Abalone peptide slurry electrodialysis device and use method thereof

Abstract

The present invention discloses an abalone peptide slurry electrodialysis device and a method of using the device, and belongs to the technical field of peptide slurry electrodialysis. The device comprises a lifting bracket, an electrodialysis reaction disc cavity fixedly mounted on the upper side of the lifting bracket, a self-cleaning mechanism, an eddy current effect generating mechanism, and a driving mechanism. The first electric telescopic rod attached to both sides of the eddy current effect generating mechanism can be expanded outwards through the first electric telescopic rod during the cleaning stage to control the extended U-shaped expansion sleeve to separate the mixing circular cavity into two non-interfering cleaning spaces, one above and one below, so as to inject different cleaning reagents according to the ionic characteristics of the membrane components in the cleaning space. This is different from the traditional cleaning stage, where there is no need to disassemble the membrane components with different ionic characteristics for cleaning. While achieving simultaneous cleaning of the two membrane components, it can reduce maintenance time and cost, and also reduce mechanical damage caused by repeated disassembly of the membrane components, thereby increasing the performance and life of the membrane.

Description

Technical Field

[0001] The invention relates to the technical field of peptide slurry electrodialysis, and more specifically to an abalone peptide slurry electrodialysis device and a use method thereof. Background Art

[0002] Abalone peptide slurry is a functional food raw material that is high in protein and low in fat and rich in various amino acids and trace elements. On the existing production line, it is generally made by breaking down the large molecular proteins in abalone meat into small molecular peptide segments through biological enzymatic hydrolysis technology. During the preparation process, in order to further improve the purity and stability of the product, the production line usually combines electrodialysis equipment to process the peptide liquid, and removes inorganic salts and other unnecessary ions in the solution through electrodialysis technology, thereby producing high-quality abalone peptide slurry.

[0003] After the electrodialysis equipment has been working for a long time, various impurities will adhere to the surface of the membrane components configured on the equipment. These impurities will reduce the permeability and mass transfer efficiency of the membrane, affecting the effect of electrodialysis and the quality of the final product. Therefore, it is necessary to clean the electrodialysis equipment regularly. In the prior art, such attached impurities are generally cleaned by cleaning agents.

[0004] However, the membrane components in the electrodialysis equipment are divided into anode membrane components and cathode membrane components, which are installed in a cross-arrangement. The main pollutants in the anode membrane components are cations and oxides, which are usually cleaned with acidic oxidants, while the main pollutants in the cathode membrane components are anions and reductants, which are usually cleaned with alkaline washing solution. Therefore, during the cleaning process, the anode membrane components and the cathode membrane components need to be processed in batches separately, which is cumbersome and complicated, and will also cause certain damage to the membrane components during the repeated assembly and disassembly of the membrane components. Summary of the invention

[0005] In view of the problems existing in the prior art, the object of the present invention is to provide an abalone peptide slurry electrodialysis device, aiming to solve the above technical problems.

[0006] To solve the above problems, the present invention adopts the following technical solutions.

[0007] An abalone peptide slurry electrodialysis device and a method of using the same, comprising a lifting bracket and an electrodialysis reaction disc chamber fixedly mounted on the upper side of the lifting bracket, wherein a self-cleaning mechanism is arranged at the center of the electrodialysis reaction disc chamber, an eddy current effect generating mechanism is arranged at the center of the self-cleaning mechanism, and a driving mechanism for driving the eddy current effect generating mechanism and the self-cleaning mechanism to servo-rotate is arranged at the outer axial center of the electrodialysis reaction disc chamber;

[0008] The self-cleaning mechanism comprises a circular frame, the interior of the electrodialysis reaction disc cavity is divided into an inner circle and an outer circle by the circular frame, the inner circle of the circular frame is provided as a mixing circular cavity, the 180-degree area on the upper side of the outer circle of the circular frame is provided as a first sorting chamber, and the 180-degree area on the lower side of the outer circle of the circular frame is provided as a second sorting chamber, a cation exchange membrane assembly is inserted into the first sorting chamber, and an anion exchange membrane assembly is inserted into the second sorting chamber;

[0009] Among them, the self-cleaning mechanism also includes a first cleaning module and a second cleaning module respectively mounted in the first sorting bin and the second sorting bin, and the eddy current effect generating mechanism includes a cavity cylinder arranged at the axial center position of the mixing cavity and U-shaped expansion sleeves on both sides of the cavity cylinder. The U-shaped expansion sleeve is expanded outward to divide the mixing cavity into separate cavities which are respectively aligned with the cation exchange membrane assembly and the anion exchange membrane assembly above and below, so as to cooperate with the first cleaning module and the second cleaning module to perform synchronous and separate cleaning in their respective cavities.

[0010] As a further solution of the present invention: a cathode power supply assembly is fixedly installed on the side of the outer edge surface of the electrodialysis reaction disc cavity corresponding to the first sorting bin, an anode power supply assembly is fixedly installed on the side of the outer edge surface of the electrodialysis reaction disc cavity corresponding to the second sorting bin, a corresponding injection conduit is fixedly installed at the outer center position of the mixing circular cavity, and the circular ring frame as a whole is a double-layer circular ring structure with an interlayer; and the interlayer on the circular ring frame facing the first sorting bin and the second sorting bin is provided with a withdrawal circular ring notch, and a sealing cover is fixedly installed at the outer withdrawal end position of the withdrawal circular ring notch, the cation exchange membrane assembly is sealed and inserted into the withdrawal circular ring notch on the same side thereof through the sealing cover located on the first sorting bin, and the anion exchange membrane assembly is sealed and inserted into the withdrawal circular ring notch on the same side thereof through the sealing cover located on the second sorting bin.

[0011] As a further solution of the present invention: the driving mechanism includes an auxiliary support rod fixedly connected to the side of the electrodialysis reaction disc cavity opposite to the injection conduit, a servo motor with an output end aligned with the axis of the electrodialysis reaction disc cavity is fixedly installed on the inner side of the auxiliary support rod, the eddy current effect generating mechanism includes a sealing clamp movably installed at the axis position inside the mixing cavity, a cavity cylinder is fixedly connected to the outer side of the sealing clamp, two groups of stirring plates 180 degrees apart are fixedly connected to the outer circumferential surface of the cavity cylinder; and a first electric telescopic rod is fixedly installed on the outer surface of the stirring plate on each side, and a U-shaped extension sleeve plate movably fitted on the side end of the stirring plate is fixedly installed on the output end of the first electric telescopic rod.

[0012] As a further solution of the present invention: two groups of first liquid guiding hoses are fixedly connected to the interior of the cavity cylinder, and annular spray plates are fixedly connected to the outer circular surface of the cavity cylinder at both sides perpendicular to the stirring plate; and each annular spray plate is individually connected to a group of first liquid guiding hoses, and the other end of the first liquid guiding hose away from the annular spray plate passes through one end of the sealing clamp, and the upper surface of the servo motor is configured with a cleaning reagent supply module corresponding to the first liquid guiding hose passing through one end of the sealing clamp, and the cleaning reagent supply module includes a support plate, and reagent storage tanks are fixedly installed at both side ends of the upper surface of the support plate, and the bottom of the reagent storage tank is fixedly connected to a second liquid guiding hose; and each second liquid guiding hose is individually connected to the first liquid guiding hose passing through one end of the sealing clamp.

[0013] As a further solution of the present invention: the side surfaces of the stirring plate and the U-shaped extension sleeve are both in contact with the inner wall of the mixing circular cavity; and a sealing block is fixedly connected to the outer end of the U-shaped extension sleeve on each side, and a plurality of atomizing spray heads are arranged on the arc edge of the annular spray plate; a partition plate is fixedly connected to the junction of the first sorting bin and the second sorting bin; and a U-shaped infusion branch pipe whose liquid extraction port is flush with the partition plate is fixedly installed on the outer side of the first sorting bin and the second sorting bin, and the outer surfaces of the first sorting bin and the second sorting bin are both movably hinged with outward-turned sealing plates.

[0014] As a further solution of the present invention: circular arc openings communicating with each other are provided at positions corresponding to the first sorting bin and the second sorting bin on both side edges of the circular ring frame; and circular arc guide grooves are provided on the inner and outer sides of the interlayer on the sides of the circular ring frame, and a second cleaning module 180 degrees apart is slidably installed on the inner ring of the circular ring frame through the circular arc guide grooves, and a first cleaning module 180 degrees apart is slidably installed on the outer ring of the circular ring frame through the circular arc guide grooves.

[0015] As a further solution of the present invention: the first cleaning module includes an arc sleeve, and limit buckle strips corresponding to the sliding of the arc guide groove are fixedly connected at both ends of the inner side surface of the arc sleeve, and an embedded cavity is opened on the inner side of the arc sleeve, and a plurality of reset spring rods are fixedly installed inside the embedded cavity, and a brush arc plate is fixedly connected to one side of the outer telescopic end of the reset spring rod, and the width of the brush end of the brush arc plate is the same as the width of the arc opening. The structure of the second cleaning module is opposite to that of the first cleaning module; and a magnetic side plate is fixedly installed on the side of the arc sleeve close to the driving mechanism in the first cleaning module and the second cleaning module.

[0016] As a further solution of the present invention: a second electric telescopic rod is fixedly connected to the output end of the servo motor, a first magnetic ring is fixedly connected to the outer edge of the second electric telescopic rod, a spherical groove sleeve disc is fixedly connected to the output end of the second electric telescopic rod, an infrared ranging module is fixedly installed at the axial position of the spherical groove sleeve disc, and a plurality of spherical point beads are movably installed in sequence in a circular arrangement on the circular surface of the sealing clamp away from the cavity cylinder, and the spherical point beads correspond to the circular mouth of the spherical groove sleeve disc.

[0017] As a further solution of the present invention: the driving mechanism also includes a rotating plate sleeve that is movably sleeved on the outside of the first magnetic attraction ring, and a circular electromagnet corresponding to the first magnetic attraction ring is fixedly installed on the sleeve opening end of the rotating plate sleeve, and the rotating plates on both sides of the rotating plate sleeve are 180 degrees apart; and an electrically controlled magnetic attraction module is fixedly installed at the outer end position of each side, and arc electromagnets are fixedly installed on the surface of the electrically controlled magnetic attraction module, and the arc electromagnets correspond to the magnetic attraction side plates in the first cleaning module and the second cleaning module on the same side.

[0018] A method for using an abalone peptide slurry electrodialysis device comprises the following steps:

[0019] S1: First, the abalone peptide slurry is injected into the mixing circular cavity from the injection conduit, and the cation exchange membrane assembly and the anion exchange membrane assembly are respectively inserted into the first sorting chamber and the second sorting chamber, and then the servo motor drives the cavity cylinder to rotate to form an eddy current effect, so that the cathode power supply assembly and the anode power supply assembly respectively uniformly attract cations and anions, and the concentrated water is pumped away through the U-shaped infusion branch pipe;

[0020] S2: Then, the driving mechanism drives the cavity cylinder to rotate, and the first electric telescopic rod expands the U-shaped expansion sleeve outward to separate the mixing cavity into two cleaning cavities, so that the acid cleaning reagent is injected into the first sorting chamber and the alkaline cleaning reagent is injected into the second sorting chamber;

[0021] S3: Then, the servo motor controls the rotating plate cover to rotate, and the arc electromagnet absorbs the magnetic side plates of the first cleaning module and the second cleaning module, so that the rotating plate cover reciprocates, and controls the first cleaning module and the second cleaning module to scrub the cation exchange membrane assembly and the anion exchange membrane assembly respectively;

[0022] S4: Finally, the brush arc plates of the first cleaning module and the second cleaning module clean the outer and inner surfaces of the membrane assembly respectively. After the cleaning is completed, the outward sealing plate is opened to maintain the interior of the first sorting bin and the second sorting bin.

[0023] Compared with the prior art, the above technical solution provided by the present invention has at least the following beneficial effects:

[0024] This solution integrates the entire dialysis module into an integrated structure by setting the electrodialysis reaction end to a circular electrodialysis reaction disc cavity shape, separating the inner circle and the outer circle from the inside to the outside, and attaching the anion exchange membrane assembly and the cation exchange membrane assembly at symmetrical positions on the upper and lower sides of the outer circle. This allows the device to not only achieve uniform distribution of the electric field and fluid flow during the electrodialysis reaction, thereby improving the processing efficiency, but also enable the cleaning liquid to more easily cover the entire membrane surface in the subsequent cleaning stage, thereby reducing dead corners and cleaning blind spots, reducing the difficulty of cleaning, and providing a stable cleaning environment for the synchronous and separate cleaning of the membrane assembly.

[0025] The first electric telescopic rod attached to both sides of the eddy current effect generating mechanism can be expanded outwards through the first electric telescopic rod during the cleaning stage to control the extended U-shaped expansion sleeve to separate the mixing circular cavity into two upper and lower cleaning spaces that do not interfere with each other, so as to inject different cleaning reagents according to the ion characteristics of the membrane components in the cleaning space. Different from the traditional cleaning stage, there is no need to disassemble the membrane components with different ion characteristics for cleaning. While achieving simultaneous cleaning of the two membrane components, it can reduce maintenance time and cost, reduce mechanical damage caused by repeated disassembly of the membrane components, and increase the performance and life of the membrane.

[0026] In the process of driving the vortex effect generating mechanism to work through the driving mechanism, a vortex effect can be formed inside the mixing circular cavity. Different from the traditional straight flow channel, the part of the fluid close to the wall will form a boundary layer. The flow velocity in the boundary layer is low, and the mass transfer rate is also low. The vortex effect can break the boundary layer, increase the contact opportunity between the fluid and the membrane surface, improve the mass transfer rate, make the ion distribution in the solution more uniform, and reduce the formation of local high concentration areas, thereby reducing the possibility of deposition of particles and dissolved substances in the solution on the wall, and further improving the performance and life of the membrane. BRIEF DESCRIPTION OF THE DRAWINGS

[0027] The accompanying drawings, which are incorporated herein and constitute a part of the specification, illustrate embodiments of the invention and, together with the description, further serve to explain the principles of the invention and to enable those skilled in the relevant art to make and use the invention.

[0028] Figure 1 It is a schematic diagram of the overall front structure of the present invention;

[0029] Figure 2 It is a schematic diagram of the overall back structure of the present invention;

[0030] Figure 3 It is a structural schematic diagram of the outward-turned sealing plate of the present invention in an outward-turned state;

[0031] Figure 4 This is a schematic diagram of the structure inside the electrodialysis reaction disc cavity of the present invention;

[0032] Figure 5 This is a schematic diagram of the flow direction of anions and cations in the electrodialysis reaction disc cavity under the dialysis state of the present invention;

[0033] Figure 6 It is a structural schematic diagram of the eddy current effect generating mechanism of the present invention in a split state;

[0034] Figure 7 It is a structural schematic diagram of the self-cleaning mechanism of the present invention;

[0035] Figure 8 It is a structural schematic diagram of the first cleaning module of the present invention;

[0036] Fig. 9 This is a schematic diagram of the structure of the cleaning reagent supply module of the present invention;

[0037] Fig.10 for Fig. 9 A schematic diagram of the enlarged structure at A in the middle;

[0038] Fig.11 It is a schematic diagram of the combination of the spherical groove disc and the spherical point bead.

[0039] Attached photos

[0040] 1. Lifting bracket; 2. Electrodialysis reaction disc chamber; 3. Mixing circular chamber; 4. First sorting chamber; 5. Second sorting chamber; 6. Cation exchange membrane assembly; 7. Anion exchange membrane assembly; 8. Cathode power supply assembly; 9. Anode power supply assembly;

[0041] 10. Eddy current effect generating mechanism; 101. Cavity cylinder; 102. Ring spray plate; 103. First liquid guiding hose; 104. Sealing clamp; 105. Spherical point bead; 106. Stirring plate; 107. First electric telescopic rod; 108. U-shaped expansion sleeve; 109. Sealing block;

[0042] 11. Self-cleaning mechanism; 111. Circular ring frame; 112. Circular ring notch; 113. Circular arc opening; 114. Circular arc guide groove;

[0043] 115, first cleaning module; 1151, arc casing; 1152, limit buckle strip; 1153, embedded cavity; 1154, return spring rod; 1155, brush arc plate; 1156, magnetic side plate;

[0044] 116. A second cleaning module;

[0045] 12. Outward-turned sealing plate; 13. Liquid injection conduit; 14. Sealing cover opening;

[0046] 15. Driving mechanism; 151. Auxiliary support rod; 152. Servo motor; 153. Second electric telescopic rod; 154. First magnetic ring; 155. Rotating plate sleeve; 156. Electric control magnetic module; 157. Arc electromagnet; 158. Ring electromagnet; 159. Ball notch sleeve; 1510. Infrared ranging module;

[0047] 16. Cleaning reagent supply module; 161. Support plate; 162. Reagent storage tank; 163. Second liquid guiding hose;

[0048] 17. U-shaped infusion branch.

[0049] As shown in the figure, in order to clearly implement the structure of the embodiment of the present invention, specific structures and devices are marked in the figure, but this is only for illustrative purposes and is not intended to limit the present invention to the specific structure, device and environment. According to specific needs, ordinary technicians in this field can adjust or modify these devices and environments. DETAILED DESCRIPTION

[0050] The following is a detailed description of an abalone peptide slurry electrodialysis device and a method for using the same provided by the present invention in conjunction with the accompanying drawings and specific embodiments. At the same time, it is explained here that in order to make the embodiments more detailed, the following implementation is listed as the best and preferred embodiments, and other alternatives can also be used for some technicians in the known technical field; and the accompanying drawings are only for describing the embodiments in more detail, and are not intended to specifically limit the present invention.

[0051] like Figures 1 to 11 As shown, an embodiment of the present invention provides an abalone peptide slurry electrodialysis device, comprising a lifting bracket 1 and an electrodialysis reaction disc chamber 2 fixedly mounted on the upper side of the lifting bracket 1, wherein a self-cleaning mechanism 11 is disposed at the center position of the electrodialysis reaction disc chamber 2, an eddy current effect generating mechanism 10 is disposed at the center position of the self-cleaning mechanism 11, and a driving mechanism 15 for driving the eddy current effect generating mechanism 10 and the self-cleaning mechanism 11 to servo-rotate is disposed at the outer axial position of the electrodialysis reaction disc chamber 2;

[0052] The self-cleaning mechanism 11 comprises a circular frame 111, the interior of the electrodialysis reaction disc cavity 2 is divided into an inner circle and an outer circle by the circular frame 111, the inner circle of the circular frame 111 is provided as a mixing circular cavity 3, the upper 180 degree area of ​​the outer circle of the circular frame 111 is provided as a first sorting chamber 4, the lower 180 degree area of ​​the outer circle of the circular frame 111 is provided as a second sorting chamber 5, the first sorting chamber 4 is inserted with a cation exchange membrane assembly 6, the second sorting chamber 5 is inserted with an anion exchange membrane assembly 7;

[0053] Among them, the self-cleaning mechanism 11 also includes a first cleaning module 115 and a second cleaning module 116 respectively arranged in the first sorting bin 4 and the second sorting bin 5, and the eddy effect generating mechanism 10 includes a cavity cylinder 101 arranged at the axial position of the mixing cavity 3 and a U-shaped expansion sleeve 108 on both sides of the cavity cylinder 101. The U-shaped expansion sleeve 108 is expanded outward to divide the mixing cavity 3 into separate cavities that are respectively aligned with the cation exchange membrane component 6 and the anion exchange membrane component 7 above and below, so as to cooperate with the first cleaning module 115 and the second cleaning module 116 to perform synchronous and separate cleaning in their respective cavities.

[0054] In order to solve the problem that the anode membrane assembly and the cathode membrane assembly in the existing electrodialysis equipment need to be disassembled and cleaned in batches, which will cause certain damage to them, the above-mentioned technical solution is now adopted to solve the problem. The above-mentioned technical solution mainly consists of a lifting bracket 1, an electrodialysis reaction disc cavity 2, a mixing circular cavity 3, a first sorting chamber 4, a second sorting chamber 5, an eddy current effect generating mechanism 10, a self-cleaning mechanism 11 and a driving mechanism 15. The lifting bracket 1 serves as a supporting base of the device, which is used to lift the electrodialysis reaction disc cavity 2, and the electrodialysis reaction disc cavity 2 is the main container for dialysis, and a ring of the self-cleaning mechanism 11 is arranged at its axial end. Framework 111, the electrodialysis reaction disc cavity 2 is separated into an inner ring and an outer ring by the annular frame 111, the inner ring is used as a mixed circular cavity 3 for abalone peptide slurry injection, and the outer ring is divided into a first sorting bin 4 and a second sorting bin 5 symmetrically arranged one above and one below, and a detachable cation exchange membrane assembly 6 is inserted and installed at the intersection of the first sorting bin 4 and the mixed circular cavity 3 to pass the anions in the abalone peptide slurry, and a detachable anion exchange membrane assembly 7 is inserted and installed at the intersection of the second sorting bin 5 and the mixed circular cavity 3 to pass the cations in the abalone peptide slurry, and the injected abalone peptide slurry is subjected to electrodialysis;

[0055] The vortex effect generating mechanism 10 arranged in the mixing circular cavity 3 corresponds to the driving mechanism 15 on the outside. When the vortex effect generating mechanism 10 is selected at the driving end of the driving mechanism 15, a vortex effect can be formed inside the mixing circular cavity 3 to improve the dialysis efficiency of the exchange membrane group. The vortex effect generating mechanism 10 can be further controlled to enable the vortex effect generating mechanism 10 to expand the U-shaped expansion sleeve 108 outward to align with the first sorting bin 4 and the second sorting bin 5 on the upper and lower sides to separate the upper and lower independent cleaning spaces. In this cleaning space, the driving mechanism 15 can be cooperated to drive the first cleaning module 115 and the second cleaning module 116 to be separated and cleaned again without disassembling any membrane group, so as to solve the problem that in the existing electrodialysis equipment, the anode membrane assembly and the cathode membrane assembly need to be disassembled and cleaned in batches, which will cause certain damage to them.

[0056] like Figure 1 , Figure 2 , Figure 3 , Figure 4 , Figure 5 , Figure 7 As shown, a cathode power supply assembly 8 is fixedly installed on the side of the outer edge surface of the electrodialysis reaction disc cavity 2 corresponding to the first sorting chamber 4, an anode power supply assembly 9 is fixedly installed on the side of the outer edge surface of the electrodialysis reaction disc cavity 2 corresponding to the second sorting chamber 5, a corresponding injection conduit 13 is fixedly installed at the outer center position of the mixing circular cavity 3, and the circular ring frame 111 is a double-layer circular ring structure with an interlayer as a whole; and a withdrawal circular ring notch 112 is opened in the interlayer on the side of the circular ring frame 111 facing the first sorting chamber 4 and the second sorting chamber 5, and a sealing cover 14 is fixedly installed at the outer withdrawal end position of the withdrawal circular ring notch 112, the cation exchange membrane assembly 6 is sealed and inserted into the withdrawal circular ring notch 112 on the same side thereof through the sealing cover 14 located on the first sorting chamber 4, and the anion exchange membrane assembly 7 is sealed and inserted into the withdrawal circular ring notch 112 on the same side thereof through the sealing cover 14 located on the second sorting chamber 5.

[0057] Among them, the configured cathode power supply assembly 8 and anode power supply assembly 9 are both conventional settings of electrodialysis in the prior art, wherein the cathode power supply assembly 8 is used to attract cations, while the anode power supply assembly 9 is used to attract anions, and the outer side of the electrodialysis reaction disc cavity 2 is a transparent shell, and the injection conduit 13 is fixedly installed at the axial position of the mixing circular cavity 3, and abalone peptide slurry is injected into the mixing circular cavity 3 from the conduit, and the sealing cover openings 14 at the upper and lower ends of this side are used to seal the cation exchange membrane assembly 6 and the anion exchange membrane assembly 7 inserted into the extraction circular grooves 112 on both sides of the circular frame 111.

[0058] like Figure 3 , Figure 4 , Figure 5 , Figure 6 , Figure 7 As shown, the driving mechanism 15 includes an auxiliary support rod 151 fixedly connected to the side of the electrodialysis reaction disc cavity 2 opposite to the injection conduit 13, and a servo motor 152 whose output end is aligned with the axis of the electrodialysis reaction disc cavity 2 is fixedly installed on the inner side of the auxiliary support rod 151. The eddy current effect generating mechanism 10 includes a sealing clamp 104 movably installed at the inner axis position of the mixing circular cavity 3, and a cavity cylinder 101 is fixedly connected to the outer side of the sealing clamp 104. Two groups of stirring plates 106 separated by 180 degrees are fixedly connected to the outer circumferential surface of the cavity cylinder 101; and a first electric telescopic rod 107 is fixedly installed on the outer surface of each side stirring plate 106, and a U-shaped expansion sleeve 108 movably fitted on the side end of the stirring plate 106 is fixedly installed on the output end of the first electric telescopic rod 107.

[0059] Among them, the configured sealing clamp 104 and the cavity cylinder 101 are an integrated structure, and the cavity cylinder 101 is slidably sleeved on the axial position of the mixing cavity 3 through the sealing clamp 104. The U-shaped expansion sleeve 108 will be tightly attached to the inner wall of the mixing cavity 3 after being fully unfolded to perform sealing separation.

[0060] like Figure 3 , Figure 4 , Figure 5 , Figure 6 , Figure 7 As shown, two groups of first liquid guiding hoses 103 are fixedly connected inside the cavity cylinder 101, and annular spray plates 102 are fixedly connected at both sides of the outer circumferential surface of the cavity cylinder 101 perpendicular to the stirring plate 106; and each annular spray plate 102 is individually connected to a group of first liquid guiding hoses 103, and the other end of the first liquid guiding hose 103 away from the annular spray plate 102 passes through one end of the sealing clamp 104, and the upper surface of the servo motor 152 is configured with A cleaning reagent supply module 16 corresponding to the first liquid guiding hose 103 passing through one end of the sealing clamp 104, the cleaning reagent supply module 16 includes a support plate 161, and reagent storage tanks 162 are fixedly installed at both side ends of the upper surface of the support plate 161, and the bottom of the reagent storage tank 162 is fixedly connected to a second liquid guiding hose 163; and each second liquid guiding hose 163 is separately connected to the first liquid guiding hose 103 passing through one end of the sealing clamp 104.

[0061] Among them, the reagent storage tanks 162 arranged on both sides of the support plate 161 are storage structures with capacity plates in the prior art, which are used to store different cleaning reagents respectively. The reagent storage tank 162 on one side is used to store the acid oxidation washing solution for cleaning the cation exchange membrane component 6, and the reagent storage tank 162 on the other side is used to store the alkaline washing solution for cleaning the anion exchange membrane component 7, so as to be transported to the annular spray plate 102 on the corresponding side for spraying, and each reagent storage tank 162 is configured with a corresponding output pump.

[0062] like Figure 3 , Figure 4 , Figure 5 , Figure 6 , Figure 7As shown, the side surfaces of the stirring plate 106 and the U-shaped extension sleeve 108 are in close contact with the inner wall of the mixing circular cavity 3; and a sealing block 109 is fixedly connected to the outer end of the U-shaped extension sleeve 108 on each side, and a plurality of atomizing spray heads are arranged on the arc edge of the annular spray plate 102, and a partition plate is fixedly connected to the junction of the first sorting bin 4 and the second sorting bin 5; and a U-shaped infusion branch pipe 17 whose liquid extraction port is flush with the partition plate is fixedly installed on the outer side of the first sorting bin 4 and the second sorting bin 5, and the outer surfaces of the first sorting bin 4 and the second sorting bin 5 are movably hinged with an outward-turned sealing plate 12.

[0063] Among them, the sealing block 109 arranged on the outside of the U-shaped expansion sleeve 108 is used to improve the sealing performance of the separation end when it is in the expanded state and fits against the inner wall of the mixing circular cavity 3. The configured U-shaped infusion branch tube 17 is respectively sleeved on the outside of the first sorting chamber 4 and the second sorting chamber 5 as a whole, and the liquid extraction ports on both sides of the U-shaped infusion branch tube 17 are respectively placed on the side walls of the first sorting chamber 4 and the second sorting chamber 5, which are used to extract the internal reagents in real time.

[0064] like Figure 4 , Figure 5 , Figure 6 , Figure 7 , Figure 8 As shown, interconnected arc openings 113 are provided at positions on both side edges of the circular frame 111 corresponding to the first sorting bin 4 and the second sorting bin 5; and arc guide grooves 114 are provided on the sides of the circular frame 111 located on both inner and outer sides of the interlayer, and second cleaning modules 116 are slidably installed 180 degrees apart on the inner ring of the circular frame 111 through the arc guide grooves 114, and first cleaning modules 115 are slidably installed 180 degrees apart on the outer ring of the circular frame 111 through the arc guide grooves 114.

[0065] like Figure 3 , Figure 4 , Figure 5 , Figure 6 , Figure 7 , Figure 8As shown, the first cleaning module 115 includes an arc casing 1151, and limit buckle strips 1152 corresponding to the sliding of the arc guide groove 114 are fixedly connected at both ends of the inner side surface of the arc casing 1151. An embedded cavity 1153 is opened on the inner side of the arc casing 1151, and a plurality of reset spring rods 1154 are fixedly installed inside the embedded cavity 1153. A brush arc plate 1155 is fixedly connected to one side of the outer telescopic end of the reset spring rod 1154, and the width of the brush end of the brush arc plate 1155 is the same as the width of the arc opening 113. The structure of the second cleaning module 116 is opposite to that of the first cleaning module 115; and a magnetic side plate 1156 is fixedly installed on one side of the arc casing 1151 close to the driving mechanism 15 in the first cleaning module 115 and the second cleaning module 116.

[0066] Among them, the first cleaning module 115 and the second cleaning module 116 are configured with the same overall structure, but the first cleaning module 115 is slidably clamped on the arc guide groove 114 on the outer side of the annular frame 111 through the limiting buckle strip 1152, while the second cleaning module 116 is slidably clamped on the arc guide groove 114 on the inner circle side of the annular frame 111 through the limiting buckle strip 1152, so that the first cleaning module 115 cleans the outer arc surface of the membrane group, while the second cleaning module 116 cleans the inner arc surface of the membrane group, that is, one side of the mixing circular cavity 3. The two modules have the same main structure, but are arranged in reverse, and as shown in the attached Figure 7 As shown, the first cleaning module 115 and the second cleaning module 116 configured in the first sorting bin 4 and the second sorting bin 5 are 180 degrees apart from each other and are in a straight line, so that they can be synchronously driven to rotate by the rotating plate sleeve 155 later.

[0067] like Figure 1 , Figure 2 , Figure 3 , Figure 5 , Figure 8 , Fig. 9 , Fig.10 As shown, a second electric telescopic rod 153 is fixedly connected to the output end of the servo motor 152, a first magnetic ring 154 is fixedly connected to the outer edge of the second electric telescopic rod 153, a spherical groove sleeve 159 is fixedly connected to the output end of the second electric telescopic rod 153, an infrared ranging module 1510 is fixedly installed at the axial position of the spherical groove sleeve 159, and a plurality of spherical point beads 105 are movably installed in a circular arrangement on the circular surface of the sealing clamp 104 on the side away from the cavity cylinder 101, and the spherical point beads 105 correspond to the circular mouth of the spherical groove sleeve 159.

[0068] Among them, the configured second electric telescopic rod 153 is a telescopic rod that can be servo-extended in the prior art, and the spherical groove sleeve disc 159 on the outer output end is provided with a plurality of spherical groove sleeve structures, and the corresponding spherical point positioning bead 105 configured on the circular surface of one side of the cavity cylinder 101 is a sleeve disc structure with a plurality of spherical beads movably installed. When the spherical groove sleeve disc 159 approaches the spherical point positioning bead 105, it will movably fit until it is fully fitted and combined. When the spherical groove sleeve disc 159 is fully fitted on the surface of the spherical point positioning bead 105, the friction force of the fitting surface will control the rotation of the spherical groove sleeve disc 159 to drive the cavity cylinder 101 on one side of the spherical point positioning bead 105 to rotate.

[0069] like Figure 8 , Fig. 9 , Fig.10 As shown, the driving mechanism 15 also includes a rotating plate sleeve 155 which is movably sleeved on the outside of the first magnetic ring 154, and a circular electromagnet 158 ​​corresponding to the first magnetic ring 154 is fixedly installed on the sleeve opening end of the rotating plate sleeve 155, and the rotating plates on both sides of the rotating plate sleeve 155 are 180 degrees apart; and an electrically controlled magnetic module 156 is fixedly installed at the outer end position of each side, and an arc electromagnet 157 is fixedly installed on the surface of the electrically controlled magnetic module 156, and the arc electromagnet 157 corresponds to the magnetic side plates 1156 in the first cleaning module 115 and the second cleaning module 116 on the same side.

[0070] Among them, the configured electric control magnetic attraction module 156 is a device in the prior art that can control the magnetic attraction state, which is used to control the magnetic attraction state of the arc electromagnet 157 and the ring electromagnet 158 ​​on the output end, so that the arc electromagnet 157 and the ring electromagnet 158 ​​have magnetic attraction and lose magnetic attraction.

[0071] The specific process of dialysis in the electrodialysis reaction disc cavity 2 is as follows:

[0072] First, the abalone peptide slurry to be electrodialyzed is injected from the injection conduit 13, imported into the mixing circular cavity 3 at the axial center position of the electrodialysis reaction disc cavity 2, and then the acidic cleaning reagent and the alkaline cleaning reagent are respectively imported into the reagent storage tank 162 on both sides of the support plate 161, and then the first sorting bin 4 and the second sorting bin 5 outside the eversion sealing plate 12 are opened, and the cation exchange membrane assembly 6 and the anion exchange membrane assembly 7 are respectively inserted into the corresponding end and taken in the annular notch 112;

[0073] Then, the magnetic attraction characteristic on the annular electromagnet 158 ​​is cancelled by the electric-controlled magnetic attraction module 156, and the spherical notch sleeve disc 159 of the output end is extended outwards by the second electric telescopic rod 153, the distance with the sealing clamp 104 is detected by coordinating the infrared range-finding module 1510, to ensure that the sealing clamp 104 is close to the spherical notch sleeve disc 159, in the laminating process, the spherical point position bead 105 configured on the sealing clamp 104 is an active state, therefore under the rolling action of the spherical point position bead 105, the two structures can be smoothly laminated, after laminating, the friction characteristic of the laminating end of the two structures is utilized, now driven by the servomotor 152, to drive the cavity cylinder 101 to rotate, the stirring plates 106 on both sides can form an eddy current effect in the mixing circular cavity 3 during the rotation process, to ensure the electrodialysis uniformity of the abalone peptide slurry;

[0074] Finally, open the cathode power supply assembly 8 and the anode power supply assembly 9 on the upper and lower sides of the electrodialysis reaction disc cavity, under the action of the cathode power supply assembly 8, the cationic reagent of the abalone peptide slurry in the mixed circular cavity 3 will pass through the cation exchange membrane assembly 6 and enter the first sorting bin 4, and correspondingly under the action of the anode power supply assembly 9, the anionic reagent of the abalone peptide slurry in the mixed circular cavity 3 will pass through the anion exchange membrane assembly 7 and enter the second sorting bin 5, now the mixed circular cavity 3 is the fresh water chamber, and the first sorting bin 4 and the second sorting bin 5 on both sides are the concentrated water chambers of the removed salt and other unwanted ions, which can be respectively extracted by the U-shaped infusion branch 17 outside the first sorting bin 4 and the second sorting bin 5, for use with different needs;

[0075] The eddy current effect generated by the eddy current effect generating mechanism 10 inside the mixing cavity 3 can effectively improve the electrodialysis efficiency. In order to ensure the connection stability of the first liquid guiding hose 103 and the second liquid guiding hose 163, the stirring plate 106 is rotated 360 degrees back and forth as a whole.

[0076] The specific working process of the self-cleaning mechanism 11 is as follows:

[0077] First, after the cation exchange membrane assembly 6 and the anion exchange membrane assembly 7 in the extraction ring notches 112 on both sides of the ring frame 111 have worked for a long time, the driving mechanism 15 can be controlled to drive the stirring plates 106 on both sides of the cavity cylinder 101 to rotate, and the stirring plates 106 on both sides are just at the separation end position of the first sorting bin 4 and the second sorting bin 5. The U-shaped expansion sleeve plate 108 at the output end is expanded outward by using the first electric telescopic rods 107 on both sides to separate the upper and lower cleaning cavities that do not affect each other;

[0078] Then, the cleaning reagent is injected into the annular spray plates 102 on the upper and lower sides of the cavity cylinder 101 through the reagent storage tanks 162 on both sides, ensuring that the cleaning reagent injected into the first sorting chamber 4 is an acidic cleaning reagent capable of cleaning the cation exchange membrane assembly 6, and the cleaning reagent injected into the second sorting chamber 5 is an alkaline cleaning reagent capable of cleaning the anion exchange membrane assembly 7, thereby forming two targeted cleaning cavities;

[0079] Then, the spherical notch sleeve 159 attached to the sealing chuck 104 is retracted through the second electric telescopic rod 153 to cancel the connection between the two structures, and then the electromagnet on the annular electromagnet 158 ​​is opened by the electric control magnetic attraction module 156 so that it can be adsorbed on the first magnetic attraction ring 154 on the outer side of the second electric telescopic rod 153. At this time, the servo motor 152 is turned on again, and the servo motor 152 controls the rotating plate sleeve 155 to rotate. When the rotating plate sleeve 155 rotates to the arc electromagnets 157 on both sides corresponding to the magnetic attraction side plates 1156 of the first cleaning module 115 and the second cleaning module 116 on both sides, the magnetic attraction performance of the arc electromagnet 157 is turned on by the electric control magnetic attraction module 156 so that the arc electromagnet 157 can be adsorbed and attached to the magnetic attraction side plates 1156.

[0080] Finally, the servo motor 152 controls the reciprocating 180-degree rotation of the rotating plate sleeve 155, so that the first cleaning module 115 and the second cleaning module 116 can slide back and forth in the arc guide grooves 114 on both sides of the circular frame 111, so as to scrub the cation exchange membrane assembly 6 and the anion exchange membrane assembly 7 in the circular notch 112 inside the circular guide groove 114 respectively;

[0081] Among them, since the first cleaning module 115 and the second cleaning module 116 are arranged facing each other, during the sliding cleaning process, the brush arc plate 1155 on the first cleaning module 115 will clean the stains on the outward side of the cation exchange membrane assembly 6 and the anion exchange membrane assembly 7, and the brush arc plate 1155 on the second cleaning module 116 will clean the stains on the side of the cation exchange membrane assembly 6 and the anion exchange membrane assembly 7 facing the mixing circular cavity 3, so as to achieve surface cleaning, and since the brush arc plate 1155 is connected by a reset spring rod 1154, it can fit better during cleaning to ensure the cleaning strength, and by subsequently opening the outward sealing plate 12, the interior of the first sorting bin 4 and the second sorting bin 5 can be directly maintained, and the brush arc plate 1155 can be aligned for maintenance.

[0082] A method for using an abalone peptide slurry electrodialysis device comprises the following steps:

[0083] S1: First, the abalone peptide slurry is injected into the mixing circular cavity 3 from the injection conduit 13, the cation exchange membrane assembly 6 and the anion exchange membrane assembly 7 are respectively inserted into the first sorting bin 4 and the second sorting bin 5, and then the servo motor 152 drives the cavity cylinder 101 to rotate to form an eddy current effect, so that the cathode power supply assembly 8 and the anode power supply assembly 9 respectively uniformly attract cations and anions, and the concentrated water is drawn away through the U-shaped infusion branch 17;

[0084] S2: Then, the driving mechanism 15 drives the cavity cylinder 101 to rotate, and the first electric telescopic rod 107 expands the U-shaped expansion sleeve 108 outward to separate the mixing cavity 3 into two cleaning cavities, so that the acid cleaning reagent is injected into the first sorting chamber 4, and the alkaline cleaning reagent is injected into the second sorting chamber 5;

[0085] S3: Then, the servo motor 152 controls the rotating plate cover 155 to rotate, and the arc electromagnet 157 absorbs the magnetic side plates 1156 of the first cleaning module 115 and the second cleaning module 116, so that the rotating plate cover 155 reciprocates, and controls the first cleaning module 115 and the second cleaning module 116 to scrub the cation exchange membrane assembly 6 and the anion exchange membrane assembly 7 respectively;

[0086] S4: Finally, the brush arc plates 1155 of the first cleaning module 115 and the second cleaning module 116 clean the outer and inner surfaces of the membrane assembly respectively. After cleaning, the outward sealing plate 12 is opened to maintain the interior of the first sorting bin 4 and the second sorting bin 5.

[0087] The present invention covers any substitution, modification, equivalent method and scheme made on the essence and scope of the present invention. In order to make the public have a thorough understanding of the present invention, specific details are described in detail in the following preferred embodiments of the present invention, but those skilled in the art can fully understand the present invention without the description of these details. In addition, in order to avoid unnecessary confusion about the essence of the present invention, well-known methods, processes, procedures, components and circuits are not described in detail.

[0088] The above is only a preferred embodiment of the present invention. It should be pointed out that for ordinary technicians in this technical field, several improvements and modifications can be made without departing from the principle of the present invention. These improvements and modifications should also be regarded as the scope of protection of the present invention.

Claims

1. An abalone peptide slurry electrodialysis device, comprising a lifting support (1) and an electrodialysis reaction disc chamber (2) fixedly mounted on the upper side of the lifting support (1), characterized in that: A self-cleaning mechanism (11) is arranged at the center of the electrodialysis reaction disc cavity (2), an eddy current effect generating mechanism (10) is arranged at the center of the self-cleaning mechanism (11), and a driving mechanism (15) for driving the eddy current effect generating mechanism (10) and the self-cleaning mechanism (11) to perform servo rotation is arranged at the outer axial center of the electrodialysis reaction disc cavity (2); The self-cleaning mechanism (11) comprises a circular frame (111), the interior of the electrodialysis reaction disc cavity (2) is divided into an inner circle and an outer circle by the circular frame (111), the inner circle of the circular frame (111) is provided as a mixing circular cavity (3), a 180-degree area on the upper side of the outer circle of the circular frame (111) is provided as a first sorting chamber (4), and a 180-degree area on the lower side of the outer circle of the circular frame (111) is provided as a second sorting chamber (5), a cation exchange membrane assembly (6) is inserted into the first sorting chamber (4), and an anion exchange membrane assembly (7) is inserted into the second sorting chamber (5); The self-cleaning mechanism (11) further comprises a first cleaning module (115) and a second cleaning module (116) respectively sleeved in the first sorting chamber (4) and the second sorting chamber (5); the eddy current effect generating mechanism (10) comprises a cavity cylinder (101) arranged at the axial center position of the mixing cavity (3) and U-shaped expansion sleeves (108) on both sides of the cavity cylinder (101); the U-shaped expansion sleeves (108) are expanded outward to separate the mixing cavity (3) into separate cavities respectively aligned with the cation exchange membrane assembly (6) and the anion exchange membrane assembly (7) above and below, so as to cooperate with the first cleaning module (115) and the second cleaning module (116) to perform synchronous separate cleaning in their respective cavities.

2. A kind of abalone peptide slurry electrodialysis equipment according to claim 1, characterized in that, A cathode power supply assembly (8) is fixedly mounted on a side of the outer edge surface of the electrodialysis reaction disc cavity (2) corresponding to the first sorting chamber (4); an anode power supply assembly (9) is fixedly mounted on a side of the outer edge surface of the electrodialysis reaction disc cavity (2) corresponding to the second sorting chamber (5); and a corresponding injection conduit (13) is fixedly mounted at the outer center of the mixing circular cavity (3); the circular ring frame (111) is a double-layer circular ring structure with a sandwich layer; and the circular ring frame (111) has a plurality of inner rings facing the first sorting chamber (4) and the second sorting chamber (5). A withdrawal annular notch (112) is provided in the interlayer on one side of the sorting chamber (5), and a sealing cover (14) is fixedly installed at the outer withdrawal end of the withdrawal annular notch (112). The cation exchange membrane assembly (6) is sealed and inserted into the withdrawal annular notch (112) on the same side through the sealing cover (14) located on the first sorting chamber (4), and the anion exchange membrane assembly (7) is sealed and inserted into the withdrawal annular notch (112) on the same side through the sealing cover (14) located on the second sorting chamber (5).

3. A kind of abalone peptide slurry electrodialysis equipment according to claim 2, characterized in that, The driving mechanism (15) comprises an auxiliary support rod (151) fixedly connected to a side surface of the electrodialysis reaction disc cavity (2) opposite to the injection conduit (13); a servo motor (152) whose output end is aligned with the axis of the electrodialysis reaction disc cavity (2) is fixedly mounted on the inner side of the auxiliary support rod (151); the eddy current effect generating mechanism (10) comprises a sealing clamp (104) movably mounted at the inner axis position of the mixing cavity (3); a hollow cylinder (101) is fixedly connected to the outer side of the sealing clamp (104); two groups of stirring plates (106) separated by 180 degrees are fixedly connected to the outer circumferential surface of the hollow cylinder (101); and a first electric telescopic rod (107) is fixedly mounted on the outer surface of each stirring plate (106); and a U-shaped expansion sleeve (108) movably sleeved on the side end of the stirring plate (106) is fixedly mounted on the output end of the first electric telescopic rod (107).

4. A kind of abalone peptide slurry electrodialysis equipment according to claim 3, characterized in that, Two groups of first liquid guiding hoses (103) are fixedly connected inside the cavity cylinder (101), and annular spray plates (102) are fixedly connected at both sides of the outer circumferential surface of the cavity cylinder (101) perpendicular to the stirring plate (106); and each annular spray plate (102) is individually connected to a group of first liquid guiding hoses (103), and the other end of the first liquid guiding hose (103) away from the annular spray plate (102) passes through one end of the sealing clamp (104), and the upper surface of the servo motor (152) is provided with a A cleaning reagent supply module (16) corresponding to a first liquid guiding hose (103) passing through one end of a sealing clamp (104), the cleaning reagent supply module (16) comprising a support plate (161), reagent storage tanks (162) being fixedly mounted at both side ends of the upper surface of the support plate (161), the bottom of the reagent storage tank (162) being fixedly connected to a second liquid guiding hose (163); and each second liquid guiding hose (163) is individually connected to a first liquid guiding hose (103) passing through one end of the sealing clamp (104).

5. A kind of abalone peptide slurry electrodialysis equipment according to claim 4, characterized in that, The side surfaces of the stirring plate (106) and the U-shaped expansion sleeve (108) are both fitted and correspond to the inner wall of the mixing circular cavity (3); and a sealing block (109) is fixedly connected at the position of the outer end of the U-shaped expansion sleeve (108) on each side; a plurality of atomizing spray heads are arranged on the arc edge of the annular spray plate (102); a partition plate is fixedly connected at the intersection of the first sorting bin (4) and the second sorting bin (5); and a U-shaped liquid infusion branch pipe (17) whose liquid extraction port is flush with the partition plate is fixedly installed on the outer side of the first sorting bin (4) and the second sorting bin (5); and an outward-turning sealing plate (12) is movably hinged on the outer surface of the bin of the first sorting bin (4) and the second sorting bin (5).

6. A kind of abalone peptide slurry electrodialysis equipment according to claim 5, characterized in that, The edges of both sides of the circular frame (111) are provided with communicating circular arc openings (113) at positions corresponding to the first sorting bin (4) and the second sorting bin (5); and the sides of the circular frame (111) are provided with circular arc guide grooves (114) on both inner and outer sides of the interlayer; a second cleaning module (116) is slidably mounted on the inner ring of the circular frame (111) through the circular arc guide grooves (114) at a distance of 180 degrees; and a first cleaning module (115) is slidably mounted on the outer ring of the circular frame (111) through the circular arc guide grooves (114) at a distance of 180 degrees.

7. An abalone peptide slurry electrodialysis device according to claim 6, characterized in that, The first cleaning module (115) comprises an arc casing (1151), and limit buckle strips (1152) are fixedly connected at both ends of the inner side surface of the arc casing (1151) and are slidably corresponding to the arc guide groove (114). An embedded cavity (1153) is provided on the inner side of the arc casing (1151), and a plurality of return spring rods (1154) are fixedly installed inside the embedded cavity (1153). A brush arc plate (1155) is fixedly connected to one side of the outer telescopic end of the return spring rod (1154), and the width of the brush end of the brush arc plate (1155) is the same as the width of the arc opening (113). The structure of the second cleaning module (116) is opposite to that of the first cleaning module (115); and a magnetic side plate (1156) is fixedly installed on one side of the arc casing (1151) close to the driving mechanism (15) in the first cleaning module (115) and the second cleaning module (116).

8. An abalone peptide slurry electrodialysis device according to claim 7, characterized in that, A second electric telescopic rod (153) is fixedly connected to the output end of the servo motor (152), a first magnetic ring (154) is fixedly connected to the outer edge of the second electric telescopic rod (153), a spherical notch sleeve (159) is fixedly connected to the output end of the second electric telescopic rod (153), an infrared distance measuring module (1510) is fixedly installed at the axial position of the spherical notch sleeve (159), and a plurality of spherical point beads (105) are movably installed in sequence and arranged in a circular manner on the circular surface of the sealing chuck (104) on the side away from the cavity cylinder (101), and the spherical point beads (105) are corresponding to the circular mouth of the spherical notch sleeve (159).

9. A kind of abalone peptide slurry electrodialysis equipment according to claim 8, characterized in that, The driving mechanism (15) further comprises a rotating plate sleeve (155) movably sleeved on the outside of the first magnetic attraction ring (154); a circular electromagnet (158) corresponding to the first magnetic attraction ring (154) is fixedly mounted on the sleeved open end of the rotating plate sleeve (155); the rotating plates on both sides of the rotating plate sleeve (155) are 180 degrees apart; and an electrically controlled magnetic attraction module (156) is fixedly mounted at the outer end of each side; an arc electromagnet (157) is fixedly mounted on the surface of the electrically controlled magnetic attraction module (156); the arc electromagnet (157) corresponds to the magnetic attraction side plates (1156) in the first cleaning module (115) and the second cleaning module (116) on the same side.

10. A method for using the abalone peptide slurry electrodialysis device as claimed in claim 9, characterized in that: The following steps are involved: S1: First, the abalone peptide slurry is injected into the mixing circular cavity (3) from the injection conduit (13), and the cation exchange membrane assembly (6) and the anion exchange membrane assembly (7) are respectively inserted into the first sorting chamber (4) and the second sorting chamber (5), and then the servo motor (152) drives the cavity cylinder (101) to rotate to form a vortex effect, so that the cathode power supply assembly (8) and the anode power supply assembly (9) respectively uniformly attract cations and anions, and the concentrated water is pumped away through the U-shaped infusion branch pipe (17); S2: Then, the driving mechanism (15) drives the cavity cylinder (101) to rotate, and the first electric telescopic rod (107) expands the U-shaped expansion sleeve (108) outward to separate the mixing cavity (3) into two cleaning cavities, so that the acid cleaning reagent is injected into the first sorting chamber (4) and the alkaline cleaning reagent is injected into the second sorting chamber (5); S3: Then, the servo motor (152) controls the rotating plate sleeve (155) to rotate, and the arc electromagnet (157) adsorbs the magnetic side plates (1156) of the first cleaning module (115) and the second cleaning module (116), so that the rotating plate sleeve (155) reciprocates, and controls the first cleaning module (115) and the second cleaning module (116) to scrub the cation exchange membrane assembly (6) and the anion exchange membrane assembly (7) respectively; S4: Finally, the brush arc plates (1155) of the first cleaning module (115) and the second cleaning module (116) clean the outer and inner surfaces of the membrane assembly respectively. After the cleaning is completed, the outward-turned sealing plate (12) is opened to maintain the interior of the first sorting bin (4) and the second sorting bin (5).

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