Long vehicle refining water quality adjusting reaction kettle

Abstract

The utility model relates to the technical field of water quality purification, and discloses a long vehicle refining water quality adjusting reaction kettle which comprises a supporting frame, a reaction kettle assembly is arranged in the supporting frame, and a reaction three-way pipe, a waste water electric valve, a storage electric valve, a waste water tank and an adsorption electric pump are connected to the lower surface of the reaction kettle assembly in an inserted mode. The reaction kettle is reasonable in structure, reagents are injected through the flow meter, adding of the reagents is controlled, the stirring rod rotates in the reaction kettle body through the stirring motor, the reagents are promoted to be evenly mixed, the working efficiency is improved, the reagents flow into the storage cylinder through the storage electric valve, clean water is added into the reaction kettle body, and the reaction kettle body is cleaned. The waste water electric valve is opened, waste water generated after cleaning in the reaction kettle body flows into the waste water tank, the waste water can conveniently and rapidly flow into the waste water tank, the ozone generator is opened, ozone generated by the ozone generator enters the waste water tank, and therefore the waste water is rapidly disinfected and sterilized, and organic matter in the waste water is removed.

Description

Technical Field

[0001] This utility model relates to the field of water purification technology, specifically a long-cart water quality adjustment reactor. Background Technology

[0002] Scouring agents are widely used in textile printing and dyeing production, such as desizing, scouring, and bleaching. They are an important factor affecting pretreatment. With the continuous improvement of printing and dyeing processes, technologies, and equipment, new requirements have been put forward for the technical indicators of scouring. Scouring agents that improve water quality, have high permeability, strong alkali resistance, high temperature resistance, low foaming, easy biodegradability, high capillary efficiency, and high whiteness are needed for development.

[0003] Existing reactors can disinfect and purify wastewater after cleaning, but they struggle to remove organic matter and heavy metals, store activated carbon mesh effectively, and provide maintenance tools and parts, making repairs difficult when equipment malfunctions. Furthermore, the treated water is not tested, making it difficult for staff to assess its quality. The reactor is not cleaned again after treating water that meets standards to reduce wastewater waste, and water that does not meet standards is not treated again. Therefore, this utility model is proposed to address these issues. Utility Model Content

[0004] (a) Technical problems to be solved

[0005] To address the shortcomings of existing technologies, this utility model provides a long-cart refining water quality adjustment reactor, which solves the problems of rapid disinfection and sterilization of sewage, rapid removal of organic matter and heavy metals from sewage, better storage of activated carbon mesh, provision of maintenance tools for equipment, rapid water quality testing, reuse of water to clean the reactor body again, and reprocessing of sewage that does not meet quality standards.

[0006] (II) Technical Solution

[0007] To achieve the above objectives, this utility model provides the following technical solution: a long-wheel refining water quality adjustment reactor, comprising a support frame, a reactor assembly housed inside the support frame, a reaction tee pipe inserted into the lower surface of the reactor assembly, a wastewater electric valve at one end of the reaction tee pipe, a storage electric valve at the other end of the reaction tee pipe, a wastewater tank sleeved at one end of the wastewater electric valve, an adsorption electric pump inserted into one side of the wastewater tank, an adsorption assembly sleeved at one end of the adsorption electric pump, and an adsorption component inserted into one side of the adsorption assembly. The wastewater tank is equipped with an electric pump and an ozone generator on one side. A recycling box is attached to one end of the electric pump. A water quality analyzer is installed on the upper surface of the recycling box. A recycling electric pump and a placement electric pump are sequentially inserted into one side of the recycling box from front to back. A toolbox is located on the other side of the recycling box. An activated carbon box is located on one side of the toolbox. A refrigeration component is located on one side of the activated carbon box. A connecting shaft seat is located on one side of the activated carbon box. A connecting motor is located inside the connecting shaft seat. One end of the connecting motor is attached to the activated carbon box door.

[0008] Optionally, the reactor assembly includes a reactor body, a flow meter, a reactor cover, a stirring motor, and a stirring rod. The flow meter is provided on the surface of the reactor body, and the reactor cover is provided on the upper surface of the reactor body. The stirring motor is inserted into the interior of the reactor cover, and a stirring rod is sleeved on one end of the stirring motor.

[0009] Optionally, the adsorption assembly includes a storage box, an activated carbon seat, an activated carbon box, and a collection box. The lower surface of the storage box is provided with an activated carbon seat, the activated carbon box is slidably connected inside the activated carbon seat, and the lower surface of the activated carbon seat is provided with a collection box.

[0010] Optionally, the activated carbon holder has a movable groove inside, and the activated carbon box has movable sliders on both sides, with the movable sliders slidably connected inside the movable groove.

[0011] Optionally, the activated carbon box has an activated carbon mesh at the bottom and a handle on one side.

[0012] Optionally, the refrigeration assembly includes a refrigeration box, a heat sink, a compressor, an accumulator, a condenser, and a refrigeration plate. The refrigeration box has a heat sink on one side, a compressor at the bottom inside the refrigeration box, an accumulator at one end of the compressor, a condenser inside the refrigeration box, and a refrigeration plate on one side of the refrigeration box.

[0013] Optionally, one end of the electric pump is provided with a water pipe, and one side of the wastewater tank is provided with a wastewater tank pipe head, with one end of the water pipe inserted into the wastewater tank pipe head.

[0014] Optionally, one end of the recovery electric pump is fitted with a connecting water pipe, and the other end of the connecting water pipe is inserted into a reaction vessel assembly.

[0015] In summary, the technical effects and advantages of this utility model are as follows:

[0016] 1. This utility model has a reasonable structure. The reagent is injected through a flow meter, which facilitates the control of reagent addition. The stirring rod of the stirring motor rotates in the reaction vessel to promote uniform mixing of the reagent. The reagent flows into the storage cylinder through the storage electric valve, saving the physical strength of the staff. The reaction vessel is cleaned with clean water, and the wastewater flows into the wastewater tank through the wastewater electric valve. The ozone generator is turned on to quickly disinfect and sterilize the wastewater with ozone, removing organic matter from the wastewater.

[0017] 2. In this utility model, wastewater flows into the storage tank by turning on the adsorption electric pump. The activated carbon mesh adsorbs heavy metals and organic matter, purifying the water. The activated carbon box slides on the activated carbon seat for easy replacement of the activated carbon mesh. A connected electric pump allows water to flow into the recovery tank. A water quality analyzer measures the water quality, allowing staff to monitor its condition. Water from the recovery electric pump flows into the reaction vessel for cleaning, reducing water waste. An electric pump then flows water into the wastewater tank for further treatment. A toolbox stores maintenance tools and parts for quick equipment repair. A compressor allows refrigerant to flow into the condenser and then into the cooling plate to cool the activated carbon box. An accumulator reduces damage to the compressor while cooling the activated carbon box and storing the activated carbon mesh. A motor rotates the activated carbon box door, facilitating easy access and storage of the activated carbon mesh. Attached Figure Description

[0018] Figure 1 This is a schematic diagram of the structure of this utility model;

[0019] Figure 2 This is a schematic diagram of the support frame structure of this utility model;

[0020] Figure 3 This is a schematic diagram of the wastewater tank structure of this utility model;

[0021] Figure 4 This is a schematic diagram of the ozone generator structure of this utility model;

[0022] Figure 5 This is a schematic diagram of the structure of the recycling bin of this utility model;

[0023] Figure 6 This is a schematic diagram of the reactor body structure of this utility model;

[0024] Figure 7 This is a schematic diagram of the activated carbon holder structure of this utility model;

[0025] Figure 8This is a schematic diagram of the cooling plate structure of this utility model;

[0026] Figure 9 This is a schematic diagram of the activated carbon box structure of this utility model.

[0027] In the diagram: 1. Support frame; 2. Reactor assembly; 201. Reactor body; 202. Flow meter; 203. Reactor cover; 204. Stirring motor; 205. Stirring rod; 3. Reaction tee; 4. Wastewater electric valve; 5. Storage electric valve; 6. Wastewater tank; 7. Adsorption electric pump; 8. Adsorption assembly; 801. Storage tank; 802. Activated carbon seat; 803. Activated carbon box; 804. Collection box; 9. Connecting electric pump; 10. Ozone generator; 11. Recovery box; 12. Water quality analyzer; 13. Recovery electric pump; 14. Placement electric pump; 15. Toolbox; 16. Activated carbon box; 17. Refrigeration assembly; 171. Refrigeration box; 172. Heat sink; 173. Compressor; 174. Accumulator; 175. Condenser; 176. Refrigeration plate; 18. Connecting shaft seat; 19. Connecting motor; 20. Activated carbon box door. Detailed Implementation

[0028] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0029] Example: Reference Figures 1-9 The long-vehicle refining water quality adjustment reactor shown includes a support frame 1. A reactor assembly 2 is housed inside the support frame 1. A reaction tee pipe 3 is inserted into the lower surface of the reactor assembly 2. A wastewater electric valve 4 is installed at one end of the reaction tee pipe 3, and a storage electric valve 5 is installed at the other end. A wastewater tank 6 is sleeved onto one end of the wastewater electric valve 4. An adsorption electric pump 7 is inserted into one side of the wastewater tank 6. An adsorption assembly 8 is sleeved onto one end of the adsorption electric pump 7. A connecting electric pump 9 is inserted into one side of the adsorption assembly 8. An ozone generator is installed on one side of the wastewater tank 6. 10. A recycling box 11 is connected to one end of the electric pump 9. A water quality analyzer 12 is provided on the upper surface of the recycling box 11. A recycling electric pump 13 and a placement electric pump 14 are inserted sequentially from front to back on one side of the recycling box 11. A toolbox 15 is provided on the other side of the recycling box 11. An activated carbon box 16 is provided on one side of the toolbox 15. A refrigeration component 17 is provided on one side of the activated carbon box 16. A connecting shaft seat 18 is provided on one side of the activated carbon box 16. A connecting motor 19 is provided inside the connecting shaft seat 18. An activated carbon box door 20 is connected to one end of the connecting motor 19.

[0030] As a preferred embodiment of this example, Figure 2 , Figure 3 , Figure 4 and Figure 6 As shown, the support frame 1 houses a reactor assembly 2, which includes a reactor body 201, a flow meter 202, a reactor cover 203, a stirring motor 204, and a stirring rod 205. The flow meter 202 is mounted on the surface of the reactor body 201, and the reactor cover 203 is mounted on its upper surface. The stirring motor 204 is inserted into the reactor cover 203, and a stirring rod 205 is fitted onto one end of the stirring motor 204. A reaction tee pipe 3 is inserted into the lower surface of the reactor assembly 2. One end of the device is equipped with a wastewater electric valve 4, and the other end of the reaction tee pipe 3 is equipped with a storage electric valve 5. One end of the wastewater electric valve 4 is connected to a wastewater tank 6, and an ozone generator 10 is installed on one side of the wastewater tank 6. The ozone generator 10 is a device for producing ozone gas. Ozone is easily decomposed and cannot be stored, so it needs to be produced and used on-site. Therefore, ozone generators 10 are required in all places where ozone can be used. Ozone generators 10 are widely used in drinking water, sewage, industrial oxidation, food processing and preservation, pharmaceutical synthesis, and space sterilization. The ozone gas generated by the ozone generator 10 can be used directly or mixed with liquids through a mixing device to participate in the reaction. During use, the reagent storage equipment in the factory is connected to the flow meter 202, and the reagent is injected into the reaction vessel 201 through the flow meter 202, which facilitates the control of the flow rate of the reagent injected into the reaction vessel 201, thereby precisely controlling the addition of reagents and improving product quality. The stirring motor 204 drives the stirring rod 205 to rotate, so that the stirring rod 205 rotates in the reaction vessel 201, thereby promoting uniform mixing of reagents, saving the physical strength of the staff, and improving work efficiency. The storage device and the storage electric valve 5 in the factory are connected to the reaction vessel. The reactor body 201 is connected to a storage tank. By opening the storage electric valve 5, the mixed reagents in the reactor body 201 can flow into the storage tank for storage, which can facilitate the quick and easy flow of reagents into the storage tank and save the labor of the staff. By adding clean water to the reactor body 201, the reactor body 201 is cleaned. By opening the wastewater electric valve 4, the wastewater after cleaning in the reactor body 201 flows into the wastewater tank 6, which can facilitate the quick and easy flow of wastewater into the wastewater tank 6 and save the labor of the staff. By turning on the ozone generator 10, the ozone generated by the ozone generator 10 enters the wastewater tank 6, which can quickly disinfect and sterilize the wastewater and remove organic matter from the wastewater.

[0031] like Figure 2 , Figure 3 , Figure 5 , Figure 7 , Figure 8 and Figure 9As shown, in this embodiment, the support frame 1 houses a reaction vessel assembly 2. An adsorption electric pump 7 is inserted into one side of the wastewater tank 6. An adsorption assembly 8 is sleeved at one end of the adsorption electric pump 7. The adsorption assembly 8 includes a storage tank 801, an activated carbon seat 802, an activated carbon box 803, and a collection tank 804. The lower surface of the storage tank 801 is provided with the activated carbon seat 802. The activated carbon box 803 is slidably connected inside the activated carbon seat 802. The collection tank 804 is located on the lower surface of the activated carbon seat 802. A movable groove is formed inside the activated carbon seat 802. Movable sliders are provided on both sides of the activated carbon box 803. Movable sliders are slidably connected inside the movable groove. An activated carbon mesh is provided at the bottom of the activated carbon box 803. A handle is provided on one side of the activated carbon box 803. One end of the electric pump 7 is fitted with a water storage pipe. A storage pipe head is located on one side of the storage tank 801, and a water storage pipe is inserted into one side of the storage pipe head. A connecting electric pump 9 is inserted into one side of the adsorption component 8. A recovery tank 11 is fitted onto one end of the connecting electric pump 9. A water quality analyzer 12 is located on the upper surface of the recovery tank 11. The water quality analyzer 7 is an instrument used to monitor various components in water. Generally, the water quality analyzer 7 is required to be intuitive, highly sensitive, lightweight, and portable. "Water quality analyzer 7" is a general term; the requirements vary depending on the industry and the specific specifications needed. From front to back, a recovery electric pump 13 and a placement electric pump 14 are sequentially inserted into one side of the recovery tank 11. A placement water pipe is located at one end of the placement electric pump 14. Wastewater tank 6... One side of the recovery tank 11 is equipped with a wastewater tank pipe head, and one end of the water pipe is inserted into the wastewater tank pipe head. One end of the recovery electric pump 13 is fitted with a connecting water pipe, and one end of the connecting water pipe is inserted into the reaction vessel assembly 2. The other side of the recovery tank 11 is equipped with a toolbox 15. One side of the toolbox 15 is equipped with an activated carbon box 16. One side of the activated carbon box 16 is equipped with a refrigeration assembly 17. The refrigeration assembly 17 includes a refrigeration box 171, a heat sink 172, a compressor 173, an accumulator 174, a condenser 175, and a refrigeration plate 176. One side of the refrigeration box 171 is equipped with a heat sink 172. The bottom of the refrigeration box 171 is equipped with a compressor 173. One end of the compressor 173 is equipped with an accumulator 174. The interior of the refrigeration box 171 is equipped with a condenser 175. One side of the refrigeration box 171 is equipped with a... The activated carbon box 16 has a cooling plate 176 and a connecting shaft seat 18 on one side. A connecting motor 19 is located inside the connecting shaft seat 18, and one end of the connecting motor 19 is fitted with an activated carbon box door 20. During use, the adsorption electric pump 7 is turned on to draw wastewater from the wastewater tank 6 into a storage tank 801. The wastewater flowing into the storage tank 801 passes through the activated carbon mesh and flows into a collection tank 804, where the activated carbon mesh treats the wastewater, adsorbing heavy metals and organic matter to purify the water. A sliding block moves within a sliding groove, allowing the activated carbon box 803 to slide on the activated carbon seat 802 for easy and quick replacement of the activated carbon. The connecting electric pump 9 is turned on to draw water from the collection tank 804, which then flows into a recovery tank 11.The treated water is stored, and its quality is measured using a water quality analyzer 12, allowing for rapid assessment of the treated water's condition and facilitating staff understanding of its status. By activating the recovery electric pump 13, water meeting quality standards from the recovery tank 11 flows into the reaction vessel 201, where it is used to clean the vessel, reducing waste and enabling reuse. Conversely, by activating the discharge electric pump 14, water not meeting quality standards from the recovery tank 11 flows into the wastewater tank 6 for further treatment, improving water utilization. The toolbox 15 stores repair tools and parts, enabling rapid equipment repair in case of damage. The compressor... 173 compresses the refrigerant and passes it through condenser 175. The refrigerant in condenser 175 is converted into a low-temperature gas by cooling plate 176, thus cooling the activated carbon box 16. The refrigerant flowing out of cooling plate 176 flows into accumulator 174, which completely converts the refrigerant into gas, reducing damage to compressor 173. The refrigerant in accumulator 174 flows back into compressor 173 for circulation, thus providing sustained cooling for activated carbon box 16 and better storing activated carbon. A motor 19 drives the activated carbon box door 20 to rotate, allowing the activated carbon mesh to be easily accessed and stored, saving labor for workers.

[0032] The working principle of this practical application is as follows:

[0033] During operation, the reagent storage equipment in the factory is connected to the flow meter 202. The reagent is injected into the reaction vessel 201 through the flow meter 202, facilitating control of the reagent flow rate into the reaction vessel 201 and allowing for precise control of reagent addition. The stirring motor 204 drives the stirring rod 205 to rotate within the reaction vessel 201, promoting uniform mixing of the reagent, saving labor and improving work efficiency. The worker connects the storage device in the factory to the storage electric valve 5. Opening the storage electric valve 5 allows the reagent in the reaction vessel 201 to flow into the storage cylinder, enabling convenient and rapid reagent transfer and saving labor. Closing the storage electric valve 5...Clean water is added to the reactor body 201 to clean it. The cleaned wastewater is then discharged into the wastewater tank 6 by opening the wastewater electric valve 4, and then closed. This allows for quick and easy discharge of wastewater into the wastewater tank 6, saving manpower. The ozone generator 10 is then turned on, allowing the ozone produced to enter the wastewater tank 6, rapidly disinfecting and sterilizing the wastewater and removing organic matter. Finally, the adsorption electric pump 7 is turned on, and the wastewater in the wastewater tank 6 flows into the storage tank 801. The adsorption electric pump 7 is then turned off, and the wastewater continues to flow into the storage tank 801. Wastewater flows into collection tank 804 through activated carbon, where the activated carbon treats the wastewater, adsorbing heavy metals and organic matter to purify the water. By turning on the connected electric pump 9, the water in collection tank 804 flows into recovery tank 11. Turning off the electric pump 9 allows for storage of the treated water. The water quality is then measured using a water quality analyzer 12, providing quick and easy monitoring of the water quality. Water that meets the standards can be pumped into the reaction vessel 201 by turning on the recovery electric pump 13. The incoming water then purifies the reaction vessel 201. The system performs cleaning to reduce water waste. Water that does not meet quality standards is pumped through the electric pump 14 into the wastewater tank 6 for further treatment, thus improving water utilization. The toolbox 15 stores repair tools and parts, allowing for quick repairs in case of equipment failure. The compressor 173 compresses the refrigerant, which passes through the condenser 175. The refrigerant in the condenser 175 is converted into a low-temperature gas by the cooling plate 176, thus cooling the activated carbon box 16. The refrigerant flowing out of the cooling plate 176 flows into the accumulator 174. The accumulator 174 can completely convert the refrigerant into gas, reducing damage to the compressor 173. The refrigerant in the accumulator 174 flows into the compressor 173 for circulation, thus providing sustained cooling for the activated carbon box 16 and better storing the activated carbon mesh. A motor 19 drives the activated carbon box door 20 to rotate, allowing it to rotate on the activated carbon box 16, facilitating the removal and storage of the activated carbon mesh and saving labor. A sliding slider moves within a sliding groove, allowing the activated carbon box 803 to slide on the activated carbon seat 802, facilitating quick and easy replacement of the activated carbon.

[0034] All electrical components mentioned in this article are connected to an external main controller and 220V AC mains power, and the main controller can be a conventional known device such as a computer that can control it.

[0035] Finally, it should be noted that the above description is only a preferred embodiment of the present utility model and is not intended to limit the present utility model. Although the present utility model has been described in detail with reference to the foregoing embodiments, those skilled in the art can still modify the technical solutions described in the foregoing embodiments or make equivalent substitutions for some of the technical features. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present utility model should be included within the protection scope of the present utility model.

Claims

1. A long car refining water quality adjustment reaction kettle, comprising a support frame (1), characterized in that: The inside of the support frame (1) is provided with a reaction kettle assembly (2), the lower surface of the reaction kettle assembly (2) is inserted with a reaction tee (3), one end of the reaction tee (3) is provided with a waste water electric valve (4), the other end of the reaction tee (3) is provided with a storage electric valve (5), one end of the waste water electric valve (4) is sleeved with a waste water tank (6), one side of the waste water tank (6) is inserted with an adsorption electric pump (7), one end of the adsorption electric pump (7) is sleeved with an adsorption assembly (8), one side of the adsorption assembly (8) is inserted with a connecting electric pump (9), one side of the waste water tank (6) is provided with an ozone generator (10), one end of the connecting electric pump (9) is sleeved with a recovery tank (11), the upper surface of the recovery tank (11) is provided with a water quality tester (12), one side of the recovery tank (11) is sequentially inserted from front to back with a recovery electric pump (13) and a placement electric pump (14), the other side of the recovery tank (11) is provided with a tool box (15), one side of the tool box (15) is provided with an activated carbon tank (16), one side of the activated carbon tank (16) is provided with a refrigeration assembly (17), one side of the activated carbon tank (16) is provided with a connecting shaft seat (18), the inside of the connecting shaft seat (18) is provided with a connecting motor (19), one end of the connecting motor (19) is sleeved with an activated carbon tank door (20).

2. The long car refining water quality adjustment reaction kettle according to claim 1, characterized in that: The reaction kettle assembly (2) comprises a reaction kettle body (201), a flow meter (202), a reaction kettle cover (203), a stirring motor (204) and a stirring rod (205), the surface of the reaction kettle body (201) is provided with the flow meter (202), the upper surface of the reaction kettle body (201) is provided with the reaction kettle cover (203), the inside of the reaction kettle cover (203) is inserted with the stirring motor (204), one end of the stirring motor (204) is sleeved with the stirring rod (205).

3. The long car refining water quality adjustment reaction kettle according to claim 1, characterized in that: The adsorption assembly (8) comprises a storage tank (801), an activated carbon seat (802), an activated carbon box (803) and a collection tank (804), the lower surface of the storage tank (801) is provided with the activated carbon seat (802), the inside of the activated carbon seat (802) is slidably connected with the activated carbon box (803), the lower surface of the activated carbon seat (802) is provided with the collection tank (804).

4. The long car refining water quality adjustment reaction kettle according to claim 3, characterized in that: The inside of the activated carbon seat (802) is provided with a moving sliding groove, the two sides of the activated carbon box (803) are provided with moving sliding blocks, and the inside of the moving sliding groove is slidably connected with the moving sliding blocks.

5. The long car refining water quality adjustment reaction kettle according to claim 3, characterized in that: The inside bottom of the activated carbon box (803) is provided with an activated carbon net, and one side of the activated carbon box (803) is provided with a handle.

6. The long car refining water quality adjustment reaction kettle according to claim 1, characterized in that: The refrigeration assembly (17) comprises a refrigeration box (171), a heat dissipation plate (172), a compressor (173), an accumulator (174), a condenser (175) and a refrigeration plate (176), one side of the refrigeration box (171) is provided with the heat dissipation plate (172), the inner bottom of the refrigeration box (171) is provided with the compressor (173), one end of the compressor (173) is provided with the accumulator (174), the inside of the refrigeration box (171) is provided with the condenser (175), and one side of the refrigeration box (171) is provided with the refrigeration plate (176).

7. The long car refining water quality adjustment reaction kettle according to claim 1, characterized in that: One end of the electric pump (14) is provided with a water pipe, and one side of the waste water tank (6) is provided with a waste water tank pipe head.

8. The long car refining water quality adjustment reaction kettle according to claim 1, characterized in that: One end of the recovery electric pump (13) is sleeved with a connecting water pipe, and one end of the connecting water pipe is inserted with the reaction kettle assembly (2).

Images