Chemical reagent purification device and purification method
By designing a fully automatic chemical reagent purification device, the health risks and efficiency limitations brought about by manual operations during the traditional purification process are solved, and efficient, safe and consistent purification effects are achieved.
Patent Information
- Application Number
- CN202411946492.3
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2024-12-27
- Publication Date
- 2025-03-14
AI Technical Summary
The purification process of chemical reagents in traditional chemical laboratories requires manual operation, which poses health risks, is time-consuming and prone to human errors, and lacks automation equipment, which limits work efficiency and production capacity.
A fully automatic chemical reagent purification device is designed, including frame assembly, liquid bottle holder assembly, electromagnetic control assembly, purification assembly and finished product collection assembly, which can automatically complete the entire purification process from liquid addition, mixing to separation and collection, and ensure the purification state through real-time monitoring.
It realizes automatic purification throughout the process, reduces the health risks of artificial contact with chemicals, improves production efficiency, ensures consistency and safety of purification effects, and supports multi-station collection, which improves output per unit time.
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Figure CN119607619A_ABST
Abstract
Description
Technical Field
[0001] The invention relates to the technical field of chemical laboratory purification, and in particular to a chemical reagent purification device and a purification method. Background Art
[0002] In traditional chemical laboratories, dyes are usually purified by water extraction to remove the acidic substances. This process is currently mainly completed by manual operation in China. The specific steps include:
[0003] Workers pour the product to be purified into a pear-shaped funnel.
[0004] Add water in batches and seal the pear-shaped bottle with a stopper.
[0005] The pear-shaped funnel is shaken vigorously manually to allow the product to fully react with water for extraction and purification.
[0006] Once the product and water have separated, workers need to drain the wastewater.
[0007] This process may need to be repeated several times until a high-purity product is obtained.
[0008] While this approach is simple and intuitive, it has some significant problems:
[0009] Since the chemical reagents involved are acidic and volatile, workers may be exposed to these chemicals during operation, posing a threat to their health.
[0010] Manual operation is not only time-consuming, but also prone to human errors, which can affect the effectiveness and consistency of purification.
[0011] There is no dedicated automated equipment for dye purification, which limits the laboratory's work efficiency and production capacity. Summary of the invention
[0012] The present invention provides a chemical reagent purification device and purification method, the purpose of which is to provide a solution that does not require human participation throughout the process, is safe and hygienic, simple to operate, and has high work efficiency. The device can automatically complete the entire purification process from adding liquid, mixing to separation and collecting finished products, and ensure the purification state through real-time monitoring, greatly improving the safety and efficiency of chemical reagent purification.
[0013] To achieve the above object, the technical solution of the present invention is:
[0014] A chemical reagent purification device comprises: a frame component, a raw liquid bottle rack component, an electromagnetic control component, a purification component and a finished product collection component;
[0015] The raw liquid bottle rack assembly, electromagnetic control assembly, purification assembly and finished product collection assembly are installed inside the frame assembly;
[0016] The raw liquid bottle rack assembly is used to hold raw liquids of different products;
[0017] An electromagnetic control component is connected to the stock solution bottle rack component, the water bucket, the cleaning agent bucket and the purification component, and is used to control the stock solution, water and cleaning agent in the stock solution bottle rack component to enter the purification component;
[0018] The purification component is used to purify the raw liquid;
[0019] The finished product collection component is used to collect the purified product.
[0020] Furthermore, the framework assembly includes:
[0021] The frame body is used to support the entire device;
[0022] At least one PTFE door assembly, fixed to the frame body by bolted hinges, so as to facilitate the staff to operate and observe the internal conditions of the equipment;
[0023] Logo plates, for company labels;
[0024] A display assembly, used to place a display and its input devices so that workers can monitor the visual inspection status;
[0025] The lower door panel assembly, top panel, PTFE side panel, lower side panel and bottom panel, these components together play the role of dust and light shielding, the middle partition is used to install other components, and the cleaning agent bucket and water bucket are stored above the middle partition;
[0026] The frame body is made of stainless steel to ensure the operation stability and corrosion resistance of the equipment.
[0027] Furthermore, the stock solution bottle rack assembly comprises:
[0028] A bottle assembly, including a product bottle, for containing the original solution;
[0029] Bottle rack assembly, used to place product bottles of different specifications;
[0030] A filter, connected to the bottle assembly through a pipeline, for filtering impurities in the product;
[0031] The one-way valve prevents liquid backflow and protects the normal operation of the solenoid valve.
[0032] Furthermore, the electromagnetic control assembly includes a polytetrafluoroethylene exhaust valve assembly, a three-way electromagnetic valve, a gear pump, an electromagnetic flowmeter, and a cleaning agent bucket and a water bucket;
[0033] The PTFE exhaust valve assembly includes a plurality of solenoid valves, a water valve and a cleaning agent valve, each solenoid valve controls the on-off of a pipeline connecting a stock liquid bottle;
[0034] The three-way solenoid valve includes a first three-way solenoid valve, a second three-way solenoid valve, a third three-way solenoid valve and a fourth three-way solenoid valve, which are used to control switches of different pipelines;
[0035] The gear pump includes a first gear pump and a second gear pump, which extracts the gas in the pipeline to form a negative pressure state in the pipeline, thereby sucking the original liquid, water or cleaning agent;
[0036] The electromagnetic flowmeter includes a first flowmeter and a second flowmeter, which are used to count the flow of the raw liquid, water or cleaning agent;
[0037] The stock solution bottle rack assembly is connected in series with a PTFE exhaust valve assembly, a first three-way solenoid valve, a first gear pump, a first flow meter, a second three-way solenoid valve and a funnel in sequence through a pipeline;
[0038] The cleaning agent barrel is connected in series with a PTFE exhaust valve assembly, a first three-way solenoid valve, a first gear pump, a first flow meter, a second three-way solenoid valve and a funnel in sequence through a pipeline;
[0039] The bucket is connected in series with a PTFE exhaust valve assembly, a first three-way solenoid valve, a first gear pump, a first flow meter, a second three-way solenoid valve and a funnel through a pipeline;
[0040] The cleaning agent barrel is connected in series in sequence through a pipeline to a third three-way solenoid valve, a second gear pump, a second flow meter, a fourth three-way solenoid valve and a funnel;
[0041] The water bucket is connected in series in sequence through a pipeline to a third three-way solenoid valve, a second gear pump, a second flow meter, a fourth three-way solenoid valve and a funnel.
[0042] Further, the purification component includes:
[0043] Funnel assembly, used for extraction of product;
[0044] A funnel support assembly, used to support and fix the funnel assembly;
[0045] Lifting electric stirring assembly promotes rapid mixing of solutions;
[0046] Surface light components provide uniform light source for visual components and reduce ambient light interference;
[0047] Vision components, including industrial cameras, are used to capture high-resolution images and enable real-time monitoring of the purification process.
[0048] Furthermore,
[0049] The funnel assembly includes a pear-shaped funnel, a nozzle and an outlet solenoid valve;
[0050] The upper part of the funnel is provided with inlet one for the entry of raw liquid, water and cleaning agent, inlet two for installing a nozzle and inlet three for stirring; the nozzle of inlet two is used for the entry of water and cleaning agent; the lower part of the funnel is provided with a liquid outlet, and an outlet solenoid valve is provided at the liquid outlet; the inlet one, inlet two and inlet three protrude from the outer surface of the funnel.
[0051] Furthermore, the lifting electric stirring assembly includes a first motor, a second motor, a transmission belt, a screw, a lifting frame and a stirring rod;
[0052] The first motor is fixedly mounted on the bracket of the frame assembly, and the screw is rotatably mounted on the bracket. The first motor drives the screw to rotate through a transmission belt. The lifting frame is provided with an internal thread matching the screw. The rotation of the screw drives the lifting frame to move up and down. The lifting frame is installed with a second motor. A stirring rod is arranged on the rotating shaft of the second motor. The stirring rod is inserted into the funnel from inlet three, and a stirring blade is arranged at the end of the stirring rod.
[0053] Further, the funnel support assembly includes a support rod, an upper fixing member, a middle fixing member and a lower fixing member;
[0054] The support rod is longitudinally fixed on the frame assembly; one end of the upper fixing piece is fixed to the upper part of the support rod, and the other end grasps the outer side surface of the inlet three through a clamp to fix the upper part of the funnel; the middle fixing piece supports the funnel through an annular rod; the lower fixing piece fixes the lower part of the funnel through a connecting rod.
[0055] Furthermore, the finished product collection assembly includes:
[0056] Collection bottle, used to store the extracted product;
[0057] The turntable assembly can hold multiple collection bottles and support multi-station product collection;
[0058] A waste water pipe is arranged on the rotating disk and is used to collect waste water and waste materials to prevent the waste water and waste materials from splashing out;
[0059] The wastewater connector is arranged below the rotating disk. When the wastewater pipe rotates to the top of the wastewater connector, the wastewater and waste materials flowing down from the wastewater pipe can be caught to help discharge the wastewater and waste materials into the wastewater bucket. The wastewater connector is connected to the fifth three-way solenoid valve and the wastewater bucket through a pipeline.
[0060] The fifth three-way solenoid valve allows switching to the spare wastewater tank when the wastewater tank is full;
[0061] Wastewater bucket, used to hold discharged wastewater.
[0062] A purification method, based on the purification device, comprising:
[0063] Step 1. Place product bottles of different specifications on the stock solution bottle rack assembly, and ensure that each bottle is filled with the corresponding stock solution; check whether there is enough liquid in the detergent bucket and water bucket;
[0064] Step 2: After the equipment is turned on, it is necessary to reset the equipment. The waste water pipe on the turntable assembly rotates to the bottom of the funnel assembly driven by the motor. The equipment reaches the initial position and the startup conditions are met.
[0065] Step 3: According to the stock liquid to be processed, open the corresponding solenoid valve, the first three-way solenoid valve, the first gear pump and the second three-way solenoid valve in the PTFE exhaust valve assembly, and open the outlet solenoid valve and the fifth three-way solenoid valve under the funnel at the same time. After the quantitative stock liquid enters the funnel, it is directly discharged into the waste water bucket through the waste water pipe;
[0066] Step 4: Open the corresponding solenoid valve, the first three-way solenoid valve, the first gear pump and the second three-way solenoid valve in the PTFE exhaust valve assembly again, close the outlet solenoid valve under the funnel, transfer the stock liquid into the funnel, and then open the corresponding solenoid valve, the third three-way solenoid valve, the second gear pump and the fourth three-way solenoid valve in the PTFE exhaust valve assembly of the bucket to transfer water into the funnel;
[0067] Step 5: The lifting electric stirring assembly works, the first motor drives the screw to rotate, the stirring rod descends, the stirring rod penetrates into the funnel, and the second motor rotates to stir the stock solution and water in the funnel;
[0068] Step 6. After stirring for a certain period of time, the second motor stops working, and the first motor drives the screw to move upward until it completely leaves the liquid surface. The camera on the visual component starts to take pictures at the set frequency. After the solution has been standing for a period of time, the liquid in the funnel is layered, with water in the lower layer and the liquid after washing in the upper layer. The camera sends a separation completion signal to the PLC signal receiving end. After receiving the completion signal, the PLC controls the outlet solenoid valve to open and discharge the water out of the funnel first. The visual component continues to take pictures to identify whether the water in the lower layer is drained clean. The water is collected in the waste water bucket below the rotating disk; after the water is drained clean, the outlet solenoid valve is closed, the rotating disk rotates, and the collection bottle rotates to the bottom of the liquid outlet of the funnel. The outlet solenoid valve is opened to collect the liquid after washing into the collection bottle, and then the outlet solenoid valve is closed;
[0069] Step 7: Use the cleaning agent to clean the upper stock liquid pipeline, open the cleaning valve, the first three-way solenoid valve, the first gear pump and the second three-way solenoid valve corresponding to the cleaning agent, close the outlet solenoid valve, and deliver the cleaning agent into the funnel. After a certain amount, close the first three-way solenoid valve, the first gear pump and the second three-way solenoid valve corresponding to the cleaning agent, open the outlet solenoid valve, and discharge the cleaning agent liquid into the waste water bucket;
[0070] Step 8: Use water to clean the upper stock liquid pipeline. Open the water valve, the first three-way solenoid valve, the first gear pump and the second three-way solenoid valve corresponding to the water, close the outlet solenoid valve, and deliver the water to the funnel. After a certain amount of water is delivered, close the first three-way solenoid valve, the first gear pump and the second three-way solenoid valve corresponding to the cleaning agent, open the outlet solenoid valve, and discharge the water into the waste water bucket.
[0071] Step 9: Clean the funnel with cleaning agent, open the third three-way solenoid valve, the second gear pump and the fourth three-way solenoid valve corresponding to the cleaning agent, close the outlet solenoid valve, and deliver the cleaning agent into the funnel. After a certain amount, close the third three-way solenoid valve, the second gear pump and the fourth three-way solenoid valve corresponding to the cleaning agent, open the outlet solenoid valve, and discharge the cleaning agent liquid into the waste water bucket;
[0072] Step 10, clean the funnel with water, open the third three-way solenoid valve, the second gear pump and the fourth three-way solenoid valve corresponding to water, close the outlet solenoid valve, and transport water into the funnel. After a certain amount, close the third three-way solenoid valve, the second gear pump and the fourth three-way solenoid valve corresponding to the cleaning agent, and open the outlet solenoid valve; discharge the water into the waste water bucket.
[0073] The beneficial effects achieved by the present invention are:
[0074] A chemical reagent purification device and purification method. The traditional purification process requires workers to frequently contact acidic and volatile chemical reagents, which poses health risks. The present invention completely avoids direct manual contact with chemicals through a fully automated design, greatly reducing the health threat to operators.
[0075] A chemical reagent purification device and purification method, from raw liquid transportation, mixing to separation and finished product collection, the entire purification process is automatically completed by an electromagnetic control component, a lifting electric stirring component and a finished product collection component, without manual intervention, greatly improving production efficiency.
[0076] A chemical reagent purification device and purification method, wherein two sets of funnel components are provided, and a turntable component in a finished product collection component supports multi-station collection, can process multiple batches of products at the same time, reduces waiting time, and improves output per unit time.
[0077] A chemical reagent purification device and purification method, wherein a visual component can capture high-resolution images and monitor the solution color, transparency and other characteristics in the purification process in real time to ensure that the purification effect reaches the expected result.
[0078] A chemical reagent purification device and purification method, the design of the wastewater pipe and wastewater joint ensures that wastewater and waste materials can be discharged into the wastewater bucket in a centralized manner, avoiding environmental pollution caused by random discharge of wastewater. When the wastewater bucket is full, the three-way solenoid valve will automatically switch to the spare wastewater bucket to ensure the continuous operation of the wastewater treatment system. BRIEF DESCRIPTION OF THE DRAWINGS
[0079] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings required for use in the embodiments or the description of the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on the structures shown in these drawings without paying creative work.
[0080] Figure 1 The overall structure of a fully automatic visual inspection device for real-time monitoring of chemical reagent purification status is shown in Figure 1. Figure 1 .
[0081] Figure 2 This is a schematic diagram of the pipeline connection of a fully automatic visual inspection device for real-time monitoring of the purification status of chemical reagents.
[0082] Figure 3 The overall structure of a fully automatic visual inspection device for real-time monitoring of chemical reagent purification status is shown in Figure 1. Figure 2 .
[0083] Figure 4 Schematic diagram of the framework component structure of a fully automatic visual inspection device for real-time monitoring of chemical reagent purification status Figure 3 .
[0084] Figure 5 Schematic diagram of the framework component structure of a fully automatic visual inspection device for real-time monitoring of chemical reagent purification status Figure 4 .
[0085] Figure 6 The present invention is a schematic diagram of the structure of a raw liquid bottle rack assembly of a fully automatic visual inspection device for real-time monitoring of the purification status of chemical reagents.
[0086] Figure 7 An electromagnetic control component structure for a fully automatic visual inspection device used for real-time monitoring of chemical reagent purification status Figure 1 .
[0087] Figure 8 An electromagnetic control component structure for a fully automatic visual inspection device used for real-time monitoring of chemical reagent purification status Figure 2 .
[0088] Fig. 9 The figure is a structural diagram of a purification component of a fully automatic visual inspection device for real-time monitoring of the purification status of chemical reagents.
[0089] Fig.10 This is a structural diagram of a finished product collection component of a fully automatic visual inspection device for real-time monitoring of the purification status of chemical reagents.
[0090] Fig.11 The present invention is a structural diagram of a lifting electric stirring assembly of a fully automatic visual inspection device for real-time monitoring of the purification status of chemical reagents.
[0091] In the figure: 1, frame assembly; 101, frame body; 102, first PTFE door assembly; 103, identification plate; 104, display assembly; 105, lower door panel assembly; 106, second PTFE door assembly; 107, top plate; 108, PTFE side plate; 109, lower side plate; 110, middle partition plate; 111, bottom plate; 112, third PTFE door assembly;
[0092] 2. Liquid bottle rack assembly; 201. Bottle rack assembly; 202. Bottle assembly; 203. Filter; 204. Check valve; 3. Solenoid control assembly; 31. PTFE exhaust valve assembly; 32. Three-way solenoid valve; 321. First three-way solenoid valve; 322. Second three-way solenoid valve; 323. Third three-way solenoid valve; 324. Fourth three-way solenoid valve; 33. Gear pump; 331. First gear pump; 332. Second gear pump; 34. Electromagnetic flowmeter; 341. First flowmeter; 342. Second flowmeter; 35. Cleaning agent bucket; 36. Water bucket;
[0093] 4. Purification component; 41. Funnel component; 412. Funnel; 4121. Inlet 1; 4122. Inlet 2; 4123. Inlet 3; 4124. Liquid outlet; 413. Nozzle; 414. Outlet solenoid valve; 42. Funnel support component; 421. Support rod; 422. Upper fixing piece; 423. Middle fixing piece; 424. Lower fixing piece; 43. Lifting electric stirring component; 431. First motor; 432. Second motor; 433. Transmission belt; 434. Screw; 435. Lifting frame; 436. Stirring rod;
[0094] 44. Surface lighting components; 45. Visual components; 451. Industrial cameras;
[0095] 5. Finished product collection assembly; 501. Turntable assembly; 502. Waste water pipe; 503. Collection bottle; 504. Waste water connector; 505. Fifth three-way solenoid valve; 506. Waste water bucket.
[0096] The realization of the purpose, functional features and advantages of the present invention will be further explained in conjunction with embodiments and with reference to the accompanying drawings. DETAILED DESCRIPTION
[0097] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.
[0098] It should be noted that if the embodiments of the present invention involve directional indications (such as up, down, left, right, front, back...), the directional indications are only used to explain the relative position relationship, movement status, etc. between the components under a certain specific posture (as shown in the accompanying drawings). If the specific posture changes, the directional indication will also change accordingly.
[0099] In addition, if there are descriptions involving "first", "second", etc. in the embodiments of the present invention, the descriptions of "first", "second", etc. are only used for descriptive purposes and cannot be understood as indicating or implying their relative importance or implicitly indicating the number of technical features indicated. Therefore, the features defined as "first" and "second" may explicitly or implicitly include at least one of the features. In addition, if the meaning of "and / or" appearing in the full text is to include three parallel solutions, taking "A and / or B" as an example, it includes solution A, or solution B, or a solution that satisfies both A and B. In addition, the technical solutions between the various embodiments can be combined with each other, but it must be based on the ability of ordinary technicians in the field to implement. When the combination of technical solutions is contradictory or cannot be implemented, it should be deemed that such a combination of technical solutions does not exist and is not within the scope of protection required by the present invention.
[0100] like Figures 1 to 11 As shown, a chemical reagent purification device includes: a frame component 1, a raw liquid bottle rack component 2, an electromagnetic control component 3, a purification component 4 and a finished product collection component 5;
[0101] The raw liquid bottle rack assembly 2, the electromagnetic control assembly 3, the purification assembly 4 and the finished product collection assembly 5 are installed inside the frame assembly 1; the frame assembly 1 is used as the supporting structure of the entire device to ensure the stable installation of all internal components.
[0102] The frame assembly 1 comprises:
[0103] The frame body 101 is used to support the entire device;
[0104] At least one PTFE door assembly, the PTFE door assembly includes a first PTFE door assembly 102, a second PTFE door assembly 106 and a third PTFE door assembly 112, which are fixed to the frame body 101 by bolted hinges, so as to facilitate the staff to operate and observe the internal conditions of the equipment, while protecting the internal components from external interference.
[0105] The identification plate 103 is used to attach a company label to improve recognition.
[0106] The display assembly 104 is used to place a display and an input device thereon so that the staff can monitor the visual inspection status.
[0107] The lower door panel assembly 105, the top panel 107, the PTFE side panel 108, the lower side panel 109 and the bottom panel 111, these components together play the role of dust and light protection, the middle partition 110 is used to install other components, and the cleaning agent bucket 35 and the water bucket 36 are stored above the middle partition 110.
[0108] The frame body 101 is made of stainless steel to ensure the operation stability and corrosion resistance of the equipment.
[0109] The raw liquid bottle rack assembly 2 is used to hold raw liquids of different products.
[0110] The stock solution bottle rack assembly 2 comprises:
[0111] The bottle assembly 202 includes a plurality of product bottles for containing raw liquid.
[0112] The bottle rack assembly 201 is used to place product bottles of different specifications and provide a stable placement platform for product bottles of various specifications.
[0113] The filter 203 is connected to the bottle assembly 202 through a pipeline to filter impurities in the product; it is connected to the bottle assembly 202 to filter possible impurities to prevent the pipeline from being blocked and affecting the switch of the solenoid valve.
[0114] The one-way valve 204 prevents the liquid from flowing back, ensures that the liquid in the system can only flow in one direction, and protects the normal operation of the solenoid valve.
[0115] The electromagnetic control component 3 is connected to the raw liquid bottle rack component 2, the water bucket 36, the cleaning agent bucket 35 and the purification component 4, and is used to control the raw liquid, water and cleaning agent in the raw liquid bottle rack component 2 to enter the purification component 4.
[0116] The electromagnetic control assembly 3 includes a PTFE exhaust valve assembly 31 , a three-way electromagnetic valve 32 , a gear pump 33 , an electromagnetic flowmeter 34 , a cleaning agent bucket 35 and a water bucket 36 .
[0117] The PTFE exhaust valve assembly 31 includes a plurality of solenoid valves, a water valve and a cleaning agent valve. Each solenoid valve controls the on-off of a pipeline connecting a stock liquid bottle to achieve selective input of different stock liquids.
[0118] The three-way solenoid valve 32 includes a first three-way solenoid valve 321, a second three-way solenoid valve 322, a third three-way solenoid valve 323 and a fourth three-way solenoid valve 324, which are used to control the switches of different pipelines. The three-way solenoid valve 32 is used to control the path switching of different liquids (stock liquid, water, cleaning agent) entering the funnel 412.
[0119] The gear pump 33 assembly includes a first gear pump 331 and a second gear pump 332, which extract the gas in the pipeline to form a negative pressure state in the pipeline, thereby absorbing the original liquid, water or cleaning agent.
[0120] The electromagnetic flowmeter 34 includes a first flowmeter 341 and a second flowmeter 342, which are used to count the flow of the raw liquid, water or cleaning agent.
[0121] The stock solution bottle rack assembly 2 is connected in series with the PTFE exhaust valve assembly 31 , the first three-way solenoid valve 321 , the first gear pump 331 , the first flow meter 341 , the second three-way solenoid valve 322 and the funnel 412 in sequence through a pipeline.
[0122] The cleaning agent barrel 35 is connected in series with the PTFE exhaust valve assembly 31 , the first three-way solenoid valve 321 , the first gear pump 331 , the first flow meter 341 , the second three-way solenoid valve 322 and the funnel 412 in sequence through a pipeline.
[0123] The water bucket 36 is connected in series with the PTFE exhaust valve assembly 31 , the first three-way solenoid valve 321 , the first gear pump 331 , the first flow meter 341 , the second three-way solenoid valve 322 and the funnel 412 in sequence through a pipeline.
[0124] The cleaning agent barrel 35 is connected in series with the third three-way solenoid valve 323, the second gear pump 332, the second flow meter 342, the fourth three-way solenoid valve 324 and the funnel 412 in sequence through a pipeline.
[0125] The water bucket 36 is connected in series with the third three-way solenoid valve 323, the second gear pump 332, the second flow meter 342, the fourth three-way solenoid valve 324 and the funnel 412 in sequence through a pipeline.
[0126] The purification component 4 is used to purify the raw liquid.
[0127] The purification component 4 comprises:
[0128] The funnel assembly 41 is used for extracting the product and is composed of a pear-shaped funnel 412, which is used in the extraction process of the product. The pear-shaped design helps the liquid to be layered and is convenient for separating the target substance.
[0129] The funnel support assembly 42 supports and fixes the funnel assembly 41 to ensure that it remains stable during operation.
[0130] The lifting electric stirring assembly 43 promotes rapid mixing of the solution.
[0131] The surface light component 44 provides a uniform light source for the visual component 45 to reduce the interference of ambient light and ensure the image quality.
[0132] The visual component 45 includes an industrial camera 451, which is used to take high-resolution images to achieve real-time monitoring of the purification process. The industrial camera 451 takes high-resolution images to ensure the purification effect.
[0133] The funnel assembly 41 includes a pear-shaped funnel 412 , a nozzle 413 and an outlet solenoid valve 414 .
[0134] The upper part of the funnel 412 is provided with an inlet 1 4121 for the original liquid, water and cleaning agent to enter, an inlet 2 4122 for installing a nozzle 413 and an inlet 3 4123 for stirring; the nozzle 413 of the inlet 2 4122 is used for the entry of water and cleaning agent; the lower part of the funnel 412 is provided with a liquid outlet 4124, and an outlet solenoid valve 414 is provided at the liquid outlet 4124; the inlet 1 4121, the inlet 2 4122 and the inlet 3 4123 protrude from the outer surface of the funnel 412.
[0135] The lifting electric stirring assembly 43 includes a first motor 431, a second motor 432, a transmission belt 433, a screw rod 434, a lifting frame 435 and a stirring rod 436.
[0136] The first motor 431 is fixedly mounted on the bracket of the frame assembly 1, and the screw 434 is rotatably mounted on the bracket. The first motor 431 drives the screw 434 to rotate through the transmission belt 433. The lifting frame 435 is provided with an internal thread that cooperates with the screw 434. The rotation of the screw 434 drives the lifting frame 435 to move up and down. The lifting frame is installed with a second motor 432. A stirring rod 436 is arranged on the rotating shaft of the second motor 432. The stirring rod 436 is inserted into the funnel 412 from the inlet three 4123, and a stirring blade is arranged at the end of the stirring rod 436.
[0137] The funnel support assembly 42 includes a support rod 421, an upper fixing member 422, a middle fixing member 423 and a lower fixing member 424.
[0138] The support rod 421 is longitudinally fixed on the frame assembly 1; one end of the upper fixing piece 422 is fixed to the upper part of the support rod 421, and the other end grasps the outer side surface of the inlet three 4123 through a clamp to fix the upper part of the funnel 412; the middle fixing piece 423 supports the funnel 412 through an annular rod; the lower fixing piece 424 fixes the lower part of the funnel 412 through a connecting rod.
[0139] The finished product collecting component 5 is used to collect the purified product.
[0140] The finished product collection assembly 5 comprises:
[0141] The collecting bottle 503 is used to store the extracted product.
[0142] The turntable assembly 501 includes a rotating disk and a turntable motor. The turntable motor is arranged below the rotating disk to drive the rotating disk to rotate. Multiple collecting bottles 503 can be placed on the rotating disk to support multi-station product collection.
[0143] The waste water pipe 502 is arranged on the rotating disk and is used to collect waste water and waste materials to prevent the waste water and waste materials from splashing out.
[0144] The wastewater connector 504 is arranged below the rotating disk. When the wastewater pipe 502 rotates to the top of the wastewater connector 504, the wastewater and waste materials flowing down from the wastewater pipe 502 can be caught, and the wastewater and waste materials can be discharged into the wastewater bucket 506. The wastewater connector 504 is connected to the fifth three-way solenoid valve 505 and the wastewater bucket 506 through a pipeline.
[0145] The fifth three-way solenoid valve 505 allows switching to the spare wastewater bucket 506 when the wastewater bucket 506 is full; it automatically switches to the spare wastewater bucket 506 when the wastewater bucket 506 is full, ensuring the continuous operation of the wastewater treatment system.
[0146] The waste water bucket 506 is used to hold the discharged waste water.
[0147] A purification method, based on a purification device, comprising:
[0148] Step 1: Place product bottles of different specifications on the stock solution bottle rack assembly 2, and ensure that each bottle is filled with the corresponding stock solution; check whether the liquid in the cleaning agent bucket 35 and the water bucket 36 is sufficient.
[0149] Step 2: After the device is turned on, it is necessary to reset the device. The waste water pipe 502 on the turntable assembly 501 rotates to the bottom of the funnel assembly 41 under the drive of the motor. The device reaches the initial position and the startup conditions are met.
[0150] Step 3: According to the stock liquid to be processed, open the corresponding solenoid valve, the first three-way solenoid valve 321, the first gear pump 331 and the second three-way solenoid valve 322 in the PTFE exhaust valve assembly 31, and open the outlet solenoid valve 414 and the fifth three-way solenoid valve 505 below the funnel 412 at the same time. After the quantitative stock liquid enters the funnel 412, it is directly discharged into the waste water bucket 36 through the waste water pipe 502; the purpose of step 3 is to use the stock liquid to clean the residual liquid in the pipeline.
[0151] Step 4: Open the corresponding solenoid valve, the first three-way solenoid valve 321, the first gear pump 331 and the second three-way solenoid valve 322 in the PTFE exhaust valve assembly 31 again, close the outlet solenoid valve 414 below the funnel 412, and transfer the raw liquid into the funnel 412; then open the corresponding solenoid valve, the third three-way solenoid valve 323, the second gear pump 332 and the fourth three-way solenoid valve 324 in the PTFE exhaust valve assembly 31 of the water bucket 36 to transfer water into the funnel 412.
[0152] Step 5: The lifting electric stirring assembly 43 works, the first motor 431 drives the screw 434 to rotate, the stirring rod 436 descends, the stirring rod 436 penetrates into the funnel 412, and the second motor 432 rotates to stir the original liquid and water in the funnel 412.
[0153] Step 6. After stirring for a certain period of time, the second motor 432 stops working, and the first motor 431 drives the screw 434 to move upward until it completely leaves the liquid surface. The camera on the visual component 45 starts to take pictures at a set frequency. After the solution has been standing for a period of time, the liquid in the funnel 412 is layered, with water in the lower layer and the liquid after washing in the upper layer. The camera sends a separation completion signal to the PLC signal receiving end. After receiving the completion signal, the PLC controls the outlet solenoid valve 414 to open and discharge the water from the funnel 412 first. The visual component 45 continues to take pictures to identify whether the water in the lower layer is drained clean. The water is collected in the waste water bucket 36 below the rotating disk; after the water is drained clean, the outlet solenoid valve 414 is closed, the rotating disk rotates, the collecting bottle 503 rotates to below the liquid outlet 4124 of the funnel 412, the outlet solenoid valve 414 is opened, the liquid after washing is collected in the collecting bottle 503, and then the outlet solenoid valve 414 is closed.
[0154] Step 7, cleaning the pipeline: the cleaning agent cleans the upper stock liquid pipeline, opens the cleaning valve, the first three-way solenoid valve 321, the first gear pump 331 and the second three-way solenoid valve 322 corresponding to the cleaning agent, closes the outlet solenoid valve 414, and delivers the cleaning agent to the funnel 412. After a certain amount, close the first three-way solenoid valve 321, the first gear pump 331 and the second three-way solenoid valve 322 corresponding to the cleaning agent, open the outlet solenoid valve 414, and discharge the cleaning agent liquid into the waste water bucket 36;
[0155] Step 8, perform secondary water cleaning on the pipeline: clean the upper stock liquid pipeline with water, open the water valve corresponding to the water, the first three-way solenoid valve 321, the first gear pump 331 and the second three-way solenoid valve 322, close the outlet solenoid valve 414, and transport the water into the funnel 412. After a certain amount of water is transported, close the first three-way solenoid valve 321, the first gear pump 331 and the second three-way solenoid valve 322 corresponding to the cleaning agent, open the outlet solenoid valve 414, and discharge the water into the waste water bucket 36;
[0156] Step 9, the cleaning agent is used to clean the funnel 412, the third three-way solenoid valve 323, the second gear pump 332 and the fourth three-way solenoid valve 324 corresponding to the cleaning agent are opened, the outlet solenoid valve 414 is closed, and the cleaning agent is transported into the funnel 412. After a certain amount, the third three-way solenoid valve 323, the second gear pump 332 and the fourth three-way solenoid valve 324 corresponding to the cleaning agent are closed, the outlet solenoid valve 414 is opened, and the cleaning agent liquid is discharged into the waste water bucket 36; the cleaning agent enters the funnel 412 through the nozzle 413 at the second inlet 4122 of the funnel 412, and the entire inner wall of the funnel 412 can be cleaned.
[0157] Step 10, clean the funnel 412 with water, open the third three-way solenoid valve 323, the second gear pump 332 and the fourth three-way solenoid valve 324 corresponding to the water, close the outlet solenoid valve 414, and deliver water to the funnel 412. After a certain amount, close the third three-way solenoid valve 323, the second gear pump 332 and the fourth three-way solenoid valve 324 corresponding to the cleaning agent, and open the outlet solenoid valve 414; discharge the water into the waste water bucket 36; the water enters the funnel 412 through the nozzle 413 of the second inlet 4122 of the funnel 412, and the inner wall of the entire funnel 412 can be cleaned with water.
[0158] Working process: When working, the staff first presses the power button. After the user turns on the machine, the equipment needs to be reset. The staff presses the reset button, and the waste water pipe 502 on the rotating disk rotates to the bottom of the funnel assembly 41 driven by the motor. After the equipment reaches the initial position and meets the starting conditions, the staff places the products No. 1-14 to be tested on the bottle rack assembly 201, presses the start button, and the No. 1 solenoid valve on the PTFE exhaust valve assembly 31 opens (the rest are closed), and the motor on the first gear pump 331 starts. Under the action of the gear pump 33, the liquid in the No. 1 stock bottle passes through the filter 203, the one-way valve 204, the PTFE exhaust valve assembly 31, the first three-way solenoid valve 321, the first gear pump 331, the first electromagnetic flowmeter 34 and the second three-way solenoid valve 322 in sequence, and is drawn into the pear-shaped funnel in the funnel assembly 41. When the liquid reaches the specified capacity, the motor on the first gear pump 331 stops working, the No. 1 solenoid valve is closed, and the outlet solenoid valve 414 on the funnel assembly 41 is opened. The liquid in the pear-shaped funnel 412 is discharged into the waste water bucket 506 through the waste water pipe 502, the waste water joint 504 and the fifth three-way solenoid valve 505 in sequence under the action of gravity. The purpose of this step is to clean the residual liquid in the pipeline with the stock liquid. After the pipeline cleaning process is completed, the outlet solenoid valve 414 on the funnel assembly 41 is closed, the No. 1 solenoid valve is opened, and the motor on the first gear pump 331 is restarted. The liquid in the No. 1 stock liquid bottle is all pumped into the pear-shaped funnel in the funnel assembly 41, the No. 1 solenoid valve in the PTFE exhaust valve assembly 31 is closed, and the water valve on the PTFE exhaust valve assembly 31 is opened. Under the action of the gear pump 33, the water in the bucket 36 passes through the PTFE exhaust valve assembly 31, the third three-way solenoid valve 323, and the second gear pump 332 in sequence along the pipeline. , the second electromagnetic flowmeter 34, the fourth three-way electromagnetic valve 324 are drawn into the pear-shaped funnel in the funnel assembly 41. When the liquid reaches the specified capacity, the water valve on the PTFE exhaust valve assembly 31 is closed, the motor on the second gear pump 332 stops working, and the motor on the lifting electric stirring assembly 43 starts working. The stirring rod starts stirring driven by the motor. The purpose of stirring is to accelerate the extraction process of the product raw liquid and water. After the set time is reached, the motor stops, and the control first motor 431 (lifting motor) on the lifting electric stirring assembly 43 starts to start, and the stirring rod 436 rises until it leaves the upper liquid surface of the solution. The camera on the visual assembly 45 starts to take pictures at the set frequency. When the separation of the raw liquid and water is completed, the outlet electromagnetic valve 414 on the funnel assembly 41 is opened, and the camera continues to take pictures to detect whether the water is completely discharged. The lower layer of water in the pear-shaped funnel 412 passes through the waste water pipe 502 in turn under the action of gravity. , the waste water connector 504 and the fifth three-way solenoid valve 505 are discharged into the waste water bucket 506. When the lower layer of water is completely discharged from the rear funnel assembly 41, the outlet solenoid valve 414 is closed.Each extraction process repeats the above steps of adding water and stirring until the solution no longer needs to be extracted. After the lower layer of the stratified liquid is discharged into the waste water bucket 506 along the waste water pipe 502, the outlet solenoid valve 414 on the funnel assembly 41 is closed, and the turntable assembly 501 rotates under the drive of the motor. The No. 1 collection bottle 503 is rotated to the bottom of the funnel assembly 41, and the outlet solenoid valve 414 on the funnel assembly 41 is opened. The extracted raw liquid is discharged into the No. 1 collection bottle 503 under the action of gravity. After the extraction of No. 1 product is completed, the waste water pipe 502 on the turntable assembly 501 is driven by the motor to rotate back to the bottom of the funnel assembly 41, and the outlet solenoid valve 414 on the funnel assembly 41 is closed.
[0159] Process of cleaning the pear-shaped funnel 412: After the extraction of product No. 1 is completed, the equipment automatically enters the cleaning phase. The valve controlling the inlet of the cleaning agent on the third three-way solenoid valve 323 is opened, and the motor on the second gear pump 332 is started. Under the action of the second gear pump 332, the cleaning agent in the cleaning agent barrel 35 passes through the third three-way solenoid valve 323, the second gear pump 332, the second electromagnetic flowmeter 34, the fourth three-way solenoid valve 324 and the high-pressure mini nozzle 413 of the funnel assembly 41 in sequence along the water pipe. The nozzle 413 enters the pear-shaped funnel 412 in a spraying manner to clean the inner wall of the pear-shaped funnel 412. After cleaning, the outlet solenoid valve 414 on the funnel assembly 41 is opened, and the waste water is discharged to the waste water bucket 506 along the waste water pipe 502, and the outlet solenoid valve 414 on the funnel assembly 41 is closed. The valve controlling the water inlet on the third three-way solenoid valve 323 is opened, and the motor on the second gear pump 332 is started. Under the action of the gear pump 33, the water in the water bucket 36 passes through the third three-way solenoid valve 323, the second gear pump 332, the second electromagnetic flowmeter 34, the fourth three-way solenoid valve 324 and the high-pressure mini nozzle 413 of the funnel assembly 41 along the water pipe in sequence. The nozzle 413 enters the pear-shaped funnel 412 in a spraying manner to clean the inner wall of the pear-shaped funnel 412. After cleaning, the bottom solenoid valve on the funnel assembly 41 is opened, and the waste water is discharged into the waste water bucket 506 along the waste water pipe 502. Then, the outlet solenoid valve 414 at the bottom of the funnel assembly 41 is closed. The number of cleaning times can be set according to actual needs, that is, the above cleaning steps are repeated.
[0160] No. 2 stock solution extraction process: When the No. 1 product enters the pear-shaped funnel of the funnel assembly 41 and is being extracted, the No. 2 solenoid valve on the PTFE exhaust valve assembly 31 is opened (the rest are closed). The motor on the first gear pump 331 assembly starts to start, and the liquid in the No. 2 stock solution bottle passes through the filter 203, the one-way valve 204, the PTFE exhaust valve assembly 31, the first three-way solenoid valve 321 assembly, the first gear pump 331, the first electromagnetic flowmeter 34, and the second three-way solenoid valve 322 in sequence under the action of the gear pump 33 and is pumped into the pear-shaped funnel in the funnel assembly 41. When the liquid reaches the specified capacity, the motor on the first gear pump 331 stops working, the No. 2 solenoid valve is closed, and the outlet solenoid valve 414 at the bottom of the funnel assembly 41 is opened. Under the action of gravity, the liquid in the pear-shaped funnel 412 is discharged into the waste water bucket 506 through the waste water pipe 502, the waste water connector 504 and the fifth three-way solenoid valve 505 in sequence. The purpose of this step is to clean the residual liquid in the pipeline with the original liquid. After the pipeline cleaning process is completed, the outlet solenoid valve 414 at the bottom of the funnel assembly 41 is closed, the No. 2 solenoid valve is opened, the motor on the second gear pump 332 is restarted, and the liquid in the No. 2 stock bottle is completely pumped into the pear-shaped funnel in the funnel assembly 41. The No. 2 solenoid valve is closed, and the water valve on the PTFE exhaust valve assembly 31 is opened. Under the action of the first gear pump 331, the water in the bucket 36 passes through the PTFE exhaust valve assembly 31, the first three-way solenoid valve 321 assembly, the first gear pump 331, the first electromagnetic flowmeter 34, and the second three-way solenoid valve 322 along the pipeline and is pumped into the pear-shaped funnel 412 in the funnel assembly 41. When the liquid reaches the specified capacity, the water valve on the PTFE exhaust valve assembly 31 is closed, the motor on the first gear pump 331 stops working, the second motor 432 on the lifting electric stirring assembly 43 starts working, and the stirring rod 436 starts stirring under the drive of the motor. The purpose of stirring is to accelerate the extraction process of the product raw liquid and water. After the set time is reached, the motor stops, and the control first motor 431 (lifting motor) on the lifting electric stirring assembly 43 starts to start, and the stirring rod 436 rises until it leaves the upper liquid surface of the solution. The camera on the visual assembly 45 starts to take pictures at the set frequency. When the separation of the raw liquid and water is completed, the outlet electromagnetic valve 414 at the bottom of the funnel assembly 41 is opened, and the camera continues to take pictures to detect whether the water is completely discharged. The lower layer of water in the pear-shaped funnel 412 passes through the waste water pipe 502 in turn under the action of gravity. , waste water connector 504 and the fifth three-way solenoid valve 505 are discharged into the waste water bucket 506. When the lower layer of water is completely discharged, the outlet solenoid valve 414 at the bottom of the funnel assembly 41 is closed. Each extraction process repeats the above water adding and stirring steps until the solution no longer needs to be extracted.After the lower layer of the stratified liquid is discharged into the waste water bucket 506 along the waste water pipe 502, the inlet electromagnetic valve at the bottom of the funnel assembly 41 is closed, the turntable assembly 501 rotates under the drive of the motor, the No. 2 collection bottle 503 rotates to the bottom of the funnel assembly 41, and the outlet electromagnetic valve 414 at the bottom of the funnel assembly 41 is opened. The extracted raw liquid is discharged into the No. 2 collection bottle 503 under the action of gravity. After the extraction of the No. 2 product is completed, the waste water pipe 502 on the turntable assembly 501 rotates back to the bottom of the funnel assembly 41 under the drive of the motor, and the outlet electromagnetic valve 414 at the bottom of the funnel assembly 41 is closed. If the two funnels 412 have liquid to be discharged at the same time, the principle of which one completes the extraction first according to the feedback time of the photo shooting will be used for discharge first.
[0161] If the liquid cannot be extracted and separated for a long time, manual operation is required by the staff. The staff can press the selection button switch on the distribution cabinet to manually discharge the liquid directly into the collection bottle 503.
[0162] The above descriptions are only optional embodiments of the present invention, and are not intended to limit the patent scope of the present invention. All equivalent structural changes made using the contents of the present invention's specification and drawings, or directly / indirectly applied in other related technical fields, are included in the patent protection scope of the present invention.
Claims
1. A chemical reagent purification device, characterized in that: include: A frame assembly (1), a raw liquid bottle rack assembly (2), an electromagnetic control assembly (3), a purification assembly (4) and a finished product collection assembly (5); The raw liquid bottle rack assembly (2), the electromagnetic control assembly (3), the purification assembly (4) and the finished product collection assembly (5) are installed inside the frame assembly (1); The raw liquid bottle rack assembly (2) is used to hold raw liquids of different products; The electromagnetic control component (3) is connected to the stock solution bottle rack component (2), the water bucket (36), the cleaning agent bucket (35) and the purification component (4), and is used to control the stock solution, water and cleaning agent in the stock solution bottle rack component (2) to enter the purification component (4); The purification component (4) is used to purify the raw liquid; The finished product collecting component (5) is used to collect the purified product.
2. A chemical reagent purification device according to claim 1, characterized in that: The frame assembly (1) comprises: A frame body (101), used to support the entire device; At least one PTFE door assembly is fixed to the frame body (101) by means of bolted hinges, so as to facilitate the staff to operate and observe the internal conditions of the equipment; A logo plate (103) for attaching a company label; A display assembly (104) is used to place a display and an input device thereof so that a worker can monitor the visual inspection status; The lower door panel assembly (105), the top panel (107), the PTFE side panel (108), the lower side panel (109) and the bottom panel (111) together play the role of dustproof and light shielding. The middle partition (110) is used to install other components. The cleaning agent bucket (35) and the water bucket (36) are stored above the middle partition (110); The frame body (101) is made of stainless steel to ensure the equipment's operational stability and corrosion resistance.
3. A chemical reagent purification device according to claim 1, characterized in that: The stock solution bottle rack assembly (2) comprises: The bottle assembly (202) includes a product bottle for containing the original liquid; A bottle rack assembly (201) for placing product bottles of different specifications; A filter (203) connected to the bottle assembly (202) through a pipeline to filter impurities in the product; The one-way valve (204) prevents liquid from flowing back and protects the solenoid valve from working normally.
4. A chemical reagent purification device according to claim 1, characterized in that: The electromagnetic control assembly (3) comprises a polytetrafluoroethylene exhaust valve assembly (31), a three-way electromagnetic valve (32), a gear pump (33), an electromagnetic flowmeter (34), a cleaning agent bucket (35) and a water bucket (36); The polytetrafluoroethylene exhaust valve assembly (31) comprises a plurality of solenoid valves, a water valve and a cleaning agent valve, each solenoid valve controls the on-off of a pipeline connected to a stock liquid bottle; The three-way solenoid valve (32) comprises a first three-way solenoid valve (321), a second three-way solenoid valve (322), a third three-way solenoid valve (323) and a fourth three-way solenoid valve (324), which are used to control the switches of different pipelines; The gear pump (33) comprises a first gear pump (331) and a second gear pump (332), which extracts gas from the pipeline to form a negative pressure state in the pipeline, thereby absorbing the original liquid, water or cleaning agent; The electromagnetic flowmeter (34) comprises a first flowmeter (341) and a second flowmeter (342), which are used to count the flow of the raw liquid, water or cleaning agent; The stock solution bottle rack assembly (2) is connected in series in sequence through a pipeline to a polytetrafluoroethylene exhaust valve assembly (31), a first three-way electromagnetic valve (321), a first gear pump (331), a first flow meter (341), a second three-way electromagnetic valve (322) and a funnel (412); The cleaning agent barrel (35) is connected in series via a pipeline to a polytetrafluoroethylene exhaust valve assembly (31), a first three-way electromagnetic valve (321), a first gear pump (331), a first flow meter (341), a second three-way electromagnetic valve (322) and a funnel (412); The water bucket (36) is connected in series via a pipeline to a polytetrafluoroethylene exhaust valve assembly (31), a first three-way electromagnetic valve (321), a first gear pump (331), a first flow meter (341), a second three-way electromagnetic valve (322) and a funnel (412); The cleaning agent barrel (35) is connected in series in sequence through a pipeline to a third three-way solenoid valve (323), a second gear pump (332), a second flow meter (342), a fourth three-way solenoid valve (324) and a funnel (412); The water bucket (36) is connected in series with a third three-way solenoid valve (323), a second gear pump (332), a second flow meter (342), a fourth three-way solenoid valve (324) and a funnel (412) in sequence through a pipeline.
5. A chemical reagent purification device according to claim 1, characterized in that: The purification component (4) comprises: A funnel assembly (41) for extracting the product; A funnel support assembly (42) supports and fixes the funnel assembly (41); A lifting electric stirring assembly (43) promotes rapid mixing of the solution; The surface light component (44) provides a uniform light source for the visual component (45) to reduce the interference of ambient light; The visual component (45), including an industrial camera (451), is used to capture high-resolution images to achieve real-time monitoring of the purification process.
6. A chemical reagent purification device according to claim 5, characterized in that: The funnel assembly (41) includes a pear-shaped funnel (412), a spray head (413) and an outlet solenoid valve (414); The upper portion of the funnel (412) is provided with an inlet 1 (4121) for the entry of raw liquid, water and cleaning agent, an inlet 2 (4122) for installing a nozzle (413) and an inlet 3 (4123) for stirring; the nozzle (413) of the inlet 2 (4122) is used for the entry of water and cleaning agent; the lower portion of the funnel (412) is provided with a liquid outlet (4124), and an outlet solenoid valve (414) is provided at the liquid outlet (4124); the inlet 1 (4121), the inlet 2 (4122) and the inlet 3 (4123) protrude from the outer surface of the funnel (412).
7. A chemical reagent purification device according to claim 6, characterized in that: The lifting electric stirring assembly (43) comprises a first motor (431), a second motor (432), a transmission belt (433), a screw rod (434), a lifting frame (435) and a stirring rod (436); The first motor (431) is fixedly mounted on a bracket of the frame assembly (1), and the screw (434) is rotatably mounted on the bracket. The first motor (431) drives the screw (434) to rotate via a transmission belt (433). An internal thread matching the screw (434) is provided on the lifting frame (435). The screw (434) rotates to drive the lifting frame (435) to move up and down. A second motor (432) is installed on the lifting frame. A stirring rod (436) is provided on the rotating shaft of the second motor (432). The stirring rod (436) is inserted into the funnel (412) from the inlet three (4123), and a stirring blade is provided at the end of the stirring rod (436).
8. A chemical reagent purification device according to claim 6, characterized in that: The funnel support assembly (42) comprises a support rod (421), an upper fixing member (422), a middle fixing member (423) and a lower fixing member (424); The support rod (421) is longitudinally fixed on the frame assembly (1); one end of the upper fixing member (422) is fixed to the upper part of the support rod (421), and the other end grasps the outer side surface of the inlet three (4123) through a clamping claw to fix the upper part of the funnel (412); the middle fixing member (423) supports the funnel (412) through an annular rod; and the lower fixing member (424) fixes the lower part of the funnel (412) through a connecting rod.
9. A chemical reagent purification device according to claim 1, characterized in that: The finished product collection assembly (5) comprises: A collecting bottle (503) for storing the extracted product; The turntable assembly (501) can hold multiple collection bottles (503) to support multi-station product collection; A waste water pipe (502) is arranged on the rotating disk and is used to collect waste water and waste materials to prevent the waste water and waste materials from splashing out; The wastewater connector (504) is arranged below the rotating disk. When the wastewater pipe (502) rotates to the position just above the wastewater connector (504), the wastewater and waste materials flowing down from the wastewater pipe (502) can be received to help discharge the wastewater and waste materials into the wastewater bucket (506). The wastewater connector (504) is connected to the fifth three-way solenoid valve (505) and the wastewater bucket (506) through a pipeline. A fifth three-way solenoid valve (505) allows switching to a spare wastewater bucket (506) when the wastewater bucket (506) is full; The waste water bucket (506) is used to hold the discharged waste water.
10. A purification method, characterized in that: The method is based on the purification device according to any one of claims 1 to 9, comprising: Step 1: Place product bottles of different specifications on the stock solution bottle rack assembly (2), and ensure that each bottle is filled with the corresponding stock solution; check whether the liquid in the cleaning agent bucket (35) and the water bucket (36) is sufficient; Step 2: After the device is turned on, it is necessary to perform a reset operation on the device. The waste water pipe (502) on the turntable assembly (501) is driven by the motor to rotate to the position directly below the funnel assembly (41). The device reaches the initial position, and the startup condition is met. Step 3: According to the stock liquid to be processed, the corresponding solenoid valves in the polytetrafluoroethylene exhaust valve assembly (31), the first three-way solenoid valve (321), the first gear pump (331) and the second three-way solenoid valve (322) are opened, and the outlet solenoid valve (414) and the fifth three-way solenoid valve (505) below the funnel (412) are opened at the same time, and the quantitative stock liquid enters the funnel (412) and is directly discharged into the waste water bucket (36) through the waste water pipe (502); Step 4: Open the corresponding solenoid valve, the first three-way solenoid valve (321), the first gear pump (331) and the second three-way solenoid valve (322) in the polytetrafluoroethylene exhaust valve assembly (31) again, close the outlet solenoid valve (414) below the funnel (412), and transfer the stock liquid into the funnel (412); then open the corresponding solenoid valve, the third three-way solenoid valve (323), the second gear pump (332) and the fourth three-way solenoid valve (324) in the polytetrafluoroethylene exhaust valve assembly (31) of the water bucket (36), and transfer the water into the funnel (412); Step 5, the lifting electric stirring assembly (43) works, the first motor (431) drives the screw (434) to rotate, the stirring rod (436) descends, the stirring rod (436) penetrates into the funnel (412), and the second motor (432) rotates to stir the original liquid and water in the funnel (412); Step 6: After stirring for a certain period of time, the second motor (432) stops working, and the first motor (431) drives the screw (434) to move upward until it completely leaves the liquid surface. The camera on the visual component (45) starts to take pictures at a set frequency. After the solution is left to stand for a period of time, the liquid in the funnel (412) is layered, with water in the lower layer and the washed liquid in the upper layer. The camera sends a separation completion signal to the PLC signal receiving end. After receiving the completion signal, the PLC controls the outlet solenoid valve (414) ) is opened to discharge the water out of the funnel (412), the visual component (45) continues to take pictures to identify whether the water in the lower layer is drained, and the water is collected in the waste water bucket (36) below the rotating disk; after the water is drained, the outlet electromagnetic valve (414) is closed, the rotating disk rotates, the collection bottle (503) rotates to the bottom of the liquid outlet (4124) of the funnel (412), the outlet electromagnetic valve (414) is opened, the washed liquid is collected in the collection bottle (503), and then the outlet electromagnetic valve (414) is closed; Step 7: The cleaning agent cleans the upper stock liquid pipeline, opens the cleaning valve, the first three-way solenoid valve (321), the first gear pump (331) and the second three-way solenoid valve (322) corresponding to the cleaning agent, closes the outlet solenoid valve (414), and delivers the cleaning agent to the funnel (412). After a certain amount, closes the first three-way solenoid valve (321), the first gear pump (331) and the second three-way solenoid valve (322) corresponding to the cleaning agent, opens the outlet solenoid valve (414), and discharges the cleaning agent liquid into the waste water bucket (36); Step 8: Clean the upper stock liquid pipeline with water, open the water valve, the first three-way solenoid valve (321), the first gear pump (331) and the second three-way solenoid valve (322) corresponding to the water, close the outlet solenoid valve (414), and transport the water into the funnel (412). After a certain amount of water is transported, close the first three-way solenoid valve (321), the first gear pump (331) and the second three-way solenoid valve (322) corresponding to the cleaning agent, open the outlet solenoid valve (414), and discharge the water into the waste water bucket (36); Step 9, the cleaning agent is used to clean the funnel (412), the third three-way solenoid valve (323), the second gear pump (332) and the fourth three-way solenoid valve (324) corresponding to the cleaning agent are opened, the outlet solenoid valve (414) is closed, and the cleaning agent is transported into the funnel (412). After a certain amount of cleaning agent is transported, the third three-way solenoid valve (323), the second gear pump (332) and the fourth three-way solenoid valve (324) corresponding to the cleaning agent are closed, and the outlet solenoid valve (414) is opened to discharge the cleaning agent liquid into the waste water bucket (36); Step 10, clean the funnel (412) with water, open the third three-way solenoid valve (323), the second gear pump (332) and the fourth three-way solenoid valve (324) corresponding to the water, close the outlet solenoid valve (414), and transport the water into the funnel (412). After a certain amount of water is transported, close the third three-way solenoid valve (323), the second gear pump (332) and the fourth three-way solenoid valve (324) corresponding to the cleaning agent, and open the outlet solenoid valve (414); discharge the water into the waste water bucket (36).