding arm assembly (300) includes a first toothed arm (301) and a second toothed arm (303) that mesh with both sides of the shifting gear (210). A second de-sanding net rod arm (305) is fixedly provided at the bottom of the first toothed arm (301), and a first de-sanding net rod arm (304) is fixedly provided at the bottom of the second toothed arm (303). Through the meshing of the first toothed arm (301) and the second toothed arm (303) on both sides of the shifting gear (210), the second de-sanding net rod arm (305) and the first de-sanding net rod arm (304) form an arm structure in the slow flow tank (101) in which the removal of fibrous material and the cleaning of fibrous material do not interfere with each other.

2. The device for removing veins, outer membranes, and sinking seeds according to claim 1, characterized in that: The original liquid slow flow tank assembly (100) includes an inclined slow flow tank (101), and a grain settling trough (104) is provided at the bottom of one end of the slow flow tank (101). The slow flow tank (101) promotes the gravity settling and separation of grains through the inclined structure.

3. The device for removing veins, outer membranes, and sinking seeds according to claim 1, characterized in that: It also includes an electromagnetic geared arm assembly (400) disposed on top of the de-corrosion support arm assembly (200). The electromagnetic geared arm assembly (400) includes a geared main gear arm (401) and a powerful magnet (402). The cross de-corrosion arm assembly (300) is driven to perform cross-type transposition movement by the magnetic force of the electromagnet (205) and the powerful magnet (402).

4. The device for removing veins, outer membranes, and sinking seeds according to claim 1, characterized in that: It also includes a collection chamber assembly (500) set on both sides of the desiccant support arm assembly (200). The collection chamber assembly (500) includes a collection square chamber (501) and a U-shaped water spray pipe (502). The collection square chamber (501) is moved laterally at the bottom of the cross desiccant arm assembly (300) by the extension and retraction of the hydraulic cylinder (202) to achieve a wrapping cleaning of the intercepted fascia.

5. The device for removing veins, outer membranes, and sinking seeds according to claim 4, characterized in that: The collection bin assembly (500) sprays high-pressure water into the collection bin (501) through a U-shaped water spray pipe (502), and the cleaned fibrous material and lining are discharged from the discharge hopper (504).

6. The device for removing veins, outer membranes, and sinking seeds according to claim 3, characterized in that: The electromagnetic geared arm assembly (400) achieves rapid shifting of the cross-linking arm assembly (300) through the meshing transmission between the geared main gear arm (401) and the drive gear (206).

7. The device for removing veins, outer membranes, and sinking seeds according to claim 1, characterized in that: When the bottom of the second desiccant arm (305) or the first desiccant arm (304) abuts against the slow-flow pool (101), the fibrous tissue and calyx in the fruit juice in the slow-flow pool (101) are wrapped and intercepted.

8. A method for removing veins, outer skin, and sinking seeds, using the apparatus for removing veins, outer skin, and sinking seeds as described in any one of claims 1-7, characterized in that... Includes the following steps: Slow-flow separation stage: The grapefruit mixture is introduced into an inclined slow-flow pool (101), and the seed sedimentation separation is achieved by using a seed settling tank (104); Cross-interception phase: The cross-intercepting arm assembly (300) is used to entangle and intercept the fibrous strands and capsules in the mixture; Automatic cleaning phase: The intercepted tendons and linings are rinsed, cleaned and discharged in a concentrated manner through the collection chamber component (500).

9. The method for removing veins, outer membranes, and sinking seeds according to claim 8, characterized in that: The tilt angle of the slow-flow pool (101) promotes automatic separation of grains by gravity.

10. The device for removing veins, outer membranes, and sinking seeds according to claim 1, characterized in that: The first toothed arm (301) and the second toothed arm (303) slide up and down through the cooperation of the T-shaped sliding block (302) and the T-shaped sliding groove (209).

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