Intelligent activated carbon regeneration quality detection device and detection method thereof

Abstract

The invention discloses an intelligent activated carbon regeneration quality detection device and a detection method thereof, and relates to the field of activated carbon detection.The intelligent activated carbon regeneration quality detection device comprises an activated carbon regeneration detection mounting rack, an activated carbon detection cleaning assembly is arranged above the activated carbon regeneration detection mounting rack, and an activated carbon chemical soaking assembly is arranged on one side of the activated carbon detection cleaning assembly; an activated carbon chemical soaking assembly is arranged on the driving source, an activated carbon infusion assembly is arranged on one side of the activated carbon chemical soaking assembly, and an activated carbon drying assembly is arranged on one side of the activated carbon infusion assembly. Liquid at the bottom in the activated carbon chemical soaking shell can ascend through the ascending spiral piece, so that the reaction time of activated carbon soaking and a chemical reagent is greatly prolonged, and the problems that an activated carbon sample is only simply soaked in the chemical reagent, the required time is long, and the reaction rate is low are solved; the efficiency of detecting the regeneration quality of the activated carbon is improved.

Description

Technical Field

[0001] The present invention relates to the field of activated carbon detection. Specifically, it relates to an intelligent activated carbon regeneration quality detection device and its detection method. Background Art

[0002] Activated carbon is a carbon-based material with a porous structure and excellent adsorption capacity, and is widely used in fields such as gas purification, decolorization and deodorization, and as a catalyst carrier. Activated carbon is mainly made from carbon-containing materials such as coal, wood, and fruit shells through activation under high temperature and anoxic conditions, and its components mainly include elements such as carbon, oxygen, and hydrogen.

[0003] Currently, the detection of activated carbon regeneration quality mainly adopts two methods: thermal regeneration performance detection and chemical regeneration performance detection. Among them, chemical regeneration performance detection is used to evaluate the effect of activated carbon recovering its adsorption capacity after chemical treatment. The chemical cleaning method uses specific chemical solvents or solutions, such as acids, alkalis, or surfactants, to clean activated carbon and remove adsorbed organic matter or heavy metal ions. After cleaning, the activated carbon is subjected to an adsorption experiment to measure the change in its adsorption capacity, and to evaluate the effect of chemical regeneration and the possible regeneration cycle; Most of the existing chemical cleaning methods are to put the dried activated carbon sample into the selected chemical reagent, soak it at a certain temperature for a period of time, and then repeatedly clean the activated carbon with a large amount of deionized water. However, the activated carbon sample is only simply soaked statically in the chemical reagent, which takes a long time and has a low reaction rate, affecting the efficiency of activated carbon regeneration quality detection. Summary of the Invention

[0004] In view of the problems in the related art, the present invention proposes an intelligent activated carbon regeneration quality detection device and its detection method to overcome the above-mentioned technical problems existing in the related art.

[0005] For this purpose, the specific technical solution adopted by the present invention is as follows: An intelligent activated carbon regeneration quality detection device includes an activated carbon regeneration detection mounting frame, an activated carbon detection and cleaning assembly is provided above the activated carbon regeneration detection mounting frame, and an activated carbon chemical soaking assembly is provided on one side of the activated carbon detection and cleaning assembly; In order to achieve the effect of chemical soaking of activated carbon, the activated carbon chemical soaking assembly includes an activated carbon chemical soaking housing. Inside the activated carbon chemical soaking housing, a reciprocating lead screw is symmetrically and movably connected through a sealed bearing. A lead screw fixing plate is movably connected around the two reciprocating lead screws. A reciprocating slider is fitted around the two reciprocating lead screws. An immersion mounting frame is connected between the reciprocating sliders. The reciprocating lead screw is connected to a rotating rod through a transmission driving mechanism. The two ends of the rotating rod are respectively movably connected to the lead screw fixing plate and the activated carbon chemical soaking housing. Rising spiral fins are symmetrically connected around the rotating rod. While the immersion mounting frame moves, the rising spiral fins also rotate, improving the soaking effect of activated carbon. After being dried by the activated carbon drying assembly, the BET specific surface area of the regenerated carbon is measured by a specific surface area analyzer to verify the degree of recovery of the pore structure.

[0006] Further, the transmission driving mechanism includes transmission sprockets symmetrically installed at the bottoms of the two reciprocating lead screws. A transmission chain is fitted around the transmission sprockets. A driving motor is connected to the middle of one of the transmission sprockets. A motor fixing frame is connected around the driving motor. The motor fixing frame is connected to the activated carbon chemical soaking housing. An activated carbon placing assembly is provided inside the immersion mounting frame. A driving gear is connected around the reciprocating lead screw. A driven gear is meshed with one side of the driving gear. The middle of the driven gear is connected to the rotating rod.

[0007] Further, an activated carbon placing assembly is provided inside the immersion mounting frame. The activated carbon placing assembly includes an activated carbon placing box which is snap-fitted with the immersion mounting frame. An activated carbon placing net is installed inside the activated carbon placing box. A placing box mounting cover is snap-fitted above the activated carbon placing box. Through grooves are respectively provided inside the placing box mounting cover and the activated carbon placing box. A conical rubber sleeve is installed inside the through groove. Pulling handles are symmetrically connected to both sides of the activated carbon placing box.

[0008] Further, in order to achieve the effect of activated carbon detection and cleaning, the activated carbon detection and cleaning assembly includes a cleaning installation housing installed inside the activated carbon regeneration detection installation frame. A cleaning placement plate is installed inside the cleaning installation housing. A placement box moving frame is provided at the bottom of the cleaning placement plate. Sliding rods are symmetrically connected to both sides of the placement box moving frame. The sliding rods are in sliding and sealing cooperation with the cleaning installation housing. One end of one of the sliding rods is connected to a hydraulic push rod. A hydraulic rod fixing frame is connected around the hydraulic push rod. The hydraulic rod fixing frame is connected to the cleaning installation housing.

[0009] Further, in order to achieve the effect of activated carbon infusion, the activated carbon infusion assembly includes three infusion pumps. The input ends of the infusion pumps are connected to inlet pipes. Inlet solenoid valves are respectively installed inside the inlet pipes. The output ends of the infusion pumps are connected to outlet pipes. Outlet solenoid valves are installed inside the outlet pipes. Outlet nozzles are respectively installed at the output ends of the outlet pipes. The infusion pumps, inlet solenoid valves and outlet solenoid valves are electrically connected to a controller.

[0010] Furthermore, a pipeline fixing bracket is connected to the periphery of the liquid outlet pipe, and the pipeline fixing bracket is connected to the activated carbon regeneration detection installation bracket.

[0011] Furthermore, a liquid discharge pipe is provided at the bottom of the activated carbon chemical immersion housing and the cleaning installation housing. A liquid discharge valve is installed inside the liquid discharge pipe, and the liquid discharge valve is electrically connected to the controller.

[0012] Furthermore, a controller is installed on one side of the activated carbon regeneration detection installation bracket. The drive motor and the hydraulic push rod are respectively electrically connected to the controller. An electric heater is installed inside the activated carbon chemical immersion housing, and a temperature sensor is installed on one side of the electric heater. The temperature sensor and the electric heater are electrically connected to the controller.

[0013] Furthermore, in order to achieve the effect of drying the activated carbon, the activated carbon drying assembly includes a drying installation bracket. A drying mesh bag is installed inside the drying installation bracket. A thermoelectric hair dryer is provided on one side of the drying mesh bag. A rotating motor is connected to the bottom of the drying installation bracket. The thermoelectric hair dryer and the rotating motor are electrically connected to the controller.

[0014] Furthermore, the rotating motor is a waterproof motor.

[0015] According to another aspect of the present invention, an intelligent activated carbon regeneration quality detection method is also provided, including the following steps: S101: Place the activated carbon on the activated carbon placement net inside the activated carbon placement box. Then place the activated carbon placement box inside the cleaning placement plate and the placement box moving frame. The hydraulic push rod drives one of the sliding rods to move under the fixation of the hydraulic rod fixing bracket. When one of the sliding rods moves, it can drive the placement box moving frame to move. When the placement box moving frame moves, it can drive the activated carbon placement box to move. At the same time, it is rinsed through the activated carbon infusion assembly; S102: Place the cleaned activated carbon in the drying mesh bag. By setting the rotating motor, the rotating motor drives the drying installation bracket to rotate. When the rotating motor rotates, it can drive the drying installation bracket to rotate. When the drying installation bracket rotates, it can drive the activated carbon in the drying mesh bag to rotate. The thermoelectric hair dryer dries the rotating activated carbon; S103: Place the activated carbon placement box into the soaking mounting rack by pulling the handle. Then, snap the placement box cover onto the activated carbon placement box. By setting up a drive motor, the drive motor can drive one of the transmission sprockets to rotate under the fixation of the motor fixing bracket. When one of the transmission sprockets rotates, it can drive the other transmission sprocket to rotate simultaneously through the transmission chain. When the two transmission sprockets rotate, they can drive the two reciprocating lead screws to rotate simultaneously. When the two reciprocating lead screws rotate, they can drive the reciprocating slider to move up and down reciprocally. When the reciprocating slider moves up and down reciprocally, it can drive the soaking mounting rack to move up and down. When the soaking mounting rack moves up and down, it will also drive the activated carbon placement box to move up and down. At this time, when the activated carbon placement box moves downward, the conical rubber sleeve moves upward when the chemical liquid passes through the through slot. When the activated carbon placement box moves upward, the conical rubber sleeve moves downward when the chemical liquid passes through the through slot. The conical rubber sleeve is conical, enabling the chemical liquid to be compressed and flushed into the activated carbon placement box. At the same time, the reciprocating lead screw will also drive the driving gear to rotate. When the driving gear rotates, it will also drive the driven gear to rotate. When the driven gear rotates, it will also drive the rotating rod to rotate. When the rotating rod rotates, it will also drive the rising helical blade to rotate. At this time, the liquid at the bottom of the activated carbon chemical soaking shell can rise through the rising helical blade, thereby achieving the effect of improving the soaking effect of the activated carbon; S104: After the soaked activated carbon is rinsed with deionized water, it is dried by the activated carbon drying component. Then, an adsorption experiment is carried out to measure the change in its adsorption capacity and evaluate the effect of chemical regeneration and the possible regeneration cycle.

[0016] The beneficial effects of the present invention are as follows: 1. In actual use of the present invention, through the activated carbon chemical soaking component, by using a drive source, while the activated carbon moves up and down in the chemical reagent, the liquid at the bottom of the activated carbon chemical soaking shell can rise through the rising helical blade, greatly increasing the reaction time between the activated carbon soaking and the chemical reagent, solving the problem that the activated carbon sample is simply soaked in the chemical reagent, which requires more time and has a lower reaction rate, and improving the efficiency of the activated carbon regeneration quality detection; 2. In actual use of the present invention, the temperature sensor controls the output temperature of the electric heater through the controller, so that the temperature of the chemical reagent can be intelligently maintained within a certain range when soaking the activated carbon, further improving the soaking effect of the activated carbon; 3. In actual use of the present invention, activated carbon is placed on the activated carbon placement net inside the activated carbon placement box, and then the activated carbon placement box is placed in the cleaning placement board and the placement box moving frame. The hydraulic push rod drives one of the sliding rods to move under the fixation of the hydraulic rod fixing frame. When one of the sliding rods moves, it can drive the placement box moving frame to move. When the placement box moving frame moves, it can drive the activated carbon placement box to move, and at the same time, it is rinsed through the activated carbon infusion assembly. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] In order to more clearly illustrate the technical solutions in the embodiments of the present invention or the prior art, the following will briefly introduce the drawings required for use in the embodiments. Obviously, the drawings in the following description are only some embodiments of the present invention. For those of ordinary skill in the art, without creative efforts, other drawings can be obtained based on these drawings.

[0018] Figure 1 is the main structural schematic diagram of an intelligent activated carbon regeneration quality detection device according to an embodiment of the present invention; Figure 2 is the three-dimensional view of an intelligent activated carbon regeneration quality detection device according to an embodiment of the present invention; Figure 3 is the structural schematic diagram of the activated carbon detection and cleaning assembly in an intelligent activated carbon regeneration quality detection device according to an embodiment of the present invention; Figure 4 is one of the partial structural schematic diagrams of the activated carbon chemical immersion assembly in an intelligent activated carbon regeneration quality detection device according to an embodiment of the present invention; Figure 5 is the other partial structural schematic diagram of the activated carbon chemical immersion assembly in an intelligent activated carbon regeneration quality detection device according to an embodiment of the present invention; Figure 6 is the structural schematic diagram of the activated carbon placement assembly in an intelligent activated carbon regeneration quality detection device according to an embodiment of the present invention; Figure 7 is the structural schematic diagram of the activated carbon infusion assembly in an intelligent activated carbon regeneration quality detection device according to an embodiment of the present invention; Figure 8 is the structural schematic diagram of the activated carbon drying assembly in an intelligent activated carbon regeneration quality detection device according to an embodiment of the present invention.

[0019] In the figure: 1. Activated carbon regeneration detection mounting frame; 2. Activated carbon detection cleaning assembly; 201. Cleaning mounting housing; 202. Cleaning placement plate; 203. Placement box moving frame; 204. Sliding rod; 205. Hydraulic push rod; 206. Hydraulic rod fixing frame; 3. Activated carbon chemical soaking assembly; 301. Activated carbon chemical soaking housing; 302. Sealed bearing; 303. Reciprocating lead screw; 304. Driving sprocket; 305. Driving motor; 306. Lead screw fixing plate; 307. Reciprocating slider; 308. Activated carbon placement assembly; 3081. Activated carbon placement box; 3082. Activated carbon placement net; 3083. Placement box mounting cover; 3084. Through groove; 3085. Conical rubber sleeve; 3086. Pulling handle; 309. Driving gear; 310. Driven gear; 315. Transmission chain; 311. Rotating rod; 312. Rising spiral blade; 313. Soaking mounting frame; 314. Motor fixing frame; 4. Activated carbon infusion assembly; 401. Infusion pump; 402. Inlet pipe; 403. Inlet solenoid valve; 404. Outlet pipe; 405. Outlet solenoid valve; 406. Outlet spray head; 407. Infusion spray head; 5. Activated carbon drying assembly; 501. Drying mounting frame; 502. Drying mesh bag; 503. Thermoelectric hair dryer; 504. Rotating motor; 6. Controller; 7. Pipe fixing frame; 8. Liquid discharge pipe; 9. Liquid discharge valve; 10. Electric heater; 11. Temperature sensor. Detailed implementation manners

[0020] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. All other embodiments obtained by those of ordinary skill in the art based on the embodiments of the present invention without creative efforts shall fall within the protection scope of the present invention.

[0021] According to an embodiment of the present invention, an intelligent activated carbon regeneration quality detection device is provided, including an activated carbon regeneration detection mounting frame 1, an activated carbon detection cleaning assembly 2 is provided above the activated carbon regeneration detection mounting frame 1, and an activated carbon chemical soaking assembly 3 is provided on one side of the activated carbon detection cleaning assembly 2. Embodiment 1

[0022] As Figures 4 - 6As shown in the figure, for the intelligent activated carbon regeneration quality detection device according to the embodiment of the present invention, the activated carbon chemical soaking component 3 includes an activated carbon chemical soaking housing 301. Inside the activated carbon chemical soaking housing 301, a reciprocating lead screw 303 is symmetrically and movably connected through a sealed bearing 302. A lead screw fixing plate 306 is movably connected to the outer periphery of the two reciprocating lead screws 303. A reciprocating slider 307 is fitted to the outer periphery of the two reciprocating lead screws 303. An immersion mounting frame 313 is connected between the reciprocating sliders 307. The reciprocating lead screw 303 is connected to a rotating rod 311 through a transmission driving mechanism. The two ends of the rotating rod 311 are respectively movably connected to the lead screw fixing plate 306 and the activated carbon chemical soaking housing 301. Rising spiral blades 312 are symmetrically connected to the outer periphery of the rotating rod 311. While the immersion mounting frame 313 moves, the rising spiral blades 312 also rotate, improving the soaking effect of the activated carbon. After being dried by the activated carbon drying component 5, the BET specific surface area of the regenerated carbon is measured by a specific surface area analyzer to verify the degree of recovery of the pore structure. The transmission driving mechanism includes transmission sprockets 304 symmetrically installed at the bottom of the two reciprocating lead screws 303. A transmission chain 315 is fitted to the outer periphery of the transmission sprockets 304. A driving motor 305 is connected to the middle of one of the transmission sprockets 304. A motor fixing frame 314 is connected to the outer periphery of the driving motor 305. The motor fixing frame 314 is connected to the activated carbon chemical soaking housing 301. An activated carbon placement component 308 is provided inside the immersion mounting frame 313. A driving gear 309 is connected to the outer periphery of the reciprocating lead screw 303. A driven gear 310 is engaged with one side of the driving gear 309. The middle of the driven gear 310 is connected to the rotating rod 311. An activated carbon placement component 308 is provided inside the immersion mounting frame 313. The activated carbon placement component 308 includes an activated carbon placement box 3081 which is snap-fitted to the immersion mounting frame 313. An activated carbon placement net 3082 is installed inside the activated carbon placement box 3081. A placement box mounting cover 3083 is snap-fitted above the activated carbon placement box 3081. Through grooves 3084 are respectively formed inside the placement box mounting cover 3083 and the activated carbon placement box 3081. A conical rubber sleeve 3085 is installed inside the through grooves 3084. Pulling handles 3086 are symmetrically connected to both sides of the activated carbon placement box 3081.

[0023] Through the above technical solution, the activated carbon placement box 3081 is placed into the soaking mounting rack 313 by pulling the handle 3086. Then, the placement box mounting cover 3083 is snap-fitted onto the activated carbon placement box 3081. By setting the driving motor 305, the driving motor 305 can drive one of the transmission sprockets 304 to rotate under the fixation of the motor fixing bracket 314. When one of the transmission sprockets 304 rotates, it can drive the other transmission sprocket 304 to rotate simultaneously through the transmission chain 315. When the two transmission sprockets 304 rotate, they can drive the two reciprocating lead screws 303 to rotate simultaneously. When the two reciprocating lead screws 303 rotate, they can drive the reciprocating slider 307 to move up and down reciprocally. When the reciprocating slider 307 moves up and down reciprocally, it can drive the soaking mounting rack 313 to move up and down. When the soaking mounting rack 313 moves up and down, it will also drive the activated carbon placement box 3081 to move up and down. At this time, when the activated carbon placement box 3081 moves downward, the conical rubber sleeve 3085 moves upward when the chemical liquid passes through the through groove 3084. When the activated carbon placement box 3081 moves upward, the conical rubber sleeve 3085 moves downward when the chemical liquid passes through the through groove 3084. The conical rubber sleeve 3085 is conical, so that the chemical liquid is compressed and flushed into the activated carbon placement box 3081. At the same time, the reciprocating lead screw 303 will also drive the driving gear 309 to rotate. When the driving gear 309 rotates, it will also drive the driven gear 310 to rotate. When the driven gear 310 rotates, it will also drive the rotating rod 311 to rotate. When the rotating rod 311 rotates, it will also drive the rising spiral blade 312 to rotate. At this time, the liquid at the bottom of the activated carbon chemical soaking housing 301 can rise through the rising spiral blade 312, so as to improve the soaking effect of the activated carbon.

[0024] The model of the specific surface area analyzer is 3H-2000BET-A. Example Two

[0025] As Figures 1 - 3 shown, for the intelligent activated carbon regeneration quality detection device according to the embodiment of the present invention, the activated carbon detection and cleaning assembly 2 includes a cleaning installation housing 201. The cleaning installation housing 201 is installed inside the activated carbon regeneration detection installation rack 1. A cleaning placement plate 202 is installed inside the cleaning installation housing 201. A placement box moving rack 203 is provided at the bottom of the cleaning placement plate 202. Slide rods 204 are symmetrically connected to both sides of the placement box moving rack 203. The slide rods 204 are in sliding and sealing cooperation with the cleaning installation housing 201. One end of one of the slide rods 204 is connected to a hydraulic push rod 205. A hydraulic rod fixing bracket 206 is connected to the periphery of the hydraulic push rod 205. The hydraulic rod fixing bracket 206 is connected to the cleaning installation housing 201.

[0026] Through the above technical solution, the activated carbon is placed on the activated carbon placement net 3082 in the activated carbon placement box 3081, and then the activated carbon placement box 3081 is placed in the cleaning placement plate 202 and the placement box moving frame 203. The hydraulic push rod 205 drives one of the sliding rods 204 to move under the fixation of the hydraulic rod fixing frame 206. When one of the sliding rods 204 moves, it can drive the placement box moving frame 203 to move. When the placement box moving frame 203 moves, it can drive the activated carbon placement box 3081 to move, and at the same time, it is rinsed through the activated carbon infusion assembly 4. Embodiment III

[0027] As Figure 7 As shown, for the intelligent activated carbon regeneration quality detection device according to the embodiment of the present invention, the activated carbon infusion assembly 4 includes an infusion pump 401. The number of infusion pumps 401 is three. The input end of the infusion pump 401 is connected to a liquid inlet pipe 402. Liquid inlet solenoid valves 403 are respectively installed inside the liquid inlet pipe 402. The output end of the infusion pump 401 is connected to a liquid outlet pipe 404. A liquid outlet solenoid valve 405 is installed inside the liquid outlet pipe 404. Liquid outlet nozzles 406 are respectively installed at the output end of the liquid outlet pipe 404. The infusion pump 401, the liquid inlet solenoid valve 403, and the liquid outlet solenoid valve 405 are electrically connected to the controller 6. A pipe fixing frame 7 is connected to the periphery of the liquid outlet pipe 404. The pipe fixing frame 7 is connected to the activated carbon regeneration detection installation frame 1. A liquid discharge pipe 8 is provided at the bottoms of the activated carbon chemical immersion housing 301 and the cleaning installation outer shell 201. A liquid discharge valve 9 is installed inside the liquid discharge pipe 8. The liquid discharge valve 9 is electrically connected to the controller 6. A controller 6 is installed on one side of the activated carbon regeneration detection installation frame 1. The drive motor 305 and the hydraulic push rod 205 are respectively electrically connected to the controller 6. An electric heater 10 is installed inside the activated carbon chemical immersion housing 301. A temperature sensor 11 is installed on one side of the electric heater 10. The temperature sensor 11 and the electric heater 10 are electrically connected to the controller 6.

[0028] Through the above technical solution, by setting three infusion pumps 401, it is convenient to respectively inject the cleaning liquid, chemical reagent, and deionized water into the liquid outlet pipe 404 through the liquid inlet pipe 402. Under the adjustment of the liquid inlet solenoid valve 403 and the liquid outlet solenoid valve 405, the cleaning liquid, chemical reagent, and deionized water are respectively sprayed out through the infusion nozzles 407. By setting the pipe fixing frame 7, the function of facilitating the fixation of the liquid outlet pipe 404 is achieved. By setting the liquid discharge pipe 8 and the liquid discharge valve 9, the function of facilitating the discharge of the liquid inside the activated carbon chemical immersion housing 301 and the cleaning installation outer shell 201 is achieved. The temperature sensor 11 detects the temperature inside the activated carbon chemical immersion housing 301. The temperature sensor 11 controls the output temperature of the electric heater 10 through the controller 6, so as to keep the temperature of the chemical reagent within a certain range intelligently when soaking the activated carbon, improving the soaking effect of the activated carbon. Example 4

[0029] As shown in Figure 8 Figure 5, the intelligent activated carbon regeneration quality detection device according to the embodiment of the present invention, the activated carbon drying assembly 5 includes a drying mounting frame 501, a drying mesh bag 502 is installed inside the drying mounting frame 501, a thermoelectric hair dryer 503 is provided on one side of the drying mesh bag 502, the bottom of the drying mounting frame 501 is connected with a rotary motor 504, the thermoelectric hair dryer 503 and the rotary motor 504 are electrically connected to the controller 6, and the rotary motor 504 is a waterproof motor.

[0030] Through the above technical solution, by setting the rotary motor 504, the rotary motor 504 drives the drying mounting frame 501 to rotate. When the rotary motor 504 rotates, it drives the drying mounting frame 501 to rotate. When the drying mounting frame 501 rotates, it drives the activated carbon in the drying mesh bag 502 to rotate, and the thermoelectric hair dryer 503 dries the rotating activated carbon.

[0031] According to another aspect of the present invention, an intelligent activated carbon regeneration quality detection method is also provided, including the following steps: S101: Place the activated carbon on the activated carbon placement net 3082 in the activated carbon placement box 3081, and then place the activated carbon placement box 3081 in the cleaning placement plate 202 and the placement box moving frame 203. The hydraulic push rod 205 drives one of the sliding rods 204 to move under the fixation of the hydraulic rod fixing frame 206. When one of the sliding rods 204 moves, it drives the placement box moving frame 203 to move. When the placement box moving frame 203 moves, it drives the activated carbon placement box 3081 to move, and at the same time, it is rinsed through the activated carbon infusion assembly 4.

[0032] S102: Place the washed activated carbon in the drying mesh bag 502. By setting the rotary motor 504, the rotary motor 504 drives the drying mounting frame 501 to rotate. When the rotary motor 504 rotates, it drives the drying mounting frame 501 to rotate. When the drying mounting frame 501 rotates, it drives the activated carbon in the drying mesh bag 502 to rotate, and the thermoelectric hair dryer 503 dries the rotating activated carbon.

[0033] S103: Place the activated carbon placement box 3081 into the immersion mounting bracket 313 by pulling the handle 3086. Then, snap the placement box cover 3083 onto the activated carbon placement box 3081. By setting the drive motor 305, the drive motor 305 can drive one of the drive sprockets 304 to rotate under the fixation of the motor fixing bracket 314. When one of the drive sprockets 304 rotates, it can drive the other drive sprocket 304 to rotate simultaneously through the drive chain 315. When the two drive sprockets 304 rotate, they can drive the two reciprocating lead screws 303 to rotate simultaneously. When the two reciprocating lead screws 303 rotate, they can drive the reciprocating slider 307 to move up and down reciprocally. When the reciprocating slider 307 moves up and down reciprocally, it can drive the immersion mounting bracket 313 to move up and down. When the immersion mounting bracket 313 moves up and down, it will also drive the activated carbon placement box 3081 to move up and down. At this time, when the activated carbon placement box 3081 moves downward, the tapered rubber sleeve 3085 moves upward when the chemical liquid passes through the through slot 3084. When the activated carbon placement box 3081 moves upward, the tapered rubber sleeve 3085 moves downward when the chemical liquid passes through the through slot 3084. The tapered rubber sleeve 3085 is tapered, so that the chemical liquid is compressed and flushes into the activated carbon placement box 3081. At the same time, the reciprocating lead screw 303 will also drive the driving gear 309 to rotate. When the driving gear 309 rotates, it will also drive the driven gear 310 to rotate. When the driven gear 310 rotates, it will also drive the rotating rod 311 to rotate. When the rotating rod 311 rotates, it will also drive the rising spiral blade 312 to rotate. At this time, the liquid at the bottom of the activated carbon chemical immersion housing 301 can rise through the rising spiral blade 312, thereby achieving the effect of improving the immersion effect of the activated carbon.

[0034] S104: After the soaked activated carbon is rinsed with deionized water, it is dried by the activated carbon drying assembly 5. Then, an adsorption experiment is carried out to measure the change in its adsorption capacity and evaluate the effect of chemical regeneration and the possible regeneration cycle.

[0035] To facilitate the understanding of the above technical solutions of the present invention, the working principle or operation method of the present invention in the actual process will be described in detail below.

[0036] In summary, by means of the above technical solutions of the present invention, in actual use, through the activated carbon chemical immersion assembly, using a drive source, while the activated carbon moves up and down in the chemical reagent, the liquid at the bottom of the activated carbon chemical immersion housing 301 can rise through the rising spiral blade, greatly increasing the reaction time of the activated carbon immersion with the chemical reagent, solving the problem that the activated carbon sample is simply soaked in the chemical reagent, which takes a long time and has a low reaction rate, and improving the efficiency of the activated carbon regeneration quality detection.

[0037] The above are only the preferred embodiments of the present invention and are not intended to limit the present invention. Any modifications, equivalent replacements, improvements, etc. made within the spirit and principles of the present invention shall be included within the protection scope of the present invention.

Claims

1. An intelligent activated carbon regeneration quality detection device, including a specific surface area analyzer, characterized in that, The specific surface area analyzer is placed on the activated carbon regeneration detection installation rack (1), and the activated carbon chemical soaking component (3) is arranged inside the activated carbon regeneration detection installation rack (1); The activated carbon chemical soaking component (3) includes an activated carbon chemical soaking housing (301). A reciprocating slider (307) is arranged inside the activated carbon chemical soaking housing (301). An immersion installation rack (313) is connected between the reciprocating sliders (307). While the immersion installation rack (313) moves, the rising spiral blade (312) also rotates. After being dried by the activated carbon drying component (5), the BET specific surface area of the regenerated carbon is measured by the specific surface area analyzer to verify the degree of recovery of the pore structure.

2. An intelligent activated carbon regeneration quality detection device according to claim 1, characterized in that, On one side of the activated carbon chemical soaking component (3), there is an activated carbon detection and cleaning component (2). The activated carbon detection and cleaning component (2) includes a cleaning installation outer shell (201). The cleaning installation outer shell (201) is installed inside the activated carbon regeneration detection installation rack (1). A cleaning placement plate (202) is installed inside the cleaning installation outer shell (201). A placement box moving frame (203) is arranged at the bottom of the cleaning placement plate (202). Sliding rods (204) are symmetrically connected to both sides of the placement box moving frame (203). The sliding rods (204) are in sliding and sealing fit with the cleaning installation outer shell (201). One end of one of the sliding rods (204) is connected to a hydraulic push rod (205). A hydraulic rod fixing frame (206) is connected to the periphery of the hydraulic push rod (205). The hydraulic rod fixing frame (206) is connected to the cleaning installation outer shell (201).

3. An intelligent activated carbon regeneration quality detection device according to claim 2, characterized in that, On one side of the activated carbon chemical soaking component (3), there is an activated carbon infusion component (4). The activated carbon infusion component (4) includes an infusion pump (401). The input end of the infusion pump (401) is connected to a liquid inlet pipe (402). Liquid inlet solenoid valves (403) are respectively installed inside the liquid inlet pipe (402). The output end of the infusion pump (401) is connected to a liquid outlet pipe (404). A liquid outlet solenoid valve (405) is installed inside the liquid outlet pipe (404). Liquid outlet nozzles (406) are respectively installed at the output end of the liquid outlet pipe (404). The infusion pump (401), the liquid inlet solenoid valve (403), and the liquid outlet solenoid valve (405) are electrically connected to the controller (6). A pipe fixing frame (7) is connected to the periphery of the liquid outlet pipe (404). The pipe fixing frame (7) is connected to the activated carbon regeneration detection installation rack (1).

4. An intelligent activated carbon regeneration quality detection device according to claim 3, characterized in that On one side of the activated carbon infusion component (4), there is an activated carbon drying component (5). The activated carbon drying component (5) includes a drying installation rack (501). A drying mesh bag (502) is installed inside the drying installation rack (501). A thermoelectric hair dryer (503) is arranged on one side of the drying mesh bag (502). A rotating motor (504) is connected to the bottom of the drying installation rack (501). The thermoelectric hair dryer (503) and the rotating motor (504) are electrically connected to the controller (6).

5. An intelligent activated carbon regeneration quality detection device according to claim 4, characterized in that, The activated carbon chemical soaking assembly (3) further includes a sealed bearing (302). Inside the activated carbon chemical soaking housing (301), a reciprocating lead screw (303) is symmetrically and movably connected through the sealed bearing (302). A lead screw fixing plate (306) is movably connected to the peripheries of the two reciprocating lead screws (303). The peripheries of the two reciprocating lead screws (303) are matched with a reciprocating slider (307).

6. An intelligent activated carbon regeneration quality detection device according to claim 5, characterized in that, The activated carbon chemical soaking assembly (3) further includes a driving sprocket (304). The driving sprockets (304) are symmetrically installed at the bottoms of the two reciprocating lead screws (303). A driving chain (315) is matched with the periphery of the driving sprocket (304). A driving motor (305) is connected to the middle of one of the driving sprockets (304). A motor fixing frame (314) is connected to the periphery of the driving motor (305). The motor fixing frame (314) is connected to the activated carbon chemical soaking housing (301). An activated carbon placement assembly (308) is provided inside the soaking mounting frame (313). A driving gear (309) is connected to the periphery of the reciprocating lead screw (303). A driven gear (310) is engaged with one side of the driving gear (309). A rotating rod (311) is connected to the middle of the driven gear (310). The two ends of the rotating rod (311) are respectively and movably connected to the lead screw fixing plate (306) and the activated carbon chemical soaking housing (301). Rising spiral vanes (312) are symmetrically connected to the periphery of the rotating rod (311).

7. An intelligent activated carbon regeneration quality detection device according to claim 6, characterized in that, An activated carbon placement assembly (308) is provided inside the soaking mounting frame (313). The activated carbon placement assembly (308) includes an activated carbon placement box (3081). The activated carbon placement box (3081) is engaged with the soaking mounting frame (313). An activated carbon placement net (3082) is installed inside the activated carbon placement box (3081). A placement box mounting cover (3083) is engaged above the activated carbon placement box (3081). Through grooves (3084) are respectively formed inside the placement box mounting cover (3083) and the activated carbon placement box (3081). A conical rubber sleeve (3085) is installed inside the through groove (3084). Pulling handles (3086) are symmetrically connected to both sides of the activated carbon placement box (3081).

8. An intelligent activated carbon regeneration quality detection device according to claim 4, characterized in that, Liquid discharge pipes (8) are provided at the bottoms of the activated carbon chemical soaking housing (301) and the cleaning mounting housing (201). A liquid discharge valve (9) is installed inside the liquid discharge pipe (8). The liquid discharge valve (9) is electrically connected to the controller (6).

9. An intelligent activated carbon regeneration quality detection device according to claim 8, characterized in that, A controller (6) is installed on one side of the activated carbon regeneration detection mounting frame (1). The driving motor (305) and the hydraulic push rod (205) are respectively electrically connected to the controller (6). An electric heater (10) is installed inside the activated carbon chemical soaking housing (301). A temperature sensor (11) is installed on one side of the electric heater (10). The temperature sensor (11) and the electric heater (10) are electrically connected to the controller (6).

10. An intelligent quality detection method for activated carbon regeneration, based on the application of an intelligent quality detection device for activated carbon regeneration according to claim 9, characterized in that, Including the following steps: S101: Place the activated carbon on the activated carbon placement net (3082) inside the activated carbon placement box (3081), place the activated carbon placement box (3081) inside the cleaning placement plate (202) and the placement box moving frame (203). The hydraulic push rod (205), fixed by the hydraulic rod fixing frame (206), drives one of the sliding rods (204) to move. When one of the sliding rods (204) moves, it drives the placement box moving frame (203) to move. When the placement box moving frame (203) moves, it drives the activated carbon placement box (3081) to move. At the same time, rinse through the activated carbon infusion component (4). S102: Place the cleaned activated carbon in the drying mesh bag (502). The rotating motor (504) drives the drying installation frame (501) to rotate. When the rotating motor (504) rotates, it drives the drying installation frame (501) to rotate. When the drying installation frame (501) rotates, it drives the activated carbon in the drying mesh bag (502) to rotate. The thermoelectric hair dryer (503) dries the rotating activated carbon. S103: Place the activated carbon placement box (3081) into the soaking installation frame (313), and snap the placement box cover (3083) onto the activated carbon placement box (3081). The driving motor (305), fixed by the motor fixing frame (314), drives one of the transmission sprockets (304) to rotate. When one of the transmission sprockets (304) rotates, it drives the other transmission sprocket (304) to rotate simultaneously through the transmission chain (315). When the two transmission sprockets (304) rotate, they drive the two reciprocating lead screws (303) to rotate simultaneously. The two reciprocating lead screws (303) rotate to drive the reciprocating slider (307) to move up and down reciprocally. The reciprocating slider (307) moving up and down reciprocally drives the soaking installation frame (313) to move up and down. The soaking installation frame (313) moving up and down drives the activated carbon placement box (3081) to move up and down. When the activated carbon placement box (3081) moves downward, the tapered rubber sleeve (3085) moves upward when the chemical liquid passes through the through groove (3084). When the activated carbon placement box (3081) moves upward, the tapered rubber sleeve (3085) moves downward when the chemical liquid passes through the through groove (3084). The tapered rubber sleeve (3085) is tapered, so that the chemical liquid is compressed and flushed into the activated carbon placement box (3081). The reciprocating lead screw (303) drives the driving gear (309) to rotate. The driving gear (309) rotates to drive the driven gear (310) to rotate. The driven gear (310) rotates to drive the rotating rod (311) to rotate. The rotating rod (311) rotates to drive the rising spiral blade (312) to rotate. The liquid at the bottom of the activated carbon chemical soaking housing (301) can rise through the rising spiral blade (312), thus achieving the effect of improving the soaking effect of the activated carbon. S104: After the soaked activated carbon is rinsed with deionized water, it is dried by the activated carbon drying component (5), and then through an adsorption experiment, the change in its adsorption capacity is measured to evaluate the effect of chemical regeneration and the possible regeneration cycle.

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