A new multifunctional ozone water and ozone gas supply system

Abstract

The application discloses and provides a new multifunctional ozone water and ozone gas supply system which is highly integrated and can realize flexible and efficient ozone water and ozone gas in different use scenarios. The application comprises a water outlet pipe, a water-gas mixing tee joint, a control module and an ozone generation module. The ozone generation module comprises an ozone generation pipeline, electrodes and a discharge power supply control unit. The air inlet end of the ozone generation pipeline is in communication with the outside air. The air outlet end of the ozone generation pipeline is provided with a plurality of air outlets. The air outlet end of the ozone generation pipeline is only in communication with the plurality of air outlets. The application further comprises a plurality of gas conveying pipes corresponding to the plurality of air outlets one by one. The air inlet end of each gas conveying pipe is in communication with an air outlet. A gas pump and an electromagnetic valve are arranged on each gas conveying pipe. The electromagnetic valve is located between the gas pump and the air outlet. The discharge power supply control unit, the gas pump and the electromagnetic valve are electrically connected with the control module. The application is applied to the technical field of ozone water and ozone gas supply systems.

Description

Technical Field

[0001] This invention relates to an ozone water and ozone gas supply system, and particularly to a novel multifunctional ozone water and ozone gas supply system. Background Technology

[0002] With the continuous improvement of people's living standards and increasing emphasis on health and hygiene, ozone, due to its strong oxidizing properties and broad-spectrum, highly efficient bactericidal, disinfecting, deodorizing, and pesticide residue degradation characteristics, is being increasingly widely used in households, businesses, and public health sectors. Traditional ozone application equipment is typically single-function; for example, a standalone ozone water generator is used to produce ozone water for cleaning and disinfection, or a standalone ozone air purifier is used for space deodorization. This type of separate system suffers from problems such as dispersed equipment, space occupation, complex installation, high cost, and inconvenient control.

[0003] Especially in home settings, user demand for ozone applications is becoming increasingly diversified and integrated. For example, in the bathroom, ozone water may be needed for handwashing and showering, while ozone gas may be needed for deodorizing the space; in the kitchen, ozone water is needed for washing fruits and vegetables, as well as for deodorizing the refrigerator and cabinets. Current technologies lack an integrated solution that can flexibly and centrally meet the needs of multiple scenarios and types of ozone applications.

[0004] Furthermore, the safety, convenience, and intelligent control of existing ozone supply systems need improvement. For example, preventing water backflow, ensuring sufficient gas supply to the ozone generator, and achieving stable supply under multi-output conditions are all aspects that require further refinement in current technology. Additionally, current multi-output ozone systems cannot guarantee stable gas supply to each output under different pressure conditions; for instance, pipelines under high-pressure conditions cannot guarantee stable gas supply.

[0005] Therefore, the market urgently needs to develop a new type of multifunctional ozone water and ozone gas supply system that is highly integrated, feature-rich, safe and reliable. Summary of the Invention

[0006] The technical problem to be solved by the present invention is to overcome the shortcomings of the prior art and provide a new type of multifunctional ozone water and ozone oxygen supply system that is highly integrated, can achieve flexible, efficient, safe, stable and sufficient supply of ozone water and ozone oxygen in different usage scenarios, and can improve the user experience.

[0007] The technical solution adopted in this invention is as follows: This invention includes a water outlet pipe, a water-air mixing tee, a control module, and an ozone generating module; the water-air mixing tee includes a water-air mixing pipe and an air inlet connected to the water-air mixing pipe, the water-air mixing pipe of the water-air mixing tee is connected in series on the water outlet pipe, the ozone generating module includes an ozone generating pipeline, multiple electrodes disposed in the ozone generating pipeline, and a discharge power supply control unit electrically connected to the electrodes, the air inlet of the ozone generating pipeline is connected to the outside air, and the air outlet of the ozone generating pipeline is provided with several air outlets, the ozone generating pipeline... The gas end is connected to only a number of the gas outlets; the novel multifunctional ozone water and ozone gas supply system also includes gas supply pipes corresponding one-to-one with the number of gas outlets, the gas inlet end of the gas supply pipe is connected to the gas outlet, and each gas supply pipe is equipped with a gas pump and a solenoid valve, the solenoid valve being located between the gas pump and the gas outlet; the discharge power control unit, the gas pump, and the solenoid valve are all electrically connected to the control module; one end of the water outlet pipe is connected to a tap water source, and the other end of the water outlet pipe is connected to a faucet; one of the gas supply pipes is located between the gas inlet and one of the gas outlets.

[0008] Furthermore, the novel multifunctional ozone water and ozone gas supply system also includes a flow sensor electrically connected to the control module, the flow sensor being installed on the outlet pipe; when the flow sensor detects water flow in the outlet pipe, the flow sensor sends a water flow signal to the control module, and the control module opens the air pump and the solenoid valve between the air inlet and the air outlet according to the water flow signal.

[0009] Furthermore, the novel multifunctional ozone water and ozone gas supply system also includes an electric heater electrically connected to the control module, and the electric heater is installed on the water outlet pipe.

[0010] Furthermore, the novel multifunctional ozone water and ozone oxygen supply system also includes an oxygen sensor electrically connected to the control module.

[0011] Furthermore, the novel multifunctional ozone water and ozone oxygen supply system also includes a negative ion generator electrically connected to the control module.

[0012] Furthermore, the novel multifunctional ozone water and ozone gas supply system also includes a first humidity sensor electrically connected to the control module.

[0013] Furthermore, a one-way valve is provided at the air inlet; a water collection tank is also provided on the air supply pipe between the air inlet and one of the air outlets. The water collection tank is provided with an upper water inlet and a lower water inlet that are connected to the interior. The upper water inlet is located above the lower water inlet. The water collection tank is connected in series on the air supply pipe between the air inlet and one of the air outlets through the upper water inlet and the lower water inlet. The water collection tank is located between the one-way valve and the air pump. A second humidity sensor electrically connected to the control module is provided on the upper water inlet.

[0014] Furthermore, the novel multifunctional ozone water and ozone gas supply system also includes a wireless signal transceiver module electrically connected to the control module; the novel multifunctional ozone water and ozone gas supply system also includes a remote control wirelessly connected to the wireless signal transceiver module, the remote control being able to independently control the switching of each of the air pumps and each of the solenoid valves; the remote control is also equipped with a buzzer.

[0015] Furthermore, the novel multifunctional ozone water and ozone gas supply system also includes a power module electrically connected to the control module.

[0016] A novel multifunctional ozone water and ozone gas supply system includes an ozone water and ozone gas module. The ozone water and ozone gas module includes a water-gas mixing tee, a control module, and an ozone generating module. The water-gas mixing tee includes a water-gas mixing pipe and an air inlet connected to the water-gas mixing pipe. The ozone generating module includes an ozone generating pipeline, multiple electrodes disposed within the ozone generating pipeline, and a discharge power supply control unit electrically connected to the electrodes. The air inlet of the ozone generating pipeline is connected to the outside air, and the air outlet of the ozone generating pipeline is provided with several air outlets. The outlet of the oxygen generating pipeline is connected to only a number of the aforementioned outlets; the novel multifunctional ozone water and ozone oxygen supply system also includes gas supply pipes corresponding one-to-one with the aforementioned outlets, the inlet of the gas supply pipe is connected to the outlet, and each gas supply pipe is equipped with a gas pump and a solenoid valve, the solenoid valve being located between the gas pump and the outlet; the discharge power control unit, the gas pump, and the solenoid valve are all electrically connected to the control module; one of the gas supply pipes is located between the inlet and one of the outlets, and a one-way valve is also provided at the inlet;

[0017] The novel multifunctional ozone water and ozone gas supply system further includes a pull-out faucet, which comprises a faucet body, a sleeve, a hose, a valve body, and a water outlet. The lower end of the sleeve is mounted on the faucet body, and the faucet body has a through hole communicating with the sleeve. The upper end of the hose passes through the through hole and then sequentially through the through hole and the sleeve. The upper end of the hose exits from the upper end of the sleeve and connects to the water outlet. The lower end of the hose communicates with the water outlet of the valve body, and the valve body also has at least one water inlet. The ozone water and ozone gas module is located below the faucet body on the hose... On the pipe, the water-air mixing pipe of the water-air mixing tee is connected in series on the flexible hose; one water inlet end of the valve body is connected to the tap water pipe; a water collection tank is also provided on the air supply pipe between the air inlet and one of the air outlets, the water collection tank is provided with an upper water inlet and a lower water inlet connected to the inside, the upper water inlet is located above the lower water inlet, the water collection tank is connected in series on the air supply pipe between the air inlet and one of the air outlets through the upper water inlet and the lower water inlet, and the water collection tank is located between the one-way valve and the air pump, and a second humidity sensor electrically connected to the control module is provided on the upper water inlet. Attached Figure Description

[0018] Figure 1 This is a structural schematic diagram of Embodiment 1 of the present invention;

[0019] Figure 2 This is a schematic diagram of the ozone generating module;

[0020] Figure 3 This is a simplified diagram of Embodiment 2 of the present invention;

[0021] Figure 4 This is a schematic diagram of the structure of Embodiment 2 of the present invention;

[0022] Figure 5 This is a schematic diagram of the structure of Embodiment 3 of the present invention. Detailed Implementation

[0023] Example 1

[0024] like Figure 1 and Figure 2As shown, in this embodiment, the present invention includes a water outlet pipe 1, a water-air mixing tee 2, a control module 3, and an ozone generating module 4. The water-air mixing tee 2 includes a water-air mixing pipe and an air inlet 5 connected to the water-air mixing pipe. The water-air mixing pipe of the water-air mixing tee 2 is connected in series with the water outlet pipe 1. The ozone generating module 4 includes an ozone generating pipeline 6, multiple electrodes 7 disposed within the ozone generating pipeline 6, and a discharge power control unit 8 electrically connected to the electrodes 7. The air inlet of the ozone generating pipeline 6 is connected to the outside air, and the air outlet of the ozone generating pipeline 6 is provided with four air outlets 9. The air outlet of the ozone generating pipeline 6 is connected to only four air outlets 9. The air outlet 9 is connected; the novel multifunctional ozone water and ozone gas supply system also includes air supply pipes 10 corresponding to the four air outlets 9 one by one. The air inlet end of the air supply pipe 10 is connected to the air outlet 9. Each air supply pipe 10 is equipped with an air pump M and a solenoid valve Y. The solenoid valve Y is located between the air pump M and the air outlet 9. The discharge power control unit 8, the air pump M, and the solenoid valve Y are all electrically connected to the control module 3. One end of the water outlet pipe 1 is connected to the tap water source 11, and the other end of the water outlet pipe 1 is connected to the faucet 12. One of the air supply pipes 10 is located between the air inlet 5 and one of the air outlets 9. In this embodiment, multiple independent outputs are adapted to multiple scenarios. That is, multiple air outlets 9 of the ozone generating pipeline 6 are matched with corresponding air supply pipes 10 to simultaneously output multiple independent ozone. One channel is connected to the air inlet 5 of the water-gas mixing tee 2 to prepare ozone water, and the other channels can directly output gaseous ozone, realizing multiple uses of one machine. Each of the gas supply pipes 10 is equipped with an air pump M, which can output different gas pressures for each pipe. Simultaneously, the ozone generating module 4 can adjust the ozone generation rate as needed. In this embodiment, the air pump M is positioned between the solenoid valve Y and the gas outlet 9, preventing water from the water outlet pipe 1 from flowing back into the electrode 7 area of ​​the ozone generating module 4, significantly reducing the probability of equipment damage and enabling independent control of the gas supply for each pipe. The control module 3 can link the discharge power control unit 8, the air pump M, and the solenoid valve Y to independently adjust the ozone supply for each path, matching the concentration requirements of different usage scenarios as needed, resulting in lower energy consumption. The gas outlet of the ozone generating pipeline 6 is only connected to the gas outlet 9, with no additional exposed interfaces, reducing the risk of ozone leakage from the source and significantly improving the stability of equipment operation. The water-air mixing tee 2 is directly connected in series between the existing water source 11 and the faucet 12 in the original water outlet pipe 1, requiring no major modifications to the original water system, making installation easy and suitable for most conventional water supply scenarios.

[0025] In this embodiment, the novel multifunctional ozone water and ozone gas supply system further includes a flow sensor 13 electrically connected to the control module 3. The flow sensor 13 is installed on the water outlet pipe 1. When the flow sensor 13 detects water flow in the water outlet pipe 1, it sends a water flow signal to the control module 3. The control module 3 then opens the air pump M and the solenoid valve Y between the air inlet 5 and the air outlet 9 based on the water flow signal. In this embodiment, the flow sensor 13 monitors the water flow status of the water outlet pipe 1 in real time. Only when water flow is detected is the corresponding air pump M and solenoid valve Y automatically triggered by the control module 3. When there is no water flow, the system automatically goes into standby mode, avoiding prolonged idling of the ozone generating module 4 and wasting energy. After the water flow signal is triggered, the ozone supply path can be opened instantly, so that ozone water is dispensed immediately from the tap 12 without additional manual operation, fully adapting to normal water usage habits and providing a smoother user experience. When there is no water flow, the ozone injection path into the water system is automatically cut off, preventing excessive ozone accumulation in the outlet pipe 1 and avoiding abnormal pipeline pressure, thus significantly improving system operational safety. Through precise signal linkage from the flow sensor 13, core components of the ozone generation module 4, such as the electrode 7 and the air pump M, operate only under actual water usage conditions, greatly reducing inactive operation time and significantly extending the overall lifespan of the equipment. Full-process automatic control can be achieved solely through the flow sensor 13 on the outlet pipe 1, eliminating the need for additional complex detection components. This simplifies the system structure, reduces potential failure points, and lowers the difficulty of daily maintenance.

[0026] In this embodiment, the novel multifunctional ozone water and ozone gas supply system further includes an electric heater 14 electrically connected to the control module 3, and the electric heater 14 is disposed on the water outlet pipe 1. In this embodiment, the electric heater 14 disposed on the water outlet pipe 1 can precisely regulate the water flow temperature. By linking the electric heater 14 with the control module 3, warm ozone water can be output as needed to meet the usage needs of daily cleaning, tableware disinfection and other scenarios, without the need for additional external heating equipment, and the system's functions cover a wider range of scenarios.

[0027] In this embodiment, a one-way valve 15 is provided at the air inlet 5. The one-way valve 15 completely prevents the high-pressure water flow in the outlet pipe 1 from flowing back into the gas supply pipe 10, avoiding water from entering the electrodes 7, air pump M, and other components of the ozone generating module 4, thus preventing short circuit damage to core electrical components from water. The one-way valve 15 only allows ozone to flow unidirectionally from the gas supply pipe 10 into the water-air mixing tee 2, preventing ozone backflow, maintaining stable gas pressure, and allowing ozone to be continuously and efficiently injected into the water flow, improving the ozone water preparation efficiency and preventing water in the outlet pipe 1 from flowing back into the ozone generating pipeline 6. The one-way valve 15 does not require an external power supply and can work automatically based solely on the fluid pressure difference, unaffected by power failures. It has a simple structure, extremely low failure rate, and requires almost no additional maintenance, significantly improving the operational stability of the entire system. The seal of the one-way valve 15 can be made of ozone-resistant fluororubber or other materials to resist the strong oxidizing effect of ozone, and will not experience seal failure even after long-term use, adapting to the special operating environment of the ozone system.

[0028] In this embodiment, the novel multifunctional ozone water and ozone oxygen supply system also includes an oxygen sensor OS electrically connected to the control module 3. Relying on the oxygen sensor OS electrically connected to the control module 3, the indoor oxygen concentration can be monitored in real time. When the oxygen content is lower than the safety threshold, the system automatically triggers an alarm, promptly reminding the user to improve on-site ventilation and avoid prolonged exposure to a low-oxygen environment that could cause oxygen deficiency and discomfort, thus comprehensively protecting the health and safety of operators.

[0029] In this embodiment, the novel multifunctional ozone water and ozone gas supply system also includes a negative ion generator (ION) electrically connected to the control module 3. The negative ion generator (ION) can be switched on and off and its operating time set via a remote control (RE). Users can control the start and stop of the negative ion generator (ION) via the remote control (RE), eliminating the need for close-range manual operation, resulting in fresher indoor air and a smoother user experience. The remote control (RE) supports custom settings for the operating time of the negative ion generator (ION), allowing for timed operation at different levels such as 15 minutes, 30 minutes, and 60 minutes, and multiple cyclical on / off periods can also be set, eliminating the need for repeated manual operation and adapting to the usage needs of different scenarios such as daily home and office use. The timer command from the remote control (RE) is synchronously transmitted to the control module 3, enabling precise control of the operating time of the negative ion generator (ION), preventing the device from running idle for extended periods, ensuring air purification effects while significantly reducing unnecessary power consumption and extending the service life of core components.

[0030] In this embodiment, the novel multifunctional ozone water and ozone gas supply system further includes a first humidity sensor (HE) electrically connected to the control module 3. In this embodiment, the addition of the first humidity sensor (HE) linked to the control module 3 allows for real-time detection of abnormal ambient humidity. In the event of a burst water pipe or tap water leakage, the first humidity sensor (HE) can quickly detect sudden humidity changes, triggering an alarm and immediately alerting the user to troubleshoot the problem, thus preventing flooding and property damage.

[0031] In this embodiment, the novel multifunctional ozone water and ozone gas supply system further includes a wireless signal transceiver module (TRX) electrically connected to the control module 3; the system also includes a remote controller (RE) wirelessly connected to the TRX, which can independently control the on / off switching of each of the air pumps M and solenoid valves Y. In this embodiment, the remote controller RE, through the TRX, can individually start and stop the air pumps M and solenoid valves Y corresponding to each gas supply pipe 10, eliminating the need for manual operation on the device itself. It allows for flexible opening of designated gas paths as needed, adapting to the differentiated gas usage needs of different locations. Relying on the long-distance transmission capability of the TRX, operators can remotely control the equipment from any location throughout the house without needing to be near the installation point, making it particularly suitable for multi-room, large-space applications, significantly reducing the operational threshold. The remote controller RE can individually shut down the air pumps M and solenoid valves Y of idle gas paths without shutting down the entire machine, avoiding continuous idling of non-working gas paths and wasting energy, while also reducing the operating time of idle components and extending the overall service life of the equipment. For commercial scenarios with multiple workstations and multiple water points, the ozone supply for different gas paths can be flexibly allocated via the remote control RE. For example, one path can be turned on to prepare ozone water while another path outputs gaseous ozone for disinfection. One machine can meet multiple independent operation needs at the same time, greatly improving the system's adaptability.

[0032] In this embodiment, the remote controller RE is also equipped with a buzzer H. The first humidity sensor HE, which is linked to the control module 3, can detect abnormal humidity in the surrounding environment in real time. Once a water pipe bursts or tap water leaks, the first humidity sensor HE can quickly capture the humidity change signal, and the buzzer H of the remote controller RE can sound an alarm.

[0033] In this embodiment, the novel multifunctional ozone water and ozone gas supply system further includes a power module P electrically connected to the control module 3. The power module P can output multiple stable voltages compatible with the ozone generating module 4, control module 3, various sensors, and air pump M, avoiding voltage fluctuations when different power components share a power supply link. This ensures the continuous and stable ozone discharge process of electrode 7, preventing significant deviations in ozone production concentration. The power module P supports wide voltage input and can operate normally in scenarios with large fluctuations in mains voltage, preventing equipment shutdown due to voltage instability, and adapting to different regions and power supply conditions.

[0034] Example 2

[0035] like Figure 3 and Figure 4 As shown in this embodiment, a novel multifunctional ozone water and ozone gas supply system of the present invention includes an ozone water and ozone gas module a7. The ozone water and ozone gas module a7 includes a water-gas mixing tee 2, a control module 3, and an ozone generating module 4. The water-gas mixing tee 2 includes a water-gas mixing pipe and an air inlet 5 connected to the water-gas mixing pipe. The ozone generating module 4 includes an ozone generating pipeline 6, multiple electrodes 7 disposed within the ozone generating pipeline 6, and a discharge power control unit 8 electrically connected to the electrodes 7. The air inlet of the ozone generating pipeline 6 is connected to the outside air, and the air outlet of the ozone generating pipeline 6 is provided with a plurality of air outlets 9. The outlet end of the ozone generating pipeline 6 is connected to only a number of the outlet ports 9; the novel multifunctional ozone water and ozone oxygen supply system also includes a gas supply pipe 10 corresponding to each of the outlet ports 9, the inlet end of the gas supply pipe 10 is connected to the outlet port 9, and each gas supply pipe 10 is equipped with a gas pump M and a solenoid valve Y, the solenoid valve Y being located between the gas pump M and the outlet port 9; the discharge power control unit 8, the gas pump M, and the solenoid valve Y are all electrically connected to the control module 3; one of the gas supply pipes 10 is located between the inlet port 5 and one of the outlet ports 9, and a one-way valve 15 is also provided at the inlet port 5.

[0036] The novel multifunctional ozone water and ozone gas supply system further includes a pull-out faucet a, which comprises a faucet body a1, a sleeve a2, a hose a3, a valve body a4, and a water outlet a5. The lower end of the sleeve a2 is mounted on the faucet body a1. The faucet body a1 has a through hole a6 communicating with the sleeve a2. The upper end of the hose a3 passes through the through hole a6 and then through the through hole a6 and the sleeve a2. The upper end of the hose a3 exits from the upper end of the sleeve a2 and connects to the water outlet a5. The lower end of the hose a3 is connected to the water outlet of the valve body a4. The valve body a4 also has at least one water inlet a15. The ozone water and ozone gas module a7 is mounted on the hose a3 below the faucet body a1. The water-air mixing pipe of the water-air mixing tee 2 is connected in series on the hose a3. One water inlet a15 of the valve body a4 is connected to a tap water pipe. The air inlet 5 is connected to one of the... A water collection tank 16 is also provided on the air supply pipe 10 between the air outlets 9. The water collection tank 16 is provided with an inlet 17 and a outlet 18 that are connected to the inside. The inlet 17 is located above the outlet 18. The water collection tank 16 is connected in series with the air supply pipe 10 between the air inlet 5 and one of the air outlets 9 through the inlet 17 and the outlet 18. The water collection tank 16 is located between the one-way valve 15 and the air pump M. Since the one-way valve can only be effectively closed under a certain reverse pressure, after the work is completed, the tap water remaining in the faucet pull hose will leak back because there is not enough reverse pressure for the one-way valve to be effectively closed. The water collection tank stores the backflowed tap water. When the user uses it again, the tap water stored in the water collection tank will be pushed back to the faucet pull hose by the ozone gas, avoiding damage to the ozone module by the backflowed tap water. The water collection tank effectively ensures the safety, reliability and stability of the system.

[0037] In this embodiment, the water-air mixing tee 2 is directly connected in series with the flexible hose a3 of the pull-out faucet a, without requiring significant modifications to the existing water circuit. The inlet a15 of the valve body a4 can be directly connected to the tap water pipe, adapting to most conventional kitchen scenarios and making installation easy. The outlet a5 of the pull-out faucet a can be flexibly pulled out via the flexible hose a3, allowing ozone water to cover any corner of the sink or countertop without moving the items to be cleaned, greatly improving the convenience of food cleaning and space disinfection. The one-way valve 15 can initially block the backflow of water into the air circuit. Even if the seal is oxidized and causes tap water leakage, the backflow water will be collected by the water collection tank 16 located between it and the air pump M, preventing water from directly damaging the air pump M, electrode 7, and other core components. At the same time, the second humidity sensor HE1 at the water inlet 17 can monitor the water inlet status in the water collection tank 16 in real time. Once abnormal water inlet is detected, a signal is immediately sent to the control module 3, triggering the air pump M to stop, the solenoid valve Y to close, and a warning is issued simultaneously, forming a closed-loop safety protection. The water collection tank 16 can also serve as a gas path buffer chamber, allowing ozone to be briefly pressurized within the chamber before being injected into the water-gas mixing tee 2. This prevents the airflow from the air pump M from directly impacting the water flow, improving the uniformity of ozone dissolution in the water and resulting in a more stable ozone water concentration. Multiple air outlets 9 of the ozone generating pipeline 6, paired with corresponding gas delivery pipes 10, allow independent control of each air pump M and solenoid valve Y. While preparing ozone water, the remaining gas paths can independently output gaseous ozone, allowing a single unit to meet the needs of multiple scenarios simultaneously.

[0038] Example 3

[0039] The difference between this embodiment and Embodiment 1 is that: Figure 5 As shown, in this embodiment, a water collection tank 16 is also provided on the air supply pipe 10 between the air inlet 5 and one of the air outlets 9. The water collection tank 16 is provided with an upper water inlet 17 and a lower water inlet 18 that are connected to the interior. The upper water inlet 17 is located above the lower water inlet 18. The water collection tank 16 is connected in series with the air supply pipe 10 between the air inlet 5 and one of the air outlets 9 through the upper water inlet 17 and the lower water inlet 18. The water collection tank 16 is located between the one-way valve 15 and the air pump M. A second humidity sensor HE1 electrically connected to the control module 3 is provided on the upper water inlet 17. The second humidity sensor HE1 at the upper water inlet 17 can monitor the water inlet status in the water collection tank 16 in real time. When the leakage of the one-way valve 15 is not serious, the leaked water can be collected in the water collection tank 16, and the one-way valve 15 can continue to be used. Once abnormal water ingress is detected, the second humidity sensor HE1 sends a signal to the control module 3, and the control module 3 controls the buzzer H to sound an alarm, reminding the user to replace the one-way valve 15, which greatly extends the service life of the one-way valve 15 and saves the user's operating costs.

[0040] In embodiments one to three, the gas supply pipe 10 of this invention can be used in spaces such as bathrooms and kitchens. For example:

[0041] bathroom

[0042] Connect the ozone generator to the inlet pipe of the face wash faucet and install a heater.

[0043] Connect the ozone generator to the shower faucet to produce ozone water.

[0044] Connect ozone to a spray gun to produce ozone water.

[0045] Connect ozone to a bathtub to create ozone water.

[0046] Connect ozone to the smart toilet's inlet pipe to produce ozone water or a smart toilet seat.

[0047] Introduce ozone into the bathroom cabinet or the bottom of the bathtub, or into the shower room. Set the working time with a remote control to deodorize with ozone, or deodorize the entire bathroom.

[0048] kitchen

[0049] Connect the ozone generator to the kitchen water inlet pipe, install a heater, and produce ozone water.

[0050] Connect ozone to the refrigerator to deodorize it.

[0051] Connect ozone to the bottom or inside of the cabinet for deodorization.

[0052] Connect ozone to the kitchen wall to deodorize the entire kitchen.

[0053] Connect ozone to the sink panel to reduce pesticide residues.

[0054] Although the embodiments of the present invention are described with reference to actual solutions, they do not constitute a limitation on the meaning of the present invention. Modifications to the embodiments and combinations with other solutions based on this specification will be obvious to those skilled in the art.

Claims

1. A novel multifunctional ozone water and ozone gas supply system, comprising a water outlet pipe (1), a water-air mixing tee (2), a control module (3), and an ozone generating module (4); the water-air mixing tee (2) comprises a water-air mixing pipe and an air inlet (5) connected to the water-air mixing pipe, wherein the water-air mixing pipe of the water-air mixing tee (2) is connected in series with the water outlet pipe (1), characterized in that: The ozone generating module (4) includes an ozone generating pipeline (6), multiple electrodes (7) disposed within the ozone generating pipeline (6), and a discharge power control unit (8) electrically connected to the electrodes (7). The air inlet of the ozone generating pipeline (6) is connected to the outside air, and the air outlet of the ozone generating pipeline (6) is provided with several air outlets (9). The air outlet of the ozone generating pipeline (6) is only connected to several air outlets (9). The novel multifunctional ozone water and ozone gas supply system also includes a gas transmission pipe (10) corresponding one-to-one with several air outlets (9). The air inlet of the air pipe (10) is connected to the air outlet (9). Each air pipe (10) is equipped with an air pump (M) and a solenoid valve (Y). The solenoid valve (Y) is located between the air pump (M) and the air outlet (9). The discharge power control unit (8), the air pump (M), and the solenoid valve (Y) are all electrically connected to the control module (3). One end of the water outlet pipe (1) is connected to the tap water source (11), and the other end of the water outlet pipe (1) is connected to the faucet (12). One of the air pipes (10) is located between the air inlet (5) and one of the air outlets (9).

2. The novel multifunctional ozone water and ozone gas supply system according to claim 1, characterized in that: The novel multifunctional ozone water and ozone gas supply system also includes a flow sensor (13) electrically connected to the control module (3). The flow sensor (13) is installed on the water outlet pipe (1). When the flow sensor (13) detects water flow in the water outlet pipe (1), the flow sensor (13) sends a water flow signal to the control module (3). The control module (3) opens the air pump (M) and the solenoid valve (Y) between the air inlet (5) and the air outlet (9) according to the water flow signal.

3. The novel multifunctional ozone water and ozone gas supply system according to claim 1, characterized in that: The novel multifunctional ozone water and ozone oxygen supply system also includes an electric heater (14) electrically connected to the control module (3), and the electric heater (14) is installed on the water outlet pipe (1).

4. The novel multifunctional ozone water and ozone gas supply system according to claim 1, characterized in that: The novel multifunctional ozone water and ozone oxygen supply system also includes an oxygen sensor (OS) electrically connected to the control module (3).

5. A novel multifunctional ozone water and ozone gas supply system according to claim 1, characterized in that: The novel multifunctional ozone water and ozone oxygen supply system also includes a negative ion generator (ION) electrically connected to the control module (3).

6. The novel multifunctional ozone water and ozone gas supply system according to claim 1, characterized in that: The novel multifunctional ozone water and ozone oxygen supply system also includes a first humidity sensor (HE) electrically connected to the control module (3).

7. The novel multifunctional ozone water and ozone gas supply system according to claim 1, characterized in that: A one-way valve (15) is provided at the air inlet (5); a water collection tank (16) is also provided on the air supply pipe (10) between the air inlet (5) and one of the air outlets (9). The water collection tank (16) is provided with an upper water inlet (17) and a lower water inlet (18) that are connected to the interior. The upper water inlet (17) is located above the lower water inlet (18). The water collection tank (16) is connected in series with the air supply pipe (10) between the air inlet (5) and one of the air outlets (9) through the upper water inlet (17) and the lower water inlet (18). The water collection tank (16) is located between the one-way valve (15) and the air pump (M). A second humidity sensor (HE1) that is electrically connected to the control module (3) is provided on the upper water inlet (17).

8. A novel multifunctional ozone water and ozone gas supply system according to claim 1, characterized in that: The novel multifunctional ozone water and ozone oxygen supply system also includes a wireless signal transceiver module (TRX) electrically connected to the control module (3); the novel multifunctional ozone water and ozone oxygen supply system also includes a remote controller (RE) wirelessly connected to the wireless signal transceiver module (TRX), the remote controller (RE) can independently control the switching of each of the air pumps (M) and each of the solenoid valves (Y); the remote controller (RE) is also equipped with a buzzer (H).

9. A novel multifunctional ozone water and ozone gas supply system according to claim 1, characterized in that: The novel multifunctional ozone water and ozone oxygen supply system also includes a power supply module (P) electrically connected to the control module (3).

10. A novel multifunctional ozone water and ozone gas supply system, comprising an ozone water and ozone gas module (a7), wherein the ozone water and ozone gas module (a7) comprises a water-gas mixing tee (2), a control module (3), and an ozone generating module (4); the water-gas mixing tee (2) comprises a water-gas mixing pipe and an air inlet (5) connected to the water-gas mixing pipe, characterized in that: The ozone generating module (4) includes an ozone generating pipeline (6), multiple electrodes (7) disposed within the ozone generating pipeline (6), and a discharge power control unit (8) electrically connected to the electrodes (7). The air inlet of the ozone generating pipeline (6) is connected to the outside air, and the air outlet of the ozone generating pipeline (6) is provided with several air outlets (9). The air outlet of the ozone generating pipeline (6) is only connected to several air outlets (9). The novel multifunctional ozone water and ozone gas supply system also includes a system corresponding one-to-one with several air outlets (9). A gas supply pipe (10) is provided, with its inlet end connected to the outlet (9). Each gas supply pipe (10) is equipped with a gas pump (M) and a solenoid valve (Y), with the solenoid valve (Y) located between the gas pump (M) and the outlet (9). The discharge power control unit (8), the gas pump (M), and the solenoid valve (Y) are all electrically connected to the control module (3). One of the gas supply pipes (10) is located between the inlet (5) and one of the outlets (9), and a one-way valve (15) is also provided at the inlet (5). The novel multifunctional ozone water and ozone gas supply system further includes a pull-out faucet (a), which comprises a faucet body (a1), a sleeve (a2), a hose (a3), a valve body (a4), and a water outlet (a5). The lower end of the sleeve (a2) is mounted on the faucet body (a1). The faucet body (a1) has a through hole (a6) communicating with the sleeve (a2). The upper end of the hose (a3) ​​passes through the through hole (a6) and then sequentially through the through hole (a6) and the sleeve (a2). The upper end of the hose (a3) ​​exits from the upper end of the sleeve (a2) and connects to the water outlet (a5). The lower end of the hose (a3) ​​communicates with the water outlet of the valve body (a4). The valve body (a4) also has at least one water inlet (a15). The ozone water and ozone gas module (a7) The water-air mixing pipe of the water-air mixing tee (2) is connected in series on the hose (a3) ​​below the faucet body (a1); one inlet end (a15) of the valve body (a4) is connected to the tap water pipe; a water collection tank (16) is also provided on the air supply pipe (10) between the air inlet (5) and one of the air outlets (9), and the water collection tank (16) is provided with an upper water inlet (17) and a lower water outlet (18) connected to the interior. The upper water inlet (17) is located above the lower water outlet (18). The water collection tank (16) is connected in series on the air supply pipe (10) between the air inlet (5) and one of the air outlets (9) through the upper water inlet (17) and the lower water outlet (18), and the water collection tank (16) is located between the one-way valve (15) and the air pump (M).

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