An electrolytic water sterilization device and method

Abstract

This invention discloses an electrolytic water sterilization device and method, belonging to the field of water electrolysis technology. It includes a main body for water inlet and outlet, with a filtration mechanism for filtering water and a sterilization mechanism for electrolytic sterilization. The device's housing consists of an inlet chamber, an adsorption chamber, a measuring chamber, an electrolysis chamber, and an outlet chamber. This allows water to undergo adsorption before being electrolyzed and sterilized in large quantities, providing sufficient time for electrolysis and improving the sterilization effect. When the outlet chamber contains a large amount of water, external water enters the inlet chamber and is temporarily stored there. Sterilization begins only after the water in the outlet chamber is used, preventing water from remaining in the device for too long. When the water level in the measuring chamber rises, the disinfectant water in the electrolysis chamber is discharged, and the water in the measuring chamber enters the electrolysis chamber for electrolytic sterilization. This automatic process of water inlet and outlet in the electrolysis chamber results in a high degree of automation.

Description

Technical Field

[0001] This invention relates to the field of water electrolysis technology, and in particular to a water electrolysis sterilization device and method. Background Technology

[0002] Electrolyzed water sterilization primarily achieves its efficient and rapid sterilization effect by disrupting the microbial structure through the active substances generated during the electrolysis process. During the electrolysis of pure water, hydroxyl radicals, hydrogen peroxide, and ozone are generated at the anode. These substances possess strong oxidizing properties, allowing them to penetrate the cell walls of microorganisms and oxidize and destroy their enzyme systems and DNA, thus achieving a sterilization effect. Furthermore, they attack the DNA and RNA of microorganisms, causing base breakage or cross-linking, resulting in the loss of their replication ability. This method is effective against bacteria, viruses, fungi, and even spores, and decomposes them into water and inorganic salts, leaving no toxic residue. However, existing electrolyzed water sterilization devices may suffer from poor sterilization effects due to excessively short electrolysis processes. Summary of the Invention

[0003] To address the aforementioned technical problems, the present invention adopts the following technical solution: an electrolytic water sterilization device, comprising a main body for water inlet and outlet, the main body including a housing, and the main body being provided with a filtration mechanism for filtering water and a sterilization mechanism for electrolytic sterilization of water;

[0004] The chamber consists of an inlet chamber, an adsorption chamber, a measuring chamber, an electrolysis chamber, and an outlet chamber.

[0005] Furthermore, the main structure includes an upper shell and a water intake pipe fixedly installed on the housing. A water pump is fixedly installed on the water intake pipe, and the water pump is located in the water outlet chamber. An external water inlet pipe is connected to the water inlet chamber.

[0006] Furthermore, an outer rotating rod is rotatably mounted on the housing, and a front magnetic block and a rear magnetic block are fixedly mounted on the outer rotating rod. The weight of the rear magnetic block is greater than that of the front magnetic block. A front vertical rail is fixedly mounted in the water inlet chamber, and a rear vertical rail is fixedly mounted in the water outlet chamber. A front suction block is slidably mounted on the front vertical rail, and a rear suction block is slidably mounted on the rear vertical rail. The front magnetic block and the front suction block are attracted to each other, and the rear suction block and the rear magnetic block are attracted to each other. A water inlet hole is provided on the partition between the water inlet chamber and the adsorption chamber.

[0007] Water enters the inlet chamber from the outside. As water enters, the pressure inside the inlet chamber increases. When the water level in the outlet chamber is low, the weight of the rear magnetic block is greater than that of the front magnetic block, causing the outer rotating rod to rotate and the front magnetic block to rise. This causes the front suction block to slide upward along the front vertical rail, so that the front suction block no longer blocks the inlet hole. The water in the inlet chamber enters the adsorption chamber through the inlet hole. The disinfected water in the outlet chamber can be taken out for use through the water pump and water intake pipe.

[0008] Furthermore, the filtration mechanism includes an adsorption frame placed inside the adsorption chamber, several activated carbon rods are arranged below the adsorption frame, a water inlet is provided on the partition between the adsorption chamber and the measuring chamber, and the adsorption frame is detachable.

[0009] Furthermore, a flow module is provided inside the measuring chamber. The flow module includes a rotating wheel rotatably installed inside the measuring chamber. A flow sensor is fixedly installed on the partition between the measuring chamber and the electrolysis chamber, and the rotational speed of the rotating wheel is monitored by the flow sensor.

[0010] When the water inlet is opened, water is forced from the inlet chamber into the adsorption chamber, where it is adsorbed by the activated carbon rod. Then, the water enters the impeller through the water outlet, and the water flow drives the impeller to rotate. The flow rate is monitored by the flow sensor and recorded. The water then enters the measurement chamber.

[0011] Furthermore, the sterilization mechanism includes an electrolysis frame placed inside the electrolysis chamber, with electrodes and an ion detector fixedly installed below the electrolysis frame, and the electrolysis frame is detachable.

[0012] Furthermore, a sterilization port is provided on the partition between the measuring chamber and the electrolysis chamber, and an outflow hole is provided on the partition between the electrolysis chamber and the water outlet chamber.

[0013] Furthermore, a floating rod is rotatably installed inside the measuring chamber, and a rotating shaft is fixedly installed on the floating rod. The rotating shaft is rotatably installed with the electrolysis chamber. A lifting rod and a float are fixedly installed on the floating rod. An upper rotating rod is rotatably installed on the lifting rod, and a lower rotating rod is slidably installed on the upper rotating rod. A spring is provided between the upper and lower rotating rods. A stand is fixedly installed inside the measuring chamber, and a magnet is provided on the top of the stand. A switch plate is slidably installed on the stand, and the switch plate is rotatably installed with the lower rotating rod. A sector plate is fixedly installed on the rotating shaft, and an opening slot is provided on the sector plate. When the switch plate is misaligned with the sterilization port, water enters the electrolysis chamber from the measuring chamber. When the opening slot is located at the outlet hole, water enters the outlet chamber from the electrolysis chamber.

[0014] As water enters the measuring chamber, the rising water level causes the float to rise, which in turn causes the float rod, shaft, lifting rod, and sector plate to rotate counterclockwise. After the sector plate rotates a short distance, the opening slot aligns with the outlet hole, and the disinfected water in the electrolysis chamber flows into the outlet chamber. At this time, the switch plate is attracted by the magnet at the top of the stand and does not move temporarily. The spring between the upper and lower rotating rods is compressed, and the sterilization port remains closed. As the float rod continues to rotate, the opening slot and outlet hole are misaligned, and the upper rotating rod begins to push the lower rotating rod and switch plate downward, causing the switch plate to move away from the sterilization port. Water from the measuring chamber enters the electrolysis chamber, where it is electrolyzed and sterilized by electrodes. The ion concentration in the electrolysis chamber is monitored by an ion detector. Subsequently, the water level in the measuring chamber begins to drop, causing the float rod to rotate clockwise, which in turn causes the upper rotating rod and sector plate to rotate clockwise. When the sector plate just reaches the desired position... At the start of operation, the spring between the upper and lower rotating rods returns to its original position, and the switch plate does not move. Then, the upper rotating rod pulls the lower rotating rod, thereby raising the switch plate. When the switch plate reaches the magnetic attraction range of the stand, the magnet on the stand quickly attracts the switch plate, causing the switch plate to seal the sterilization port. Since the switch plate is quickly attracted to the magnet on the stand, and the spring between the upper and lower rotating rods has now returned to its original position, the rapid movement of the switch plate will drive the upper and lower rotating rods to rise rapidly. At this time, the sector plate rotates rapidly, and the opening slot quickly passes through the outflow hole, preventing a large amount of water from flowing out of the electrolysis chamber. The float returns to its original position. When the water level in the chamber rises again during the next measurement, the float rises again, thereby driving the float rod, rotating shaft, lifting rod, and sector plate to rotate counterclockwise. After the sector plate rotates a short distance, the opening slot and the outflow hole begin to align, and the disinfected water in the electrolysis chamber is discharged into the outlet chamber, and this process repeats.

[0015] A sterilization method for an electrolytic water sterilization device includes the following steps: (1) water enters the inlet chamber; (2) water enters the adsorption chamber and impurities are adsorbed by activated carbon rods; (3) water enters the measuring chamber and the water flow rate is counted; (4) water flow accumulates and enters the electrolysis chamber; (5) water is electrolyzed and sterilized in the electrolysis chamber (1014); (6) water enters the outlet chamber for storage and use.

[0016] The beneficial effects of this invention compared with the prior art are: (1) The box set in this invention is composed of an inlet chamber, an adsorption chamber, a measuring chamber, an electrolysis chamber and an outlet chamber, so that water is adsorbed and then electrolyzed and sterilized in large quantities, and provides sufficient time for electrolysis and sterilization, thereby improving the electrolysis and sterilization effect; (2) When there is a large amount of water in the outlet chamber set in this invention, external water will enter the inlet chamber and be temporarily stored there. After the water in the outlet chamber is used, the water sterilization will begin, preventing the water from staying in the device for too long; (3) After the water level in the measuring chamber set in this invention rises, the disinfectant water in the electrolysis chamber is discharged, and the water in the measuring chamber enters the electrolysis chamber for electrolysis and sterilization, so that the water drainage and water intake process of the electrolysis chamber is carried out automatically, with a high degree of automation. Attached Figure Description

[0017] Figure 1 This is a schematic diagram of the overall structure of the present invention.

[0018] Figure 2 This is a schematic diagram of the overall structure of the present invention (internal).

[0019] Figure 3 This is a schematic diagram of the main structure of the present invention. Figure 1 .

[0020] Figure 4 This is a schematic diagram of the main structure of the present invention. Figure 2 .

[0021] Figure 5 This is a schematic diagram of the main structure of the present invention. Figure 3 .

[0022] Figure 6 This is a schematic diagram of the filtration mechanism of the present invention.

[0023] Figure 7 This is a schematic diagram of the sterilization mechanism of the present invention. Figure 1 .

[0024] Figure 8 This is a schematic diagram of the sterilization mechanism of the present invention. Figure 2 .

[0025] Figure 9 This is a schematic diagram of the sterilization mechanism of the present invention. Figure 3 .

[0026] Figure 10 This is a schematic diagram of the sterilization mechanism of the present invention. Figure 4 .

[0027] Reference numerals: 101-Box body; 102-Water inlet pipe; 103-Upper shell; 104-Outer rotating rod; 105-Front magnetic block; 106-Rear magnetic block; 107-Front suction block; 108-Front vertical rail; 109-Rear vertical rail; 110-Rear suction block; 111-Water pump; 112-Water inlet hole; 1011-Water inlet chamber; 1012-Adsorption chamber; 1013-Measuring chamber; 1014-Electrolysis chamber; 1015-Water outlet chamber; 201-Adsorption rack ; 202-Activated carbon rod; 203-Water inlet hole; 204-Rotator; 205-Flow sensor; 301-Electrolysis frame; 302-Electrode; 303-Ion detector; 304-Float rod; 305-Rotating shaft; 306-Lifting rod; 307-Upper rotating rod; 308-Lower rotating rod; 309-Upright frame; 310-Switch plate; 311-Sterilization port; 312-Fan-shaped plate; 313-Opening groove; 314-Outlet hole; 315-Float ball. Detailed Implementation

[0028] The specific embodiments of the present invention will be further described below with reference to the accompanying drawings.

[0029] Example: Reference Figures 1-10 An electrolytic water sterilization device includes a main body for water inlet and outlet. The main body includes a housing 101 and is equipped with a filtration mechanism for filtering water and a sterilization mechanism for electrolyzing and sterilizing water.

[0030] The housing 101 consists of an inlet chamber 1011, an adsorption chamber 1012, a measuring chamber 1013, an electrolysis chamber 1014, and an outlet chamber 1015.

[0031] like Figures 3-5 As shown, the main structure includes an upper shell 103 and a water intake pipe 102 fixedly installed on the housing 101. A water pump 111 is fixedly installed on the water intake pipe 102. The water pump 111 is located in the water outlet chamber 1015, and the external water inlet pipe is connected to the water inlet chamber 1011.

[0032] like Figures 3-5 As shown, an outer rotating rod 104 is rotatably mounted on the housing 101. A front magnetic block 105 and a rear magnetic block 106 are fixedly mounted on the outer rotating rod 104. The weight of the rear magnetic block 106 is greater than that of the front magnetic block 105. A front vertical rail 108 is fixedly mounted in the water inlet chamber 1011, and a rear vertical rail 109 is fixedly mounted in the water outlet chamber 1015. A front suction block 107 is slidably mounted on the front vertical rail 108, and a rear suction block 110 is slidably mounted on the rear vertical rail 109. The front magnetic block 105 is attracted to the front suction block 107, and the rear suction block 110 is attracted to the rear magnetic block 106. A water inlet hole 112 is provided on the partition between the water inlet chamber 1011 and the suction chamber 1012.

[0033] Water enters the inlet chamber 1011 from the outside. As water enters, the pressure inside the inlet chamber 1011 increases. When the water level in the outlet chamber 1015 is low, the weight of the rear magnetic block 106 is greater than the weight of the front magnetic block 105, which causes the outer rotating rod 104 to rotate and the front magnetic block 105 to rise. This causes the front suction block 107 to slide upward along the front vertical rail 108, so that the front suction block 107 no longer blocks the inlet hole 112. The water in the inlet chamber 1011 enters the adsorption chamber 1012 through the inlet hole 112. The disinfected water in the outlet chamber 1015 can be taken out for use through the water pump 111 and the water intake pipe 102.

[0034] like Figure 6 As shown, the filtration mechanism includes an adsorption frame 201 placed in the adsorption chamber 1012, several activated carbon rods 202 are arranged below the adsorption frame 201, and a water inlet 203 is provided on the partition between the adsorption chamber 1012 and the measuring chamber 1013. The adsorption frame 201 is detachable.

[0035] like Figure 6 As shown, a flow module is provided in the measuring chamber 1013. The flow module includes a rotating wheel 204 rotatably installed in the measuring chamber 1013. A flow sensor 205 is fixedly installed on the partition between the measuring chamber 1013 and the electrolysis chamber 1014. The rotating wheel 204 drives the flow sensor 205 to rotate through belt drive.

[0036] When the water inlet 112 is opened, water is squeezed from the water inlet chamber 1011 into the adsorption chamber 1012. The activated carbon rod 202 adsorbs impurities in the water. Then, the water enters the rotating wheel 204 through the water outlet 203. The water flow drives the rotating wheel 204 to rotate, which in turn drives the flow sensor 205 to rotate through the belt drive, recording the flow rate. The water then enters the measurement chamber 1013.

[0037] like Figures 7-10 As shown, the sterilization mechanism includes an electrolysis frame 301 placed in the electrolysis chamber 1014. An electrode 302 and an ion detector 303 are fixedly installed below the electrolysis frame 301. The electrolysis frame 301 is detachable.

[0038] like Figures 7-10 As shown, a sterilization port 311 is provided on the partition between the measuring chamber 1013 and the electrolysis chamber 1014, and an outflow hole 314 is provided on the partition between the electrolysis chamber 1014 and the water outlet chamber 1015.

[0039] like Figures 7-10As shown, a float rod 304 is rotatably mounted inside the measuring chamber 1013. A rotating shaft 305 is fixedly mounted on the float rod 304. The rotating shaft 305 is rotatably mounted to the electrolysis chamber 1014. A lifting rod 306 and a float ball 315 are fixedly mounted on the float rod 304. An upper rotating rod 307 is rotatably mounted on the lifting rod 306. A lower rotating rod 308 is slidably mounted on the upper rotating rod 307. A spring is provided between the upper rotating rod 307 and the lower rotating rod 308. A support frame 309 is fixedly mounted inside the measuring chamber 1013. A magnet is provided on the top of the frame 309. A switch plate 310 is slidably installed on the stand 309. The switch plate 310 is rotatably installed with the lower rotating rod 308. A sector plate 312 is fixedly installed on the rotating shaft 305. An opening slot 313 is provided on the sector plate 312. When the switch plate 310 is misaligned with the sterilization port 311, water enters the electrolysis chamber 1014 from the measuring chamber 1013. When the opening slot 313 is located at the outlet hole 314, water enters the outlet chamber 1015 from the electrolysis chamber 1014.

[0040] As water enters the measuring chamber 1013, the water level rises, causing the float 315 to rise. This, in turn, causes the float rod 304, rotating shaft 305, lifting rod 306, and sector plate 312 to rotate counterclockwise. After the sector plate 312 rotates a short distance, the opening slot 313 aligns with the outlet hole 314, and the disinfected water in the electrolysis chamber 1014 flows into the outlet chamber 1015. At this time, the switch plate 310 is attracted by the magnet at the top of the stand 309, and the switch plate 310 does not move temporarily. The spring between the upper rotating rod 307 and the lower rotating rod 308 is compressed, and the sterilization port 311 remains closed. As the buoyancy rod 304 continues to rotate, the opening slot 313 and the outlet hole 314 are misaligned. The upper rotating rod 307 begins to push the lower rotating rod 308 and the switch plate 310 downwards, causing the switch plate 310 to move away from the sterilization port 311. Water in the measuring chamber 1013 enters the electrolysis chamber 1014, where it is electrolyzed and sterilized by the electrode 302. The ion concentration in the electrolysis chamber 1014 is monitored by the ion detector 303. Subsequently, the water level in the measuring chamber 1013 begins to drop, causing the buoyancy rod 304 to rotate clockwise, thereby driving the upper rotating rod 307 and the sector plate 312 to rotate clockwise. When 312 first starts rotating, the spring between the upper rotating rod 307 and the lower rotating rod 308 returns to its original position, and the switch plate 310 does not move. Then, the upper rotating rod 307 begins to pull the lower rotating rod 308, thereby pulling the switch plate 310 upwards. When the switch plate 310 reaches the attraction range of the magnet on the support frame 309, the magnet on the support frame 309 quickly attracts the switch plate 310, causing the switch plate 310 to seal the sterilization port 311. Because the switch plate 310 is quickly attracted to the magnet on the support frame 309, and the spring between the upper rotating rod 307 and the lower rotating rod 308 has already returned to its original position, the switch plate 310... The rapid motion will cause the upper rotating rod 307 and the lower rotating rod 308 to rise rapidly. At this time, the sector plate 312 will rotate rapidly, and the opening groove 313 will quickly pass through the outlet hole 314. The water in the electrolysis chamber 1014 will not flow out in large quantities, and the float ball 315 will reset. When the water level in the measuring chamber 1013 rises again, the float ball 315 will rise again, thereby driving the float rotating rod 304, the rotating shaft 305, the lifting rod 306 and the sector plate 312 to rotate counterclockwise. After the sector plate 312 rotates a short distance, the opening groove 313 and the outlet hole 314 will begin to align. The disinfected water in the electrolysis chamber 1014 will be discharged into the outlet chamber 1015, and this process will repeat.

[0041] A sterilization method for an electrolytic water sterilization device includes the following steps: (1) water enters the inlet chamber 1011; (2) water enters the adsorption chamber 1012 and is adsorbed by activated carbon rods; (3) water enters the measuring chamber 1013 and the water flow rate is counted; (4) after the water flow accumulates, it enters the electrolysis chamber 1014; (5) water is electrolyzed and sterilized in the electrolysis chamber 1014; (6) water enters the outlet chamber 1015 for storage and use.

[0042] The working principle of the electrolytic water sterilization device disclosed in this invention is as follows: Water enters the inlet chamber 1011 from the outside. As the water enters, the pressure inside the inlet chamber 1011 increases. When the water level in the outlet chamber 1015 is low, the weight of the rear magnetic block 106 is greater than the weight of the front magnetic block 105, which causes the outer rotating rod 104 to rotate and the front magnetic block 105 to rise. This causes the front suction block 107 to slide upward along the front vertical rail 108, so that the front suction block 107 no longer blocks the inlet hole 112. The water in the inlet chamber 1011 enters the adsorption chamber 1012 through the inlet hole 112. The disinfected water in the outlet chamber 1015 can be taken out for use through the water pump 111 and the water intake pipe 102. When the water inlet 112 is opened, water is squeezed from the water inlet chamber 1011 into the adsorption chamber 1012. The activated carbon rod 202 adsorbs impurities in the water. Then, the water enters the impeller 204 through the water outlet 203. The water flow drives the impeller 204 to rotate. The flow sensor 205 monitors the rotation speed of the impeller 204 and records the flow rate. The water then enters the measurement chamber 1013.As the water level in the measuring chamber 1013 rises, the float 315 rises, causing the float rod 304, rotating shaft 305, lifting rod 306, and sector plate 312 to rotate counterclockwise. After the sector plate 312 rotates a short distance, the opening slot 313 aligns with the outlet hole 314, and the disinfected water in the electrolysis chamber 1014 flows into the outlet chamber 1015. At this time, the switch plate 310 is attracted by the magnet at the top of the stand 309, and the switch plate 310 does not move temporarily. The spring between the upper rotating rod 307 and the lower rotating rod 308 is compressed, and the sterilization port 311 remains closed. As the float rod 304 continues to rotate... The opening slot 313 is offset from the outlet hole 314. The upper rotating rod 307 begins to push the lower rotating rod 308 and the switch plate 310 down, causing the switch plate 310 to move away from the sterilization port 311. Water in the measuring chamber 1013 enters the electrolysis chamber 1014. Electrolysis sterilization is performed on the water in the electrolysis chamber 1014 through the electrode 302. The ion concentration in the electrolysis chamber 1014 is monitored by the ion detector 303. Subsequently, the water level in the measuring chamber 1013 begins to drop, causing the float rotating rod 304 to start rotating clockwise, thereby driving the upper rotating rod 307 and the sector plate 312 to rotate clockwise. The sector plate 312 just begins to rotate. When the switch plate 310 moves, the spring between the upper rotating rod 307 and the lower rotating rod 308 returns to its original position. At this time, the switch plate 310 does not move. Then, the upper rotating rod 307 starts to pull the lower rotating rod 308, thereby pulling the switch plate 310 upward. When the switch plate 310 reaches the attraction range of the magnet on the support frame 309, the magnet on the support frame 309 quickly attracts the switch plate 310, causing the switch plate 310 to close the sterilization port 311. Since the switch plate 310 is quickly attracted to the magnet on the support frame 309, and the spring between the upper rotating rod 307 and the lower rotating rod 308 has already returned to its original position, the rapid movement of the switch plate 310 at this time... This will cause the upper rotating rod 307 and the lower rotating rod 308 to rise rapidly. At this time, the sector plate 312 will rotate rapidly, and the opening groove 313 will quickly pass through the outlet hole 314. The water in the electrolysis chamber 1014 will not flow out in large quantities, and the float ball 315 will reset. When the water level in the measuring chamber 1013 rises again, the float ball 315 will rise again, thereby driving the float rotating rod 304, the rotating shaft 305, the lifting rod 306 and the sector plate 312 to rotate counterclockwise. After the sector plate 312 rotates a short distance, the opening groove 313 and the outlet hole 314 will begin to align, and the disinfected water in the electrolysis chamber 1014 will be discharged into the outlet chamber 1015, and this process will repeat.

[0043] The above description is only a preferred embodiment of the present invention, but the scope of protection of the present invention is not limited thereto. Any equivalent substitutions or modifications made by those skilled in the art within the scope of the present invention based on the technical solution and inventive concept of the present invention should be covered within the scope of protection of the present invention.

Claims

1. An electrolytic water sterilization device, comprising a main body for water inlet and outlet, characterized in that: The main body includes a housing (101), which is equipped with a filtration mechanism for filtering water and a sterilization mechanism for electrolyzing and sterilizing water; the housing (101) consists of an inlet chamber (1011), an adsorption chamber (1012), a measuring chamber (1013), an electrolysis chamber (1014), and an outlet chamber (1015); The main structure includes an upper shell (103) and a water intake pipe (102) fixedly installed on the housing (101). A water pump (111) is fixedly installed on the water intake pipe (102). The water pump (111) is located in the water outlet chamber (1015). An external water inlet pipe is connected to the water inlet chamber (1011). A flow module is provided inside the measuring chamber (1013). The flow module includes a rotating wheel (204) rotatably installed inside the measuring chamber (1013). A flow sensor (205) is fixedly installed on the partition between the measuring chamber (1013) and the electrolysis chamber (1014). The rotation speed of the rotating wheel (204) is monitored by the flow sensor (205). The sterilization mechanism includes an electrolysis frame (301) placed inside the electrolysis chamber (1014). Electrodes (302) and an ion detector (303) are fixedly installed below the electrolysis frame (301). The electrolysis frame (301) is detachable. A sterilization port (311) is provided on the partition between the measuring chamber (1013) and the electrolysis chamber (1014). An outlet hole (314) is provided on the partition between the electrolysis chamber (1014) and the water outlet chamber (1015). A float rod (304) is rotatably installed inside the measuring chamber (1013). A rotating shaft (305) is fixedly installed on the float rod (304). The rotating shaft (305) is rotatably installed with the electrolysis chamber (1014). A lifting rod (306) and a float ball (315) are fixedly installed on the float rod (304). An upper rotating rod (307) is rotatably installed on the lifting rod (306). A lower rotating rod (308) is slidably mounted on the upper rotating rod (307). A spring is provided between the upper rotating rod (307) and the lower rotating rod (308). A stand (309) is fixedly mounted inside the measuring chamber (1013). A magnet is provided on the top of the stand (309). A switch plate (310) is slidably mounted on the stand (309). The switch plate (310) is rotatably mounted with the lower rotating rod (308). A fan-shaped plate (312) is fixedly mounted on the rotating shaft (305). An opening slot (313) is provided on the fan-shaped plate (312). When the switch plate (310) is misaligned with the sterilization port (311), water enters the electrolysis chamber (1014) from the measuring chamber (1013). When the opening slot (313) is located at the outlet hole (314), water enters the outlet chamber (1015) from the electrolysis chamber (1014).

2. The electrolytic water sterilization device according to claim 1, characterized in that: An outer rotating rod (104) is rotatably mounted on the housing (101). A front magnetic block (105) and a rear magnetic block (106) are fixedly mounted on the outer rotating rod (104). The weight of the rear magnetic block (106) is greater than that of the front magnetic block (105). A front vertical rail (108) is fixedly mounted in the water inlet chamber (1011). A rear vertical rail (109) is fixedly mounted in the water outlet chamber (1015). A front suction block (107) is slidably mounted on the front vertical rail (108). A rear suction block (110) is slidably mounted on the rear vertical rail (109). The front magnetic block (105) is attracted to the front suction block (107), and the rear suction block (110) is attracted to the rear magnetic block (106). A water inlet hole (112) is provided on the partition between the water inlet chamber (1011) and the adsorption chamber (1012).

3. The electrolytic water sterilization device according to claim 1, characterized in that: The filtration mechanism includes an adsorption rack (201) placed in the adsorption chamber (1012), an activated carbon rod (202) is provided below the adsorption rack (201), a water inlet (203) is provided on the partition between the adsorption chamber (1012) and the measuring chamber (1013), and the adsorption rack (201) is detachable.

4. The sterilization method of the electrolytic water sterilization device according to claim 1, characterized in that: The process includes the following steps: (1) Water enters the inlet chamber (1011); (2) Water enters the adsorption chamber (1012) and is adsorbed by activated carbon rods; (3) Water enters the measuring chamber (1013) and the flow rate of the water is counted; (4) After the water flow accumulates, it enters the electrolysis chamber (1014); (5) Water is electrolyzed and sterilized in the electrolysis chamber (1014); (6) Water enters the outlet chamber (1015) for storage and use.

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