Device for efficiently removing iodide ions in brine

Abstract

The utility model discloses a device for efficiently removing iodide ions from brine, which comprises an adsorption tank, wherein brackets are arranged at the bottoms of two ends of the adsorption tank; the adsorption tank is internally filled with a supported activated carbon adsorbent; a water inlet pipe and a water drainage pipe are arranged at the positions, close to the two ends, of the top of the adsorption tank respectively, an electric control valve is arranged on the water drainage pipe, the water drainage pipe is connected with a detection probe, an iodide ion concentration detector is arranged at the end of the adsorption tank, and the iodide ion concentration detector is electrically connected with the detection probe and the electric control valve; a discharging pipe is arranged at the bottom end of the adsorption tank and is connected with a screw conveying assembly. According to the utility model, sufficient load type activated carbon adsorbents are added into the adsorption tank, then brine containing iodide ions is injected into the adsorption tank from the water inlet pipe, the iodide ions in the brine can be adsorbed after the brine passes through the load type activated carbon adsorbents, and the brine with adsorbed iodide ions is discharged from the water discharge pipe; therefore, the iodide ions in the brine can be quickly and effectively removed.

Description

Technical Field

[0001] This utility model relates to the field of brine treatment technology, specifically to a device for efficiently removing iodine ions from brine. Background Technology

[0002] Brine is a natural resource rich in various minerals and ions, widely used in chemical, pharmaceutical, and food industries. However, brine often contains iodide ions (I-), which can adversely affect product quality or equipment operation in certain industrial processes. For example, in salt chemical production, the presence of iodide ions can lead to decreased product purity or equipment corrosion. Therefore, the efficient removal of iodide ions from brine is an important technological requirement.

[0003] Among existing patent technologies, invention patent publication number CN103305863B discloses a method for deep iodine removal from caustic soda brine using an ion-exchange membrane, comprising the following steps: 1. Adding a reducing agent to completely reduce the iodine element in the brine to iodide ions; 2. Controlling conditions to oxidize the iodide ions to elemental iodine through an oxidation reaction; 3. Removing iodine by adsorption to obtain deiodized brine. This scheme optimizes the ratio of oxidant to reducing agent, ensuring complete conversion of iodine element in the brine to elemental iodine, achieving thorough adsorption removal, and making the iodine removal process easy to control.

[0004] The deep iodine removal method for brine provided by the aforementioned patent mainly removes iodine ions from the brine using oxidizing and reducing agents. In practice, removing iodine ions from brine requires the use of various equipment for treatment. Existing equipment for removing iodine ions from brine requires methods such as chemical precipitation, ion exchange, or membrane separation, which are relatively complex to operate and result in low efficiency in removing iodine ions from brine. Utility Model Content

[0005] The purpose of this invention is to provide a device for efficiently removing iodine ions from brine, aiming to improve the problem that existing devices for removing iodine ions from brine require methods such as chemical precipitation, ion exchange, or membrane separation, which are relatively complex to operate and result in low removal efficiency of iodine ions from brine.

[0006] This utility model is implemented as follows:

[0007] An efficient device for removing iodide ions from brine includes an adsorption tank with supports at both ends of the bottom. The adsorption tank contains a supported activated carbon adsorbent. An inlet pipe and a drain pipe are respectively located near the top of the adsorption tank at both ends. An electrically controlled valve is installed on the drain pipe, and a detection probe is connected to the drain pipe. An iodide ion concentration detector is installed at the end of the adsorption tank, and the detector is electrically connected to the detection probe and the electrically controlled valve. A discharge pipe is located at the bottom of the adsorption tank, and a screw conveyor assembly is connected to the discharge pipe.

[0008] Preferably, the adsorption tank is provided with an eluent flow pipe at the middle of both ends, and the eluent flow pipe is provided with a throttling valve; the bottom of both ends of the adsorption tank is provided with a connecting frame, and the side of the connecting frame is provided with a top screw.

[0009] Preferably, the drain pipe has a threaded hole on its side, the electric control valve has an actuator on its side, the actuator has a wire, the end of the wire has a connector, and the connector is electrically connected to the iodine ion concentration detector.

[0010] Preferably, the top of the water inlet pipe and the water outlet pipe are provided with connecting caps, and the bottom of the adsorption tank is provided with a flow guide cover. The discharge pipe is located at the bottom of the flow guide cover, and the bottom of the discharge pipe is provided with a flange.

[0011] Preferably, the bracket has a plug at the top, which is inserted into the inside of the connecting frame, and the set screw abuts against the plug; and the bracket has multiple bolt holes at the bottom.

[0012] Preferably, the iodine ion concentration detector has symmetrical fixed sides on both sides, with multiple fixing holes on the fixed sides, multiple connecting slots on the side of the iodine ion concentration detector, and a power connection wire on the side of the iodine ion concentration detector, with a power connection plug at the end of the power connection wire.

[0013] Preferably, the end of the detection probe facing the drain pipe is provided with an adapter post, the adapter post is threadedly connected to a threaded hole, and the end of the adapter post inserted into the drain pipe is provided with a sensing probe; a connecting line is provided on the side of the detection probe, and a connecting plug is provided at the end of the connecting line.

[0014] Preferably, the screw conveying assembly includes a conveying cylinder, a conveying screw, and a motor. The conveying screw is disposed inside the conveying cylinder, one end of which is rotatably connected to the conveying cylinder. The motor is fixed to the end of the conveying cylinder that has no opening, and the output end of the motor is connected to the conveying screw.

[0015] Preferably, the end of the conveying cylinder without an opening is provided with a bearing, and the top of the conveying cylinder is provided with a connecting pipe, and the top of the connecting pipe is provided with a connecting plate; one end of the conveying screw is provided with a connecting shaft, the connecting shaft is interference-fitted with the bearing, the end of the conveying screw facing the motor is provided with a drive slot, the end of the motor that is in contact with the conveying cylinder is provided with multiple fixing feet, and the output end of the motor is inserted into the drive slot.

[0016] Preferably, it also includes a cap, wherein the top of the adsorption tank is provided with a feeding port, and the bottom of the cap is provided with a sealing plug, which is threadedly connected to the feeding port.

[0017] Compared with the prior art, the beneficial effects of this utility model are:

[0018] 1. This utility model involves adding a sufficient amount of supported activated carbon adsorbent inside the adsorption tank, and then injecting brine containing iodide ions into the adsorption tank through the inlet pipe. After passing through the supported activated carbon adsorbent, the iodide ions inside the brine are adsorbed, and the brine with adsorbed iodide ions is discharged through the drain pipe. This method can quickly and effectively remove iodide ions from the brine, and the process can be completed during the brine transportation process. It is highly efficient and convenient. Furthermore, the drain pipe is equipped with an iodide ion concentration detector and a detection probe, which facilitates the measurement of the iodide ion concentration in the discharged brine and avoids poor iodide ion adsorption in the brine, resulting in an excessively high iodide ion concentration.

[0019] 2. This utility model provides a feeding port at the top of the adsorption tank, through which supported activated carbon adsorbent can be added into the adsorption tank, making it convenient to replace the supported activated carbon adsorbent inside the adsorption tank. Attached Figure Description

[0020] Figure 1 This is a schematic diagram of the overall structure of this utility model;

[0021] Figure 2 This is a schematic diagram of the structure of the adsorption tank of this utility model;

[0022] Figure 3 This is a structural schematic diagram of the bracket of this utility model;

[0023] Figure 4 This is a schematic diagram of the structure of the iodine ion concentration detector of this utility model;

[0024] Figure 5 This is a schematic diagram of the structure of the detection probe of this utility model;

[0025] Figure 6 This is a schematic diagram of the structure of the conveying assembly of this utility model;

[0026] Figure 7 This is a schematic diagram of the structure of the cap of this utility model.

[0027] In the diagram: 1. Adsorption tank; 11. Eluent flow pipe; 111. Throttling valve; 12. Connecting frame; 121. Set screw; 13. Drain pipe; 131. Threaded hole; 132. Electrically controlled valve; 133. Actuator; 134. Wire; 135. Connector; 14. Water inlet pipe; 141. Connecting cap; 15. Feed port; 16. Drainage hood; 17. Discharge pipe; 18. Flange; 2. Support; 21. Plug; 22. Bolt hole; 3. Iodide ion concentration detector; 31. 32. Fixed edge; 33. Fixed hole; 34. Connecting slot; 35. Connecting wire; 4. Detection probe; 41. Adapter post; 42. Sensor probe; 43. Connecting wire; 44. Connecting plug; 5. Screw conveyor assembly; 51. Conveyor cylinder; 511. Bearing; 512. Connecting pipe; 513. Connecting plate; 52. Motor; 521. Fixed foot; 53. Conveying screw; 531. Connecting shaft; 532. Drive slot; 6. Cover; 61. Sealing post. Detailed implementation method:

[0028] In this utility model, unless otherwise explicitly specified and limited, the terms "installation," "connection," "joining," and "fixing," etc., should be interpreted broadly. For example, they can refer to a fixed connection, a detachable connection, or an integral part; they can refer to a mechanical connection or an electrical connection; they can refer to a direct connection or an indirect connection through an intermediate medium; they can refer to the internal communication of two components or the interaction between two components. Those skilled in the art can understand the specific meaning of the above terms in this utility model according to the specific circumstances.

[0029] The following description, in conjunction with the accompanying drawings and specific embodiments, provides further details:

[0030] Example 1

[0031] like Figure 1 and Figure 2As shown, a device for efficiently removing iodide ions from brine includes an adsorption tank 1, with supports 2 at both ends of the tank's bottom. The supports 2 facilitate the support of the entire device and its use. The adsorption tank 1 is used to guide the brine flow, thus facilitating brine treatment. The adsorption tank 1 contains a supported activated carbon adsorbent. A supported activated carbon adsorbent refers to an active component (such as silver, copper, or their compounds) with the ability to adsorb iodide ions, loaded onto the surface of activated carbon using physical or chemical methods. Activated carbon has a large specific surface area and abundant pore structure, providing numerous adsorption sites. The loaded active component has a strong affinity for iodide ions. For example, activated carbon loaded with silver ions allows the silver ions to react chemically with iodide ions to form insoluble silver iodide, thus achieving efficient adsorption of iodide ions. This adsorbent not only has a large adsorption capacity but also a fast adsorption rate and high selectivity for iodide ions in the brine, and can avoid interference from other ions to a certain extent. The top of the adsorption tank 1 is equipped with an inlet pipe 14 and a drain pipe 13 near both ends. The inlet pipe 14 is for easy connection to the brine delivery pipeline, facilitating the injection of brine into the adsorption tank 1. The drain pipe 13 is equipped with an electrically controlled valve 132, which controls the opening and closing of the drain pipe 13. A detection probe 4 is connected to the drain pipe 13. An iodide ion concentration detector 3 is located at the end of the adsorption tank 1, and the iodide ion concentration detector 3 is electrically connected to the detection probe 4 and the electrically controlled valve 132. The iodide ion concentration detector 3, in conjunction with the detection probe 4, can quickly and effectively detect the iodide ion concentration in the brine inside the drain pipe 13. When the iodide ion concentration fails to meet the standard, an electrical signal is fed back to the electrically controlled valve 132, which then closes the drain pipe 13, preventing further discharge of brine. The bottom of the adsorption tank 1 is provided with a discharge pipe 17, which is connected to a screw conveyor assembly 5. The cooperation between the discharge pipe 17 and the screw conveyor assembly 5 is to facilitate the discharge of the loaded activated carbon adsorbent inside the adsorption tank 1 when it needs to be replaced.

[0032] like Figure 2As shown, both ends of the adsorption tank 1 are equipped with eluent flow pipes 11, and each eluent flow pipe 11 is equipped with a throttling valve 111. The eluent flow pipes 11 facilitate the injection of eluent into the adsorption tank 1, thus facilitating elution when the adsorption capacity of the supported activated carbon adsorbent deteriorates. Connecting frames 12 are located at the bottom of both ends of the adsorption tank 1, and set screws 121 are located on the sides of the connecting frames 12. The connecting frames 12 and set screws 121 facilitate the fixing of the support 2, ensuring a stable connection between the support 2 and the adsorption tank 1. A threaded hole 131 is located on the side of the drain pipe 13, facilitating the installation of the detection probe 4. An actuator 133 is located on the side of the electrically controlled valve 132, facilitating the opening and closing of the valve. A wire 134 is located on the actuator 133, and a connector 135 is located at the end of the wire 134. The connection between the wire 134 and the connector 135 facilitates the use of the electrically controlled valve 132 with the iodine ion concentration detector 3. The connector 135 is electrically connected to the iodine ion concentration detector 3. Both the inlet pipe 14 and the outlet pipe 13 are equipped with connecting caps 141 at their top ends, facilitating connection between the inlet pipe 14 and the outlet pipe 13 and external pipelines. The bottom of the adsorption tank 1 is equipped with a flow guide hood 16, and a discharge pipe 17 is located at the bottom of the flow guide hood 16. The flow guide hood 16 facilitates the drainage of the supported activated carbon adsorbent, allowing for easy discharge. The bottom of the discharge pipe 17 is equipped with a flange 18, which facilitates connection between the discharge pipe 17 and the screw conveyor assembly 5.

[0033] like Figure 3 As shown, the top of the bracket 2 is provided with a plug 21, which is inserted into the inside of the connecting frame 12. The plug 21 is designed to allow the set screw 121 to rest against it. This structure ensures the stable installation and use of the bracket 2. Furthermore, the bottom of the bracket 2 is provided with multiple bolt holes 22, which facilitate the fixing of the bracket 2 with bolts.

[0034] like Figure 4 As shown, the iodine ion concentration detector 3 has symmetrically arranged fixing edges 31 on both sides, with multiple fixing holes 32 on each fixing edge 31. The fixing edges 31 and fixing holes 32 are designed to facilitate the fixing of the iodine ion concentration detector 3 with bolts. The side of the iodine ion concentration detector 3 has multiple connecting slots 33, which facilitate connection between the iodine ion concentration detector 3 and the detection probe 4 and the solenoid valve 132. Furthermore, the side of the iodine ion concentration detector 3 has a power connection wire 34, with a power connector 35 at the end of the power connection wire 34. The connection wire 34 and the power connector 35 facilitate power supply to the iodine ion concentration detector 3, facilitating its operation and use.

[0035] like Figure 5As shown, the end of the detection probe 4 facing the drain pipe 13 is provided with an adapter post 41, which is threadedly connected to the threaded hole 131. The adapter post 41 facilitates the threaded connection between the detection probe 4 and the threaded hole 131. The end of the adapter post 41 inserted into the drain pipe 13 is provided with a sensing probe 42. The sensing probe 42 facilitates the sensing of the iodine ion concentration in the brine. A connecting wire 43 is provided on the side of the detection probe 4, and a connecting plug 44 is provided at the end of the connecting wire 43. The connecting wire 43 and the connecting plug 44 facilitate the connection between the detection probe 4 and the iodine ion concentration sensor.

[0036] like Figure 6 As shown, the screw conveyor assembly 5 includes a conveying cylinder 51, a conveying screw 53, and a motor 52. The conveying screw 53 is disposed inside the conveying cylinder 51, with one end rotatably connected to the conveying cylinder 51. The motor 52 is fixed to the unopened end of the conveying cylinder 51, and its output end is connected to the conveying screw 53. This structure facilitates the rotation of the conveying screw 53 by the motor 52, thereby discharging the loaded activated carbon adsorbent inside the adsorption tank 1. A bearing 511 is provided at the unopened end of the conveying cylinder 51, allowing for easy rotatable connection with the conveying screw 53. A connecting pipe 512 is provided at the top of the conveying cylinder 51, with a connecting disc 513 at the top of the connecting pipe 512. A connecting shaft 531 is provided at one end of the conveying screw 53, and the connecting shaft 531 is interference-fitted with the bearing 511. This structure facilitates the rotation and use of the conveying screw 53. The end of the conveying screw 53 facing the motor 52 is provided with a drive slot 532, which facilitates the connection of the output end of the motor 52 to the conveying screw 53. The end of the motor 52 that is in contact with the conveying cylinder 51 is provided with multiple fixing feet 521. The output end of the motor 52 is inserted into the drive slot 532. The fixing feet 521 facilitate the installation and fixation of the motor 52, making the motor 52 easy to use.

[0037] Example 2

[0038] like Figure 1 and Figure 2As shown, a device for efficiently removing iodide ions from brine includes an adsorption tank 1, with supports 2 at both ends of the tank's bottom. The supports 2 facilitate the support of the entire device and its use. The adsorption tank 1 is used to guide the brine flow, thus facilitating brine treatment. The adsorption tank 1 contains a supported activated carbon adsorbent. A supported activated carbon adsorbent refers to an active component (such as silver, copper, or their compounds) with the ability to adsorb iodide ions, loaded onto the surface of activated carbon using physical or chemical methods. Activated carbon has a large specific surface area and abundant pore structure, providing numerous adsorption sites. The loaded active component has a strong affinity for iodide ions. For example, activated carbon loaded with silver ions allows the silver ions to react chemically with iodide ions to form insoluble silver iodide, thus achieving efficient adsorption of iodide ions. This adsorbent not only has a large adsorption capacity but also a fast adsorption rate and high selectivity for iodide ions in the brine, and can avoid interference from other ions to a certain extent. The top of the adsorption tank 1 is equipped with an inlet pipe 14 and a drain pipe 13 near both ends. The inlet pipe 14 is for easy connection to the brine delivery pipeline, facilitating the injection of brine into the adsorption tank 1. The drain pipe 13 is equipped with an electrically controlled valve 132, which controls the opening and closing of the drain pipe 13. A detection probe 4 is connected to the drain pipe 13. An iodide ion concentration detector 3 is located at the end of the adsorption tank 1, and the iodide ion concentration detector 3 is electrically connected to the detection probe 4 and the electrically controlled valve 132. The iodide ion concentration detector 3, in conjunction with the detection probe 4, can quickly and effectively detect the iodide ion concentration in the brine inside the drain pipe 13. When the iodide ion concentration fails to meet the standard, an electrical signal is fed back to the electrically controlled valve 132, which then closes the drain pipe 13, preventing further discharge of brine. The bottom of the adsorption tank 1 is provided with a discharge pipe 17, which is connected to a screw conveyor assembly 5. The cooperation between the discharge pipe 17 and the screw conveyor assembly 5 is to facilitate the discharge of the loaded activated carbon adsorbent inside the adsorption tank 1 when it needs to be replaced.

[0039] like Figure 2As shown, both ends of the adsorption tank 1 are equipped with eluent flow pipes 11, and each eluent flow pipe 11 is equipped with a throttling valve 111. The eluent flow pipes 11 facilitate the injection of eluent into the adsorption tank 1, thus facilitating elution when the adsorption capacity of the supported activated carbon adsorbent deteriorates. Connecting frames 12 are located at the bottom of both ends of the adsorption tank 1, and set screws 121 are located on the sides of the connecting frames 12. The connecting frames 12 and set screws 121 facilitate the fixing of the support 2, ensuring a stable connection between the support 2 and the adsorption tank 1. A threaded hole 131 is located on the side of the drain pipe 13, facilitating the installation of the detection probe 4. An actuator 133 is located on the side of the electrically controlled valve 132, facilitating the opening and closing of the valve. A wire 134 is located on the actuator 133, and a connector 135 is located at the end of the wire 134. The connection between the wire 134 and the connector 135 facilitates the use of the electrically controlled valve 132 with the iodine ion concentration detector 3. The connector 135 is electrically connected to the iodine ion concentration detector 3. Both the inlet pipe 14 and the outlet pipe 13 are equipped with connecting caps 141 at their top ends, facilitating connection between the inlet pipe 14 and the outlet pipe 13 and external pipelines. The bottom of the adsorption tank 1 is equipped with a flow guide hood 16, and a discharge pipe 17 is located at the bottom of the flow guide hood 16. The flow guide hood 16 facilitates the drainage of the supported activated carbon adsorbent, allowing for easy discharge. The bottom of the discharge pipe 17 is equipped with a flange 18, which facilitates connection between the discharge pipe 17 and the screw conveyor assembly 5.

[0040] like Figure 3 As shown, the top of the bracket 2 is provided with a plug 21, which is inserted into the inside of the connecting frame 12. The plug 21 is designed to allow the set screw 121 to rest against it. This structure ensures the stable installation and use of the bracket 2. Furthermore, the bottom of the bracket 2 is provided with multiple bolt holes 22, which facilitate the fixing of the bracket 2 with bolts.

[0041] like Figure 4 As shown, the iodine ion concentration detector 3 has symmetrically arranged fixing edges 31 on both sides, with multiple fixing holes 32 on each fixing edge 31. The fixing edges 31 and fixing holes 32 are designed to facilitate the fixing of the iodine ion concentration detector 3 with bolts. The side of the iodine ion concentration detector 3 has multiple connecting slots 33, which facilitate connection between the iodine ion concentration detector 3 and the detection probe 4 and the solenoid valve 132. Furthermore, the side of the iodine ion concentration detector 3 has a power connection wire 34, with a power connector 35 at the end of the power connection wire 34. The connection wire 34 and the power connector 35 facilitate power supply to the iodine ion concentration detector 3, facilitating its operation and use.

[0042] like Figure 5As shown, the end of the detection probe 4 facing the drain pipe 13 is provided with an adapter post 41, which is threadedly connected to the threaded hole 131. The adapter post 41 facilitates the threaded connection between the detection probe 4 and the threaded hole 131. The end of the adapter post 41 inserted into the drain pipe 13 is provided with a sensing probe 42. The sensing probe 42 facilitates the sensing of the iodine ion concentration in the brine. A connecting wire 43 is provided on the side of the detection probe 4, and a connecting plug 44 is provided at the end of the connecting wire 43. The connecting wire 43 and the connecting plug 44 facilitate the connection between the detection probe 4 and the iodine ion concentration sensor.

[0043] like Figure 6 As shown, the screw conveyor assembly 5 includes a conveying cylinder 51, a conveying screw 53, and a motor 52. The conveying screw 53 is disposed inside the conveying cylinder 51, with one end rotatably connected to the conveying cylinder 51. The motor 52 is fixed to the unopened end of the conveying cylinder 51, and its output end is connected to the conveying screw 53. This structure facilitates the rotation of the conveying screw 53 by the motor 52, thereby discharging the loaded activated carbon adsorbent inside the adsorption tank 1. A bearing 511 is provided at the unopened end of the conveying cylinder 51, allowing for easy rotatable connection with the conveying screw 53. A connecting pipe 512 is provided at the top of the conveying cylinder 51, with a connecting disc 513 at the top of the connecting pipe 512. A connecting shaft 531 is provided at one end of the conveying screw 53, and the connecting shaft 531 is interference-fitted with the bearing 511. This structure facilitates the rotation and use of the conveying screw 53. The end of the conveying screw 53 facing the motor 52 is provided with a drive slot 532, which facilitates the connection of the output end of the motor 52 to the conveying screw 53. The end of the motor 52 that is in contact with the conveying cylinder 51 is provided with multiple fixing feet 521. The output end of the motor 52 is inserted into the drive slot 532. The fixing feet 521 facilitate the installation and fixation of the motor 52, making the motor 52 easy to use.

[0044] like Figure 1 , Figure 2 and Figure 7 As shown, it also includes a cover 6. The top of the adsorption tank 1 is provided with a feeding port 15, and the bottom of the cover 6 is provided with a sealing post 61, which is threadedly connected to the feeding port 15. This structure facilitates the addition of supported activated carbon adsorbent into the adsorption tank 1 through the feeding port 15, and also facilitates the sealing of the feeding port 15 through the cover 6 when not in use.

[0045] Working Principle: During use, an appropriate amount of supported activated carbon adsorbent is injected into the adsorption tank 1. The feed port 15 is then sealed with the cap 6. The brine delivery pipe is connected to the inlet pipe 14, and the brine discharge pipe is connected to the drain pipe 13. After the brine enters the adsorption tank 1, the supported activated carbon adsorbent adsorbs iodide ions in the brine. The adsorbed brine is then discharged through the drain pipe 13, thus removing the iodide ions. The iodide ion concentration detector 3, in conjunction with the detection probe 4, monitors the iodide ion concentration in real time. When the iodide ion concentration in the discharged brine is found to be substandard, the iodide ion concentration detector 3 sends a signal to the solenoid valve 132, causing the valve to close and preventing further discharge of brine. When the adsorption effect of the supported activated carbon adsorbent deteriorates, it can be eluted using an eluent. When the supported activated carbon adsorbent becomes ineffective, the screw conveyor assembly 5 can be activated to discharge the ineffective adsorbent.

[0046] In summary, compared with the prior art, this application adds a sufficient amount of supported activated carbon adsorbent to the adsorption tank 1, and then injects brine containing iodide ions into the adsorption tank 1 through the inlet pipe 14. After the brine passes through the supported activated carbon adsorbent, the iodide ions inside will be adsorbed, and the brine with adsorbed iodide ions will be discharged from the drain pipe 13. This can quickly and effectively remove iodide ions from the brine, which can be completed during the brine transportation process. It is efficient and convenient. In addition, the drain pipe 13 is equipped with an iodide ion concentration detector 3 and a detection probe 4, which facilitates the measurement of the iodide ion concentration in the discharged brine and avoids poor iodide ion adsorption effect in the brine, resulting in an excessively high iodide ion concentration.

[0047] The above are merely preferred embodiments of this utility model and are not intended to limit the scope of this utility model. Various modifications and variations can be made to this utility model by those skilled in the art. Any modifications, equivalent substitutions, or improvements made within the spirit and principles of this utility model should be included within the protection scope of this utility model.

Claims

1. A device for efficiently removing iodide ions from brine, comprising an adsorption tank (1), characterized in that, The adsorption tank (1) has supports (2) at both ends of the bottom; the adsorption tank (1) is filled with a supported activated carbon adsorbent; the top of the adsorption tank (1) is provided with an inlet pipe (14) and a drain pipe (13) near both ends, respectively. The drain pipe (13) is provided with an electric control valve (132) and is connected to a detection probe (4). The adsorption tank (1) is provided with an iodine ion concentration detector (3) at the end, and the iodine ion concentration detector (3) is electrically connected to the detection probe (4) and the electric control valve (132); the bottom of the adsorption tank (1) is provided with a discharge pipe (17), and the discharge pipe (17) is connected to a screw conveyor assembly (5).

2. The apparatus for efficiently removing iodide ions from brine according to claim 1, characterized in that, The adsorption tank (1) is provided with an eluent flow pipe (11) at the middle of both ends, and a throttling valve (111) is provided on the eluent flow pipe (11); a connecting frame (12) is provided at the bottom of both ends of the adsorption tank (1), and a top screw (121) is provided on the side of the connecting frame (12).

3. The apparatus for efficiently removing iodide ions from brine according to claim 2, characterized in that, The drain pipe (13) has a threaded hole (131) on its side, the electric control valve (132) has an actuator (133) on its side, the actuator (133) has a wire (134) on its side, the end of the wire (134) has a connector (135) and the connector (135) is electrically connected to the iodine ion concentration detector (3).

4. The apparatus for efficiently removing iodide ions from brine according to claim 3, characterized in that, The inlet pipe (14) and the outlet pipe (13) are both provided with connecting caps (141) at the top, and the bottom of the adsorption tank (1) is provided with a flow guide (16). The discharge pipe (17) is located at the bottom of the flow guide (16), and the bottom of the discharge pipe (17) is provided with a flange (18).

5. The apparatus for efficiently removing iodide ions from brine according to claim 2, characterized in that, The bracket (2) has a plug (21) at the top, which is inserted into the inside of the connecting frame (12), and the set screw (121) abuts against the plug (21); and the bracket (2) has multiple bolt holes (22) at the bottom.

6. The apparatus for efficiently removing iodide ions from brine according to claim 1, characterized in that, The iodine ion concentration detector (3) has symmetrical fixed sides (31) on both sides, and multiple fixed holes (32) are provided on the fixed sides (31). The iodine ion concentration detector (3) has multiple connecting slots (33) on its side, and a power connecting wire (34) is provided on its side. The power connecting wire (34) has a power plug (35) at its end.

7. The apparatus for efficiently removing iodide ions from brine according to claim 3, characterized in that, The detection probe (4) has an adapter post (41) at one end facing the drain pipe (13), the adapter post (41) is threadedly connected to the threaded hole (131), and the end of the adapter post (41) inserted into the drain pipe (13) is provided with a sensing probe (42); the detection probe (4) has a connecting line (43) on its side, and the end of the connecting line (43) is provided with a connecting plug (44).

8. The apparatus for efficiently removing iodide ions from brine according to claim 1, characterized in that, The screw conveying assembly (5) includes a conveying cylinder (51), a conveying screw (53), and a motor (52). The conveying screw (53) is disposed inside the conveying cylinder (51), and one end of the conveying screw (53) is rotatably connected to the conveying cylinder (51). The motor (52) is fixed at the end of the conveying cylinder (51) without an opening, and the output end of the motor (52) is connected to the conveying screw (53).

9. The apparatus for efficiently removing iodide ions from brine according to claim 8, characterized in that, The conveying cylinder (51) has a bearing (511) at one end without an opening, and a connecting pipe (512) is provided at the top of the conveying cylinder (51), with a connecting plate (513) at the top of the connecting pipe (512); the conveying screw (53) has a connecting shaft (531) at one end, and the connecting shaft (531) is interference-fitted with the bearing (511); the conveying screw (53) has a drive slot (532) at one end facing the motor (52); the motor (52) has multiple fixing feet (521) at one end that is in contact with the conveying cylinder (51); and the output end of the motor (52) is inserted into the drive slot (532).

10. The apparatus for efficiently removing iodide ions from brine according to any one of claims 1-9, characterized in that, It also includes a cover (6), the top of the adsorption tank (1) is provided with a feeding port (15), the bottom of the cover (6) is provided with a sealing post (61), and the sealing post (61) is threadedly connected to the feeding port (15).

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