An anti-accumulation ion exchange resin dehydration device

Abstract

This invention relates to an anti-accumulation ion exchange resin dehydration device, comprising an outer dehydration tank, an inner dehydration cylinder, and a dehydration system. The inner dehydration cylinder is swirled within the outer dehydration tank. A support frame is mounted along the inner edge of the outer dehydration tank, and the support shaft of the inner dehydration cylinder is connected to the support frame. A second motor is mounted at the top center of the outer dehydration tank, and the output end of the second motor is connected to the top of the inner dehydration cylinder. The dehydration system is connected to the bottom of the outer dehydration tank. This ion exchange resin dehydration device relies on limiting rods and positioning channels to change the position between the inner cylinder and the notch, allowing the space between the inner cylinder and the outer dehydration cylinder to be isolated or opened. When isolated, the inner cylinder can be disassembled, and the dehydration process continues during this process, ensuring uninterrupted operation. Furthermore, the combined action of two shovel pads prevents impurities from accumulating at the grid position, thereby improving dehydration efficiency.

Description

Technical Field

[0001] This invention belongs to the field of ion exchange resin processing technology, specifically a dehydration device for ion exchange resin that prevents accumulation. Background Technology

[0002] Ion exchange resin dehydration equipment is a specialized device used to dehydrate ion exchange resins. This type of equipment is designed to efficiently and quickly remove moisture from the resin to meet the needs of subsequent use or storage.

[0003] However, when ion exchange resin dehydration equipment removes water from the resin, various impurities in the liquid will accumulate and affect the dehydration efficiency, requiring shutdown and impacting the overall operating efficiency.

[0004] In view of this, an ion exchange resin dehydration device to prevent accumulation is proposed. Summary of the Invention

[0005] The purpose of this section is to outline some aspects of embodiments of the present invention and to briefly describe some preferred embodiments. Simplifications or omissions may be made in this section, as well as in the abstract and title of this application, to avoid obscuring the purpose of these documents; however, such simplifications or omissions should not be construed as limiting the scope of the invention.

[0006] Given the following technical problems in the existing technology: when ion exchange resin dehydration equipment removes water from the resin, various impurities will be mixed in the liquid. After these impurities accumulate and form clumps, they will affect the dehydration efficiency and require shutdown, thus affecting the overall operating efficiency.

[0007] To solve the above-mentioned technical problems, the present invention provides the following technical solution: an anti-accumulation ion exchange resin dehydration device, comprising an outer dehydration tank, an inner dehydration cylinder, and a dehydration system;

[0008] The inner dehydration cylinder is swirled within the outer dehydration tank. A support frame is installed along the inner edge of the outer dehydration tank. The support shaft of the inner dehydration cylinder is connected to the support frame. A second motor is installed at the top center of the outer dehydration tank. The output end of the second motor is connected to the top of the inner dehydration cylinder. The dehydration system is connected to the bottom of the outer dehydration tank. A valve is connected to the bottom of the outer dehydration tank.

[0009] The dehydration system includes a dehydration outer cylinder, a dredging component, and a retention component. The dehydration outer cylinder is connected to the bottom of the outer dehydration tank, the dredging component is disposed in the dehydration outer cylinder, and the retention component is disposed in the middle section of the dehydration outer cylinder.

[0010] The unblocking component includes a support plate, which is disposed on the inner edge of the output part of the dewatering outer cylinder. A baffle plate is installed at the output part of the dewatering outer cylinder. A linkage rod is connected to the center of the dewatering outer cylinder. The linkage rod passes through the center of the support plate and is connected to the center of the baffle plate.

[0011] A support frame is connected to the middle section of the linkage rod. A unclogging component is installed on the part of the dewatering outer cylinder close to the support frame. The unclogging component includes a first linkage module and a second linkage module. The first linkage module includes a linkage arm, a shovel pad, and an elastic element. The linkage arm is flipped and arranged on the inner edge of the dewatering outer cylinder. The shovel pad is flipped and connected to the linkage arm. The elastic element is installed between the linkage arm and the inner edge of the dewatering outer cylinder.

[0012] The second linkage module includes a bracket and a second shovel pad. The bracket is disposed on the edge of the inner cylinder facing the barrier plate, and the second shovel pad is installed on the side of the bracket facing the support frame.

[0013] The storage component includes a notch, an inner empty box, an operating element, and a positioning stop. The notch is pre-reserved on the surface of the middle section of the outer dehydration cylinder. The inner empty box is connected to the notch, and the operating element is positioned at the center of the outer dehydration cylinder.

[0014] As a preferred technical solution for an ion exchange resin dehydration device to prevent accumulation, the support frame has several sets of assembly channels, the assembly channels are equipped with grids, the middle section of the dehydration outer cylinder is milled with a guide channel, the guide channel has an inner hollow cylinder that can telescopically move, and the connection between the support frame and the inner hollow cylinder is hinged.

[0015] As a preferred technical solution for an ion exchange resin dehydration device to prevent accumulation, a linkage disc is installed at the input part of the dehydration outer cylinder and on the linkage rod, a spiral fan is installed at the edge of the linkage disc, and a linkage component is configured on the linkage rod close to the barrier disc.

[0016] As a preferred technical solution for an ion exchange resin dehydration device to prevent accumulation, the linkage includes a groove, a first groove plate, and a second groove plate. The groove is milled on the edge of the linkage rod, and the first groove plate is installed on the part of the linkage rod outside the barrier plate. The inner edge of the first groove plate is provided with a protrusion with the same shape as the groove, and the protrusion is guided and connected in the groove.

[0017] As a preferred technical solution for an ion exchange resin dehydration device to prevent accumulation, the second alveolar plate is rotatably connected to the barrier plate. The input position of the second alveolar plate is driven and controlled by the first motor. The first alveolar plate is synchronously installed on the second alveolar plate. The first alveolar plate on the second alveolar plate and the first alveolar plate on the linkage rod are linked by a conveyor belt.

[0018] As a preferred technical solution for an ion exchange resin dehydration device to prevent accumulation, the positioning stop is installed on the outer surface of the middle section of the dehydration outer cylinder, a locking bolt is connected to the center of the positioning stop, a connecting pad is installed at the connection point of the inner empty box, and a locking ring is connected to the part of the locking bolt that passes through the center of the connecting pad.

[0019] As a preferred technical solution for an ion exchange resin dehydration device to prevent accumulation, the inner box is equipped with an interlaced frame one, and an interlaced frame two is clamped on the interlaced frame one. The surface of the interlaced frame one is milled with a first circular opening, and the surface of the interlaced frame two is milled with a second circular opening.

[0020] As a preferred technical solution for an ion exchange resin dehydration device to prevent accumulation, an insert is provided at the connection position between the inner box and the first interlaced frame. The insert includes a limiting port and a fitting seat. The limiting port is reserved on the inner edge of the inner box and is T-shaped. The fitting seat is disposed on both sides of the first interlaced frame and is arrow-shaped. The fitting seat is fitted into the limiting port.

[0021] As a preferred technical solution for an ion exchange resin dewatering device to prevent accumulation, the operating component includes a sleeve, a limiting rod, and a protruding disc. The sleeve is connected to the outer surface of the linkage rod, and a positioning groove is milled on the sleeve. The limiting rod is telescopically mounted on the dewatering outer cylinder, and the limiting rod is connected to the sleeve.

[0022] As a preferred technical solution for an ion exchange resin dewatering device to prevent accumulation, the protruding disc is installed on a section of the surface outside the dewatering outer cylinder at the limiting rod. An elastic element two is installed on the back of the protruding disc. The elastic element two is connected to the surface of the dewatering outer cylinder and is wound around the limiting rod. An elastic element three is installed at the middle position between the sleeve and the bearing disc.

[0023] The beneficial effects of this invention are:

[0024] 1. This ion exchange resin dewatering equipment relies on limiting rods and positioning channels to change the position between the inner cylinder and the notch, so that the space between the inner cylinder and the dewatering outer cylinder can be isolated or opened. When isolated, the inner cylinder can be disassembled, and the dewatering process continues during this process, ensuring uninterrupted operation. Under the dual action of shovel pad one and shovel pad two, impurities are prevented from accumulating at the grid position, thereby improving the dewatering efficiency.

[0025] 2. This ion exchange resin dehydration equipment relies on the force of the liquid during flow to automatically link the grid to remove impurities. When a small amount of liquid remains in the flow, the linkage can continue to complete the dehydration process to ensure that impurities are not easily retained on the grid. Relying on the dual force, the power source required by the motor can be saved under normal conditions.

[0026] 3. This ion exchange resin dehydration equipment relies on the force of elastic element two to make the force when the liquid flows less than that of elastic element three. When this is the case, the inner cylinder automatically blocks the opening, which facilitates the subsequent removal of the inner cylinder.

[0027] 4. This ion exchange resin dehydration equipment relies on staggered frame one, staggered frame two, first circular opening and second circular opening to effectively prevent impurities entering the inner empty box from overflowing, thereby better retaining impurities and improving dehydration effect and efficiency.

[0028] Other features and advantages of the invention will be set forth in the description which follows, and will be apparent in part from the description, or may be learned by practicing the invention. The objects and other advantages of the invention may be realized and obtained by means of the structures particularly pointed out in the description and the drawings. Attached Figure Description

[0029] To more clearly illustrate the technical solutions of the embodiments of the present invention, the accompanying drawings used in the description of the embodiments will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort. Wherein:

[0030] Figure 1 This is a schematic diagram of the overall structure of the present invention.

[0031] Figure 2 This is a schematic diagram of a partial cross-section of the present invention.

[0032] Figure 3 This is a 3 / 4 cross-sectional schematic diagram of the dehydration system of the present invention.

[0033] Figure 4 This is a half-sectional schematic diagram of the dehydration system of the present invention.

[0034] Figure 5 For the present invention Figure 4 Diagram of the area within the Chinese square frame.

[0035] Figure 6 This is a cross-sectional schematic diagram of the inner hollow cylinder of the present invention.

[0036] Figure 7 This is a schematic diagram of the sleeve, positioning groove, and limiting rod structure of the present invention.

[0037] Figure 8 This is a cross-sectional schematic diagram of the inner empty box of the present invention.

[0038] Figure 9 For the present invention Figure 8 Diagram of the area within the Chinese square frame.

[0039] Figure label:

[0040] 100. Outer dehydration tank; 300. Inner dehydration cylinder; 301. Motor II; 302. Support frame; 400. Valve; 500. Dehydration system; 600. Outer dehydration cylinder; 700. Unblocking component; 710. Support plate; 711. Barrier plate; 712. Linkage rod; 713. Support frame; 714. Assembly channel; 715. Grille; 716. Guide channel; 717. Inner hollow cylinder; 720. Unblocking component; 721. Linkage arm; 722. Shovel pad I; 723. Elastic component I; 724. Bracket; 725. Shovel pad II; 730. Linkage plate; 731. Spiral fan; 740. Linkage component ; 741. Groove; 742. Alveolar Plate 1; 743. Alveolar Plate 2; 800. Storage Component; 810. Notch; 820. Inner Empty Box; 830. Operating Component; 831. Sleeve; 832. Positioning Groove; 834. Limiting Rod; 835. Protruding Plate; 836. Elastic Component 2; 837. Elastic Component 3; 840. Positioning Stop; 841. Locking Bolt; 842. Connecting Pad; 843. Locking Ring; 850. Interlaced Frame 1; 851. Interlaced Frame 2; 852. First Circular Opening; 853. Second Circular Opening; 860. Insert; 861. Limiting Opening; 862. Fitting Seat. Detailed Implementation

[0041] To make the above-mentioned objects, features and advantages of the present invention more apparent and understandable, the specific embodiments of the present invention will be described in detail below with reference to the accompanying drawings.

[0042] Many specific details are set forth in the following description in order to provide a full understanding of the invention. However, the invention may also be practiced in other ways different from those described herein, and those skilled in the art can make similar extensions without departing from the spirit of the invention. Therefore, the invention is not limited to the specific embodiments disclosed below.

[0043] Secondly, the term "an embodiment" or "embodiment" as used herein refers to a specific feature, structure, or characteristic that may be included in at least one implementation of the present invention. The phrase "in one embodiment" appearing in different places throughout this specification does not necessarily refer to the same embodiment, nor is it a single embodiment or an embodiment selectively excluded from other embodiments.

[0044] Secondly, the present invention is described in detail with reference to the schematic diagrams. When detailing the embodiments of the present invention, for ease of explanation, the cross-sectional views illustrating the device structure may be partially enlarged, not according to the usual scale. Furthermore, the schematic diagrams are merely examples and should not limit the scope of protection of the present invention. In addition, actual fabrication should include three-dimensional spatial dimensions of length, width, and depth.

[0045] Example, refer to Figure 1 And 2, an anti-accumulation ion exchange resin dehydration device, including an outer dehydration tank 100, an inner dehydration cylinder 300 and a dehydration system 500;

[0046] The inner dehydration cylinder 300 is rotatably arranged in the outer dehydration tank 100. A support frame 302 is installed on the inner edge of the outer dehydration tank 100. The support shaft of the inner dehydration cylinder 300 is connected to the support frame 302. The support frame 302 provides support for the rotation of the inner dehydration cylinder 300. A second motor 301 is installed at the top center of the outer dehydration tank 100. The output end of the second motor 301 is connected to the top position of the inner dehydration cylinder 300. The dehydration system 500 is connected to the bottom position of the outer dehydration tank 100. A valve 400 is connected to the bottom of the outer dehydration tank 100. The valve 400 is similar to a switch and can connect the outer dehydration tank 100 and the dehydration system 500.

[0047] Reference Figure 3 The dehydration system 500 includes a dehydration outer cylinder 600, a dredging component 700, and a storage component 800. The dehydration outer cylinder 600 is connected to the bottom end of the outer dehydration tank 100, the dredging component 700 is disposed in the dehydration outer cylinder 600, and the storage component 800 is disposed in the middle section of the dehydration outer cylinder 600.

[0048] Reference Figure 3 And 4, the storage component 800 includes a notch 810, an inner empty box 820, an operating element 830 and a positioning stop 840. The notch 810 is reserved on the surface of the middle section of the dehydration outer cylinder 600. The inner empty box 820 is connected to the notch 810. The operating element 830 is located at the center of the dehydration outer cylinder 600.

[0049] The inner dehydration cylinder 300 dehydrates the ion exchange resin. The dehydrated liquid is retained at the bottom of the outer dehydration tank 100. Under the action of the valve 400, the liquid can be discharged to the position of the outer dehydration cylinder 600. The liquid passing through the outer dehydration cylinder 600 will reach the unblocking component 700. At this time, the residual impurities in the liquid will be intercepted by the unblocking component 700, and under the action of the notch 810 and the inner empty box 820, these impurities will be collected. The inner empty box 820 can be removed by the operating component 830, and the dehydration and discharge work can be carried out normally during this process.

[0050] Reference Figure 3 , 4And 6, the unblocking component 700 includes a support plate 710, which is disposed on the inner edge of the output part of the dewatering outer cylinder 600. A baffle plate 711 is installed at the output part of the dewatering outer cylinder 600. A linkage rod 712 is connected to the center of the dewatering outer cylinder 600. The linkage rod 712 passes through the center of the support plate 710 and is connected to the center of the baffle plate 711. A support frame 713 is connected to the middle section of the linkage rod 712. Several sets of assembly channels 714 are reserved on the support frame 713. A grid 715 is disposed on the assembly channel 714. A guide channel 716 is milled on the inner edge of the middle section of the dewatering outer cylinder 600. An inner hollow cylinder 717 telescopically moves on the guide channel 716. The connection between the support frame 713 and the inner hollow cylinder 717 is hinged. An unblocking component 720 is installed on the part of the dewatering outer cylinder 600 close to the support frame 713.

[0051] Reference Figure 4 And 6, the input part of the dehydration outer cylinder 600 and the linkage rod 712 are provided with a linkage disc 730, the linkage disc 730 is provided with a spiral fan 731 at the edge, and the linkage rod 712 is provided with a linkage component 740 close to the barrier disc 711.

[0052] Reference Figure 3 , 4 And 5, the linkage 740 includes a groove 741, a first grooved disc 742, and a second grooved disc 743. The groove 741 is milled on the edge of the linkage rod 712. The first grooved disc 742 is installed on the part of the linkage rod 712 outside the barrier disc 711. The inner edge of the first grooved disc 742 is provided with a protrusion of the same shape as the groove 741, and the protrusion is guided and connected in the groove 741. The second grooved disc... 743 is rotaryly connected to the barrier plate 711. The input position of the second alveolar plate 743 is driven and controlled by the first motor. The first alveolar plate 742 is synchronously installed on the second alveolar plate 743. The first alveolar plate 742 on the second alveolar plate 743 and the first alveolar plate 742 on the linkage rod 712 are linked by a transmission belt. The inner edge of the transmission belt has a protrusion to ensure that the second alveolar plate 743 and the first alveolar plate 742 are linked.

[0053] Reference Figure 3 , 4 And 6, the unblocking component 720 includes a first linkage module and a second linkage module. The first linkage module includes a linkage arm 721, a shovel pad 722 and an elastic element 723. The linkage arm 721 is flipped and disposed on the inner edge of the dewatering outer cylinder 600. The shovel pad 722 is flipped and connected to the linkage arm 721. The elastic element 723 is installed between the linkage arm 721 and the inner edge of the dewatering outer cylinder 600.

[0054] Reference Figure 4And 6, the second linkage module includes a bracket 724 and a second shovel pad 725. The bracket 724 is disposed on the edge of the inner cylinder 717 facing the barrier plate 711, and the second shovel pad 725 is installed on the side of the bracket 724 facing the support frame 713. Under the action of the second shovel pad 725 and the first shovel pad 722, the inside and outside of the grille 715 can be cleaned.

[0055] Reference Figure 3 The positioning stop 840 is installed on the outer surface of the middle section of the outer cylinder 600 for dehydration. A locking bolt 841 is connected to the center of the positioning stop 840. A connecting pad 842 is installed at the connection point of the inner empty box 820. A locking ring 843 is connected to the part of the locking bolt 841 that passes through the center of the connecting pad 842.

[0056] Reference Figure 8 The inner box 820 is equipped with an interlaced frame 850, and an interlaced frame 851 is connected to the interlaced frame 850.

[0057] Reference Figure 8 And 9, the surface of the first interlaced frame 850 is milled with a first circular opening 852, and the surface of the second interlaced frame 851 is milled with a second circular opening 853.

[0058] Reference Figure 8 And 9, an insert 860 is installed at the connection position between the inner empty box 820 and the staggered frame 850. The insert 860 includes a limiting port 861 and a fitting seat 862. The limiting port 861 is reserved in the inner edge of the inner empty box 820 and is "T" shaped. The fitting seat 862 is arranged on both sides of the staggered frame 850 and is arrow-shaped. The fitting seat 862 is fitted and connected to the limiting port 861.

[0059] Reference Figure 3 , 4 And 7, the operating component 830 includes a sleeve 831, a limiting rod 834, and a protruding disc 835. The sleeve 831 is connected to the outer surface of the linkage rod 712. The sleeve 831 is milled with a positioning groove 832. The limiting rod 834 is telescopically mounted on the dewatering outer cylinder 600. The limiting rod 834 is connected to the sleeve 831. The protruding disc 835 is installed on a section of the limiting rod 834 outside the dewatering outer cylinder 600. An elastic element 2 836 is installed on the back of the protruding disc 835. The elastic element 2 836 is connected to the surface of the dewatering outer cylinder 600. The elastic element 2 836 is wound around the limiting rod 834. An elastic element 3 837 is installed at the middle position between the sleeve 831 and the bearing disc 710.

[0060] The above achieves the following: Before application, the inner empty cylinder 717 is covered by the notch 810. At this state, the inner empty box 820 and the dewatering outer cylinder 600 are not connected. The connecting pad 842 is connected to the notch 810 by the locking bolt 841, thereby completing the placement of the inner empty box 820. The valve 400 is then opened, and the pre-treated ions and ions of the same charge in the pre-treated water exchange with each other to achieve softening, dealkali removal, and desalination. The liquid is then discharged through the dewatering outer cylinder 600. This liquid will reach the grid 715. The solid impurities in the liquid will be guided to the inner edge of the dewatering outer cylinder 600 by the shape of the support frame 713. The liquid is discharged by the grid 715.

[0061] When the liquid enters the dehydration outer cylinder 600, it first impacts the spiral fan 731, causing the spiral fan 731 to rotate. Under the action of the spiral fan 731, the spiral fan 731 and the linkage disc 730 rotate together. The linkage disc 730 and the linkage rod 712 move and rotate together. The linkage rod 712 and the support frame 713 and the grid 715. When there is a remaining liquid, the force of the liquid cannot move the spiral fan 731 to rotate. At this time, the first motor controls the second toothed plate 743, and the transmission belt drives the first toothed plate 742. The first toothed plate 742 and the linkage rod 712 move together. The linkage rod 712 and the support frame 713 achieve multi-state liquid flow. When the liquid is flowing normally, the first motor does not need to work due to the characteristics of the liquid, which indirectly reduces the need for external force intervention.

[0062] When the support frame 713 rotates, it moves in conjunction with the grille 715. While the grille 715 moves, the first scraper pad 722 remains stationary. At this moment, various points on the grille 715 cyclically contact the first scraper pad 722. The linkage arm 721 and the elastic element 723 provide cushioning and ensure that the first scraper pad 722 remains in contact with the grille 715. Impurities on the grille 715 can be scraped away at this time. Simultaneously, the bracket 724 and the second scraper pad 725 are also stationary. The second scraper pad 725 and the grille... The inner edge of the grid 715 is attached. When the grid 715 rotates, the impurities on its inner circumference are pushed out by the second shovel pad 725. Under the dual action of the second shovel pad 725 and the first shovel pad 722, the grid 715 can ensure that impurities do not remain inside or outside and affect the flow of liquid. After the plasma exchange resin is dehydrated, the inner empty box 820 is removed. The motor 1 drives the linkage rod 712 and the grid 715 to continue rotating. The first shovel pad 722 is in the position of the support frame 713. At this time, the grid 715 can be removed normally.

[0063] When the limiting rod 834 is embedded in the positioning groove 832, the sleeve 831 can only rotate and its position cannot be changed. At this time, the inner cylinder 717 is in the position of the notch 810.

[0064] As the remaining liquid is discharged from the dehydration outer cylinder 600, the protruding disc 835 is lifted. At this time, the limiting rod 834 will move away from the positioning groove 832. When the liquid passes through, it will cause the support frame 302 to change position. At this time, the limiting rod 834 no longer corresponds to the position of the positioning groove 832. When the liquid does not flow in the future, under the action of the elastic element 3 837, the positioning groove 832 gradually changes towards the position of the limiting rod 834. The limiting rod 834 will correspond to the position of the positioning groove 832. Relying on the elastic element 2 836, the limiting rod 834 is embedded into the positioning groove 832 again. At this time, the sleeve 831 is once again in a state of only rotating and not moving.

[0065] Under liquid pressure, the sleeve 831 is linked to the linkage rod 712, which changes position. The linkage rod 712, together with the support frame 713 and the inner empty cylinder 717, changes position. At this time, the inner empty cylinder 717 no longer blocks the opening 810, and a space is formed between the inner empty box 820 and the dewatering outer cylinder 600. At this time, under the action of centrifugal force, gravity and liquid, the removed impurities can be introduced into the inner empty box 820.

[0066] When the sleeve 831 changes position, it will be directly compressed and the pressure will be transmitted to the elastic element 837. When the inner cylinder 717 does not block the notch 810, and the impurities in the inner box 820 reach a certain level and require emergency treatment, the valve 400 will be closed slightly. At this time, under the action of the elastic element 837, the limiting rod 834 will be re-embedded into the positioning groove 832 under the action of the elastic element 836. At this time, the inner cylinder 717 blocks the notch 810. At the same time, the locking ring 843 is operated so that the inner box 820 can be removed for impurity recovery. After maintenance, the inner box 820 is placed back in its original position, and the valve 400 and the protruding plate 835 are reopened to allow the remaining impurities to be discharged. Meanwhile, during the maintenance of the inner box 820, the dehydration work continues, realizing non-stop maintenance and improving the overall dehydration efficiency.

[0067] By relying on the first interlaced frame 850 and the second interlaced frame 851, the force exerted on the inner empty box 820 by the liquid entering into the inner empty box 820 can be reduced, allowing impurities to be better retained in the inner empty box 820. By relying on the first round opening 852 and the second round opening 853, the force exerted by the liquid in the inner empty box 820 on the first interlaced frame 850, the second interlaced frame 851 and the inner empty box 820 can be better retained in the inner empty box 820.

[0068] After the inner empty box 820 is removed, a pair of fitting seats 862 can be pinched. Due to the inherent characteristics of the fitting seats 862, they can leave the limiting port 861. At this time, the first interlacing frame 850 and the second interlacing frame 851 can be separated from the inner empty box 820, so as to better remove these impurities.

[0069] It should be understood that numerous specific implementation decisions can be made during the development of any actual implementation method, and in any engineering or design project. Such development efforts may be complex and time-consuming, but for those of ordinary skill in the art who benefit from this disclosure, the development effort will be a routine task in design, manufacturing, and production without requiring extensive experimentation.

[0070] It should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention and are not intended to limit it. Although the present invention has been described in detail with reference to preferred embodiments, those skilled in the art should understand that modifications or equivalent substitutions can be made to the technical solutions of the present invention without departing from the spirit and scope of the technical solutions of the present invention, and all such modifications or substitutions should be covered within the scope of the claims of the present invention.

Claims

1. An ion exchange resin dehydration device for preventing accumulation, characterized in that: It includes an outer dehydration tank (100), an inner dehydration cylinder (300), and a dehydration system (500); The inner dehydration cylinder (300) is rotatably arranged in the outer dehydration tank (100). A support frame (302) is installed on the inner edge of the outer dehydration tank (100). The support shaft of the inner dehydration cylinder (300) is connected to the support frame (302). A motor (301) is installed at the top center of the outer dehydration tank (100). The output end of the motor (301) is connected to the top position of the inner dehydration cylinder (300). The dehydration system (500) is connected to the bottom position of the outer dehydration tank (100). A valve (400) is connected to the bottom of the outer dehydration tank (100). The dehydration system (500) includes a dehydration outer cylinder (600), a dredging component (700), and a storage component (800). The dehydration outer cylinder (600) is connected to the bottom end of the outer dehydration tank (100). The dredging component (700) is disposed in the dehydration outer cylinder (600), and the storage component (800) is disposed in the middle section of the dehydration outer cylinder (600). The unblocking component (700) includes a support plate (710), which is disposed on the inner edge of the output part of the dewatering outer cylinder (600). A baffle plate (711) is installed at the output part of the dewatering outer cylinder (600). A linkage rod (712) is connected to the center of the dewatering outer cylinder (600). The linkage rod (712) passes through the center of the support plate (710) and is connected to the center of the baffle plate (711). A support frame (713) is connected to the middle section of the linkage rod (712), and a draining component (720) is installed on the part of the dehydration outer cylinder (600) close to the support frame (713). The draining component (720) includes a first linkage module and a second linkage module. The first linkage module includes a linkage arm (721), a shovel pad (722), and an elastic element (723). The linkage arm (721) is flipped and disposed on the inner edge of the dewatering outer cylinder (600). The shovel pad (722) is flipped and connected to the linkage arm (721). The elastic element (723) is installed between the linkage arm (721) and the inner edge of the dewatering outer cylinder (600). The second linkage module includes a bracket (724) and a second shovel pad (725). The bracket (724) is disposed on the edge of the inner cylinder (717) facing the barrier plate (711), and the second shovel pad (725) is installed on the side of the bracket (724) facing the support frame (713). The storage component (800) includes a notch (810), an inner empty box (820), an operating element (830), and a positioning stop (840). The notch (810) is pre-reserved on the surface of the middle section of the dehydration outer cylinder (600). The inner empty box (820) is connected to the notch (810). The operating element (830) is located at the center of the dehydration outer cylinder (600). The support frame (713) has several sets of assembly channels (714) reserved on it. The assembly channels (714) are equipped with grids (715). The middle section of the dehydration outer cylinder (600) is milled with a guide channel (716). The guide channel (716) has an inner hollow cylinder (717) that can telescopically move on it. The connection between the support frame (713) and the inner hollow cylinder (717) is a hinge. The input part of the dehydration outer cylinder (600) is provided with a linkage disc (730) on the linkage rod (712), and a spiral fan (731) is provided on the edge of the linkage disc (730). A linkage component (740) is arranged on the linkage rod (712) close to the barrier disc (711). The linkage component (740) includes a groove (741), a first groove plate (742), and a second groove plate (743). The groove (741) is milled on the edge of the linkage rod (712). The first groove plate (742) is installed on the part of the linkage rod (712) outside the barrier plate (711). The inner edge of the first groove plate (742) is provided with a protrusion with the same shape as the groove (741), and the protrusion is guided and connected in the groove (741). The second alveolar disc (743) is rotatably connected to the barrier disc (711). The input position of the second alveolar disc (743) is driven and controlled by the first motor. The first alveolar disc (742) is synchronously installed on the second alveolar disc (743). The first alveolar disc (742) on the second alveolar disc (743) and the first alveolar disc (742) on the linkage rod (712) are linked by a transmission belt. The operating component (830) includes a sleeve (831), a limiting rod (834), and a protruding disc (835). The sleeve (831) is connected to the outer surface of the linkage rod (712). The sleeve (831) is milled with positioning grooves (832). The limiting rod (834) is telescopically mounted on the dewatering outer cylinder (600). The limiting rod (834) is connected to the sleeve (831). The protruding disc (835) is installed on a section of the limiting rod (834) outside the dewatering outer cylinder (600). An elastic element two (836) is installed on the back of the protruding disc (835). The elastic element two (836) is connected to the surface of the dewatering outer cylinder (600). The elastic element two (836) is wound around the limiting rod (834). An elastic element three (837) is installed at the middle position between the sleeve (831) and the bearing disc (710).

2. The anti-accumulation ion exchange resin dehydration equipment according to claim 1, characterized in that: The positioning stop (840) is installed on the outer surface of the middle section of the dehydration outer cylinder (600). A locking bolt (841) is connected to the center of the positioning stop (840). A connecting pad (842) is installed at the connection point of the inner empty box (820). A locking ring (843) is connected to the part of the locking bolt (841) that passes through the center of the connecting pad (842).

3. The anti-accumulation ion exchange resin dehydration equipment according to claim 1, characterized in that: The inner box (820) is provided with an interlaced frame one (850), and an interlaced frame two (851) is clamped on the interlaced frame one (850). The surface of the interlaced frame one (850) is milled with a first circular opening (852), and the surface of the interlaced frame two (851) is milled with a second circular opening (853).

4. The anti-accumulation ion exchange resin dehydration equipment according to claim 1, characterized in that: An insert (860) is installed at the connection position between the inner empty box (820) and the first interlaced frame (850). The insert (860) includes a limiting port (861) and a fitting seat (862). The limiting port (861) is reserved in the inner edge of the inner empty box (820) and is "T" shaped. The fitting seat (862) is arranged on both sides of the first interlaced frame (850) and is arrow-shaped. The fitting seat (862) is fitted into the limiting port (861).

Images