Overcurrent electrolysis structure and water purification device

Abstract

The utility model relates to an overflowing type electrolysis structure and a water purifying device, and belongs to the field of purification. The overflowing type electrolysis structure comprises a shell assembly, the shell assembly is provided with a water inlet, an electrolysis cavity and a water outlet, and the water inlet, the electrolysis cavity and the water outlet are sequentially communicated; the plurality of electrode plates are arranged in the electrolysis cavity at intervals; the at least one separation baffle plate is correspondingly arranged in a gap formed between the adjacent electrode plates; one end of the communication piece is arranged on one electrode plate, the other end of the communication piece is arranged on the other electrode plate, and the communication piece penetrates through the separation baffle; and the locking assembly is arranged on the shell assembly and penetrates through the plurality of electrode slices, the separation baffle and the communicating piece. According to the overflowing type electrolysis structure, the multiple electrode plates are arranged at intervals, the contact area of water during electrolysis is increased, more water molecules can fully act with the electrodes, and the sufficient purification effect is achieved.

Description

TECHNICAL FIELD

[0001] The utility model relates to the purification field especially, is a kind of overcurrent electrolytic structure and water purifier. BACKGROUND

[0002] In prior art, the installation structure between electrode sheets is unreasonable, resulting in uneven distribution when liquid flows through electrolytic area, part of liquid stays in electrolytic area for too short time, leading to insufficient electrolysis, so that the water quality after treatment cannot reach the expected standard. UTILITY MODEL CONTENTS

[0003] Therefore, it is necessary to provide an overcurrent electrolytic structure and water purifier to solve the problem of unreasonable installation structure between electrode sheets.

[0004] An overcurrent electrolytic structure, comprising: a shell assembly, the shell assembly is provided with a water inlet, an electrolytic cavity and a water outlet, the water inlet, the electrolytic cavity and the water outlet are sequentially communicated; a plurality of electrode sheets, a plurality of the electrode sheets are arranged in the electrolytic cavity at intervals; at least one separation baffle, the separation baffle is arranged in the interval formed between adjacent electrode sheets; at least one communication piece, one end of the communication piece is arranged on one of the electrode sheets, the other end of the communication piece is arranged on another electrode sheet, and the communication piece passes through the separation baffle; a locking assembly, the locking assembly is arranged on the shell assembly and passes through a plurality of electrode sheets, separation baffles and communication pieces.

[0005] The above discloses a flow type electrolysis structure, first, the water inlet, the electrolysis cavity and the water outlet are communicated in turn, forming a smooth water flow channel, which ensures that the water body can flow through the electrolysis cavity continuously and stably, so that the electrolysis process is uninterrupted, which greatly improves the purification efficiency. Secondly, a plurality of interval arranged electrode sheets increase the contact area of electrolytic water. In the electrolysis process, more water molecules can fully act on the electrode, thereby efficiently generating bactericidal substances such as active oxygen, hypochlorous acid, etc. These bactericidal substances have strong killing ability to common bacteria, viruses, algae and other microorganisms in water, which can guarantee water quality safety from the root and make water reach higher health standards, and can be widely used in drinking water purification, swimming pool water disinfection and many other scenes. The setting of the separation baffle, on the one hand, effectively separates the multiple electrode sheets, so that the electrode sheets can stably carry out electrolysis reaction and ensure the stability and order of the electrolysis process; on the other hand, in cooperation with the connecting piece, it accurately guides the current transmission between the electrode sheets, further improves the electrolysis effect. The locking assembly strengthens the stability of the whole structure, ensures that the multiple electrode sheets can always maintain a fixed distance and position even under complex working conditions such as water flow impact and equipment vibration, and stably plays the electrolysis effect. The sealing assembly eliminates the risk of water leakage, not only protects the electrical elements inside the equipment and prolongs the service life, but also avoids secondary pollution caused by water leakage, and provides all-round protection for high-quality water purification. At the same time, the sealing assembly can also prevent the injection molding material of the shell assembly from penetrating into the electrolysis cavity or the water in the electrolysis cavity from overflowing into the containing cavity, which protects the electrolysis process while ensuring the safety of the water quality.

[0006] In one of the embodiments, the plurality of electrode sheets comprises a first electrode sheet, a second electrode sheet and a third electrode sheet, the separation baffle comprises a first separation baffle and a second separation baffle, the first electrode sheet is arranged on the shell assembly, the first separation baffle is arranged on the first electrode sheet, the second electrode sheet is arranged on the first separation baffle, the second separation baffle is arranged on the second electrode sheet, the third electrode sheet is arranged on the second separation baffle, one end of the communication piece is arranged on the first electrode sheet, the other end of the communication piece is arranged on the third electrode sheet, and the communication piece penetrates through the first separation baffle and the second separation baffle. By orderly arranging the first electrode sheet, the second electrode sheet and the third electrode sheet, and cooperating the first separation baffle and the second separation baffle, the electrolysis space layout is greatly optimized. On the one hand, the increase in the number of electrode sheets and the reasonable spacing make the reaction area of electrolytic water present a gradient distribution, so that water molecules can fully contact the electrodes at different levels, continuously and efficiently generate bactericidal substances, greatly improve the overall electrolysis efficiency, strengthen the purification ability of complex water quality, and the third electrode sheet is provided with a coating, which further catalyzes the electrolysis reaction, and the coating helps to prevent corrosion of the third electrode sheet, prolonging the service life thereof. At the same time, the communication piece penetrates through the first and second separation baffles to connect the first electrode sheet and the third electrode sheet, which not only ensures stable transmission of current and avoids local current disorder, but also strengthens the synergistic effect between the electrode sheets. This makes the electrolysis process more balanced, the output of bactericidal substances more stable, and the variable pollutants in water can be accurately dealt with, whether it is trace harmful substances in drinking water or various bacteria breeding in swimming pool water, which can be effectively removed, and the water safety is effectively ensured.

[0007] In one of the embodiments, the first electrode sheet is provided with a first notch and a first through hole, the second electrode sheet is provided with a second notch and a second through hole, the third electrode sheet is provided with a third notch and a third through hole, the first partition baffle is provided with a first electrode sheet connecting hole and a first matching hole, the second partition baffle is provided with a second electrode sheet connecting hole and a second matching hole, and the number of the locking assemblies is multiple, wherein one of the locking assemblies passes through the first notch, the first matching hole, the second through hole and the third notch in sequence, and another of the locking assemblies passes through the first through hole, the communication member and the third through hole in sequence, and the communication member passes through the first electrode sheet connecting hole, the second notch and the second electrode sheet connecting hole in sequence. Through the precise arrangement of various notches, through holes and connecting holes on the electrode sheet and the partition baffle, and the cooperation of multiple locking assemblies, a stable and efficient electrolysis system is constructed. On the one hand, the interleaved arrangement of multiple locking assemblies firmly fixes each electrode sheet and partition baffle, so that the internal structure is not shaken even under complex working conditions such as high-intensity water flow impact and frequent equipment start-stop, ensuring the stability and continuity of the electrolysis process and stably producing sterilization substances to purify water quality. The design of notches and through holes can orderly install the first electrode sheet, the first partition baffle, the second electrode sheet, the second partition baffle and the third electrode sheet in the shell assembly, skillfully optimizing the water flow path, so that the water flow can be evenly dispersed to the surface of each electrode sheet along the preset channel, avoiding local water flow turbulence or stagnation, allowing each electrode to fully play an electrolysis role, improving electrolysis efficiency and accelerating the sterilization process. At the same time, the perfect fit of the communication member and each hole position further standardizes the electric field distribution between electrodes while ensuring accurate transmission of electric current, making the electrolysis reaction more orderly. Whether it is to treat bacteria and chemical oxygen demand in domestic sewage or to purify harmful microorganisms in aquaculture water, it can rely on its stable and efficient electrolysis performance to achieve deep purification of water quality and provide reliable protection for various water demands.

[0008] In one of the embodiments, the first partitioning baffle is further provided with a plurality of first communication grooves, the second partitioning baffle is further provided with a plurality of second communication grooves, the part of the first electrode sheet, the plurality of first communication grooves and the part of the second electrode sheet are oppositely arranged, and the part of the second electrode sheet, the plurality of second communication grooves and the third electrode sheet are oppositely arranged. By arranging a plurality of first communication grooves, the first electrode sheet and the second electrode sheet are oppositely arranged, which ingeniously expands the electrolysis contact area. When the water flows, it can flush the two electrode sheets under the guidance of the communication grooves, so that more water molecules participate in the electrolysis reaction, efficiently generate bactericidal substances, and greatly improve the electrolysis efficiency. Similarly, the second communication grooves oppositely arrange the second electrode sheet and the third electrode sheet, further strengthening the effect of the multi-layer electrode cooperative electrolysis. On the one hand, the communication grooves regulate the shuttle path of the water flow between the electrodes, ensure the uniform distribution of the water flow in each area, and avoid the electrolysis blind area; on the other hand, the electric field distribution between the oppositely arranged electrode sheets is more reasonable, and the current conduction is smoother, which can accurately purify the impurities, odors in domestic water and heavy metal ions in industrial wastewater, and comprehensively ensure good water quality.

[0009] In one of the embodiments, the shell assembly comprises a first shell assembly, a second shell assembly and a third shell assembly, the second shell assembly is arranged on the first shell assembly, the third shell assembly is arranged on the second shell assembly, a plurality of electrode sheets are arranged on the first shell assembly and / or the second shell assembly, the first shell assembly is provided with the water inlet and a plurality of fixing holes, the second shell assembly is provided with the water outlet, the first shell assembly and the second shell assembly enclose the electrolysis cavity, and the third shell assembly is provided with a containing cavity. By arranging the first shell assembly, the second shell assembly and the third shell assembly layer by layer, each performs its own function, and ensures that the electrolysis process of the overflow type electrolysis structure can be stably carried out. The first shell assembly carries the electrode sheets and is provided with the water inlet, which ensures that the water source can enter the electrolysis area in the first time and start the efficient electrolysis process. The second shell assembly is provided with the water outlet and encloses the electrolysis cavity with the first shell assembly, accurately limits the space where electrolysis occurs, concentrates and efficiently carries out the electrolysis process, and helps to fully generate the sterilization substances. A plurality of locking assemblies are arranged skillfully, the fixing end is arranged in the fixing hole of the first shell assembly, the fixing end is matched with the shape of the fixing hole, and the shape is not a common circular shape, which effectively avoids the relative sliding of the locking assembly when locking, and at the same time, the locking part penetrates the second and third shell assemblies, tightly fixes the whole structure, even if facing water flow impact and equipment vibration, the internal electrode sheets and other key components can be stably fixed in the electrolysis cavity, and the stability of electrolysis is ensured. The sealing assembly is protected in all directions and is distributed on each shell assembly, which eliminates the hidden danger of water leakage and glue leakage, protects the internal electrical elements and prolongs the service life, prevents secondary pollution of water quality caused by leakage, and ensures reliable operation of the device and continuous output of high-quality purified water.

[0010] In one of the embodiments, the first shell assembly comprises a first shell body, a water inlet pipe, a plurality of first baffles, a plurality of first fixed columns, and a plurality of first supports. The water inlet pipe is arranged on the first shell body. The plurality of first baffles are arranged along the length direction of the two opposite side walls of the first shell body. The plurality of first fixed columns are arranged on the first shell body. The first fixed columns are provided with the fixing holes. The plurality of first supports are arranged on the first shell body. One of the plurality of electrode sheets abuts against the plurality of first supports and the plurality of first baffles. The fixing ends of the plurality of locking assemblies are arranged in the fixing holes one by one. The water inlet pipe is provided with the water inlet. By arranging the water inlet pipe on the first shell body and providing the water inlet pipe with the water inlet, the water flow to be purified can be accurately and smoothly introduced, the stability of the water supply is ensured, and the electrolysis process is not affected by poor water inlet. The plurality of first baffles distributed along the side walls of the first shell body have multiple functions. On the one hand, they can preliminarily distribute and buffer the inflowing water flow, uniformly disperse the water flow to each electrode sheet, avoid excessive local impact, and ensure balanced and efficient electrolysis reaction. On the other hand, in cooperation with the first supports, the electrode sheets are stably abutted against, remain in the fixed position and state under the impact of the water flow, and the structural stability is strengthened. The fixing holes on the first fixed columns correspond to the locking assemblies one by one, the fastening degree of the entire device is enhanced, the internal precise structure can still work stably under complex working conditions, and the collaborative design makes the device more efficient and stable when generating the sterilization substances by electrolyzing water, continuously and stably outputs clean water source, and meets diversified water purification requirements.

[0011] In one of the embodiments, the second shell assembly comprises a second shell body, a water outlet pipe, a plurality of second baffles, a plurality of matching columns and a plurality of second supports, the second shell body is arranged on the first shell assembly, the water outlet pipe is arranged on the second shell body, the plurality of second baffles are arranged along the length direction of the two opposite sidewalls of the second shell body, the plurality of matching columns are arranged on the second shell body, the plurality of second supports are arranged on the second shell body, one of the plurality of electrode sheets abuts against the plurality of second supports and the plurality of second baffles, and the locking parts of the plurality of locking assemblies pass through the plurality of matching columns one by one. The water outlet pipe is arranged on the second shell body, and a water outlet is arranged on the water outlet pipe, so that the electrolysis purified water flow is provided with a smooth discharge channel, the treated clean water can be discharged in time and efficiently, the subsequent water demand is met, and the continuous operation of the electrolysis cavity is not affected by accumulated water. The plurality of second baffles distributed along the sidewalls of the second shell body complement the first baffles of the first shell assembly, they can guide the electrolysis water flow and regulate the water flow direction, effectively reducing the impact of water flow turbulence on the electrode sheets, the separation baffles and other internal components. At the same time, the second baffles can buffer the water flow before the water flow is discharged, reducing the impact and wear of the water flow on the water outlet pipe. The matching columns and the locking assemblies are closely matched, and the second supports stably abut against the electrode sheets, and the first shell assembly cooperates to build a comprehensive stable support system, so that the electrode sheets always maintain accurate positions in the complex water flow environment, the electrolysis process is stable and orderly, and the sterilization substances are continuously and stably produced, thereby ensuring the output of high-quality purified water.

[0012] In one of the embodiments, the third shell assembly comprises a third shell body, a mounting plate, connecting columns and an injection molding piece, the third shell body is provided with the accommodating cavity, the third shell body is arranged on the second shell assembly, the connecting columns are provided on the third shell body and located in the accommodating cavity, the injection molding piece is arranged in the accommodating cavity provided on the third shell body, the locking parts of the locking assemblies pass through the connecting columns and the mounting plate one by one, and the mounting plate is clamped between the connecting columns and the locking assemblies. The accommodating cavity provided on the third shell body provides a storage position for the mounting plate, the connecting columns and the injection molding piece, effectively protecting the components from external damage and interference. The connecting columns and the locking assemblies cooperate to enable the electrolytic sheet to be stably arranged in the electrolysis cavity, greatly enhancing the integrity of the device, which can work stably even if it encounters strong vibration or water flow impact. At the same time, the accommodating cavity can also provide a space for the circuit elements to be arranged, which is suitable for various water purification devices, greatly enhancing the versatility of the overflow electrolysis structure. The mounting plate can stably resist the sealing element arranged on the connecting column, ensuring that the injection molding material does not penetrate into the electrolysis cavity, and also ensuring that the water in the electrolysis cavity overflows into the accommodating cavity.

[0013] In one of the embodiments, a plurality of first baffles are formed on the first shell assembly, a plurality of second baffles are formed on the second shell assembly, and the first baffles of the first shell assembly and the second baffles of the second shell assembly cooperate to divide the electrolysis cavity into a plurality of channels, and the plurality of channels are sequentially connected to form a water passing channel. By cleverly dividing the electrolysis cavity into multiple sections and sequentially connecting them to form a water passing channel, on the one hand, the water flow is segmented and slowed down, avoiding excessive impact of turbulent water flow on the electrode sheet, ensuring stable operation of the electrode sheet and prolonging its service life. If the turbulent water flow directly impacts the electrode sheet, it is easy to cause displacement and wear of the electrode sheet, but with the buffering of the baffles, the electrode sheet can always be in the best working state, prolonging its service life. On the other hand, the segmented water flow path makes the water body stay in the electrolysis cavity for a more reasonable time, giving water molecules sufficient electrolysis opportunities, improving the generation amount of sterilization substances and enhancing the water quality purification effect.

[0014] In one of the embodiments, the locking assembly comprises a locking bolt and a locking nut, the fixed end of the locking bolt is arranged in the fixed hole of the first shell assembly, the locking part of the locking bolt penetrates through the second shell assembly and the third shell assembly, and the locking nut is arranged on the locking part of the locking bolt and abuts against the third shell assembly. By stably arranging the fixed end of the locking bolt in the fixed hole of the first shell assembly, since the shape of the fixed end is close to the shape of the fixed hole, relative rotation between the locking nut and the fixed hole can be avoided during locking, and smooth locking process is ensured. The locking part of the locking bolt penetrates through the second shell assembly and the third shell assembly in sequence, and tightly connects the main structure of the whole device. This design greatly enhances the overall structure, and the components between the components will not easily loosen and shift in the face of continuous impact of water flow and vibration during equipment operation, ensuring that the electrolysis process is not disturbed and stable disinfectant is produced.

[0015] In one of the embodiments, the sealing assembly comprises a first sealing element and a second sealing element, the first shell assembly and the second shell assembly cooperate to form a first cooperation gap, the first sealing element is arranged on the first cooperation gap, the third shell assembly and the plurality of locking assemblies cooperate to form a plurality of second cooperation gaps, the number of the second sealing elements is a plurality, the plurality of second sealing elements are arranged one by one on the plurality of second cooperation gaps, and the plurality of locking assemblies are arranged one by one in the plurality of second sealing elements. By arranging the first sealing element on the first cooperation gap between the first shell assembly and the second shell assembly, water leakage from the shell joint gap is effectively prevented, and the electrolysis process can be stably and safely carried out. By arranging the plurality of second sealing elements one by one on the plurality of connecting columns of the third shell assembly and the second cooperation gaps of the locking assemblies, on the one hand, water in the electrolysis cavity can be prevented from overflowing into the containing cavity, and on the other hand, injection molding material can be prevented from penetrating into the electrolysis cavity to pollute the water source, thereby comprehensively assisting the device to produce pure and high-quality water to meet various water demand.

[0016] The second aspect of the present application discloses a water purification device, which comprises: the flow-through electrolysis structure described above; and a water purification device body, wherein the flow-through electrolysis structure is arranged on the water purification device body, and the water inlet and the water outlet are in communication with the water purification device body.

[0017] The second aspect discloses a water purification device. The water source can continuously enter the flow-through electrolysis structure according to a preset path, and the water flow is purified and disinfected after electrolysis, and then flows out from the water outlet, so that the entire water purification process is smooth, and the water can orderly flow between the purification units. BRIEF DESCRIPTION OF DRAWINGS

[0018] Figure 1 is a perspective view of the flow-through electrolysis structure;

[0019] Figure 2 is a first cross-sectional view of the flow-through electrolysis structure;

[0020] Figure 3 is a first exploded view of the flow-through electrolysis structure;

[0021] Figure 4 is a second exploded view of the flow-through electrolysis structure;

[0022] Figure 5 is a first perspective view of the shell assembly;

[0023] Figure 6 is a second perspective view of the shell assembly;

[0024] Figure 7 is a third perspective view of the shell assembly;

[0025] Figure 8 is an exploded view of the locking assembly;

[0026] Figure 9 is a second cross-sectional view of the flow-through electrolysis structure;

[0027] Figure 10 is Figure 9 is a local enlarged view of the A area of

[0028] Correspondence between the reference signs and the component names is as follows:

[0029] 1 shell assembly, 11 first shell assembly, 111 first shell body, 112 water inlet pipe, 113 first baffle, 114 first fixed column, 115 first support, 12 second shell assembly, 121 second shell body, 122 water outlet pipe, 123 second baffle, 124 matching column, 125 second support, 13 third shell assembly, 131 third shell body, 132 mounting plate, 133 connecting column, 134 injection molding part, 101 water inlet, 102 electrolysis cavity, 103 water outlet, 104 containing cavity, 105 fixing hole;

[0030] 2 first electrode sheet, 201 first notch, 202 first through hole;

[0031] 3. Second electrode plate, 301. Second notch, 302. Second through hole;

[0032] 4. Third electrode plate; 401. Third notch; 402. Third through hole;

[0033] 5 First partition baffle, 501 First electrode plate connection hole, 502 First mating hole, 503 First connecting groove;

[0034] 6 Second partition baffle, 601 Second electrode plate connection hole, 602 Second mating hole, 603 Second connecting groove;

[0035] 7 connecting elements;

[0036] 8. Locking assembly; 81. Locking bolt; 82. Locking nut;

[0037] 9. Sealing assembly, 91. First seal, 92. Second seal. Detailed Implementation

[0038] To better understand the above-mentioned objectives, features, and advantages of this utility model, the present utility model will be further described in detail below with reference to the accompanying drawings and specific embodiments. It should be noted that, unless otherwise specified, the embodiments and features described in these embodiments can be combined with each other.

[0039] Many specific details are set forth in the following description in order to provide a full understanding of the present invention. However, the present invention may also be implemented in other ways different from those described herein. Therefore, the scope of protection of the present invention is not limited to the specific embodiments disclosed below.

[0040] The following description, with reference to the accompanying drawings, describes some embodiments of the flow-through electrolysis structure and water purification device of this utility model.

[0041] Example 1

[0042] like Figures 1 to 10 As shown, this embodiment discloses a flow-through electrolysis structure, including: a shell assembly 1, which has an inlet 101, an electrolysis chamber 102, and an outlet 103, which are sequentially connected; multiple electrode plates, which are spaced apart in the electrolysis chamber 102; at least one partition baffle, which is correspondingly disposed in the gaps formed between adjacent electrode plates; at least one connecting member 7, one end of which is disposed on one of the electrode plates, and the other end of which is disposed on another electrode plate, and the connecting member 7 passes through the partition baffle; and a locking assembly 8, which is disposed on the shell assembly 1 and passes through the multiple electrode plates, the partition baffle, and the connecting member.

[0043] The application discloses a kind of overcurrent electrolytic structure, first, water inlet 101, electrolytic cavity 102 and water outlet 103 are sequentially communicated, form fluent water flow channel, guarantee that water body can continuously and stably flow through electrolytic cavity 102, so that electrolytic process is uninterrupted, greatly improve purification efficiency.Second, multiple electrode sheets arranged at intervals, increase the contact area of electrolytic water.In electrolytic process, more water molecules can fully act with electrode, to generate bactericidal material, such as active oxygen, hypochlorous acid, etc., these bactericidal materials have very strong killing ability to common bacteria, virus, algae and other microorganisms in water, can guarantee water quality safety from root, make water reach higher sanitary standard, can be widely applied to drinking water purification, swimming pool water disinfection and many other scenes.The setting of separation baffle, on the one hand, it effectively separates multiple electrode sheets, so that electrode sheet can stably carry out electrolytic reaction, ensure that electrolytic process is stable and orderly;On the other hand, cooperate with connecting piece 7, accurately guide current transmission between electrode sheet, further improve electrolytic effect.Locking assembly 8 strengthens the stability of the whole structure, ensures that multiple electrode sheets can always maintain fixed spacing and position even under complex working conditions such as water flow impact, equipment vibration, and stably plays electrolytic effect.Sealing assembly 9 eliminates the risk of water leakage, not only protects the electrical elements inside the equipment, prolongs service life, but also avoids secondary pollution caused by water leakage, and provides comprehensive protection for high-quality water purification, while sealing assembly 9 can also prevent the injection molding material of shell assembly 1 from penetrating into electrolytic cavity 102 or the water in electrolytic cavity 102 from overflowing into containing cavity 104, while protecting the electrolytic process, also ensures the safety of water quality.

[0044] As Figure 2 , Figure 3 and Figure 4As shown, in addition to the features of the above embodiments, the present embodiment is further defined as: the plurality of electrode sheets include a first electrode sheet 2, a second electrode sheet 3 and a third electrode sheet 4, the separation baffles include a first separation baffle 5 and a second separation baffle 6, the first electrode sheet 2 is arranged on the housing assembly 1, the first separation baffle 5 is arranged on the first electrode sheet 2, the second electrode sheet 3 is arranged on the first separation baffle 5, the second separation baffle 6 is arranged on the second electrode sheet 3, the third electrode sheet 4 is arranged on the second separation baffle 6, one end of the communication piece 7 is arranged on the first electrode sheet 2, the other end of the communication piece 7 is arranged on the third electrode sheet 4, and the communication piece 7 passes through the first separation baffle 5 and the second separation baffle 6. By orderly arranging the first electrode sheet 2, the second electrode sheet 3 and the third electrode sheet 4, and cooperating with the first separation baffle 5 and the second separation baffle 6, the electrolysis space layout is greatly optimized. On the one hand, the increase in the number of electrode sheets and the reasonable spacing make the reaction area of electrolytic water show a gradient distribution, so that water molecules can fully contact the electrodes at different levels, continuously and efficiently generate bactericidal substances, greatly improve the overall electrolysis efficiency, strengthen the purification ability of complex water quality, and the third electrode sheet 3 is provided with a coating, which further catalyzes the electrolysis reaction, and the coating also helps to prevent corrosion of the third electrode sheet 3, prolonging its service life. At the same time, the communication piece 7 penetrates the first and second separation baffles to connect the first electrode sheet 2 and the third electrode sheet 4, which not only ensures stable current transmission and avoids local current disorder, but also strengthens the synergistic effect between the electrode sheets. This makes the electrolysis process more balanced, the output of bactericidal substances more stable, and it can accurately respond to the changing pollutants in water, whether it is trace harmful substances in drinking water or various bacteria breeding in swimming pool water, which can be effectively removed, and the safety of water use is effectively guaranteed.

[0045] As Figure 3 and Figure 4As shown, in addition to the features of the above embodiments, the present embodiment is further limited: the first electrode sheet 2 is provided with a first notch 201 and a first through hole 202, the second electrode sheet 3 is provided with a second notch 301 and a second through hole 302, the third electrode sheet 4 is provided with a third notch 401 and a third through hole 402, the first partition baffle 5 is provided with a first electrode sheet connecting hole 501 and a first matching hole 502, the second partition baffle 6 is provided with a second electrode sheet connecting hole 601 and a second matching hole 602, and the number of locking assemblies 8 is multiple, one of which passes through the first notch 201, the first matching hole 502, the second through hole 302 and the third notch 401 in turn, and the other passes through the first through hole 202, the connecting piece 7 and the third through hole 402 in turn, and the connecting piece 7 passes through the first electrode sheet connecting hole 501, the second notch 301 and the second electrode sheet connecting hole 601 in turn. Through the precise setting of various notches, through holes and connecting holes on the electrode sheet and the partition baffle, combined with multiple locking assemblies 8, a stable and efficient electrolysis system is constructed. On the one hand, the intercalation layout of multiple locking assemblies 8 firmly fixes each electrode sheet and partition baffle, so that the internal structure is not shaken even under complex working conditions such as high-strength water flow impact and frequent equipment start-stop, ensuring the stability and continuity of the electrolysis process and stably producing germicidal substances to purify water quality. The design of notches and through holes can orderly install the first electrode sheet 2, the first partition baffle 5, the second electrode sheet 3, the second partition baffle 6 and the third electrode sheet 4 in the shell assembly 1, and skillfully optimize the water flow path, so that the water flow can be evenly dispersed to the surface of each electrode sheet along the preset channel, avoiding local water flow turbulence or stagnation, allowing each electrode to fully exert its electrolysis effect, improving electrolysis efficiency and accelerating the sterilization process. At the same time, the perfect fit of the connecting piece 7 and each hole position further standardizes the electric field distribution between the electrodes while ensuring accurate transmission of electric current, making the electrolysis reaction more orderly. Whether it is to treat bacteria and chemical oxygen demand in domestic sewage or to purify harmful microorganisms in aquaculture water, it can rely on its stable and efficient electrolysis performance to achieve deep purification of water quality and provide reliable protection for various water demands.

[0046] As Figure 3 and Figure 4As shown, in addition to the features of the above embodiments, the present embodiment is further limited in that: the first partition baffle 5 is further provided with a plurality of first communication grooves 503, the second partition baffle 6 is further provided with a plurality of second communication grooves 603, the part of the first electrode sheet 2, the plurality of first communication grooves 503 and the part of the second electrode sheet 3 are oppositely arranged, and the part of the second electrode sheet 3, the plurality of second communication grooves 603 and the third electrode sheet 4 are oppositely arranged. By arranging the plurality of first communication grooves 503, the first electrode sheet 2 and the second electrode sheet 3 are oppositely arranged, which ingeniously expands the electrolysis contact area. When the water flows, it can flush the two electrode sheets under the guidance of the communication grooves, so as to make more water molecules participate in the electrolysis reaction, efficiently generate the sterilization substance, and greatly improve the electrolysis efficiency. Similarly, the second communication grooves 603 oppositely arrange the second electrode sheet 3 and the third electrode sheet 4, which further strengthens the effect of the multi-layer electrode cooperative electrolysis. On the one hand, the communication grooves regulate the shuttle path of the water flow between the electrodes, ensure the uniform distribution of the water flow in each area, and avoid the electrolysis blind area; on the other hand, the oppositely arranged electrode sheets have a more reasonable electric field distribution and smoother current conduction, which can accurately purify the impurities, odors in the domestic water and heavy metal ions in the industrial wastewater, and comprehensively ensure the excellent water quality.

[0047] As Figure 2 , Figure 3 and Figure 6As shown, in addition to the features of the above embodiments, the present embodiment is further defined as follows: the shell assembly 1 comprises a first shell assembly 11, a second shell assembly 12 and a third shell assembly 13, the second shell assembly 12 is arranged on the first shell assembly 11, the third shell assembly 13 is arranged on the second shell assembly 12, a plurality of electrode sheets are arranged on the first shell assembly 11 and / or the second shell assembly 12, the first shell assembly 11 is provided with a water inlet 101 and a plurality of fixing holes 105, the second shell assembly 12 is provided with a water outlet 103, the first shell assembly 11 and the second shell assembly 12 enclose an electrolysis cavity 102, and the third shell assembly 13 is provided with a containing cavity 104. By arranging the first shell assembly 11, the second shell assembly 12 and the third shell assembly 13 in layers, each performs its own function, ensuring that the electrolysis process of the overflow type electrolysis structure can be carried out stably. The first shell assembly 11 carries the electrode sheets and is provided with the water inlet 101, ensuring that the water source can enter the electrolysis area in the first time, starting the efficient electrolysis process. The second shell assembly 12 is provided with the water outlet 103, which encloses the electrolysis cavity 102 with the first shell assembly 11, accurately defining the space where electrolysis occurs, making the electrolysis process concentrated and efficient, which helps to generate sufficient sterilization substances. The plurality of locking assemblies 8 are cleverly arranged, with the fixed end arranged in the fixing hole 105 of the first shell assembly 11, which is matched with the shape of the fixing hole 105, and the shape is not ordinary circular, effectively avoiding the relative sliding of the locking assembly 8 when locking, while the locking part penetrates the second and third shell assemblies, tightly fastening the entire structure. Even in the face of water flow impact, equipment vibration, and internal electrode sheets and other key components can be stably fixed in the electrolysis cavity 102, ensuring the stability of electrolysis. The sealing assembly 9 provides all-round protection, distributed on each shell assembly, eliminating the hidden dangers of water leakage and glue leakage, protecting internal electrical components and prolonging service life, preventing secondary pollution of water quality caused by leakage, and ensuring reliable operation of the device and continuous output of high-quality purified water.

[0048] As Figure 2 , Figure 3 , Figure 4 and Figure 5As shown, in addition to the features of the above embodiments, the present embodiment is further defined as: the first shell assembly 11 comprises a first shell body 111, a water inlet pipe 112, a plurality of first baffles 113, a plurality of first fixed columns 114, and a plurality of first supports 115, the water inlet pipe 112 is arranged on the first shell body 111, the plurality of first baffles 113 are arranged along the length direction of the two opposite side walls of the first shell body 111, the plurality of first fixed columns 114 are arranged on the first shell body 111, the first fixed columns 114 are provided with fixing holes 105, the plurality of first supports 115 are arranged on the first shell body 111, one of the plurality of electrode sheets abuts against the plurality of first supports 115 and the plurality of first baffles 113, the fixed ends of the plurality of locking assemblies 8 are arranged in the plurality of fixing holes 105 one by one, and the water inlet pipe 112 is provided with a water inlet 101. By arranging the water inlet pipe 112 on the first shell body 111, and also arranging the water inlet 101 on the water inlet pipe 112, the water flow to be purified can be accurately and smoothly introduced, the stability of the water supply is ensured, and the electrolysis process is not affected by poor water inlet. The plurality of first baffles 113 distributed along the side wall of the first shell body 111 have multiple functions. On the one hand, they can preliminarily distribute and buffer the inflowing water flow, make the water flow uniformly dispersed to each part of the electrode sheet, avoid excessive local impact, and ensure balanced and efficient electrolysis reaction; on the other hand, cooperating with the first supports 115, the electrode sheet is stably abutted against, and remains in a fixed position and state under the impact of the water flow, thereby strengthening the structural stability. The fixing holes 105 on the first fixed columns 114 correspond to the locking assemblies 8 one by one, thereby enhancing the fastening degree of the entire device, so that the internal precise structure can still work stably under complex working conditions. This cooperative design makes the device more efficient and stable when generating bactericidal substances by electrolyzing water, and continuously and stably outputs clean water source to meet diversified water purification needs.

[0049] As Figure 2 , Figure 3 and Figure 6As shown, in addition to the features of the above embodiments, the present embodiment is further defined as: the second shell assembly 12 comprises a second shell body 121, a water outlet pipe 122, a plurality of second baffles 123, a plurality of matching columns 124, and a plurality of second supports 125, the second shell body 121 is arranged on the first shell assembly 11, the water outlet pipe 122 is arranged on the second shell body 121, the plurality of second baffles 123 are arranged along the length direction of the two opposite side walls of the second shell body 121, the plurality of matching columns 124 are arranged on the second shell body 121, the plurality of second supports 125 are arranged on the second shell body 121, one of the plurality of electrode sheets abuts against the plurality of second supports 125 and the plurality of second baffles 123, and the locking parts of the plurality of locking assemblies 8 pass through the plurality of matching columns 124 one by one. By arranging the water outlet pipe 122 on the second shell body 121, and providing the water outlet 103 on the water outlet pipe 122, a smooth discharge channel is provided for the water flow after electrolytic purification, so that the treated clean water can be discharged in time and efficiently, the subsequent water demand is met, and the continuous operation of the electrolysis cavity 102 is not affected by the accumulated water. The plurality of second baffles 123 distributed along the side wall of the second shell body 121 complement the first baffles 113 of the first shell assembly 11, which can guide the electrolysis water flow and standardize the water flow direction, effectively reducing the impact of water flow turbulence on the electrode sheet, the separation baffle and other internal components. At the same time, it plays a buffering role before the water flow is discharged, reducing the impact and wear of the water flow on the water outlet pipe 122. The matching columns 124 are closely matched with the locking assemblies 8, and the second supports 125 stably abut against the electrode sheet, and the first shell assembly 11 cooperates to build a comprehensive stable support system, so that the electrode sheet always maintains a precise position in a complex water flow environment, ensuring that the electrolysis process is stable and orderly, and continuously and stably producing sterilization substances, and escorting the output of high-quality purified water.

[0050] As Figure 6 , Figure 7 and Figure 8As shown, in addition to the features of the above embodiments, this embodiment is further defined as: the third shell assembly 13 comprises a third shell body 131, a mounting plate 132, a plurality of connecting columns 133 and an injection molding piece 134, the third shell body 131 is provided with a receiving cavity 104, the third shell body 131 is arranged on the second shell assembly 12, the plurality of connecting columns 133 are arranged on the third shell body 131 and located in the receiving cavity 104, the injection molding piece 134 is arranged in the receiving cavity 104 provided on the third shell body 131, the locking parts of the plurality of locking assemblies 8 pass through the plurality of connecting columns 133 and the mounting plate 132 one by one, and the mounting plate 132 is clamped between the plurality of connecting columns 133 and the locking assemblies 8. By providing the receiving cavity 104 on the third shell body 131, a storage position is provided for the mounting plate 132, the connecting columns 133 and the injection molding piece 134, which effectively protects these components from damage and interference from the outside world. The plurality of connecting columns 133 cooperate with the plurality of locking assemblies 8 to enable the electrolytic sheet to be stably arranged in the electrolysis cavity 102, greatly enhancing the overall integrity of the device, so that it can work stably even if it encounters strong vibration or water flow. At the same time, the receiving cavity 104 can also provide a mounting space for circuit elements, which is suitable for various water purification devices, greatly enhancing the versatility of the overflow electrolysis structure. The mounting plate 132 can stably hold the sealing element arranged on the connecting column 133, ensuring that the injection molding material does not penetrate into the electrolysis cavity 102, and also ensuring that the water in the electrolysis cavity 102 does not overflow into the receiving cavity 104.

[0051] As shown in Figure 2 , Figure 5 and Figure 6 , in addition to the features of the above embodiments, this embodiment is further defined as: a plurality of first baffles 113 are formed on the first shell assembly 11, a plurality of second baffles 123 are formed on the second shell assembly 12, and the plurality of first baffles 113 of the first shell assembly 11 and the plurality of second baffles 123 of the second shell assembly 12 cooperate to divide the electrolysis cavity 102 into a plurality of channels, which are sequentially connected to form a water passing channel. By cleverly dividing the electrolysis cavity 102 into multiple sections and sequentially connecting them to form a water passing channel, on the one hand, the water flow is segmented and slowed down, avoiding excessive impact of turbulent water flow on the electrode sheet, ensuring stable operation of the electrode sheet and prolonging its service life. If the turbulent water flow directly impacts the electrode sheet, it is easy to cause displacement and wear of the electrode sheet, but with the buffering of the baffles, the electrode sheet can always be in the best working state, prolonging its service life. On the other hand, the segmented water flow path makes the water body stay in the electrolysis cavity for a more reasonable time, giving water molecules sufficient electrolysis opportunities, increasing the amount of germicidal substances generated, and enhancing the water quality purification effect.

[0052] As shown in Figure 2 , Figure 5 and Figure 8As shown, in addition to the features of the above embodiments, the present embodiment is further defined as: the locking assembly 8 comprises a locking bolt 81 and a locking nut 82, the fixed end of the locking bolt 81 is arranged in the fixed hole 105 of the first shell assembly 11, the locking part of the locking bolt 81 passes through the second shell assembly 12 and the third shell assembly 13, and the locking nut 82 is arranged on the locking part of the locking bolt 81 and abuts against the third shell assembly 13. By stably arranging the fixed end of the locking bolt 81 in the fixed hole 105 of the first shell assembly 11, since the shape of the fixed end is close to the shape of the fixed hole 105, relative rotation between the two can be avoided during locking, and smooth locking process is ensured. The locking part of the locking bolt 81 sequentially penetrates the second shell assembly 12 and the third shell assembly 13, and tightly connects the main structure of the entire device. This design greatly enhances the overall structure, and in the face of the continuous impact of water flow and the vibration during equipment operation, the components between the components will not easily loosen and shift, ensuring that the electrolysis process is not disturbed and stable production of germicidal substances. The locking nut 82 abuts against the mounting plate 132 of the third shell assembly 13, and when the locking nut 82 is tightened, the mounting plate 132 can stably lock the sealing element in the connecting column 133, which can prevent water in the electrolysis cavity 102 from overflowing into the containing cavity 104, and also prevent the injection molding material from penetrating into the electrolysis cavity 102 to pollute the water source.

[0053] As shown in Figure 8 , Figure 9 and Figure 10 , in addition to the features of the above embodiments, the present embodiment is further defined as: further comprising a sealing assembly 9, the sealing assembly 9 comprises a first sealing element 91 and a second sealing element 92, the first shell assembly 11 and the second shell assembly 12 cooperate to form a first cooperation gap, the first sealing element 91 is arranged on the first cooperation gap, the third shell assembly 13 and the plurality of locking assemblies 8 cooperate to form a plurality of second cooperation gaps, the number of the second sealing element 92 is a plurality, the plurality of second sealing elements 92 are arranged one by one on the plurality of second cooperation gaps, and the plurality of locking assemblies 8 are arranged one by one in the plurality of second sealing elements 92. By arranging the first sealing element 91 on the first cooperation gap between the first shell assembly 11 and the second shell assembly 12, water leakage from the shell joint gap is effectively prevented, ensuring that the electrolysis process can be carried out stably and safely. By arranging the plurality of second sealing elements 92 one by one on the plurality of connecting columns 133 of the third shell assembly 13 and the second cooperation gaps of the locking assembly 8, on the one hand, water in the electrolysis cavity 102 can be prevented from overflowing into the containing cavity 104, and on the other hand, injection molding material can be prevented from penetrating into the electrolysis cavity 102 to pollute the water source, thereby comprehensively assisting the device to produce pure and high-quality water to meet various water demand.

[0054] Embodiment 2

[0055] As shown inFigures 1 to 10 The embodiment shown discloses a water purifying device, comprising: the flow-through electrolysis structure described above; a water purifying device body, the flow-through electrolysis structure being arranged on the water purifying device body, the water inlet 101 and the water outlet 103 being in communication with the water purifying device body.

[0056] The second aspect of the present application discloses a water purifying device, by communicating the water inlet 101 and the water outlet 103 of the flow-through electrolysis structure with the water purifying device body, so that the water source can continuously enter the flow-through electrolysis structure according to the preset path, and the water flow is purified and disinfected after electrolysis, and then flows out from the water outlet 103, ensuring the smoothness of the entire water purifying process, so that the water can orderly flow between various purification units.

[0057] The technical features of the above embodiments can be combined arbitrarily, and in order to make the description simple, all possible combinations of the technical features in the above embodiments are not described, however, as long as the combination of the technical features does not exist contradictory, it should be considered as the scope of the present application.

[0058] The above embodiments only express several implementation manners of the present application, the description is more specific and detailed, but it should not be understood as the limitation of the scope of the present application. It should be pointed out that for ordinary skilled in the art, without departing from the concept of the present application, a number of modifications and improvements can be made, which all belong to the protection scope of the present application. Therefore, the protection scope of the present application patent should be subject to the appended claims.

Claims

1. A flow-by electrolytic structure, characterized in that, The over-flow type electrolysis structure comprises: a housing assembly (1) provided with a water inlet (101), an electrolysis cavity (102) and a water outlet (103) in sequence; a plurality of electrode sheets arranged in the electrolysis cavity (102) at intervals; at least one partition baffle arranged in the interval between adjacent electrode sheets; at least one communication piece (7) arranged on one of the electrode sheets at one end and arranged on another electrode sheet at the other end, penetrating the partition baffle; a locking assembly (8) arranged on the housing assembly (1) and penetrating a plurality of electrode sheets, partition baffles and communication pieces.

2. The flow-by electrolytic structure of claim 1, wherein The plurality of electrode sheets comprise a first electrode sheet (2), a second electrode sheet (3) and a third electrode sheet (4), the partition baffles comprise a first partition baffle (5) and a second partition baffle (6), the first electrode sheet (2) is arranged on the housing assembly (1), the first partition baffle (5) is arranged on the first electrode sheet (2), the second electrode sheet (3) is arranged on the first partition baffle (5), the second partition baffle (6) is arranged on the second electrode sheet (3), the third electrode sheet (4) is arranged on the second partition baffle (6), one end of the communication piece (7) is arranged on the first electrode sheet (2), the other end of the communication piece (7) is arranged on the third electrode sheet (4), and the communication piece (7) penetrates the first partition baffle (5) and the second partition baffle (6).

3. The flow-by electrolytic structure of claim 2, wherein, The first electrode sheet (2) is provided with a first notch (201) and a first through hole (202), the second electrode sheet (3) is provided with a second notch (301) and a second through hole (302), the third electrode sheet (4) is provided with a third notch (401) and a third through hole (402), the first partition baffle (5) is provided with a first electrode sheet connecting hole (501) and a first matching hole (502), the second partition baffle (6) is provided with a second electrode sheet connecting hole (601) and a second matching hole (602), and the number of the locking assembly (8) is a plurality, one of the locking assemblies (8) penetrates the first notch (201), the first matching hole (502), the second through hole (302) and the third notch (401) in sequence, another of the locking assemblies (8) penetrates the first through hole (202), the communication piece (7) and the third through hole (402) in sequence, and the communication piece (7) penetrates the first electrode sheet connecting hole (501), the second notch (301) and the second electrode sheet connecting hole (601) in sequence.

4. The flow-by electrolytic structure of claim 3, wherein The first partition baffle (5) is further provided with a plurality of first communication grooves (503), the second partition baffle (6) is further provided with a plurality of second communication grooves (603), a part of the first electrode sheet (2), the plurality of first communication grooves (503) and a part of the second electrode sheet (3) are oppositely arranged, and a part of the second electrode sheet (3), the plurality of second communication grooves (603) and the third electrode sheet (4) are oppositely arranged.

5. The flow-by electrolytic structure of claim 1, wherein The shell assembly (1) comprises a first shell assembly (11), a second shell assembly (12) and a third shell assembly (13), the second shell assembly (12) is arranged on the first shell assembly (11), the third shell assembly (13) is arranged on the second shell assembly (12), a plurality of electrode sheets are arranged on the first shell assembly (11) and / or the second shell assembly (12), the first shell assembly (11) is provided with the water inlet (101) and a plurality of fixing holes (105), the second shell assembly (12) is provided with the water outlet (103), the first shell assembly (11) and the second shell assembly (12) enclose to form the electrolysis cavity (102), and the third shell assembly (13) is provided with a containing cavity (104).

6. The overflow electrolysis structure according to claim 5, characterized in that, The first shell assembly (11) comprises a first shell body (111), a water inlet pipeline (112), a plurality of first baffles (113), a plurality of first fixed columns (114) and a plurality of first supports (115), the water inlet pipeline (112) is arranged on the first shell body (111), the plurality of first baffles (113) are arranged on the first shell body (111) in a length direction of two opposite side walls of the first shell body (111), the plurality of first fixed columns (114) are arranged on the first shell body (111), the first fixed columns (114) are provided with the fixing holes (105), the plurality of first supports (115) are arranged on the first shell body (111), one of the plurality of electrode sheets is in abutment with the plurality of first supports (115) and the plurality of first baffles (113), the fixing ends of the plurality of locking assemblies (8) are one-to-one arranged in the plurality of fixing holes (105), and the water inlet pipeline (112) is provided with the water inlet (101). And / or the second shell assembly (12) comprises a second shell body (121), a water outlet pipeline (122), a plurality of second baffles (123), a plurality of matching columns (124) and a plurality of second supports (125), the second shell body (121) is arranged on the first shell assembly (11), the water outlet pipeline (122) is arranged on the second shell body (121), the plurality of second baffles (123) are arranged on the second shell body (121) in a length direction of two opposite sidewalls of the second shell body (121), the plurality of matching columns (124) are arranged on the second shell body (121), the plurality of second supports (125) are arranged on the second shell body (121), one of the plurality of electrode sheets abuts against the plurality of second supports (125) and the plurality of second baffles (123), and the locking part of the plurality of locking assemblies (8) passes through the plurality of matching columns (124) one by one. And / or the third shell assembly (13) comprises a third shell body (131), a mounting plate (132), a plurality of connecting columns (133) and an injection molding part (134), the third shell body (131) is provided with the accommodating cavity (104), the third shell body (131) is arranged on the second shell assembly (12), the plurality of connecting columns (133) are arranged on the third shell body (131) and located in the accommodating cavity (104), the injection molding part (134) is arranged in the accommodating cavity (104) of the third shell body (131), the locking part of the plurality of locking assemblies (8) passes through the plurality of connecting columns (133) and the mounting plate (132) one by one, and the mounting plate (132) is clamped between the plurality of connecting columns (133) and the locking assemblies (8).

7. The flow-by electrolytic structure of claim 5, wherein A plurality of first baffles (113) are formed on the first shell assembly (11), a plurality of second baffles (123) are formed on the second shell assembly (12), and the plurality of first baffles (113) of the first shell assembly (11) and the plurality of second baffles (123) of the second shell assembly (12) cooperatively divide the electrolysis cavity (102) into a plurality of channels, and the plurality of channels are sequentially communicated to form a water passing channel.

8. The flow-by electrolytic structure of claim 5, wherein, The locking assembly (8) comprises a locking bolt (81) and a locking nut (82), the fixed end of the locking bolt (81) is arranged in the fixed hole (105) of the first shell assembly (11), the locking part of the locking bolt (81) passes through the second shell assembly (12) and the third shell assembly (13), and the locking nut (82) is arranged on the locking part of the locking bolt (81) and abuts against the third shell assembly (13).

9. The flow-by electrolytic structure of claim 5, wherein, Further comprising a sealing assembly (9), the sealing assembly (9) comprises a first sealing piece (91) and a second sealing piece (92), the first shell assembly (11) and the second shell assembly (12) cooperate to form a first cooperation gap, the first sealing piece (91) is arranged on the first cooperation gap, the third shell assembly (13) and a plurality of the locking assemblies (8) cooperate to form a plurality of second cooperation gaps, the number of the second sealing piece (92) is a plurality, and a plurality of the second sealing piece (92) is arranged one by one on a plurality of the second cooperation gaps, and a plurality of the locking assemblies (8) are arranged one by one in a plurality of the second sealing piece (92).

10. A water purifying apparatus characterized by comprising: The water purifying device comprises: The over-flow electrolysis structure according to any one of claims 1 to 9; The water purifying device body, the over-flow electrolysis structure is arranged on the water purifying device body, and the water inlet (101) and the water outlet (103) are communicated with the water purifying device body.

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