An online automatic regeneration device for hydrogen conductivity ion exchange column in power plant

Abstract

The invention discloses an online automatic regeneration device for hydrogen conductivity ion exchange column of power plant, comprising a first ion exchange box, a plurality of second ion exchange boxes and a regeneration liquid storage box, wherein a spare ion exchange column is arranged in the first ion exchange box, and a working ion exchange column is arranged in the second ion exchange box; the regeneration liquid storage box is divided into two cavities by a partition, and two first electromagnetic tees are symmetrically arranged outside the first ion exchange box, and each infusion end of the first electromagnetic tees is respectively connected to a transmission pipeline, a side wall of the first ion exchange box and a delivery pipeline, and one end of the delivery pipeline is connected to one of the cavities; a water inlet switching component and a drainage switching component are symmetrically arranged outside the second ion exchange box, and the drainage switching component has the same structure as the water inlet switching component. The invention is a regeneration device that is convenient for online automatic regeneration of cation exchange columns and for uninterrupted real-time monitoring of water vapor quality.

Description

Technical Field

[0001] The invention mainly relates to the technical field of water quality detection, and in particular to an online automatic regeneration device for a hydrogen conductive ion exchange column of a power plant. Background Art

[0002] Hydrogen conductivity is an important indicator for monitoring water vapor quality in thermal power plants. Hydrogen conductivity is the conductivity obtained after the water sample passes through the hydrogen ion exchange column. The cation exchange column will enter a failure state after a unit of time of use and needs to be regenerated. At this time, the hydrogen conductivity system will be in a shutdown state, affecting the real-time monitoring of water vapor quality.

[0003] According to the patent document with application number CN201520389997.4, the automatic regeneration device of hydrogen-conducting ion exchange column in power plant includes a bayonet for placing hydrogen-conducting ion exchange column, a regeneration liquid pipeline for regenerating hydrogen-conducting ion exchange column, a forward wash pipeline and a backwash pipeline for flushing hydrogen-conducting ion exchange column, and the hydrogen-conducting ion exchange column is provided with a water inlet and a water outlet, and the regeneration liquid pipeline and the forward wash pipeline are connected in parallel and connected to the water inlet of the hydrogen-conducting ion exchange column; the backwash pipeline includes a backwash water inlet pipe connected after the regeneration liquid pipeline and the forward wash pipeline and a backwash water outlet pipe connected to the water inlet; the water outlet is provided with a drain valve, and water quality detection pipelines are connected in parallel at both ends of the drain valve. The product is simple to operate, has good dynamic regeneration treatment effect, and the exchange column does not need to be disassembled.

[0004] The product in the above patent is simple to operate, has good dynamic regeneration treatment effect, and does not require disassembly of the exchange column, but is not convenient for online automatic regeneration of the cation exchange column and uninterrupted real-time monitoring of water vapor quality. Summary of the invention

[0005] The present invention mainly provides an online automatic regeneration device for a hydrogen conductive ion exchange column in a power plant, which is used to solve the technical problems raised in the above-mentioned background technology.

[0006] The technical solution adopted by the present invention to solve the above technical problems is:

[0007] An online automatic regeneration device for hydrogen conductivity ion exchange columns in a power plant, comprising a first ion exchange box, and a plurality of second ion exchange boxes arranged in sequence on one side of the first ion exchange box, and a regeneration liquid storage box on the other side, wherein a spare ion exchange column is arranged in the first ion exchange box, a working ion exchange column is arranged in the second ion exchange box, a cyclone contact component is arranged in the first ion exchange box and the second ion exchange box, and an ion exchange column mounting device is arranged on the top of the first ion exchange box and the second ion exchange box;

[0008] The regeneration liquid storage box is divided into two cavities by a partition, and two first electromagnetic tees are symmetrically arranged outside the first ion exchange box, and each infusion end of the first electromagnetic tee is respectively connected to the transmission pipeline, the side wall of the first ion exchange box and the delivery pipeline, and one end of the delivery pipeline is connected to one of the cavities;

[0009] A water inlet switching component and a water discharge switching component are symmetrically provided on the outside of the second ion exchange box. The water inlet switching component is connected to one of the delivery pipes and one of the transmission pipes, and the water discharge switching component is connected to the other delivery pipe and the other transmission pipe. The water discharge switching component has the same structure as the water inlet switching component. The water inlet switching component is used to switch the liquid input into the second ion exchange box to the input transmission pipe and input the liquid in the corresponding cavity into the second ion exchange box. The water discharge switching component is used to switch the drainage of the second ion exchange box to the input into another cavity and drain the other transmission pipe.

[0010] Preferably, the water inlet switching component includes a second three-way solenoid valve and a third three-way solenoid valve which are sequentially arranged in a direction extending away from the second ion exchange box, each infusion end of the second three-way solenoid valve is respectively connected to the delivery pipeline, one of the infusion ends of the third three-way solenoid valve and the side wall of the second ion exchange box, and each infusion end of the third three-way solenoid valve is respectively connected to the water source and the delivery pipeline. In this preferred embodiment, the water inlet switching component is used to facilitate switching the liquid input into the second ion exchange box to the input delivery pipeline and input the liquid in the corresponding cavity into the second ion exchange box, and the drainage switching component is used to facilitate switching the drainage of the second ion exchange box to input into another cavity and drain another delivery pipeline, so as to facilitate the online regeneration of multiple ion exchange columns.

[0011] Preferably, the swirl contact component comprises a spiral guide plate arranged on the inner wall of the first ion exchange box and sleeved on the outer wall of the spare ion exchange column. In this preferred embodiment, the swirl contact component facilitates the liquid flowing through to fully contact the ion exchange column.

[0012] Preferably, the ion exchange column installation device includes a top cover disposed on the top of the first ion exchange box, a mounting component disposed in the top cover and used to fix the spare ion exchange column, and a drive cylinder disposed on the side wall of the first ion exchange box and used to drive the top cover to rise and fall. In this preferred embodiment, the ion exchange column installation device facilitates the rapid disassembly and assembly of the ion exchange column.

[0013] Preferably, the mounting component includes a groove embedded in the side wall of the top cover, a slider slidably connected to the groove, and two clamping plates symmetrically arranged on the side wall of the slider, one of the side walls of the clamping plate is provided with a fastening screw with one end passing through the two clamping plates in sequence, and the inner wall of the clamping plate contacts the spare ion exchange column. In this preferred embodiment, the mounting component facilitates the rapid fixation of the ion exchange column.

[0014] Preferably, a pre-flushing component is symmetrically provided on the top of the regeneration liquid storage tank, and the pre-flushing component includes a pre-flushing tank provided on the top of the regeneration liquid storage tank, and a first electrically controlled valve provided on the side wall of the pre-flushing tank, and the first electrically controlled valve is connected to the delivery pipeline through a pipeline. In this preferred embodiment, the pre-flushing component facilitates flushing of the pipeline before regeneration of the ion exchange column to prevent dilution of the regeneration liquid.

[0015] Preferably, an air flow flushing component is provided on the top of the regeneration liquid storage box, and the air flow flushing component includes an air storage tank provided on the top of the regeneration liquid storage box, an air compressor provided on the top of the air storage tank and connected to the air storage tank at the execution end, and two second electrically controlled valves symmetrically provided on the side wall of the air storage tank, and the second electrically controlled valves are connected to the delivery pipeline through a pipeline. In this preferred embodiment, the air flow flushing component facilitates air flow flushing of the pipeline before regeneration of the ion exchange column.

[0016] Preferably, a regulating valve and a flow sensor are sequentially arranged at one end of the delivery pipeline close to the regeneration liquid storage tank. In this preferred embodiment, the regulating valve and the flow sensor facilitate the flow control and transmission of the regeneration liquid.

[0017] Preferably, two stirring components are respectively provided at both ends of the regeneration liquid storage tank, and the stirring components include a transmission motor provided on the outer wall of the regeneration liquid storage tank, and a stirring turntable provided at the execution end of the transmission motor and located in the cavity. In this preferred embodiment, the stirring components facilitate the homogenization of the solute of the regeneration liquid in the regeneration liquid storage tank.

[0018] Preferably, a temperature regulating component is provided in the cavity, and the temperature regulating component includes a temperature sensor provided on the inner wall of the cavity, a heater embedded in the bottom of the regeneration liquid storage tank, and a heat-conducting column whose bottom end contacts the upper surface of the heater and whose top end extends into the cavity. In this preferred embodiment, the temperature regulating component facilitates keeping the regeneration liquid at a suitable temperature.

[0019] Compared with the prior art, the present invention has the following beneficial effects:

[0020] The regeneration device of the present invention facilitates the online automatic regeneration of the cation exchange column and facilitates the uninterrupted real-time monitoring of the water vapor quality;

[0021] The water inlet switching component facilitates switching the liquid input into the second ion exchange box to the input transmission pipeline and inputting the liquid in the corresponding cavity into the second ion exchange box; the water discharge switching component facilitates switching the drainage of the second ion exchange box to input into another cavity and draining another transmission pipeline, so as to facilitate online regeneration of multiple ion exchange columns; the cyclone contact component facilitates full contact between the flowing liquid and the ion exchange column; the ion exchange column installation device facilitates rapid disassembly and assembly of the ion exchange column; the installation component facilitates rapid fixation of the ion exchange column; the pre-flushing component facilitates flushing of the pipeline before regeneration of the ion exchange column to prevent dilution of the regeneration liquid; the air flow flushing component facilitates air flow flushing of the pipeline before regeneration of the ion exchange column; the regulating valve and the flow sensor facilitate the flow control transmission of the regeneration liquid; the stirring component facilitates the homogenization of the solute of the regeneration liquid in the regeneration liquid storage box; and the temperature control component facilitates keeping the regeneration liquid at a suitable temperature.

[0022] The present invention will be explained in detail below with reference to the accompanying drawings and specific embodiments. BRIEF DESCRIPTION OF THE DRAWINGS

[0023] Figure 1 It is an axonometric diagram of the overall structure of the present invention;

[0024] Figure 2 It is an exploded view of the overall structure of the present invention;

[0025] Figure 3 It is an exploded view of the structure of the ion exchange column installation device of the present invention;

[0026] Figure 4 An exploded view of the regeneration liquid storage tank structure of the present invention;

[0027] Figure 5 It is a top view of the overall structure of the present invention;

[0028] Figure 6 It is a cross-sectional view of the overall structure of the present invention;

[0029] Figure 7 It is a cross-sectional view of the structure of the second ion exchange cartridge of the present invention;

[0030] Figure 8 It is a cross-sectional view of the structure of the regeneration liquid storage box of the present invention.

[0031] Description of the drawings: 10, first ion exchange box; 101, spare ion exchange column; 11, cyclone contact component; 111, spiral guide plate; 12, first electromagnetic three-way; 13, transmission pipeline; 20, second ion exchange box; 201, working ion exchange column; 21, water inlet switching component; 211, second three-way electromagnetic valve; 212, third three-way electromagnetic valve; 213, transmission pipeline; 2131, regulating valve; 2132, flow sensor; 22, drainage switching component; 30, regeneration liquid storage box; 301, partition; 302, cavity; 31 , pre-flushing component; 311, pre-flushing box; 312, first electric control valve; 32, air flow flushing component; 321, air storage tank; 322, air compressor; 323, second electric control valve; 33, stirring component; 331, transmission motor; 332, stirring turntable; 34, temperature control component; 341, temperature sensor; 342, heater; 343, heat conductive column; 40, ion exchange column installation device; 41, top cover; 42, installation component; 421, groove; 422, slider; 423, splint; 424, fastening screw; 43, drive cylinder. DETAILED DESCRIPTION

[0032] To facilitate understanding of the present invention, the present invention will be described more comprehensively below with reference to the relevant drawings. Several embodiments of the present invention are given in the drawings, but the present invention can be implemented in different forms and is not limited to the embodiments described in the text. On the contrary, these embodiments are provided to make the content disclosed in the present invention more thorough and comprehensive.

[0033] It should be noted that when an element is referred to as being "fixed on" another element, it may be directly on the other element or there may be a central element. When an element is considered to be "connected to" another element, it may be directly connected to the other element or there may be a central element at the same time. The terms "vertical", "horizontal", "left", "right" and similar expressions used in this article are for illustrative purposes only.

[0034] Unless otherwise defined, all technical and scientific terms used herein have the same meaning as commonly connected by technicians in the technical field to which the present invention belongs. The terminology used in the specification of the present invention is for the purpose of describing specific embodiments and is not intended to limit the present invention. The term "and / or" used herein includes any and all combinations of one or more related listed items.

[0035] Please refer to the attached Figure 1 , 2As shown in Figures 3 and 7, in a preferred embodiment of the present invention, an online automatic regeneration device for a hydrogen conductivity ion exchange column in a power plant comprises a first ion exchange box 10, and a plurality of second ion exchange boxes 20 arranged in sequence on one side of the first ion exchange box 10, and a regeneration liquid storage tank 30 on the other side, wherein a spare ion exchange column 101 is provided in the first ion exchange box 10, and a working ion exchange column 201 is provided in the second ion exchange box 20, and a cyclone contact component 11 is provided in the first ion exchange box 10 and the second ion exchange box 20, and an ion exchange column mounting device 40 is provided on the top of the first ion exchange box 10 and the second ion exchange box 20; the cyclone contact component 11 comprises a cyclone contact component 11 disposed on the inner wall of the first ion exchange box 10 and sleeved on the second ion exchange box 20; The spiral guide plate 111 on the outer wall of the spare ion exchange column 101, the ion exchange column installation device 40 includes a top cover 41 arranged on the top of the first ion exchange box 10, a mounting component 42 arranged in the top cover 41 and used to fix the spare ion exchange column 101, and a driving cylinder 43 arranged on the side wall of the first ion exchange box 10 and used to drive the top cover 41 to rise and fall, the mounting component 42 includes a groove 421 embedded in the side wall of the top cover 41, a slider 422 slidably connected to the groove 421, and two clamps 423 symmetrically arranged on the side walls of the slider 422, one of the side walls of the clamp 423 is provided with a fastening screw 424 with one end passing through the two clamps 423 in sequence, and the inner wall of the clamp 423 contacts the spare ion exchange column 101.

[0036] It should be noted that, in this embodiment, the cyclone contact component 11 facilitates the liquid flowing through to fully contact the ion exchange column, and the ion exchange column installation device 40 facilitates the rapid disassembly and assembly of the ion exchange column;

[0037] Taking the first ion exchange box 10 as an example, after the liquid enters the first ion exchange box 10, it spirals down under the action of the spiral guide plate 111 so as to fully contact with the spare ion exchange column 101;

[0038] Taking the replacement of the spare ion exchange column 101 as an example, the driving cylinder 43 drives the top cover 41 to move upward so that the spare ion exchange column 101 is moved out of the first ion exchange box 10. At this time, the spare ion exchange column 101 can be pulled outward, and the slider 422 drives the top of the spare ion exchange column 101 to move out of the top cover 41. At this time, the fastening screws 424 can be loosened to remove the spare ion exchange column 101, replace it with a new spare ion exchange column 101, and install and fix the spare ion exchange column 101 according to the disassembly steps.

[0039] Please refer to the attached Figure 1 , 2As shown in Figures 5 and 6, in another preferred embodiment of the present invention, the regeneration liquid storage box 30 is divided into two cavities 302 by a partition 301, and two first electromagnetic tees 12 are symmetrically arranged on the outside of the first ion exchange box 10, and each infusion end of the first electromagnetic tee 12 is respectively connected to the transmission pipeline 13, the side wall of the first ion exchange box 10 and the delivery pipeline 213, and one end of the delivery pipeline 213 is connected to one of the cavities 302; the water inlet switching component 21 includes a second three-way electromagnetic valve 211 and a third three-way electromagnetic valve 212 which are sequentially arranged in a direction extending away from the second ion exchange box 20, and each infusion end of the second three-way electromagnetic valve 211 is respectively connected to the delivery pipeline 213, one of the infusion ends of the third three-way electromagnetic valve 212 and the side wall of the second ion exchange box 20, and the third three-way electromagnetic valve 212 is connected to the delivery pipeline 213, one of the infusion ends of the third three-way electromagnetic valve 212 and the side wall of the second ion exchange box 20, and the third three-way electromagnetic valve 212 is connected to the delivery pipeline 213. Each infusion end is respectively connected to a water source and a transmission pipe 13. A water inlet switching component 21 and a drainage switching component 22 are symmetrically provided on the outside of the second ion exchange box 20. The water inlet switching component 21 is connected to one of the transmission pipes 213 and one of the transmission pipes 13. The drainage switching component 22 is connected to another of the transmission pipes 213 and another of the transmission pipes 13. The drainage switching component 22 has the same structure as the water inlet switching component 21. The water inlet switching component 21 is used to switch the liquid input into the second ion exchange box 20 to the input transmission pipe 13 and input the liquid in the corresponding cavity 302 into the second ion exchange box 20. The drainage switching component 22 is used to switch the drainage of the second ion exchange box 20 to the input into another cavity 302 and drain the other transmission pipe 13.

[0040] It should be noted that, in this embodiment, a spare ion exchange column 101 and 4N+2 three-way solenoid valves are provided to realize online automatic regeneration of N working ion exchange columns 201, and N is recommended to be less than or equal to the time interval for regeneration of the ion exchange column divided by half of the time required for regeneration;

[0041] During normal operation, water is introduced into the water inlet switching component 21, and the water flows sequentially through the third three-way solenoid valve 212 and the second three-way solenoid valve 211 in the water inlet switching component 21 into the second ion exchange box 20, and after the reaction, the water is discharged to the detection equipment through the second three-way solenoid valve 211 and the third three-way solenoid valve 212 in the water discharge switching component 22 to perform hydrogen conductivity detection;

[0042] When one of the working ion exchange columns 201 is regenerated, the third three-way solenoid valve 212 in the water inlet switching component 21 corresponding to the working ion exchange column 201 directs the water flow into one of the transmission pipes 13, and the water flows into the first ion exchange box 10 through the transmission pipe 13 and one of the first solenoid tees 12. At this time, the standby ion exchange column 101 replaces the working ion exchange column 201 to work, and the water discharged from the first ion exchange box 10 is discharged to the detection equipment through another first solenoid tee 12, another transmission pipe 13 and the third three-way solenoid valve 212 in the drainage switching component 22. At the same time, the regeneration liquid in one of the cavities 302, such as hydrochloric acid, enters the second ion exchange box 20 through the delivery pipe 213 and the second three-way solenoid valve 211 in the water inlet switching component 21 and flushes and regenerates the working ion exchange column 201. The discharged regeneration liquid returns to the other cavity 302 through the second three-way solenoid valve 211 in the drainage switching component 22 and the delivery pipe 213;

[0043] When the spare ion exchange column 101 is regenerated, the regeneration liquid in one of the cavities 302 enters the first ion exchange box 10 through one of the delivery pipes 213 and the first electromagnetic tee 12 to flush and regenerate the spare ion exchange column 101, and the discharged regeneration liquid returns to the other cavity 302 through another first electromagnetic tee 12 and the delivery pipe 213;

[0044] When one of the working ion exchange columns 201 is replaced, its flow path is switched to the channel of the spare ion exchange column 101, and the new working ion exchange column 201 can be replaced.

[0045] Please refer to the attached Figure 1 , 4As shown in Figures 5 and 8, in another preferred embodiment of the present invention, a pre-flushing component 31 is symmetrically provided on the top of the regeneration liquid storage tank 30, and the pre-flushing component 31 includes a pre-flushing tank 311 provided on the top of the regeneration liquid storage tank 30, and a first electrically controlled valve 312 provided on the side wall of the pre-flushing tank 311, and the first electrically controlled valve 312 is connected to the delivery pipeline 213 through a pipeline, and an air flow flushing component 32 is provided on the top of the regeneration liquid storage tank 30, and the air flow flushing component 32 includes an air storage tank 321 provided on the top of the regeneration liquid storage tank 30, an air compressor 322 provided on the top of the air storage tank 321 and the execution end is connected to the air storage tank 321, and two second electrically controlled valves 323 are symmetrically provided on the side wall of the air storage tank 321, and the second electrically controlled valve 323 is connected to the delivery pipeline 213 through a pipeline. The delivery pipeline 213 is connected to the regeneration liquid storage tank 30 through a pipeline. The delivery pipeline 213 is provided with a regulating valve 2131 and a flow sensor 2132 in sequence at one end thereof close to the regeneration liquid storage tank 30. Two stirring components 33 are provided at both ends of the regeneration liquid storage tank 30, respectively. The stirring component 33 includes a transmission motor 331 arranged on the outer wall of the regeneration liquid storage tank 30, and a stirring turntable 332 arranged at the execution end of the transmission motor 331 and located in the cavity 302. A temperature control component 34 is provided in the cavity 302. The temperature control component 34 includes a temperature sensor 341 arranged on the inner wall of the cavity 302, a heater 342 embedded in the bottom of the regeneration liquid storage tank 30, and a heat-conducting column 343 whose bottom end contacts the upper surface of the heater 342 and whose top end extends into the cavity 302.

[0046] It should be noted that, in this embodiment, when the ion exchange column is regenerated, the pre-flushing component 31 first pre-flushes the pipeline of the ion exchange column to be regenerated with the regeneration liquid, and the air flow flushing component 32 flushes the pipeline of the ion exchange column to be regenerated with the air flow. After completion, the gas storage tank 321 delivers pressurized gas to one of the cavities 302 through the pipeline, so that the regeneration liquid enters the delivery pipeline 213;

[0047] Furthermore, when the pre-flushing component 31 is working, the first electrically controlled valve 312 is opened, and the gas storage tank 321 delivers pressurized gas to one of the pre-flushing boxes 311 through a pipeline, and the regeneration liquid in the pre-flushing box 311 enters the delivery pipeline 213 and returns to the other pre-flushing box 311 after flushing the pipeline;

[0048] Furthermore, the air compressor 322 can deliver pressurized gas to the gas storage tank 321, open the second electrically controlled valve 323, and the pressurized gas in the gas storage tank 321 enters the delivery pipeline 213 to push the pre-flushing liquid remaining in the pipeline to another pre-flushing box 311;

[0049] Furthermore, when the regeneration liquid is transported, the controller receives the flow data of the flow sensor 2132 and triggers the regulating valve 2131 to make the flow reach the set value. The controller receives the temperature data of the temperature sensor 341 and triggers the heater 342 until the temperature data reaches the set value. The heater 342 facilitates rapid heating of the regeneration liquid through the heat-conducting column 343, turns on the transmission motor 331, and the transmission motor 331 drives the stirring turntable 332 to rotate, so as to facilitate the homogenization of the solute of the regeneration liquid in the regeneration liquid storage tank 30.

[0050] The specific process of the present invention is as follows:

[0051] The controller model is "6ES7322-1HF01-0AA0", the flow sensor 2132 model is "LUGB", and the temperature sensor 341 model is "MF53".

[0052] A total of one spare ion exchange column 101 and 4N+2 three-way solenoid valves are provided to realize online automatic regeneration of N working ion exchange columns 201, and N is recommended to be less than or equal to the time interval for regeneration of the ion exchange column divided by half of the time required for regeneration;

[0053] During normal operation, water is introduced into the water inlet switching component 21, and the water flows sequentially through the third three-way solenoid valve 212 and the second three-way solenoid valve 211 in the water inlet switching component 21 into the second ion exchange box 20, and after the reaction, the water is discharged to the detection equipment through the second three-way solenoid valve 211 and the third three-way solenoid valve 212 in the water discharge switching component 22 to perform hydrogen conductivity detection;

[0054] When one of the working ion exchange columns 201 is regenerated, the third three-way solenoid valve 212 in the water inlet switching component 21 corresponding to the working ion exchange column 201 directs the water flow into one of the transmission pipes 13, and the water flows into the first ion exchange box 10 through the transmission pipe 13 and one of the first solenoid tees 12. At this time, the standby ion exchange column 101 replaces the working ion exchange column 201 to work, and the water discharged from the first ion exchange box 10 is discharged to the detection equipment through another first solenoid tee 12, another transmission pipe 13 and the third three-way solenoid valve 212 in the drainage switching component 22. At the same time, the regeneration liquid in one of the cavities 302, such as hydrochloric acid, enters the second ion exchange box 20 through the delivery pipe 213 and the second three-way solenoid valve 211 in the water inlet switching component 21 and flushes and regenerates the working ion exchange column 201. The discharged regeneration liquid returns to the other cavity 302 through the second three-way solenoid valve 211 in the drainage switching component 22 and the delivery pipe 213;

[0055] When the spare ion exchange column 101 is regenerated, the regeneration liquid in one of the cavities 302 enters the first ion exchange box 10 through one of the delivery pipes 213 and the first electromagnetic tee 12 to flush and regenerate the spare ion exchange column 101, and the discharged regeneration liquid returns to the other cavity 302 through another first electromagnetic tee 12 and the delivery pipe 213;

[0056] When one of the working ion exchange columns 201 is replaced, its flow path is switched to the spare ion exchange column 101 channel, and a new working ion exchange column 201 can be replaced;

[0057] The cyclone contact component 11 facilitates the liquid flowing through to fully contact the ion exchange column, and the ion exchange column installation device 40 facilitates the rapid disassembly and assembly of the ion exchange column;

[0058] Taking the first ion exchange box 10 as an example, after the liquid enters the first ion exchange box 10, it spirals down under the action of the spiral guide plate 111 so as to fully contact with the spare ion exchange column 101;

[0059] Taking the replacement of the spare ion exchange column 101 as an example, the driving cylinder 43 drives the top cover 41 to move upward so that the spare ion exchange column 101 is moved out of the first ion exchange box 10. At this time, the spare ion exchange column 101 can be pulled outward, and the slider 422 drives the top of the spare ion exchange column 101 to move out of the top cover 41. At this time, the fastening screw 424 can be loosened to remove the spare ion exchange column 101, and the new spare ion exchange column 101 is replaced and the spare ion exchange column 101 is installed and fixed according to the disassembly steps;

[0060] When the ion exchange column is regenerated, the pre-flushing component 31 first pre-flushes the pipeline of the ion exchange column to be regenerated with the regeneration liquid, and the air flow flushing component 32 flushes the pipeline of the ion exchange column to be regenerated with the air flow. After completion, the gas storage tank 321 delivers pressurized gas to one of the cavities 302 through the pipeline, so that the regeneration liquid enters the delivery pipeline 213;

[0061] When the pre-flushing component 31 is working, the first electric control valve 312 is opened, and the gas storage tank 321 delivers pressurized gas to one of the pre-flushing boxes 311 through the pipeline. The regeneration liquid in the pre-flushing box 311 enters the delivery pipeline 213 and returns to the other pre-flushing box 311 after flushing the pipeline.

[0062] The air compressor 322 can deliver pressurized gas to the gas storage tank 321, open the second electric control valve 323, and the pressurized gas in the gas storage tank 321 enters the delivery pipeline 213 to push the pre-flushing liquid remaining in the pipeline to another pre-flushing box 311;

[0063] When the regeneration liquid is transported, the controller receives the flow data of the flow sensor 2132 and triggers the regulating valve 2131 to make the flow reach the set value. The controller receives the temperature data of the temperature sensor 341 and triggers the heater 342 until the temperature data reaches the set value. The heater 342 facilitates rapid heating of the regeneration liquid through the heat-conducting column 343, turns on the transmission motor 331, and the transmission motor 331 drives the stirring turntable 332 to rotate, so as to facilitate the homogenization of the solute of the regeneration liquid in the regeneration liquid storage tank 30.

[0064] The above is an exemplary description of the present invention in combination with the accompanying drawings. It is obvious that the specific implementation of the present invention is not limited to the above-mentioned method. As long as such non-substantial improvements are made by adopting the method concept and technical solution of the present invention, or the concept and technical solution of the present invention are directly applied to other occasions without improvement, they are all within the protection scope of the present invention.

Claims

1. An online automatic regeneration device for a hydrogen conductivity ion exchange column in a power plant, comprising a first ion exchange box (10), a plurality of second ion exchange boxes (20) arranged in sequence on one side of the first ion exchange box (10), and a regeneration liquid storage box (30) on the other side, characterized in that The first ion exchange box (10) is provided with a spare ion exchange column (101), the second ion exchange box (20) is provided with a working ion exchange column (201), the first ion exchange box (10) and the second ion exchange box (20) are both provided with a cyclonic contact component (11), and the tops of the first ion exchange box (10) and the second ion exchange box (20) are both provided with ion exchange column mounting devices (40); The regeneration liquid storage box (30) is divided into two cavities (302) by a partition (301); two first electromagnetic tees (12) are symmetrically arranged outside the first ion exchange box (10); each infusion end of the first electromagnetic tees (12) is respectively connected to a transmission pipeline (13), a side wall of the first ion exchange box (10) and a delivery pipeline (213); one end of the delivery pipeline (213) is connected to one of the cavities (302); The second ion exchange box (20) is symmetrically provided with a water inlet switching component (21) and a water discharge switching component (22) on the outside. The water inlet switching component (21) is connected to one of the delivery pipes (213) and one of the transmission pipes (13), and the water discharge switching component (22) is connected to another of the delivery pipes (213) and another of the transmission pipes (13). The water discharge switching component (22) has the same structure as the water inlet switching component (21). The water inlet switching component (21) is used to switch the liquid input into the second ion exchange box (20) to the input transmission pipe (13) and to input the liquid in the corresponding cavity (302) into the second ion exchange box (20). The water discharge switching component (22) is used to switch the discharge of the second ion exchange box (20) to the input into another cavity (302) and to discharge the liquid from another transmission pipe (13). The ion exchange column installation device (40) comprises a top cover (41) arranged on the top of the first ion exchange box (10), a mounting component (42) arranged in the top cover (41) and used to fix the spare ion exchange column (101), and a driving cylinder (43) arranged on the side wall of the first ion exchange box (10) and used to drive the top cover (41) to rise and fall; An end of the delivery pipeline (213) close to the regeneration liquid storage tank (30) is provided with a regulating valve (2131) and a flow sensor (2132) in sequence; A pre-flushing component (31) is symmetrically provided on the top of the regeneration liquid storage box (30); an air flow flushing component (32) is provided on the top of the regeneration liquid storage box (30); Two stirring components (33) are respectively provided at both ends of the regeneration liquid storage box (30); and a temperature adjustment component (34) is provided in the cavity (302).

2. The online automatic regeneration device for hydrogen conductivity ion exchange column in a power plant according to claim 1, characterized in that: The water inlet switching component (21) comprises a second three-way solenoid valve (211) and a third three-way solenoid valve (212) which are arranged in sequence in a direction extending away from the second ion exchange box (20); each infusion end of the second three-way solenoid valve (211) is respectively connected to a delivery pipeline (213), one of the infusion ends of the third three-way solenoid valve (212) and a side wall of the second ion exchange box (20); each infusion end of the third three-way solenoid valve (212) is respectively connected to a water source and a delivery pipeline (13).

3. The online automatic regeneration device for hydrogen conductivity ion exchange column in a power plant according to claim 1, characterized in that: The cyclone contact component (11) comprises a spiral guide plate (111) arranged on the inner wall of the first ion exchange box (10) and sleeved on the outer wall of the spare ion exchange column (101).

4. The online automatic regeneration device for hydrogen conductivity ion exchange column in a power plant according to claim 1, characterized in that: The mounting component (42) comprises a groove (421) embedded in the side wall of the top cover (41), a slider (422) slidably connected to the groove (421), and two clamping plates (423) symmetrically arranged on the side walls of the slider (422), wherein one of the side walls of the clamping plates (423) is provided with a fastening screw (424) with one end passing through the two clamping plates (423) in sequence, and the inner wall of the clamping plate (423) contacts the spare ion exchange column (101).

5. The online automatic regeneration device for hydrogen conductivity ion exchange column in a power plant according to claim 1, characterized in that: The pre-flushing component (31) comprises a pre-flushing tank (311) arranged on the top of the regeneration liquid storage tank (30), and a first electrically controlled valve (312) arranged on a side wall of the pre-flushing tank (311), wherein the first electrically controlled valve (312) is connected to the delivery pipeline (213) via a pipeline.

6. The online automatic regeneration device for hydrogen conductivity ion exchange column in a power plant according to claim 1, characterized in that: The air flow flushing component (32) comprises an air storage tank (321) arranged on the top of the regeneration liquid storage box (30), an air compressor (322) arranged on the top of the air storage tank (321) and having an execution end connected to the air storage tank (321), and two second electrically controlled valves (323) symmetrically arranged on the side wall of the air storage tank (321), wherein the second electrically controlled valves (323) are connected to the delivery pipeline (213) through a pipeline.

7. The online automatic regeneration device for hydrogen conductivity ion exchange column in a power plant according to claim 1, characterized in that: The stirring component (33) comprises a transmission motor (331) arranged on the outer wall of the regeneration liquid storage box (30), and a stirring rotating disk (332) arranged at the execution end of the transmission motor (331) and located in the cavity (302).

8. The online automatic regeneration device for hydrogen conductivity ion exchange column in a power plant according to claim 1, characterized in that: The temperature regulating component (34) comprises a temperature sensor (341) arranged on the inner wall of the cavity (302), a heater (342) embedded in the bottom of the regeneration liquid storage tank (30), and a heat-conducting column (343) whose bottom end contacts the upper surface of the heater (342) and whose top end extends into the cavity (302).

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