Water treatment device

Abstract

The utility model discloses a water quality treater which comprises a shell, an electrolytic bath, a control mainboard, a power supply module and a pipeline system, the electrolytic bath, the control mainboard, the power supply module and the pipeline system are arranged in the shell, the electrolytic bath is provided with a cathode chamber and an anode chamber which are provided with electrode plates, and the power supply module provides electric energy. The control mainboard controls the electrode plate to electrolyze oxidized water in the cathode chamber and electrolyze reduced water in the anode chamber respectively; the pipeline system is provided with a water inlet pipe for supplying water to the cathode chamber and the anode chamber, an oxidation water outlet pipe for discharging oxidation water to the cathode chamber and a reduction water outlet pipe for discharging reduction water to the anode chamber; an oxidation water outlet valve is arranged on the oxidation water outlet pipe, a reduction water outlet valve is arranged on the reduction water outlet pipe, and under the control of the control main board, the oxidation water outlet valve controls the oxidation water outlet pipe to discharge oxidation water, and the reduction water outlet valve controls the reduction water outlet pipe to discharge reduction water. Therefore, the purpose of separately discharging the oxidized water and the reduced water is achieved, and the service life of the electrolytic bath and the water outlet pipeline is prolonged.

Description

Technical Field

[0001] The utility model relates to the technical field of water treatment equipment, in particular to a water quality processor. Background Art

[0002] With the advancement of science and technology, there are more and more types of water treatment equipment, but the existing water treatment equipment still has the following defects:

[0003] 1. The existing water treatment equipment has unreasonable water outlet control of the electrolytic cell. The electrolytic cell is only equipped with one pipe for water outlet, and the outlet of oxidized water or reduced water is controlled by switching electrodes in the electrolytic cell. Therefore, users can only obtain oxidized water or reduced water at the same time. Moreover, the electrolytic cell will be damaged when the electrodes are frequently switched, and oxidized water and reduced water are discharged through the same outlet pipe, which will cause chemical reaction corrosion to the outlet pipe in the long run.

[0004] 2. The hydrogen-rich electrolytic cell and acid-base electrolytic cell of the existing water treatment equipment are independently installed. When the two electrolytic cells are installed independently, they occupy a large space, and the disassembly and assembly are cumbersome. The water outlet control of the pipeline is complicated. It is necessary to mix the hydrogen-rich water and the reduced water together by pressurization before the water is discharged. The pressurization method has a greater safety risk. In addition, the electrolytic cell was previously provided with a closed shell, and the positive and negative substrates of the electrolytic cell were installed in the middle of the closed shell. The assembly of the positive and negative substrates will be affected by the space limitation of the shell.

[0005] 3. The existing water treatment equipment, when reducing water and oxidizing water are discharged, has no sewage treatment, so the discharged water often carries some impurities produced during the electrolysis reaction. Long-term drinking of such impure water will affect your health.

[0006] 4. The installation layout of the water pipes and circuit controls of existing water treatment equipment is relatively complicated and are usually installed in the same place of the water treatment equipment, so safety accidents are prone to occur. Utility Model Content

[0007] In order to overcome the deficiencies of the prior art, the utility model aims to provide a water quality processor.

[0008] The purpose of the utility model is achieved by the following technical solution: a water quality processor, comprising a shell and an electrolytic cell, a control mainboard, a power module, and a pipeline system arranged in the shell, wherein the electrolytic cell has a cathode chamber and an anode chamber where electrode plates are arranged, the power module is electrically connected to the control mainboard and the electrode plate, and the control mainboard controls the electrode plate to electrolyze oxidized water in the cathode chamber and electrolyze reduced water in the anode chamber respectively;

[0009] The pipeline system comprises a water inlet pipe for supplying water to the cathode chamber and the anode chamber, an oxidation water outlet pipe for discharging oxidation water to the cathode chamber, and a reduction water outlet pipe for discharging reduction water to the anode chamber;

[0010] An oxidation outlet valve is arranged on the oxidation outlet pipe, and a reduction outlet valve is arranged on the reduction outlet pipe. The control main board is electrically connected to the oxidation outlet valve and the reduction outlet valve, and controls the oxidation outlet pipe to discharge oxidation water through the oxidation outlet valve and controls the reduction outlet pipe to discharge reduction water through the reduction outlet valve.

[0011] Furthermore, an oxidation wastewater valve is provided on the oxidation outlet pipe, a reduction wastewater valve is provided on the reduction outlet pipe, and the control mainboard is electrically connected to the oxidation wastewater valve and the reduction wastewater valve;

[0012] The oxidation wastewater valve is interlocked with the oxidation outlet valve and linked with the reduction outlet valve, so that the control mainboard sends instructions to control the oxidation outlet valve to close, control the reduction outlet valve to open to discharge the reduction water, and control the oxidation wastewater valve to open to discharge the oxidation water;

[0013] The reduction wastewater valve is interlocked with the reduction water outlet valve and linked with the oxidation water outlet valve, so that the control mainboard sends instructions to control the reduction water outlet valve to close, the oxidation water outlet valve to open to discharge oxidized water, and the reduction wastewater valve to open to discharge reduced water.

[0014] Furthermore, the cathode chamber and the anode chamber are provided with a water inlet connected to the water inlet pipe, an oxidation water outlet connected to the oxidation water outlet pipe, and a reduction water outlet connected to the reduction water outlet pipe.

[0015] Furthermore, a salt box and an electrolytic salt pump are arranged on the shell, a tap water valve and a flow valve are arranged on the water inlet pipe, the electrolytic salt pump is connected to the salt box and the water inlet pipe, the control main board is electrically connected to the electrolytic salt pump for pumping the electrolyte in the salt box into the water inlet pipe, the control main board is electrically connected to the tap water valve and the flow valve, and the water inlet pipe is turned on or off by the tap water valve and the water flow of the water inlet pipe is adjusted by the flow valve.

[0016] Furthermore, the electrolytic cell is provided with a plurality of cathode plate frames and anode plate frames, the electrode plates are provided on the cathode plate frames and the anode plate frames, and an electrolytic membrane is provided between the electrode plates of the two; the plurality of cathode plate frames and anode plate frames are alternately stacked to form the cathode chamber and the anode chamber, the sum of the number of layers of the cathode plate frames and the anode plate frames is an odd number, and the number of layers of the cathode plate frames is greater than the number of layers of the anode plate frames.

[0017] Furthermore, a sealing ring is embedded between the cathode plate frame and the anode plate frame, and the sealing ring is arranged in a ring shape around the inner water tanks of the cathode plate frame and the anode plate frame.

[0018] Furthermore, a front shell and a bottom shell are respectively provided on the front and rear sides of the electrolytic cell, a water-blocking plate frame is provided between the front shell and the cathode plate frame and the anode plate frame, a positioning gasket is provided between the bottom shell and the cathode plate frame and the anode plate frame, and the bottom shell, the positioning gasket, the cathode plate frame, the anode plate frame and the water-blocking plate frame are fixedly connected to each other through connecting rods.

[0019] Furthermore, the housing is provided with a front cover and a rear cover, and the front cover is provided with a panel for mounting a display module and a key module.

[0020] Furthermore, the control main board is electrically connected to a detection system, and the detection system has a water inlet detection module for detecting water inlet into the water inlet pipe, a water leakage detection module for detecting water leakage in the cathode chamber and the anode chamber, and a tilt detection module for detecting the tilt of the water quality processor.

[0021] Furthermore, the electrolytic cell, the piping system, the salt box and the electrolytic salt pump are arranged in a mounting cavity on one side of the shell, and the control mainboard and the power supply module are arranged in a mounting cavity on the other side of the shell.

[0022] Compared with the prior art, the beneficial effects of the present invention are:

[0023] (1) The electrolytic cell of the present application controls the electrode plate to electrolyze oxidized water in the cathode chamber and to electrolyze reduced water in the anode chamber by controlling the main board, and the cathode chamber is connected to the oxidized water outlet pipe, and the anode chamber is connected to the reduced water outlet pipe, thereby achieving the purpose of separate discharge of oxidized water and reduced water; compared with the previous implementation method of using the same water outlet pipe for the discharge of oxidized water and reduced water in the electrolytic cell, the present application can avoid the problem of using the same water outlet pipe to repeatedly switch the discharge of oxidized water and reduced water to produce chemical reactions that corrode the water outlet pipe, thereby extending the service life of the electrolytic cell and the water outlet pipe;

[0024] In addition, an oxidation outlet valve and a reduction outlet valve are correspondingly arranged on the oxidation outlet pipe and the reduction outlet pipe, and the opening or closing of the water valve is controlled by the control mainboard, so as to achieve the purpose of separating the oxidation water and the reduction water from different pipes by switching the water circuits; thus avoiding damage to the electrolytic cell caused by frequent switching of the electrolytic cell electrodes in the past, and further extending the service life of the electrolytic cell.

[0025] (2) The control mainboard sends instructions to control the oxidation wastewater valve disposed on the oxidation outlet pipe and the reduction wastewater valve disposed on the reduction outlet pipe. The oxidation wastewater valve is interlocked with the oxidation outlet valve and linked with the reduction outlet valve, and the reduction wastewater valve is interlocked with the reduction outlet valve and linked with the oxidation outlet valve; thereby, when the reduction outlet valve is opened, the reduction water can be discharged through the reduction outlet pipe, and the oxidation water can be discharged through the opened oxidation wastewater valve; and when the oxidation outlet valve is opened, the oxidation water can be discharged through the oxidation outlet pipe, and the reduction water can be discharged through the opened reduction wastewater valve. When the reduction water and the oxidation water are discharged through different pipes, it is also possible to avoid the reduction water and the oxidation water from being discharged at the same time, thereby preventing the user from mistaking the oxidation water for the reduction water, and ensuring the user's normal and safe water use.

[0026] (3) The present application controls the electrolytic salt pump by the control mainboard to pump the electrolyte in the salt box into the water inlet pipe according to the set amount, and the control mainboard also adjusts the water flow of the water inlet pipe by controlling the flow valve, so that the water flow of the water inlet pipe and the amount of electrolyte added reach the set mixing ratio; thereby, the mixed electrolyte water is electrolyzed by the electrode plates in the cathode chamber and the anode chamber of the electrolytic cell to produce oxidized water with a set ion concentration and reduced water containing hydrogen ions; there is no need to independently set up a hydrogen-rich electrolytic cell and an acid-base electrolytic cell as in the past, and only one electrolytic cell can be used to electrolyze oxidized water and reduced water containing hydrogen ions, which not only improves the functional effect of the water quality treatment device, but also reduces the production cost;

[0027] In addition, the electrolytic cell is provided with a plurality of cathode plate frames and anode plate frames which are alternately stacked. Users can increase or decrease the number of plates and frames according to actual use requirements. Compared with the previous implementation method of assembling plates and frames in a closed shell, the assembly of cathode plate frames and anode plate frames is more compact and convenient, and reflects an integrated assembly effect, and is also convenient for adjusting the electrolytic strength of the electrolytic cell; and the cathode plate frames and anode plate frames are arranged in an odd number of layers, and the number of layers of the cathode plate frames is greater than that of the anode plate frames, thereby improving the oxidation reaction effect of the electrolytic cell. BRIEF DESCRIPTION OF THE DRAWINGS

[0028] Figure 1 This is a front perspective view of a water quality processor in a preferred embodiment of the utility model;

[0029] Figure 2 A three-dimensional diagram of the bottom direction of the water quality treatment device in a preferred embodiment of the utility model;

[0030] Figure 3 This is a schematic diagram of the structure decomposition between the front cover, display module and housing of the water quality processor in a preferred embodiment of the utility model;

[0031] Figure 4 This is a schematic diagram of the structure decomposition between the rear cover and the housing of the water quality treatment device in a preferred embodiment of the utility model;

[0032] Figure 5 for Figure 4 The enlarged schematic diagram of point E in the middle;

[0033] Figure 6 This is a schematic diagram of the structure decomposition of the electrolytic cell in a preferred embodiment of the utility model;

[0034] Figure 7 This is a schematic diagram of the structural decomposition of another electrolytic cell in a preferred embodiment of the utility model;

[0035] Figure 8 This is a control principle diagram of the module block diagram in a preferred embodiment of the utility model.

[0036] In the figure:

[0037] 10. Shell; 101. Front cover; 102. Rear cover; 103. Salt box; 104. Power socket;

[0038] 20, electrolytic cell; 201, cathode chamber; 202, anode chamber; 203, electrode plate; 204, cathode plate frame; 205, anode plate frame; 206, electrolytic membrane; 207, sealing ring; 208, surface shell; 209, bottom shell; 210, water-blocking plate frame; 211, positioning gasket; 212, connecting rod; A1, reduction outlet; B1, oxidation outlet; C3, water inlet; D1, wastewater outlet;

[0039] 30. Control main board; 31. Power module; 32. Oxidation outlet valve; 33. Reduction outlet valve; 34. Tap water valve; 35. Flow valve; 36. Oxidation wastewater valve; 37. Reduction wastewater valve; 38. Relay; 39. Display module; 40. Key module; 41. Electrolytic salt pump; 42. Detection system; 43. Temperature sensor; 44. Voice module; 45. LED light board;

[0040] 51. Water inlet pipe; 52. Oxidation outlet pipe; 53. Reduction outlet pipe. DETAILED DESCRIPTION

[0041] The present invention is further described below in conjunction with the accompanying drawings and specific implementation methods. It should be noted that, under the premise of no conflict, the various embodiments or technical features described below can be arbitrarily combined to form a new embodiment.

[0042] like Figure 1-8As shown, a water quality processor for electrolyzing oxidized water, reduced water and hydrogen-rich water comprises a housing 10 and an electrolytic cell 20, a control mainboard 30, a power module 31 and a pipeline system arranged in the housing 10, wherein the housing 10 is provided with a front cover 101 and a rear cover 102, and the front cover 101 is used to install a display module 39, a key module 40 and an LED light board 45. The electrolytic cell 20 has a cathode chamber 201 and an anode chamber 202, and an electrode plate 203 is arranged in each of the cathode chamber 201 and the anode chamber 202, and an electrode connector for connecting electricity is arranged on one side of the electrode plate 203.

[0043] The power module 31 is electrically connected to the control main board 30, the electrode plate 203, the display module 39, the key module 40 and the LED light board 45, and provides power to the control main board 30, the electrode plate 203, the display module 39 and the LED light board 45. The bottom of the housing 10 is provided with a power socket 104 for connecting the power module 31 and an external power supply. The control main board 30 is electrically connected to the display module 39, the key module 40 and the LED light board 45, so that the specific operation interface and touch control operation are displayed through the display module 39, the physical key operation is performed through the key module 40, and the working status is indicated through the LED light board 45. The control main board 30 is provided with a single-chip microcomputer chip, and the model of the single-chip microcomputer chip is preferably a chip of the STC8G series. The control mainboard 30 and the power module 31 are electrically connected to the electrode plate 203 through the relay 38. The control mainboard 30 sends instructions to control the electrode plate 203 to perform electrolysis. The electrode plate 203 in the cathode chamber 201 electrolyzes the tap water into oxidized water, and the electrode plate 203 in the anode chamber 202 electrolyzes the tap water into reduced water.

[0044] The pipeline system has a water inlet pipe 51, an oxidation water outlet pipe 52 and a reduction water outlet pipe 53. The cathode chamber 201 and the anode chamber 202 are each provided with a water inlet C3, the cathode chamber 201 is provided with an oxidation water outlet B1, and the anode chamber 202 is provided with a reduction water outlet A1. The water inlet pipe 51 is passed from the bottom of the shell 10 of the water quality treatment device to the inside of the shell 10, one end of the water inlet pipe 51 is connected to the water inlet C3 of the cathode chamber 201 and the anode chamber 202, and the other end of the water inlet pipe 51 is connected to an external water source.

[0045] The oxidation water outlet pipe 52 and the reduction water outlet pipe 53 are arranged from the top of the housing 10 to the inside of the housing 10. One end of the oxidation water outlet pipe 52 is connected to the oxidation water outlet B1 of the cathode chamber 201, and the other end of the oxidation water outlet pipe 52 is used for users to receive oxidation water. One end of the reduction water outlet pipe 53 is connected to the reduction water outlet A1 of the anode chamber 202, and the other end of the reduction water outlet pipe 53 is used for users to receive reduced water. When the electrolytic cell 20 is not performing water electrolysis, the oxidation water outlet pipe 52 and the reduction water outlet pipe 53 can be used for users to receive purified water.

[0046] More specifically, if Figure 4 As shown, the B2 port of the oxidation outlet pipe 52 is connected to the oxidation outlet B1 of the cathode chamber 201, the B3 port is connected to the B4 port, the A2 port of the reduction outlet pipe 53 is connected to the reduction outlet A1 of the anode chamber 202, and the A3 port is connected to the A4 port.

[0047] An oxidation outlet valve 32 is provided on the oxidation outlet pipe 52 inside the housing 10, and a reduction outlet valve 33 is provided on the reduction outlet pipe 53, and both the oxidation outlet valve 32 and the reduction outlet valve 33 are electrically connected to the control main board 30 through a relay 38, and the control main board 30 can send a command to the contacts of the relay 38, thereby controlling the opening and closing of the oxidation outlet valve 32 and the reduction outlet valve 33, thereby automatically controlling the oxidation outlet water of the oxidation outlet pipe 52 and the reduction outlet water of the reduction outlet pipe 53. The requirements that the oxidation water and the reduction water can be discharged from different outlet pipes and discharged synchronously through different outlet pipes are met, and the problem of chemical reaction corrosion caused by the intersection of the oxidation water and the reduction water when the same outlet pipe is used for water discharge in the past is avoided.

[0048] In order to further improve the intelligence of the water quality processor, the control main board 30 is also electrically connected to a voice module 44, a temperature sensor 43 and a detection system 42. The detection system 42 includes a water inlet detection module, a water leakage detection module and a tilt detection module. The water inlet detection module is arranged on the water inlet pipe 51, and is used to detect the water inlet condition of the water inlet pipe 51. When the water inlet detection module detects that water enters the water inlet pipe 51, a feedback signal is given to the control main board 30. The control main board 30 sends an instruction to open the tap water valve 34 to transport tap water into the cathode chamber 201 and the anode chamber 202.

[0049] The water leakage detection module is installed on the electrolytic cell 20, and is used to detect whether there is water leakage in the cathode chamber 201 and the anode chamber 202. When the water leakage detection module detects water leakage, it feeds back a signal to the control mainboard 30, so that the control mainboard 30 controls the voice module 44 to issue an alarm prompt, and the voice module 44 at least includes a speaker. The tilt detection module is set on the housing 10 of the water quality processor or the electrolytic cell 20, and is used to detect the tilt of the water quality processor to prevent the water in the cathode chamber 201 and the anode chamber 202 from pouring out due to the unstable installation of the water quality processor. When the tilt detection module detects that the water quality processor has a large tilt, it feeds back a signal to the control mainboard 30, so that the control mainboard 30 controls the voice module 44 to issue an alarm prompt.

[0050] The temperature sensor 43 is arranged on the water inlet pipe 51. The temperature sensor 43 can adopt a TDS temperature probe to sense the water temperature of the tap water in the water inlet pipe 51. When the water temperature of the tap water is greater than 40°, the temperature sensor 43 feeds back a temperature sensing signal to the control main board 30, so that the control main board 30 sends an instruction to the tap water valve 34 to close the tap water, thereby intercepting the tap water with too high water temperature to prevent it from entering the electrolytic cell 20 and causing damage to the electrolytic cell 20 or shortening its service life.

[0051] In this way, the electrolytic cell 20 of the present application controls the electrode plate 203 to electrolyze oxidized water in the cathode chamber 201 and electrolyze reduced water in the anode chamber 202 through the control main board 30, and the cathode chamber 201 is connected to the oxidized water outlet pipe 52, and the anode chamber 202 is connected to the reduced water outlet pipe 53, thereby achieving the purpose of separately discharging oxidized water and reduced water; compared with the previous implementation method of the electrolytic cell 20 using the same water outlet pipe for the outlet of oxidized water and reduced water, the present application can avoid the problem of using the same water outlet pipe for repeatedly switching the outlet of oxidized water and reduced water to produce chemical reactions that corrode the water outlet pipe, thereby extending the service life of the electrolytic cell 20 and the water outlet pipe.

[0052] In addition, an oxidation outlet valve 32 and a reduction outlet valve 33 are correspondingly provided on the oxidation outlet pipe 52 and the reduction outlet pipe 53, and the opening or closing of the water valve is controlled by the control main board 30, so as to achieve the purpose of separating the oxidation water and the reduction water from different pipes by switching the water circuits; thus avoiding damage to the electrolytic cell 20 caused by frequent switching of the electrodes of the electrolytic cell 20 in the past, and further extending the service life of the electrolytic cell 20.

[0053] An oxidation wastewater valve 36 is provided on the oxidation outlet pipe 52 in the shell 10, and a reduction wastewater valve 37 is provided on the reduction outlet pipe 53. One end of the oxidation outlet pipe 52 and the reduction outlet pipe 53 is also provided with a wastewater outlet D1 for discharging wastewater. The control main board 30 is electrically connected to the oxidation wastewater valve 36 and the reduction wastewater valve 37 through a relay 38.

[0054] The oxidation wastewater valve 36 is interlocked with the oxidation outlet valve 32, and the oxidation wastewater valve 36 is linked with the reduction outlet valve 33. The interlocked connection and the linked connection are realized by connecting the oxidation wastewater valve 36, the oxidation outlet valve 32, and the reduction outlet valve 33 to the single-chip microcomputer chip of the control main board 30 through the relay. When the control main board 30 sends an instruction to the relay 38, the corresponding contacts on the relay 38 are engaged or disconnected, thereby controlling the oxidation wastewater valve 36 to close, controlling the reduction outlet valve 33 to open to discharge the reduced water, and controlling the oxidation wastewater valve 36 to open to discharge the oxidation water.

[0055] The reduction wastewater valve 37 is interlocked with the reduction outlet valve 33, and the reduction wastewater valve 37 is linked with the oxidation outlet valve 32. Similarly, the interlocked connection and the linked connection are realized by connecting the reduction wastewater valve 37, the reduction outlet valve 33, and the oxidation outlet valve 32 to the single-chip microcomputer chip of the control main board 30 through the relay 38. The control main board 30 sends an instruction to control the reduction outlet valve 33 to close, and to control the oxidation outlet valve 32 to open to discharge oxidation water, and to control the reduction wastewater valve 37 to open to discharge reduction water.

[0056] In this way, by controlling the main board 30 to send instructions to control the oxidation wastewater valve set on the oxidation outlet pipe 52 and the reduction wastewater valve 33 set on the reduction outlet pipe 53, the oxidation wastewater valve 36 is interlocked with the oxidation outlet valve 32 and linked with the reduction outlet valve 33, and the reduction wastewater valve 37 is interlocked with the reduction outlet valve 33 and linked with the oxidation outlet valve 32.

[0057] Thus, when the reduction water outlet valve 33 is opened, the reduction water can be discharged through the reduction water outlet pipe 53, and the oxidation water can be discharged through the opened oxidation waste water valve 36. When the oxidation water outlet valve 32 is opened, the oxidation water can be discharged through the oxidation water outlet pipe 52, and the reduction water can be discharged through the opened reduction waste water valve 37. In the case where the reduction water and the oxidation water are discharged through different pipelines, it is also possible to avoid the reduction water and the oxidation water from being discharged at the same time, and to avoid the user mistaking the oxidation water for the reduction water, thereby ensuring the user's normal and safe water use.

[0058] The housing 10 is provided with a salt box 103 and an electrolytic salt pump 41, a tap water valve 34 and a flow valve 35 are provided on the water inlet pipe 51, and the electrolytic salt pump 41 is connected to the salt box 103 and the water inlet pipe 51. Figure 4 As shown, the C1 port and the C2 port of the water inlet pipe 51 are both connected to the electrolytic salt pump 41. The control main board 30 is electrically connected to the electrolytic salt pump 41. The electrolyte is pre-placed in the salt box 103. The control main board 30 controls the electrolytic salt pump 41 to start pumping the electrolyte into the water inlet pipe 51. The control main board 30 is electrically connected to the tap water valve 34 and the flow valve 35. The control main board 30 controls the tap water valve 34 to conduct or cut off the water inlet pipe 51, and controls the water flow of the water inlet pipe 51 to be adjusted through the flow valve 35.

[0059] Therefore, the control mainboard 30 controls the electrolytic salt pump 41 to pump the electrolyte in the salt box 103 into the water inlet pipe 51 according to the set amount, and the control mainboard 30 also controls the flow valve 35 to adjust the water flow of the water inlet pipe 51, so that the water flow of the water inlet pipe 51 and the amount of electrolyte added reach the set mixing ratio. Thus, the mixed electrolyte water is electrolyzed by the electrode plates 203 in the cathode chamber 201 and the anode chamber 202 of the electrolytic cell 20 to produce oxidized water with a set ion concentration and reduced water containing hydrogen ions; there is no need to independently set up a hydrogen-rich electrolytic cell 20 and an acid-base electrolytic cell 20 as in the past, and only one electrolytic cell 20 can be used to electrolyze oxidized water and reduced water containing hydrogen ions, which not only improves the functional effect of the water quality treatment device, but also reduces the production cost.

[0060] The electrolytic cell 20 is provided with a plurality of cathode plate frames 204 and anode plate frames 205, and the electrode plates 203 are arranged on the plurality of cathode plate frames 204 and anode plate frames 205, and an electrolytic membrane 206 is arranged between the electrode plates 203 of the cathode plate frames 204 and anode plate frames 205. When the electrolytic cell 20 is assembled, the plurality of cathode plate frames 204 and anode plate frames 205 are alternately stacked to form the cathode chamber 201 and the anode chamber 202, and the sum of the number of layers of the cathode plate frames 204 and the anode plate frames 205 is an odd number, and the number of layers of the cathode plate frames 204 is greater than the number of layers of the anode plate frames 205, at which time the oxidation reaction effect of the electrolytic cell 20 is more obvious; of course, according to actual use requirements, the number of layers of the anode plate frames 205 can also be set to be greater than the number of layers of the cathode plate frames 204, so that the reduction reaction effect of the electrolytic cell 20 is more obvious.

[0061] In this way, the electrolytic cell 20 is provided with a plurality of cathode plate frames 204 and anode plate frames 205 that are alternately stacked, and the user can increase or decrease the plate frames according to actual use requirements. Compared with the previous implementation method of assembling the plate frames in a closed housing, the cathode plate frames 204 and the anode plate frames 205 are assembled more compactly, conveniently, and embody an integrated assembly effect, and are also convenient for adjusting the electrolytic strength of the electrolytic cell 20. Moreover, the cathode plate frames 204 and the anode plate frames 205 are arranged in odd layers, and the number of layers of the cathode plate frames 204 is greater than the number of layers of the anode plate frames 205, thereby improving the oxidation reaction effect of the electrolytic cell 20.

[0062] In order to improve the sealing effect of the electrolytic cell 20, a sealing ring 207 is embedded between the cathode plate frame 204 and the anode plate frame 205. The sealing ring 207 is arranged in a ring around the inner water tank of the cathode plate frame 204 and the anode plate frame 205 to prevent water in the water tank from leaking out.

[0063] When the electrolytic cell 20 is installed, a surface shell 208 and a bottom shell 209 are respectively provided on the front and rear sides of the electrolytic cell 20, and a water-blocking plate frame 210 is fixedly connected between the surface shell 208 and the cathode plate frame 204 and the anode plate frame 205 by screws, so as to further improve the anti-leakage effect of the electrolytic cell 20. Several layers of positioning gaskets 211 are provided between the bottom shell 209 and the cathode plate frame 204 and the anode plate frame 205, and the positioning gaskets 211 are made of silicone gaskets and PVC gaskets, and the positioning gaskets 211 are provided to improve the assembly stability between the bottom shell 209 and the plate frame. Moreover, the bottom shell 209, the positioning gasket 211, the cathode plate frame 204, the anode plate frame 205, and the water-blocking plate frame 210 are fixedly connected to each other through the connecting rod 212, and then the electrolytic cell 20 is screwed to the installation cavity of the shell 10 through the provided bottom shell 209. The electrolytic cell 20 is provided with a surface shell 208 for connecting to the oxidation water outlet B1, the reduction water outlet A1 and the water inlet C3, thereby completing the assembly of the entire electrolytic cell 20.

[0064] By arranging the electrolytic cell 20, the piping system, the salt box 103 and the electrolytic salt pump 41 in a mounting cavity on one side of the shell 10, and arranging the control main board 30 and the power module 31 in a mounting cavity on the other side of the shell 10, the purpose of separate installation of water and electricity components is achieved. Compared with the previous implementation method of mixed installation of water pipes and circuits, it is safer and more reliable, and the probability of safety accidents is reduced.

[0065] The above-mentioned implementation modes are only preferred implementation modes of the present invention, and cannot be used to limit the protection scope of the present invention. Any non-substantial changes and substitutions made by technicians in this field on the basis of the present invention shall fall within the scope of protection required by the present invention.

Claims

1. A water quality processor, characterized in that: The invention comprises a shell and an electrolytic cell, a control mainboard, a power module and a piping system arranged in the shell, wherein the electrolytic cell has a cathode chamber and an anode chamber where electrode plates are arranged, the power module is electrically connected to the control mainboard and the electrode plates, and the control mainboard controls the electrode plates to electrolyze oxidized water in the cathode chamber and to electrolyze reduced water in the anode chamber respectively; The pipeline system comprises a water inlet pipe for supplying water to the cathode chamber and the anode chamber, an oxidation water outlet pipe for discharging oxidation water to the cathode chamber, and a reduction water outlet pipe for discharging reduction water to the anode chamber; An oxidation outlet valve is arranged on the oxidation outlet pipe, and a reduction outlet valve is arranged on the reduction outlet pipe. The control main board is electrically connected to the oxidation outlet valve and the reduction outlet valve, and controls the oxidation outlet pipe to discharge oxidation water through the oxidation outlet valve and controls the reduction outlet pipe to discharge reduction water through the reduction outlet valve.

2. The water treatment device according to claim 1, characterized in that: An oxidation wastewater valve is arranged on the oxidation outlet pipe, a reduction wastewater valve is arranged on the reduction outlet pipe, and the control mainboard is electrically connected to the oxidation wastewater valve and the reduction wastewater valve; The oxidation wastewater valve is interlocked with the oxidation outlet valve and linked with the reduction outlet valve, so that the control mainboard sends instructions to control the oxidation outlet valve to close, control the reduction outlet valve to open to discharge the reduction water, and control the oxidation wastewater valve to open to discharge the oxidation water; The reduction wastewater valve is interlocked with the reduction water outlet valve and linked with the oxidation water outlet valve, so that the control mainboard sends instructions to control the reduction water outlet valve to close, the oxidation water outlet valve to open to discharge oxidized water, and the reduction wastewater valve to open to discharge reduced water.

3. The water treatment device according to claim 2, characterized in that: The cathode chamber and the anode chamber are provided with a water inlet connected to the water inlet pipe, an oxidation water outlet connected to the oxidation water outlet pipe, and a reduction water outlet connected to the reduction water outlet pipe.

4. The water treatment device according to claim 1, characterized in that: A salt box and an electrolytic salt pump are arranged on the shell, a tap water valve and a flow valve are arranged on the water inlet pipe, the electrolytic salt pump is connected to the salt box and the water inlet pipe, the control main board is electrically connected to the electrolytic salt pump for pumping the electrolyte in the salt box into the water inlet pipe, the control main board is electrically connected to the tap water valve and the flow valve, and the water inlet pipe is connected or cut off by the tap water valve and the water flow of the water inlet pipe is adjusted by the flow valve.

5. The water treatment device according to claim 4, characterized in that: The electrolytic cell is provided with a plurality of cathode plate frames and anode plate frames, the electrode plates are provided on the cathode plate frames and the anode plate frames, and an electrolytic membrane is provided between the electrode plates of the two; the plurality of cathode plate frames and anode plate frames are alternately stacked to form the cathode chamber and the anode chamber, the sum of the number of layers of the cathode plate frames and the anode plate frames is an odd number, and the number of layers of the cathode plate frames is greater than the number of layers of the anode plate frames.

6. The water treatment device according to claim 5, characterized in that: A sealing ring is embedded between the cathode plate frame and the anode plate frame, and the sealing ring is arranged in an annular manner around the water tank inside the cathode plate frame and the anode plate frame.

7. The water treatment device according to claim 5, characterized in that: A face shell and a bottom shell are respectively arranged on the front and rear sides of the electrolytic cell, a water-blocking plate frame is arranged between the face shell and the cathode plate frame and the anode plate frame, a positioning gasket is arranged between the bottom shell and the cathode plate frame and the anode plate frame, and the bottom shell, the positioning gasket, the cathode plate frame, the anode plate frame and the water-blocking plate frame are fixedly connected to each other through connecting rods.

8. The water treatment device according to any one of claims 1 to 7, characterized in that: The housing is provided with a front cover and a rear cover, and the front cover is provided with a panel for installing a display module and a key module.

9. The water treatment device according to any one of claims 1 to 7, characterized in that: The control mainboard is electrically connected to a detection system, which comprises a water inlet detection module for detecting water inflow into the water inlet pipe, a water leakage detection module for detecting water leakage in the cathode chamber and the anode chamber, and a tilt detection module for detecting the tilt of the water quality processor.

10. The water treatment device according to claim 4, characterized in that: The electrolytic cell, the piping system, the salt box and the electrolytic salt pump are arranged in a mounting cavity on one side of the shell, and the control mainboard and the power supply module are arranged in a mounting cavity on the other side of the shell.

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