Nanometer ore crystal medicament concentration control box

Abstract

The invention particularly relates to a nano-ore crystal medicament concentration control box which comprises a dissolving box, a liquid storage box and an adjusting box and can efficiently dissolve nano-ore crystals and accurately adjust and control the liquid concentration. A nanometer ore crystal placing mechanism is arranged in the dissolving box, a placing frame is of a net-shaped structure, the design of a scraper and a water guide strip is combined, and ore crystal dissolving is accelerated under the action of water flow and rotation. Meanwhile, the dissolving tank is provided with a heating mechanism and a stirring mechanism, so that the dissolving efficiency is improved; the system adopts a concentration detector to monitor the solution concentration in real time, and adjusts the liquid flow through a remote control valve to ensure that the medicament concentration meets the requirement; the adjusting box is matched with a water supply system, the solution concentration is accurately adjusted, and a stirring mechanism in the liquid storage box ensures that liquid is uniformly mixed; the whole system can realize automatic operation through intelligent control, improves the production efficiency, reduces manual intervention, and has the advantages of high efficiency, accuracy and energy conservation.

Description

Technical Field

[0001] The present invention relates to the technical field of air purification, and particularly to a concentration control box for nano-mineral crystal agents. Background Art

[0002] As a hot material in the field of air purification in recent years, nano-mineral crystal air purifying agents exhibit excellent performance in removing odor gases, and are particularly widely used in the purification of livestock and poultry house odors. This material has a large specific surface area and good adsorption performance, can effectively adsorb malodorous gases such as ammonia and hydrogen sulfide, and degrade them through catalytic or ion exchange effects, thus significantly improving air quality. However, in the actual use process, the dissolution and use of nano-mineral crystal air purifying agents still face certain technical problems.

[0003] Currently, nano-mineral crystal air purifying agents are usually stored and transported in solid form, and need to be dissolved in water to form a solution for spraying or atomizing release during use to achieve the effect of purifying air. However, since the dissolution rate of nano-minerals is affected by factors such as particle size, temperature, and water flow state, its dissolution concentration is difficult to accurately control, resulting in difficulty in real-time monitoring and adjustment of the agent concentration. In addition, in the traditional dissolution method, there are no effective stirring, heating, and concentration detection means, resulting in uneven dissolution, and the agent concentration may be too high or too low, thus affecting the actual application effect.

[0004] In the livestock and poultry breeding environment, due to the large fluctuations in the odor concentration, the use of air purifying agents requires precise concentration control to ensure continuous and effective removal of odors. If the concentration of the dissolved nano-mineral crystal solution is too low, the purification efficiency will decrease and it is difficult to achieve the desired deodorization effect; while if the concentration is too high, it may cause waste of the agent, increase the use cost, and even affect the normal operation of the spraying equipment. Therefore, how to achieve efficient dissolution of nano-mineral crystal agents and accurately regulate the solution concentration is the key technical problem to improve its air purification effect.

[0005] For this reason, we provide a device that can regulate the concentration of nano-mineral crystal solutions to achieve efficient dissolution of the agent, precise concentration control, and intelligent management, thereby improving the application effect of air purifying agents in environments such as livestock and poultry houses, increasing the purification efficiency, and reducing the operation cost, namely a concentration control box for nano-mineral crystal agents. Summary of the Invention

[0006] The purpose of the present invention is to provide a concentration control box for nano-mineral crystal agents to overcome the deficiencies existing in the prior art.

[0007] The object of the present invention is achieved as follows: A concentration control box for nano-mineral crystal agents, comprising a box body, characterized in that: a cover plate is provided at the upper end of the box body, a dissolution tank is provided on the left side inside the box body, the nano-mineral crystals are dissolved in the dissolution tank, a liquid storage tank is provided on the right side inside the box body, and the liquid storage tank stores and dilutes the liquid dissolved by the dissolution tank; a stirring mechanism I is provided inside the liquid storage tank, and the stirring mechanism I stirs and mixes the liquid inside the liquid storage tank.

[0008] Further, a nano-mineral crystal placement mechanism is provided inside the dissolution tank, and a stirring mechanism II is provided below the nano-mineral crystal placement mechanism. The stirring mechanism II stirs the liquid inside the dissolution tank to increase the fluidity of the liquid and improve the dissolution efficiency of the nano-mineral crystals.

[0009] Further, a heating mechanism is provided inside the dissolution tank, and the heating mechanism heats the liquid inside the dissolution tank.

[0010] Further, a sealing cover is provided at the upper end of the dissolution tank, and the sealing cover is detachably located at the upper end of the dissolution tank; the upper end of the sealing cover penetrates through the cover plate in a vertically movable manner.

[0011] Further, the nano-mineral crystal placement mechanism includes a support frame, a placement frame is rotatably provided at the upper end of the support frame, the nano-mineral crystals are placed inside the placement frame, the periphery and bottom of the placement frame are of a mesh structure, the lower part of the support frame is of a support leg structure, and the upper part of the support frame is of a mesh structure.

[0012] Further, the placement frame is of a cylindrical structure, the upper end of the placement frame is open, a plurality of longitudinal strip-shaped grooves are evenly formed on the side surface of the placement frame, and water guide strips are longitudinally arranged on the outer side surface of the placement frame on the side of the longitudinal strip-shaped grooves, and the water guide strips are inclined towards the longitudinal strip-shaped grooves.

[0013] When the present invention is used, the sealing plate is opened and the limiting plate is taken out from inside the placement frame at the same time, a nano-mineral crystal is placed inside the placement frame, then the limiting plate and the sealing plate are reset, the lifting mechanism is controlled to drive the limiting plate to move downward, so as to realize the limiting and fixing of the nano-mineral crystal by the cooperation of the limiting plate and the bottom of the placement frame, and a limiting protrusion is provided at the bottom of the placement frame, so as to realize the fixing of the nano-mineral crystal. Then the limiting plate is moved upward to avoid contacting the nano-mineral crystal. Water is supplied into the dissolution tank through a water supply pipe, and the water submerges the nano-mineral crystal; the water has a certain dissolving effect on the nano-mineral crystal, and the nano-mineral crystal can be dissolved into the water. After dissolution, the liquid is inside the dissolution tank, and the dissolved liquid is discharged into the water storage tank through the dissolution tank, and water is continuously supplied into the dissolution tank.

[0014] When it is necessary to discharge the liquid through a drain pipe, the liquid can be pumped out from the water storage tank by opening valve IX, that is, a water pump is connected to the outer end of the drain pipe to pump water out from the drain pipe for subsequent production, etc.

[0015] When a higher requirement is imposed on the concentration of the liquid discharged from the drain pipe, due to the priority of the dissolution efficiency of the nano mineral crystal, in order to ensure a rapid increase in the dissolution efficiency, the liquid is heated by a heating mechanism in the dissolution tank. Heating can increase the dissolution efficiency of the nano mineral crystal. At the same time, by arranging a second stirring mechanism to stir the liquid in the dissolution tank, the flow rate of the liquid can be increased, thereby increasing the dissolution efficiency. In addition, during the flow of the liquid, since a water guide plate is arranged on the outer side of the placement frame, the placement frame can be driven to rotate under the drive of the water flow. When the placement frame rotates, the nano crystal ore is driven to rotate. Driven by the lifting rod, the limiting plate moves downward. When the limiting plate moves downward, the teeth on the scraping plate on the lower surface of the limiting plate first gradually contact the upper surface of the nano crystal ore. When the placement frame drives the nano crystal ore to rotate, the scraping plate scrapes up the upper surface of the nano crystal ore. With the drive of the water flow, the upper part of the nano crystal ore is cut and crushed into fine structures, so as to increase its contact area with water and better dissolve it in water. In addition, the water guide strip is inclined towards the longitudinal strip groove. Therefore, when the water flow flows, some water will enter the placement frame through the longitudinal strip groove to locally scour the nano mineral crystal, so as to increase the impact force of the water flow and better increase the dissolution efficiency of the nano mineral crystal. In addition, the placement frame and the limiting plate are of a mesh structure, which can prevent a large number of fine structures of the nano mineral crystal from entering the dissolution tank.

[0016] Through the above method, the concentration of the liquid in the dissolution tank can be rapidly increased. When the concentration in the dissolution tank reaches a certain concentration range value (the concentration range value required to be discharged through the drain pipe), the liquid can be discharged into the adjustment tank through the first branch pipe and then discharged outward through the drain pipe.

[0017] When the concentration in the dissolution tank is too high, the liquid is discharged into the adjustment tank through the first branch pipe, and then water is supplied to the adjustment tank through the water supply pipe to adjust the liquid concentration to the required range value, and then discharged through the drain pipe. A concentration detector is arranged in both the dissolution tank and the adjustment tank, and the concentration detector can be used to detect the liquid concentration at each position to achieve the above functions. That is, first supply some liquid with a higher concentration to the adjustment tank (a water supply structure such as a water pump can be arranged on the first branch pipe to achieve the water supply operation. In addition, a flow meter is arranged on the first branch pipe to cooperate with the water pump to achieve accurate flow supply operation. The specific method is the prior art and will not be described in detail. The same prior art can be adopted for other positions in this application that require water supply and will not be described in detail. This application is mainly to realize the operation process and functions of supplying different liquids). Then, water is supplied to the adjustment tank through the water supply pipe. When the concentration in the adjustment tank drops to the required range value, the water supply is stopped, and the water is discharged outward through the drain pipe.

[0018] When it is necessary to supply the liquid without adding nano mineral crystal to the drain pipe, water is directly supplied through the water supply pipe and the branch pipe to the three-way drain pipe; when the concentration requirement of the nano mineral crystal liquid is stable, the liquid can be supplied to the drain pipe through the water storage tank, that is, the dissolved liquid is supplied to the water storage tank through the dissolution tank, water is supplied to the dissolution tank through the water supply pipe, so that the nano mineral crystal dissolves naturally, and then the dissolved liquid is supplied to the water storage tank through the water pipe one. When the concentration of the liquid entering the water storage tank meets the concentration range required for liquid supply of the drain pipe (the concentration is detected by the concentration detector in the water storage tank), the liquid in the water storage tank can be directly discharged through the drain pipe, that is, the continuous supply of liquid to the drain pipe is realized in the above way, without consuming other redundant energy and equipment; when the concentration of the liquid of the naturally dissolved nano mineral crystal cannot meet the concentration required by the drain pipe, the stirring mechanism two can be rotated to drive the liquid in the dissolution tank to flow rapidly to increase the dissolution efficiency; at the same time, water can be injected into the dissolution tank through the water pipe two, and the water in the water storage tank can be dissolved by circulating water drainage through the water pipe one to increase the solubility of the water in the water storage tank. When the water in the water storage tank reaches a certain amount (the water volume can be known through the flow meter set on the water pipe one) and concentration, water is supplied to the water storage tank through the water supply pipe and the branch pipe two.

[0019] When the concentration of the liquid entering the water storage tank is higher than the concentration range required for liquid supply of the drain pipe (the concentration is detected by the concentration detector in the water storage tank), water is supplied to the water storage tank through the water supply pipe, and the stirring mechanism one is rotated to stir and mix the liquid in the liquid storage tank, and the concentration detector in the water storage tank is used to detect the concentration. When the concentration range required for liquid supply of the drain pipe is reached, the liquid in the water storage tank can be directly discharged through the drain pipe, that is, the continuous supply of liquid to the drain pipe is realized in the above way.

[0020] Beneficial effects: The present application uses the stirring mechanism two and the heating mechanism to act synergistically to improve the fluidity and temperature of the liquid in the dissolution tank, thereby significantly enhancing the dissolution efficiency of the nano mineral crystal; the innovatively designed nano mineral crystal placement mechanism combined with the scraper structure can scrape and crush the nano mineral crystal under the action of water flow and rotation, increase its contact area with water, and accelerate the dissolution process; secondly, the present invention uses a concentration detector and a remote control valve to monitor the solution concentration in real time, and precisely adjusts the concentration through the adjustment tank to ensure that the output solution meets the preset requirements; through the optimized design of the water pipe system and the water supply mechanism, the efficient transportation and recycling of the liquid are realized, the use efficiency of the medicament is improved, and the waste is reduced; the device adopts a sealed structure to effectively prevent the solvent from volatilizing, ensure the operation safety, and at the same time set an exhaust port to avoid abnormal pressure; the overall system can realize automatic operation, reduce manual intervention, and improve production efficiency; the present invention integrates high-efficiency dissolution, precise regulation, energy conservation and environmental protection, and intelligent management, is applicable to multiple fields such as pharmaceuticals and chemicals, and has broad application prospects. Description of the Drawings

[0021] Figure 1 It is a schematic structural diagram of the invention.

[0022] Figure 2 It is a partial cross-sectional view of the box body structure of the invention.

[0023] Figure 3 It is a schematic diagram of the partial structure of the invention.

[0024] Figure 4 It is a partial cross-sectional view of the dissolution tank structure of the invention.

[0025] Figure 5 It is a schematic diagram of the placement frame structure of the invention.

[0026] Figure 6 It is a schematic diagram of the limiting plate structure of the invention.

[0027] Explanation of reference numerals in the drawings:

[0028] 1. Box body, 2. Cover plate, 3. Sealing plate, 4. Lifting rod, 5. Lifting mechanism, 6. Water supply pipe, 7. Drain pipe, 8. Valve III, 9. Branch pipe I, 10. Dissolution tank, 11. Branch pipe II, 12. Concentration detector, 13. Valve V, 14. Water pipe III, 15. Valve VI, 16. Regulation tank, 17. Concentration detector, 18. Valve VII, 19. Concentration detector, 20. Valve IX, 21. Water storage tank, 22. Branch pipe III, 23. Valve VIII, 24. Valve IV, 25. Limiting plate, 26. Placement frame, 27. Valve II, 28. Water guide plate, 29. Placement rack, 30. Valve I, 31. Water pipe II, 32. Water pipe I, 33. Stirring mechanism II, 34. Stirring mechanism I, 35. Scraper, 36. Limiting protrusion. Detailed implementation manners

[0029] Example 1, as Figure 1-6 shown, the object of the present invention is achieved as follows: A concentration control box for nano-mineral crystal agents includes a box body 1, a cover plate 2 is arranged at the upper end of the box body 1, a dissolution tank 10 is arranged on the left side inside the box body 1, the nano-mineral crystals are dissolved in the dissolution tank 10, a liquid storage tank is arranged on the right side inside the box body 1, and the liquid storage tank stores and dilutes the liquid dissolved in the dissolution tank 10; a stirring mechanism I 34 is arranged inside the liquid storage tank, and the stirring mechanism I 34 stirs and mixes the liquid inside the liquid storage tank.

[0030] A nano-mineral crystal placement mechanism is arranged inside the dissolution tank 10, and a stirring mechanism II 33 is arranged below the nano-mineral crystal placement mechanism. The stirring mechanism II 33 stirs the liquid inside the dissolution tank 10 to increase the fluidity of the liquid so as to improve the dissolution efficiency of the nano-mineral crystals.

[0031] A heating mechanism is provided inside the dissolution tank 10. The heating mechanism is a prior art and can achieve the heating function to the specified temperature without technical elaboration. The heating mechanism heats the liquid inside the dissolution tank 10, and the increase in the liquid temperature can improve the dissolution efficiency of the nano mineral crystal. A sealing cover is provided at the upper end of the dissolution tank 10, and the sealing cover is detachably located at the upper end of the dissolution tank 10; the upper end of the sealing cover penetrates through the cover plate 2 in a vertically movable manner.

[0032] The nano mineral crystal placement mechanism includes a support frame. A placement frame 26 is rotatably provided at the upper end of the support frame. The nano mineral crystal is placed inside the placement frame 26. The periphery and bottom of the placement frame 26 are of a mesh structure, and the mesh structure can facilitate the flow of the liquid and increase the dissolution efficiency. The lower part of the support frame is of a support leg structure, and the support leg structure can reduce the obstruction to the liquid flow. The upper part of the support frame is of a mesh structure.

[0033] The placement frame 26 is of a cylindrical structure. The cylindrical structure can avoid the obstruction of the liquid flow during rotation. The upper end of the placement frame 26 is open, and a plurality of longitudinal strip-shaped grooves are evenly arranged on the side surface of the placement frame 26. A water guide strip is longitudinally arranged on the outer side surface of the placement frame 26 on the side of the longitudinal strip-shaped groove, and the water guide strip is inclined towards the longitudinal strip-shaped groove.

[0034] A limiting protrusion 36 is provided at the inner bottom of the placement frame 26. The upper end of the limiting protrusion 36 is of a conical structure, which can fix and limit the nano mineral crystal. A limiting plate 25 is vertically movably arranged inside the placement frame 26, and the outer side surface of the limiting plate 25 fits with the inner side surface of the placement frame 26; the limiting plate 25 is of a mesh structure to facilitate the flow of the liquid. Two scraping plates 35 are provided on the lower surface of the limiting plate 25, and the two scraping plates 35 are cross-distributed. The scraping plates 35 are of a serrated structure, and the serrated structure can scrape the nano mineral crystal to facilitate its dissolution. A lifting rod 4 is connected to the limiting plate 25. The upper end of the lifting rod 4 penetrates through the sealing plate 3 in a vertically movable manner, and the lifting rod 4 can move up and down. A lifting mechanism 5 is provided on the sealing plate 3. The lifting mechanism 5 is a prior art and can drive the lifting rod 4 to move up and down; the lifting mechanism 5 drives the lifting rod 4 to move up and down.

[0035] A water pipe 32 and a water pipe 31 are provided between the dissolution tank 10 and the liquid storage tank. The two ends of the water pipe 32 and the water pipe 31 are respectively connected to the dissolution tank 10 and the liquid storage tank; the water pipe 32 is located at the lower part of the dissolution tank 10, the water pipe 31 is located in the middle of the dissolution tank 10. A valve 30 is provided on the water pipe 32, and a valve 27 is provided on the water pipe 31. A water supply mechanism (such as a water supply pump, etc. to realize the flow of the liquid) can be provided on the water pipe 32 and the water pipe 31 as needed.

[0036] A water supply pipe 6 is provided inside the box body 1. A branch pipe 9 is provided on the water supply pipe 6. The rear end of the branch pipe 9 is communicated with the dissolution tank 10. A valve 8 is provided on the branch pipe 9. A water supply mechanism (such as a water supply pump, etc. to realize the flow of the liquid) is provided on the branch pipe 9.

[0037] A second branch pipe 11 is provided on the water supply pipe 6. The rear end of the second branch pipe 11 is communicated with the liquid storage tank. A fourth valve 24 is provided on the second branch pipe 11. A water supply mechanism (such as a water supply pump, to achieve the flow of liquid) is provided on the second branch pipe 11.

[0038] An adjustment tank 16 is provided in the box body 1 on the front side of the dissolution tank 10. The adjustment tank 16 is used to quickly adjust the liquid concentration. A third water pipe 14 is provided between the adjustment tank 16 and the dissolution tank 10. Both ends of the third water pipe 14 are respectively connected between the adjustment tank 16 and the dissolution tank 10. A water supply mechanism (such as a water supply pump, to achieve the flow of liquid) is provided on the third water pipe 14. A fifth valve 13 is provided on the third water pipe 14. The third water pipe 14 is connected to the lower part of the dissolution tank 10 and the upper part of the adjustment tank 16. The lower end of the water supply pipe 6 is connected to the upper part of the adjustment tank 16. A sixth valve 15 is provided on the lower part of the water supply pipe 6. Exhaust ports are provided on the tops of the dissolution tank 10, the adjustment tank 16, and the water storage tank 21 to prevent excessive internal pressure from causing problems such as inability to store water.

[0039] A drain pipe 7 is connected to the bottom of the adjustment tank 16. A seventh valve 18 is provided at the left end of the drain pipe 7. A third branch pipe 22 is connected to the drain pipe 7. The third branch pipe 22 is communicated with the upper part of the water supply pipe 6. An eighth valve 23 is provided on the third branch pipe 22. A fourth branch pipe is connected to the drain pipe 7. A water supply mechanism (such as a water supply pump, to achieve the flow of liquid) is provided on the fourth branch pipe. The fourth branch pipe is communicated with the water storage tank 21. A ninth valve 20 is provided on the fourth branch pipe.

[0040] Concentration detectors 17 are respectively provided in the dissolution tank 10, the liquid storage tank, and the adjustment tank 16 (the concentration detector 17 is a prior art and will not be described in technical details. There are various ways to detect the concentration of nano-mineral crystal agents. For example, a conductivity detector can be used. Since nano-mineral crystals will continuously dissolve in water after contacting water, causing the ion concentration in water to increase continuously and the conductivity of water to gradually rise, the conductivity can be used to characterize the dissolution concentration of nano-mineral crystals in the box body 1. When the preset conductivity is reached, it indicates that the nano-mineral crystal concentration in the box body 1 reaches the target required concentration, etc. Or an optical fiber sensor can be used to measure the concentration of nano-mineral crystal agents, etc.). In this application, flow meters are provided at the rear ends of the valves (such as the first valve 30, the second valve 27, etc.) to calculate the liquid flow rate. And the first valve 30, the second valve 27, etc. are all remotely controllable valves (such as solenoid valves, etc.) and can be opened and closed according to needs.

[0041] When the present invention is in use, the sealing plate 3 is opened and the limiting plate 25 is taken out of the placement frame 26 at the same time. A nano mineral crystal is placed in the placement frame 26, and then the limiting plate 25 and the sealing plate 3 are reset. The lifting mechanism 5 is controlled to drive the limiting plate 25 to move downward, so that the limiting plate 25 cooperates with the bottom of the placement frame 26 to limit and fix the nano mineral crystal. And a limiting protrusion 36 is arranged at the bottom of the placement frame 26, which can realize the fixation of the nano mineral crystal. Then the limiting plate 25 is moved upward to avoid contacting the nano mineral crystal. Water is supplied into the dissolution tank 10 through the water supply pipe 6, and the nano mineral crystal is submerged by the water. The water has a certain dissolving effect on the nano mineral crystal and can dissolve the nano mineral crystal into the water. After dissolution, the liquid is in the dissolution tank 10, and the dissolved liquid is discharged into the water storage tank 21 through the dissolution tank 10, and water is continuously supplied into the dissolution tank 10.

[0042] When it is necessary to discharge the liquid through the drain pipe 7, the liquid can be pumped out of the water storage tank 21 by opening the valve nine 20, that is, a water pump is connected to the outer end of the drain pipe 7 to pump water out of the drain pipe 7 for subsequent production, etc.

[0043] When a higher concentration of the liquid discharged through the drain pipe 7 is required, since the dissolution efficiency of the nano mineral crystal is prior, in order to ensure a rapid increase in the dissolution efficiency, the liquid in the dissolution tank 10 is heated by the heating mechanism in the dissolution tank 10. Heating can increase the dissolution efficiency of the nano mineral crystal. At the same time, a stirring mechanism two 33 is provided to stir the liquid in the dissolution tank 10, which can increase the flow rate of the liquid and increase the dissolution efficiency. In addition, during the flow of the liquid, since a water guide plate 28 is arranged on the outer side surface of the placement frame 26, the placement frame 26 can be driven to rotate under the drive of the water flow. While the placement frame 26 is rotating, the nano crystal mineral is driven to rotate. Then, the lifting rod 4 drives the limiting plate 25 to move downward. When the limiting plate 25 moves downward, the teeth on the scraping plate 35 on the lower surface of the limiting plate 25 first gradually contact the upper surface of the nano crystal mineral. When the placement frame 26 drives the nano crystal mineral to rotate, the scraping plate 35 scrapes up the upper surface of the nano crystal mineral, and under the drive of the water flow, the upper part of the nano crystal mineral is cut and crushed into fine structures to increase its contact area with water and better dissolve into the water. In addition, the water guide strip is inclined towards the longitudinal strip-shaped groove, so when the water flow flows, there will be water flowing into the placement frame 26 through the longitudinal strip-shaped groove to locally wash the nano mineral crystal, so as to increase the impact force of the water flow and better increase the dissolution efficiency of the nano mineral crystal. In addition, the placement frame 26 and the limiting plate 25 are of a net structure, which can prevent a large number of fine structures of the nano mineral crystal from entering the dissolution tank 10.

[0044] Through the above method, the liquid concentration in the dissolution tank 10 can be quickly increased. When the concentration in the dissolution tank 10 reaches a certain concentration range value (the concentration range value that needs to be discharged through the drain pipe 7), the liquid can be discharged into the adjustment tank 16 through the first branch pipe 9 and then discharged outward through the drain pipe 7.

[0045] When the concentration in the dissolution tank 10 is too high, the liquid is discharged into the adjustment tank 16 through the first branch pipe 9, and then water is supplied into the adjustment tank 16 through the water supply pipe 6 to adjust the liquid concentration to the required range value and then discharged through the drain pipe 7. Concentration detectors 17 are provided in both the dissolution tank 10 and the adjustment tank, and the liquid concentration at each position can be detected through the concentration detectors 17 to achieve the above functions. That is, first supply some higher-concentration liquid into the adjustment tank 16 (a water supply structure such as a water pump can be provided on the first branch pipe 9 to achieve the water supply operation. In addition, a flow meter is provided on the first branch pipe 9 to cooperate with the water pump to achieve accurate flow supply operation. The specific method is the prior art and will not be elaborated technically. The above prior art can be adopted for other positions in the present application that require water supply and will not be elaborated technically. The main purpose of the present application is to realize the operation process and functions of supplying different liquids). Then, water is supplied into the adjustment tank 16 through the water supply pipe 6. When the concentration in the adjustment tank 16 drops to the required range value, the water supply is stopped and the water is discharged outward through the drain pipe 7.

[0046] When it is necessary to supply liquid without added nano mineral crystal to the drain pipe 7, water is directly supplied to the drain pipe 7 through the water supply pipe 6 and the third branch pipe 22. When the concentration of the nano mineral crystal liquid is required to be stable, the liquid can be supplied to the drain pipe 7 through the water storage tank 21. That is, the dissolved liquid is supplied from the dissolution tank 10 to the water storage tank 21, water is supplied to the dissolution tank 10 through the water supply pipe 6 to dissolve the nano mineral crystal naturally, and then the dissolved liquid is supplied into the water storage tank 21 through the first water pipe 32. When the concentration of the liquid entering the water storage tank 21 meets the liquid supply requirement concentration range of the drain pipe 7 (the concentration is detected by the concentration detector 17 in the water storage tank 21), the liquid in the water storage tank 21 can be directly discharged through the drain pipe 7. That is, the liquid is continuously supplied to the drain pipe 7 through the above method without consuming other redundant energy and equipment. When the concentration of the liquid of the naturally dissolved nano mineral crystal cannot meet the concentration required by the drain pipe 7, the stirring mechanism 2 can be rotated to drive the liquid in the dissolution tank 10 to flow rapidly to increase the dissolution efficiency. At the same time, water can be injected into the dissolution tank 10 through the second water pipe 31 and drained through the first water pipe 32 to circulate and dissolve the water in the water storage tank 21 to increase the solubility of the water in the water storage tank 21. When the water in the water storage tank 21 reaches a certain amount (the water volume can be known through the flow meter provided on the first water pipe 32) and concentration, water is supplied to the water storage tank 21 through the water supply pipe 6 and the second branch pipe 11.

[0047] When the concentration of the liquid entering the water storage tank 21 is higher than the required liquid supply concentration range of the drain pipe 7 (the concentration is detected by the concentration detector 17 in the water storage tank 21), water is supplied into the water storage tank 21 through the water supply pipe 6, and the stirring mechanism 34 rotates to stir and mix the liquid in the liquid storage tank. The concentration detector 17 in the water storage tank 21 is used to detect the concentration. When the required liquid supply concentration range of the drain pipe 7 is reached, the liquid in the water storage tank 21 can be directly discharged through the drain pipe 7. That is, the continuous supply of liquid to the drain pipe 7 is achieved in the above manner. Each of the above functions can be controlled by the controller. The controller controls and timely adjusts the functions of each electrical component, which is the prior art and will not be described in technical details. As long as the functions required by this application can be achieved.

[0048] The present invention adopts various measures to improve the dissolution efficiency of nano mineral crystal. First, through the action of the stirring mechanism 2, the liquid in the dissolution tank continuously flows, enhancing the contact between the nano mineral crystal and water and improving the dissolution rate. At the same time, a heating mechanism is set to increase the temperature of the liquid in the dissolution tank, thereby accelerating the dissolution process and ensuring the rapidity and stability of dissolution. In addition, the nano mineral crystal is placed in the placement frame, continuously rotates under the action of the water flow, and is scraped by the scraper, gradually crushed, increasing the contact area with water, and further improving the dissolution efficiency.

[0049] Concentration detectors are respectively arranged in the dissolution tank, the adjustment tank and the water storage tank to real-time monitor the concentration of the liquid, and the water supply amount is automatically adjusted to ensure that the solution reaches the set concentration range. Through the water supply pipe and multiple branch pipes, combined with automation equipment such as solenoid valves, flow meters and water supply pumps, the liquid can be accurately dispensed to ensure the stability of the reagent concentration. The setting of the adjustment tank can fine-tune the liquid concentration, making the output liquid concentration more in line with the preset standard and improving the stability of the production process.

[0050] A circulation system of water pipe 1, water pipe 2 and water storage tank is adopted to realize the recycling of the dissolution liquid, reduce the waste of raw materials and improve the resource utilization rate. A stirring mechanism 1 is arranged in the water storage tank to ensure the uniform mixing of the solution and avoid the problem of uneven local concentration. In addition, the dissolution process combines the natural dissolution and mechanical stirring methods, meeting the dissolution requirements while reducing energy consumption, reducing additional energy consumption, and improving the environmental protection and economy of the equipment.

[0051] Adopt a sealed cover design to avoid solvent volatilization during the dissolution process, thereby reducing the loss of medicaments and preventing external pollutants from entering to ensure the purity of the solution. In addition, exhaust ports are provided at the tops of the dissolution tank, adjustment tank, and water storage tank to prevent excessive internal pressure, ensure the safety of equipment operation, avoid liquid overflow caused by excessive pressure, and improve the service life and stability of the equipment. Use remotely controllable solenoid valves, etc., which can remotely adjust the liquid flow path according to requirements, improving operation convenience and intelligent level. Combined with a flowmeter, it can accurately calculate the liquid flow rate, achieve automatic metering, improve the accuracy of the production process, and reduce human error. In addition, the system is equipped with an intelligent controller that can monitor and adjust the operating state of the equipment in real time, achieve coordinated control of each component, further improve the automation level of the equipment, reduce manual intervention, and improve production efficiency.

[0052] In the description of the present invention, it should be understood that the orientation or positional relationship indicated by terms such as "center", "longitudinal", "transverse", "length", "width", "thickness", "upper", "lower", "front", "rear", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "outer", "clockwise", "counterclockwise", etc. is based on the orientation or positional relationship shown in the drawings, and is only for the convenience of describing the present invention and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and therefore should not be construed as a limitation to the present invention.

[0053] The above are only the preferred embodiments of the present invention and are not intended to limit the present invention. For those skilled in the art, the present invention can have various changes and modifications. Any modification, equivalent replacement, improvement, etc. made within the spirit and principle of the present invention shall be included within the protection scope of the present invention.

Claims

1. A nano-mineral crystal agent concentration control box, comprising a box body, characterized in that: A cover plate is provided at the upper end of the box body. A dissolution tank is provided on the left side inside the box body to dissolve the nano mineral crystal. A liquid storage tank is provided on the right side inside the box body to store and dilute the liquid dissolved by the dissolution tank. A stirring mechanism I is provided inside the liquid storage tank to stir and mix the liquid inside the liquid storage tank.

2. The concentration control box for nano-mineral crystal agent according to claim 1, characterized in that: A nano mineral crystal placement mechanism is provided inside the dissolution tank. A stirring mechanism II is provided below the nano mineral crystal placement mechanism to stir the liquid inside the dissolution tank and increase the fluidity of the liquid to improve the dissolution efficiency of the nano mineral crystal.

3. The concentration control box for nano-mineral crystal agent according to claim 1, wherein: A heating mechanism is provided inside the dissolution tank to heat the liquid inside the dissolution tank.

4. The concentration control box for a nano-mineral crystal medicament according to claim 1, wherein: A sealing cover is provided at the upper end of the dissolution tank. The sealing cover is detachably located at the upper end of the dissolution tank. The upper end of the sealing cover penetrates through the cover plate in a vertically movable manner.

5. The concentration control box for nano-mineral crystal medicament according to claim 2, characterized in that: The nano mineral crystal placement mechanism includes a support frame. A placement frame is rotatably provided at the upper end of the support frame. The nano mineral crystal is placed inside the placement frame. The perimeter and bottom of the placement frame are of a mesh structure. The lower part of the support frame is of a support leg structure, and the upper part of the support frame is of a mesh structure.

6. The concentration control box for nano-mineral crystal medicament according to claim 5, wherein: The placement frame is of a cylindrical structure. The upper end of the placement frame is open. A plurality of longitudinal strip-shaped grooves are evenly formed on the side surface of the placement frame. A water guide strip is longitudinally provided on the outer side surface of the placement frame on the side of the longitudinal strip-shaped groove, and the water guide strip is inclined towards the longitudinal strip-shaped groove.

7. The concentration control box for nano-mineral crystal agent according to claim 6, characterized in that: A limiting protrusion is provided at the inner bottom of the placement frame, and the upper end of the limiting protrusion is of a conical structure.

8. The concentration control box for nano-mineral crystal agent according to claim 7, wherein: A limiting plate is movably provided up and down inside the placement frame, and the outer side surface of the limiting plate fits with the inner side surface of the placement frame. The limiting plate is of a mesh structure.

9. The concentration control box for nano-mineral crystal agent according to claim 8, characterized in that: Two scraping plates are provided on the lower surface of the limiting plate. The two scraping plates are cross-distributed, and the scraping plates are of a serrated structure.

10. The concentration control box for a nano-mineral crystal agent according to claim 9, characterized in that: A lifting rod is connected to the limiting plate. The upper end of the lifting rod penetrates through the sealing plate in a vertically movable manner, and the lifting rod can move up and down.

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