Pipe-type water disinfection system

Abstract

The utility model discloses a pipeline formula water disinfection system belongs to ozone water disinfection technical field, will inlet pipe intercommunication water supply equipment, will outlet pipe intercommunication water equipment, make water through inlet pipe and multiple water inlet end into multiple parallel electrolytic module, and electrolytic module makes strong oxidizing disinfectant solution in water, and disinfectant solution is transported to outlet pipe from the water outlet of multiple electrolytic module, and finally the disinfectant solution that discharges from outlet pipe can be used for fruit and vegetable disinfection and remove pesticide residues, tableware cleaning, spray disinfection water, clothes disinfection, fish tank water supplementing etc.

Description

Technical Field

[0001] This utility model relates to the field of ozone water disinfection technology, and in particular to a pipeline water disinfection system. Background Technology

[0002] Tap water supplied by waterworks is used for daily household use and agricultural production. Households use tap water to wash fruits, vegetables, tableware, and clothing, while agriculture uses it for irrigation. Currently, existing technologies use water electrolysis for sterilization and purification. This process utilizes electrolysis to produce a highly oxidizing solution in the water, which effectively kills bacteria. Therefore, water electrolysis can be applied to both household use and agricultural production. However, existing electrolysis modules have a short lifespan, making them unsuitable for long-term use. Utility Model Content

[0003] The present invention aims to solve at least one of the technical problems existing in the prior art. To this end, the present invention proposes a pipeline-type water disinfection system.

[0004] The pipeline water disinfection system according to an embodiment of the present invention includes: The shell has an internal cavity; A water inlet pipe is provided in the housing, and the water inlet pipe is used to connect to the water supply equipment; A water outlet pipe is provided in the housing, and the water outlet pipe is used to connect water-using equipment; Multiple electrolysis modules are provided, all of which are detachably disposed in the inner cavity. All of the electrolysis modules are connected in parallel between the water inlet pipe and the water outlet pipe. Each electrolysis module is provided with a water inlet end and a water outlet end. The water inlet end is detachably connected to the water inlet pipe, and the water outlet end is detachably connected to the water outlet pipe.

[0005] The pipeline water disinfection system according to this utility model embodiment has at least the following beneficial effects: The inlet pipe is connected to the water supply equipment, and the outlet pipe is connected to the water-using equipment, allowing water to enter multiple parallel electrolysis modules through the inlet pipe and multiple inlet ends. All electrolysis modules are activated, generating a highly oxidizing disinfectant solution in the water. The disinfectant solution is transported from the outlet ends of the multiple electrolysis modules to the outlet pipe. Finally, the disinfectant solution discharged from the outlet pipe can be used for disinfecting fruits and vegetables to remove pesticide residues, cleaning tableware, spraying disinfectant, disinfecting clothing, and replenishing water in fish tanks. When the disinfection function is not needed, all electrolysis modules are turned off, allowing the water in the inlet pipe to flow directly to the outlet pipe, which helps to slow down the rate at which the electrolysis modules reach the end of their service life. When a certain electrolysis module reaches the end of its service life, the inlet end of that electrolysis module can be disconnected from the inlet pipe, and the outlet end can be disconnected from the outlet pipe. The remaining electrolysis modules can continue to operate normally, and users can also replace the electrolysis modules that have reached the end of their service life themselves.

[0006] According to some embodiments of the present invention, the pipeline water disinfection system further includes: A flow sensor is disposed between all the electrolysis modules and the inlet pipe, and the flow sensor measures the liquid flow rate from the inlet pipe to all the electrolysis modules; Indicator lights, equipped with multiple light sources; The controller is configured to control the number of times the light source of the indicator light illuminates to be proportional to the liquid flow rate.

[0007] According to some embodiments of the present invention, each of the light sources includes a red LED bead, and the controller is further configured to: count the running time of all the electrolysis modules, and when the running time of any one of the electrolysis modules is greater than or equal to a preset lifespan, control all the light sources to light up the red LED bead.

[0008] According to some embodiments of the present invention, the pipeline water disinfection system further includes: An RFID reader is located in the inner cavity, and the reading range of the RFID reader covers all the installation positions of the electrolysis module. The RFID reader is electrically connected to the controller. Multiple RFID tags, with each electrolysis module having one of the RFID tags; When the electrolysis module is installed in the inner cavity, the RFID reader reads the RFID tag corresponding to the electrolysis module and counts the running time of the electrolysis module. The RFID tag sends the recorded running time to the controller.

[0009] According to some embodiments of the present invention, each of the light sources further includes green LEDs and yellow LEDs, and the controller is further configured to: When the running time of all the electrolysis modules is less than the preset time, and the preset time is less than the preset lifespan, control all the light sources to light up the green LED beads. When the operating time of any one of the electrolysis modules exceeds the preset duration but is less than the preset lifespan, all the light sources are controlled to illuminate the yellow LED beads.

[0010] According to some embodiments of the present invention, the pipeline water disinfection system further includes: A switch is used to control the start or stop of all the electrolysis modules, and the indicator light is located on the periphery of the switch.

[0011] According to some embodiments of the present invention, the pipeline water disinfection system further includes: A guide pipe connects the inlet pipe and the outlet pipe; A solenoid valve is provided in the conductive pipe, and the solenoid valve controls the opening and closing of the conductive pipe.

[0012] According to some embodiments of the present invention, the solenoid valve is normally open when closed.

[0013] According to some embodiments of the present invention, the pipeline water disinfection system further includes: Multiple position sensors are arranged one-to-one with each of the multiple electrolysis modules, and the position sensors are used to detect whether the corresponding electrolysis module is installed in place.

[0014] According to some embodiments of this utility model, the water supply device is a tap water supply pipe, and the water use device is a faucet; Alternatively, the water supply equipment may be an irrigation water supply device, and the water-using equipment may be a sprinkler system. Attached Figure Description

[0015] Figure 1 This is a schematic diagram of the structure of a pipeline water disinfection system according to an embodiment of the present invention.

[0016] Reference numerals: housing 10, inner cavity 11, inlet pipe 100, outlet pipe 200, guide pipe 300, solenoid valve 400, electrolysis module 500, inlet end 510, outlet end 520, flow sensor 600, indicator light 700, light source 710, controller 800, power supply 810, switch 820, position sensor 900. Detailed Implementation

[0017] The embodiments of this utility model are described in detail below. Examples of these embodiments are shown in the accompanying drawings, wherein the same or similar reference numerals denote the same or similar elements or elements having the same or similar functions throughout. The embodiments described below with reference to the accompanying drawings are exemplary and are only used to explain this utility model, and should not be construed as limiting this utility model.

[0018] In the description of this utility model, it should be understood that the terms front, back, up, down, axial, circumferential, etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings. They are only for the convenience of describing this utility model and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on this utility model.

[0019] In the description of this utility model, "multiple" means two or more; "greater than," "less than," and "exceeding" are understood to exclude the stated number; "above," "below," and "within" are understood to include the stated number. The use of "first" and "second" in the description is merely for distinguishing technical features and should not be construed as indicating or implying relative importance, or implicitly specifying the number of indicated technical features or their sequential relationship.

[0020] In the description of this utility model, it should be noted that terms such as "setting," "installing," and "connecting" should be interpreted broadly, and those skilled in the art can reasonably determine the specific meaning of the above terms in this utility model in conjunction with the specific content of the technical solution.

[0021] The technical solution of this utility model will be clearly and completely described below with reference to the accompanying drawings. Obviously, the embodiments described below are some embodiments of this utility model, not all embodiments.

[0022] Reference Figure 1 As shown, this utility model provides a pipeline water disinfection system.

[0023] The pipeline water disinfection system includes a housing 10, an inlet pipe 100, an outlet pipe 200, multiple electrolysis modules 500, a flow sensor 600, an indicator light 700, a controller 800, multiple position sensors 900, an RFID reader, and multiple RFID tags.

[0024] The housing 10 has an inner cavity 11. The water inlet pipe 100 and the water outlet pipe 200 are disposed on the housing 10 and extend into the inner cavity 11. Multiple electrolysis modules 500, flow sensors 600, RFID readers, controllers 800 and multiple position sensors 900 are disposed in the inner cavity 11.

[0025] Multiple electrolysis modules 500 are evenly distributed in the inner cavity 11. Each electrolysis module 500 is provided with an electrolysis cell, a positive electrode and a negative electrode. The positive electrode and the negative electrode are arranged alternately in the electrolysis cell. Each electrolysis cell of the electrolysis module 500 is provided with a water inlet end 510 and a water outlet end 520. The water in the electrolysis cell is electrolyzed by the current generated between the positive electrode and the negative electrode.

[0026] The inlet 510 of all electrolysis modules 500 is connected to the inlet pipe 100, and the outlet 520 of all electrolysis modules 500 is connected to the outlet pipe 200. Therefore, all electrolysis modules 500 are connected in parallel. A flow sensor 600 is installed in the inlet pipe 100 to measure the flow rate of water entering the multiple electrolysis modules 500.

[0027] The flow sensor 600 measures the water flow rate entering the multiple electrolysis modules 500 through the inlet pipe 100. Since the power of each electrolysis module 500 is fixed, the greater the water flow rate entering through the inlet pipe 100, the lower the concentration of the disinfectant solution produced by all electrolysis modules 500; the smaller the water flow rate entering through the inlet pipe 100, the higher the concentration of the disinfectant solution produced by all electrolysis modules 500.

[0028] Each electrolysis module 500 is detachably installed in the inner cavity 11 of the housing 10. For example, multiple screw holes are provided on the side wall of the inner cavity 11, and multiple screws are used to lock the multiple electrolysis modules 500 into the multiple screw holes one by one. Alternatively, multiple snap-fit ​​slots are provided on the side wall of the inner cavity 11, and each electrolysis module 500 is provided with a snap-fit, which is used to engage with the snap-fit ​​slots to snap the multiple electrolysis modules 500 into the multiple snap-fit ​​slots one by one. Alternatively, multiple mounting slots are provided on the bottom wall of the inner cavity 11, and the shape of the mounting slots matches the shape of the electrolysis modules 500, and the multiple electrolysis modules 500 are installed into the multiple mounting slots one by one.

[0029] The water inlet pipe 100 is connected to the first multi-port pipe, which is provided with multiple first interfaces. The water inlet ends 510 of the multiple electrolysis modules 500 are detachably connected to the multiple first interfaces. In this embodiment, the first interfaces and the water inlet ends 510 are set as quick-connect interfaces and quick-connect connectors, so that the water inlet ends 510 and the first interfaces can be easily disassembled when disassembling the electrolysis modules 500, and the unused first interfaces are kept closed.

[0030] The outlet pipe 200 is connected to the second multi-port pipe, which is provided with multiple second interfaces. The outlet ends 520 of the multiple electrolysis modules 500 are detachably connected to the multiple second interfaces. In this embodiment, the second interfaces and the outlet ends 520 are set as quick-connect interfaces and quick-connect connectors, so as to facilitate the disassembly of the outlet ends 520 and the second interfaces when disassembling the electrolysis modules 500, and to keep the empty second interfaces closed.

[0031] A position sensor 900 is installed next to the installation position of each electrolysis module 500. The position sensor 900 is used to detect whether the adjacent electrolysis module 500 is installed in place.

[0032] The controller 800 is electrically connected to the position sensor 900. When the position sensor 900 detects that the adjacent electrolysis module 500 is installed in place, the position sensor 900 sends an electrical signal to the controller 800.

[0033] When an electrolysis module 500 is removed from the inner cavity 11, if the position sensor 900 does not detect the presence of an electrolysis module 500 in an adjacent location, the position sensor 900 stops sending electrical signals to the controller 800, and the controller can then recognize that the electrolysis module 500 at that location has been removed.

[0034] An RFID reader is installed in the inner cavity 11 and is electrically connected to the controller 800. Each electrolytic module 500 is equipped with an RFID tag. When the RFID tag enters the reading range of the radio frequency signal emitted by the RFID reader, the passive RFID tag uses the energy obtained by the induced current to send out the product information stored in the chip, while the active RFID tag can directly send a signal of a certain frequency to interact with the RFID reader. After the RFID reader reads and decodes the information, it sends it to the controller 800 for relevant processing.

[0035] After the electrolysis module 500 is installed into the inner cavity 11, the position sensor 900 detects that the electrolysis module 500 is installed in place. The position sensor 900 sends an electrical signal to the controller 800. Upon receiving the electrical signal, the controller 800 activates the RFID reader to read the RFID tag of the corresponding electrolysis module 500. The RFID reader begins to count the running time of the electrolysis module 500 and sends it to the controller 800 for storage. This allows the controller 800 to count the running time of all electrolysis modules 500, monitor whether all electrolysis modules 500 have reached their service life, and remind the user to replace the failed electrolysis module 500 in a timely manner.

[0036] After the electrolysis module 500 is removed from the inner cavity 11 and the RFID tag is removed from the reading range of the RFID reader, the RFID reader clears the information of the RFID tag. After another electrolysis module 500 is reinstalled into the inner cavity 11 and the corresponding RFID tag enters the reading range of the RFID reader, the RFID reader rereads the RFID tag of the electrolysis module 500 and re-counts the running time of the electrolysis module 500.

[0037] In some embodiments, the pipeline water disinfection system further includes a guide pipe 300 and a solenoid valve 400.

[0038] The inlet pipe 100 is a tee pipe with an inlet, a first outlet, and a second outlet. The outlet pipe 200 is a tee pipe with an outlet, a first inlet, and a second inlet. The inlets and outlets are located on the side wall of the housing 10. The inlet on the side wall of the housing 10 is connected to the water supply equipment, and the outlet on the side wall of the housing 10 is connected to the water use equipment. The connecting pipe 300 connects the first outlet of the inlet pipe 100 and the first inlet of the outlet pipe 200.

[0039] Solenoid valve 400 is installed in the guide pipe 300. Solenoid valve 400 is a normally open valve. When solenoid valve 400 is closed, it is in the conducting state. Water from the water supply equipment enters from the inlet, passes through the first outlet, the guide pipe 300 and the first inlet, and flows to the outlet pipe 200. Water flows from the outlet of the outlet pipe 200 to the water-using equipment.

[0040] After solenoid valve 400 is started, it closes the conductor pipe 300.

[0041] The inlet 510 of all electrolysis modules 500 is connected to the second outlet of the inlet pipe 100, and the outlet 520 of all electrolysis modules 500 is connected to the second inlet of the outlet pipe 200. Therefore, all electrolysis modules 500 are connected in parallel. A flow sensor 600 is installed at the second outlet of the inlet pipe 100 to measure the flow rate of water entering the multiple electrolysis modules 500.

[0042] With the guide pipe 300 and solenoid valve 400 installed, water flows directly from the inlet pipe 100 to the outlet pipe 200 through the guide pipe 300 when all electrolysis modules 500 are closed, without passing through the electrolysis module 500, thus accelerating the flow of water from the outlet pipe 200 to the water-using equipment.

[0043] Indicator light 700 and switch 820 are located outside housing 10. Indicator light 700 and switch 820 are connected to controller 800 via wires. Switch 820 is used to start or stop controller 800, solenoid valve 400 and flow sensor 600. Switch 820 is a circular button. Indicator light 700 is ring-shaped and is arranged around switch 820. Indicator light 700 is provided with multiple light sources 710, which are arranged in a circular array around the axis of switch 820.

[0044] The switch 820 can be installed on the outer wall of the user's water-using equipment so that the user can press the switch 820 to start the pipeline water disinfection system before using the water-using equipment, and press the switch 820 to turn off the pipeline water disinfection system after use.

[0045] The flow sensor 600 converts the measured water flow into a flow electrical signal and sends it to the controller 800. The controller 800 divides the flow into multiple flow ranges arranged in ascending order of magnitude, namely the first flow range, the second flow range, the third flow range, and so on up to the nth flow range, based on the magnitude of the flow electrical signal. The number of n corresponds to the number of light sources 710 in the indicator light 700.

[0046] When the flow rate corresponding to the flow signal is within the first flow range, the controller 800 controls the indicator light 700 to illuminate n light sources 710; when the flow rate corresponding to the flow signal is within the second flow range, the controller 800 controls the indicator light 700 to illuminate n-1 light sources 710; when the flow rate corresponding to the flow signal is within the third flow range, the controller 800 controls the indicator light 700 to illuminate n-2 light sources 710; ... when the flow rate corresponding to the flow signal is within the nth flow range, the controller 800 controls the indicator light 700 to illuminate 1 light source 710.

[0047] The number of indicator lights 700 illuminating light source 710 can help users determine the concentration of the disinfectant solution produced by the pipeline water disinfection system. The more light sources 710 that are lit, the higher the concentration of the disinfectant solution.

[0048] Each light source 710 is equipped with red, yellow, and green LEDs.

[0049] The controller 800 counts the running time of all electrolysis modules 500, and the controller 800 has a built-in record of the preset lifespan of the electrolysis modules 500. The controller 800 compares the running time of each electrolysis module 500 with the preset lifespan. When the running time of any electrolysis module 500 reaches the preset lifespan, the controller 800 controls all the light sources 710 of the indicator lights 700 to light up the red LEDs.

[0050] Furthermore, the controller 800 has a built-in record of a preset duration, which is less than the preset lifespan. In this embodiment, the preset duration is 80% of the preset lifespan. The controller 800 compares the running time of each electrolysis module 500 with the preset duration. When the running time of all electrolysis modules 500 is less than the preset duration, the controller 800 controls all the light sources 710 of the indicator lights 700 to light up the green LEDs.

[0051] The controller 800 compares the running time of each electrolysis module 500 with the preset time. When the running time of any electrolysis module 500 is greater than or equal to the preset time, the controller 800 controls all the light sources 710 of the indicator lights 700 to light up the yellow LEDs.

[0052] The color of the light source 710 of the indicator light 700 can remind the user whether the electrolytic module 500 has reached the preset time or preset lifespan, reminding the user to replace the electrolytic module 500 that is about to fail or to replace the failed electrolytic module 500 in time.

[0053] Furthermore, the controller 800 can also be equipped with a display screen that shows the running time of all electrolysis modules 500, so that users can replace electrolysis modules 500 that have reached the preset lifespan.

[0054] The power supply 810 is installed on the housing 10 and is electrically connected to the controller 800. External power is supplied to the controller 800 through the power supply 810 via an external power cord. The controller 800 is equipped with a power supply module, which provides power to the switch 820, indicator light 700, all electrolysis modules 500, all position sensors 900, flow sensor 600, and solenoid valve 400.

[0055] Connect the inlet pipe 100 to the water supply equipment and the outlet pipe 200 to the water-using equipment. The solenoid valve 400 controls the closing of the guide pipe 300, allowing water to enter multiple parallel electrolysis modules 500 through the inlet pipe 100 and multiple inlet ends 510. The electrolysis modules 500 generate a highly oxidizing disinfectant solution in the water. The disinfectant solution is transported from the outlet ends 520 of the multiple electrolysis modules 500 to the outlet pipe 200. Finally, the disinfectant solution discharged from the outlet pipe 200 can be used for disinfecting fruits and vegetables to remove pesticide residues, cleaning tableware, spraying disinfectant, disinfecting clothes, and replenishing water in fish tanks.

[0056] When the disinfection function is not needed, the solenoid valve 400 controls the opening of the guide pipe 300, allowing the water in the inlet pipe 100 to flow directly to the outlet pipe 200, which helps to slow down the rate at which the electrolysis module 500 reaches the end of its service life.

[0057] When an electrolysis module 500 reaches the end of its service life, the water inlet 510 of the electrolysis module 500 can be disconnected from the water inlet pipe 100 and the water outlet 520 can be disconnected from the water outlet pipe 200. The remaining electrolysis modules 500 can operate normally. Users can also replace the electrolysis modules 500 that have reached the end of their service life themselves.

[0058] In some embodiments, the water supply equipment is a common household tap water supply pipe, and the water-using equipment is a faucet.

[0059] The housing 10 can be placed under the sink cabinet or integrated with the sink.

[0060] The inlet of the water inlet pipe 100 is connected to the tap water supply pipe via a flexible hose, and the outlet of the water outlet pipe 200 is connected to the faucet on the sink.

[0061] The power supply 810 connects to the socket inside the cabinet, providing AC 220V to 12VDC power.

[0062] Switch 820 and indicator light 700 are installed in the upper left or upper right corner of the sink (where the pre-drilled hole for the water purifier faucet is located).

[0063] In a pipeline water disinfection system, the startup logic of switch 820 is as follows.

[0064] After pressing switch 820, indicator light 700 will light up, and the pipeline water disinfection system will start working. Solenoid valve 400 will be energized and closed, and disinfection solution will flow out when the tap is turned on.

[0065] The indicator light 700 illuminates a corresponding number of light sources 710 according to the flow rate, thereby indicating to the user the current concentration of the disinfectant solution being dispensed: the lower the flow rate and the higher the concentration, the more light sources 710 are illuminated; the higher the flow rate and the lower the concentration, the fewer light sources 710 are illuminated.

[0066] It can also provide the application scenarios for corresponding concentrations: disinfection of fruits and vegetables to remove pesticide residues, cleaning of tableware, spraying disinfectant, disinfection of clothing, replenishing water in fish tanks, etc.

[0067] When switch 820 turns on the pipeline water disinfection system, it operates along with the faucet. The flow sensor 600 detects the inflow water flow. After the faucet is closed, if the flow signal sent by the flow sensor 600 to the controller 800 is lower than the preset minimum value, the indicator light 700 will flash for 10 seconds. If the faucet is turned on again within 10 seconds, and the flow signal sent by the flow sensor 600 to the controller 800 is greater than the preset minimum value, the pipeline water disinfection system will continue to output disinfectant solution. If, after the indicator light 700 flashes for 10 seconds, the flow signal sent by the flow sensor 600 to the controller 800 is still lower than the preset minimum value, the pipeline water disinfection system will shut down, the indicator light 700 will turn off, and the solenoid valve 400 will be de-energized and return to its normally open state.

[0068] When the pipeline water disinfection system is not turned on, indicator light 700 will be off, and turning on the faucet will turn on the tap water.

[0069] Indicator light 700 is a three-color indicator light, representing the operating time of electrolytic module 500. Green indicates normal use, orange indicates that the lifespan is about to expire and replacement is recommended, and red indicates that the lifespan has expired and timely replacement is necessary, otherwise the corresponding effect will not be achieved.

[0070] The electrolytic module has a service life of 500 hours. The replacement status is monitored by the position sensor 900. The controller 800 records the running time and accumulates it in the controller's storage unit. Each disassembly or reassembly triggers the position sensor to reset the running time to zero.

[0071] In some embodiments, the water supply equipment is an irrigation water supply device, and the water-using equipment is a sprinkler system.

[0072] The water source is disinfected by a pipeline water disinfection system. The spraying device sprays the disinfection solution onto the required area. The disinfection solution can be used for environmental disinfection and sterilization. After use, the disinfection solution is reduced to oxygen without any harmful residue.

[0073] The controller 800 can also be equipped with Bluetooth / Wi-Fi / 4G modules to enable intelligent and remote operation, and can be applied to agricultural sprinkler systems.

[0074] The embodiments of the present utility model have been described in detail above with reference to the accompanying drawings. However, the present utility model is not limited to the above embodiments. Within the knowledge possessed by those skilled in the art, various changes can be made without departing from the spirit of the present utility model.

Claims

1. A pipeline-type water disinfection system, characterized in that, include: The shell has an internal cavity; A water inlet pipe is provided in the housing, and the water inlet pipe is used to connect to the water supply equipment; A water outlet pipe is provided in the housing, and the water outlet pipe is used to connect water-using equipment; Multiple electrolysis modules are provided, all of which are detachably installed in the inner cavity. All of the electrolysis modules are connected in parallel between the water inlet pipe and the water outlet pipe. Each electrolysis module is provided with a water inlet end and a water outlet end. The water inlet end is detachably connected to the water inlet pipe, and the water outlet end is detachably connected to the water outlet pipe. A flow sensor is disposed between all the electrolysis modules and the inlet pipe, and the flow sensor measures the liquid flow rate from the inlet pipe to all the electrolysis modules; Indicator lights, equipped with multiple light sources; The controller is configured to control the number of times the light source of the indicator light illuminates to be proportional to the liquid flow rate; Each of the light sources includes a red LED bead, and the controller is further configured to: count the running time of all the electrolysis modules, and when the running time of any one of the electrolysis modules is greater than or equal to a preset lifespan, control all the light sources to light up the red LED bead; An RFID reader is located in the inner cavity, and the reading range of the RFID reader covers all the installation positions of the electrolysis module. The RFID reader is electrically connected to the controller. Multiple RFID tags, with each electrolysis module having one of the RFID tags; When the electrolysis module is installed in the inner cavity, the RFID reader reads the RFID tag corresponding to the electrolysis module and counts the running time of the electrolysis module. The RFID tag sends the recorded running time to the controller.

2. The pipeline water disinfection system according to claim 1, characterized in that, Each of the light sources also includes green and yellow LEDs, and the controller is further configured to: When the running time of all the electrolysis modules is less than the preset time, and the preset time is less than the preset lifespan, control all the light sources to light up the green LED beads. When the operating time of any one of the electrolysis modules exceeds the preset duration but is less than the preset lifespan, all the light sources are controlled to illuminate the yellow LED beads.

3. The pipeline water disinfection system according to claim 1, characterized in that, The pipeline water disinfection system also includes: A switch is used to control the start or stop of all the electrolysis modules, and the indicator light is located on the periphery of the switch.

4. The pipeline water disinfection system according to claim 1, characterized in that, The pipeline water disinfection system also includes: A guide pipe connects the inlet pipe and the outlet pipe; A solenoid valve is provided in the conductive pipe, and the solenoid valve controls the opening and closing of the conductive pipe.

5. The pipeline water disinfection system according to claim 4, characterized in that, The solenoid valve is normally open when closed.

6. The pipeline water disinfection system according to claim 1, characterized in that, The pipeline water disinfection system also includes: Multiple position sensors are arranged one-to-one with each of the multiple electrolysis modules, and the position sensors are used to detect whether the corresponding electrolysis module is installed in place.

7. The pipeline water disinfection system according to claim 1, characterized in that, The water supply equipment is a tap water supply pipe, and the water usage equipment is a faucet; Alternatively, the water supply equipment may be an irrigation water supply device, and the water-using equipment may be a sprinkler system.

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